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Other Parts Discussed in Thread: CC2564
您好！
我正在使用 TM4C29XNZAD 微控制器、因此我将 SPPLEDEMO 用作我的项目、现在我需要向平板电脑发送大约10字节的数据包。 您能不能告诉我、如何编写程序来发送10字节数据包和我希望通过某些应用程序传输到平板电脑的这10字节数据。 并告诉我发送10字节数据需要使用和调用哪个函数。 请帮我解决这个问题、我在这个问题上遇到了很多日子。 我正在等待您的快速回复。
谢谢
您好 Jansi、
您是否下载 了 TM4C Bluetopia 堆栈？ 它包含一个您可以测试的 SPPLEDemo。 可在 此处找到运行 SPPLEDemo 的说明。
最棒的
Jacob
您好、Jacob、
感谢您的回复。
我已经安装了 Bluetopia 栈、同时还提供了用户指南。 现在、我可以看到我的数据、但如果我连接 IBP 仿真器、则意味着我会收到一些垃圾数据。 您能告诉我们如何在代码中识别仿真器变量。我已经附加了代码、请帮助了解如何在 给定代码中查找仿真器变量。
/*
#include <stdio.h> Included for sscanf.
#include "Main.h" Application Interface Abstraction.
#include "SPPLEDemo.h" Application Header.
#include "SS1BTPS.h" Main SS1 BT Stack Header.
#include "SS1BTGAT.h" Main SS1 GATT Header.
#include "SS1BTGAP.h" Main SS1 GAP Service Header.
#include "BTPSKRNL.h" BTPS Kernel Header.
#include "inc/hw_memmap.h"
#include "inc/hw_types.h"
#include "driverlib/gpio.h"
#include "driverlib/i2c.h"
#include "driverlib/pin_map.h"
#include "driverlib/sysctl.h"
*/
//#include "driverlib/uart.h"
//#include "utils/uartstdio.h"
//#include <stdbool.h>
//#include <stdint.h>
//
//#include "CCSv5/IBP.h"
//static Byte_t String3[2];
//bool lock1=false;
//#define MAX_SUPPORTED_COMMANDS (64) /* Denotes the */
// /* maximum number of */
// /* User Commands that*/
// /* are supported by */
// /* this application. */
//
//#define MAX_NUM_OF_PARAMETERS (5) /* Denotes the max */
// /* number of */
// /* parameters a */
// /* command can have. */
//
//#define MAX_INQUIRY_RESULTS (20) /* Denotes the max */
// /* number of inquiry */
// /* results. */
//
//#define MAX_SUPPORTED_LINK_KEYS (1) /* Max supported Link*/
// /* keys. */
//
//#define MAX_LE_CONNECTIONS (2) /* Denotes the max */
// /* number of LE */
// /* connections that */
// /* are allowed at */
// /* the same time. */
//
//#define MAX_SIMULTANEOUS_SPP_PORTS (2) /* Maximum SPP Ports */
// /* that we support. */
//
//#define MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE (64) /* Maximum size of the*/
/* buffer used in */
/* loopback mode. */
//#define SPP_PERFORM_MASTER_ROLE_SWITCH (1) /* Defines if TRUE */
/* that a role switch */
/* should be performed*/
/* for all SPP */
/* connections. */
//#define DEFAULT_LE_IO_CAPABILITY (licNoInputNoOutput) /* Denotes the */
// /* default I/O */
// /* Capability that is*/
// /* used with LE */
// /* Pairing. */
//
//#define DEFAULT_LE_MITM_PROTECTION (TRUE) /* Denotes the */
// /* default value used*/
// /* for Man in the */
// /* Middle (MITM) */
// /* protection used */
// /* with LE Pairing. */
//
//#define DEFAULT_IO_CAPABILITY (icDisplayYesNo) /* Denotes the */
// /* default I/O */
// /* Capability that is*/
// /* used with Secure */
// /* Simple Pairing. */
//
//#define DEFAULT_MITM_PROTECTION (TRUE) /* Denotes the */
// /* default value used*/
// /* for Man in the */
// /* Middle (MITM) */
// /* protection used */
// /* with Secure Simple*/
// /* Pairing. */
//
//#define SPPLE_DATA_BUFFER_LENGTH (BTPS_CONFIGURATION_GATT_MAXIMUM_SUPPORTED_MTU_SIZE)
// /* Defines the length*/
// /* of a SPPLE Data */
// /* Buffer. */
//
//#define SPPLE_DATA_CREDITS (SPPLE_DATA_BUFFER_LENGTH*1) /* Defines the */
// /* number of credits */
// /* in an SPPLE Buffer*/
//
//#define NO_COMMAND_ERROR (-1) /* Denotes that no */
// /* command was */
// /* specified to the */
// /* parser. */
//
//#define INVALID_COMMAND_ERROR (-2) /* Denotes that the */
// /* Command does not */
// /* exist for */
// /* processing. */
//
//#define EXIT_CODE (-3) /* Denotes that the */
// /* Command specified */
// /* was the Exit */
// /* Command. */
//
//#define FUNCTION_ERROR (-4) /* Denotes that an */
// /* error occurred in */
// /* execution of the */
// /* Command Function. */
//
//#define TO_MANY_PARAMS (-5) /* Denotes that there*/
// /* are more */
// /* parameters then */
// /* will fit in the */
// /* UserCommand. */
//
//#define INVALID_PARAMETERS_ERROR (-6) /* Denotes that an */
// /* error occurred due*/
// /* to the fact that */
// /* one or more of the*/
// /* required */
// /* parameters were */
// /* invalid. */
//
//#define UNABLE_TO_INITIALIZE_STACK (-7) /* Denotes that an */
// /* error occurred */
// /* while Initializing*/
// /* the Bluetooth */
// /* Protocol Stack. */
//
//#define INVALID_STACK_ID_ERROR (-8) /* Denotes that an */
// /* occurred due to */
// /* attempted */
// /* execution of a */
// /* Command when a */
// /* Bluetooth Protocol*/
// /* Stack has not been*/
// /* opened. */
//
//#define UNABLE_TO_REGISTER_SERVER (-9) /* Denotes that an */
// /* error occurred */
// /* when trying to */
// /* create a Serial */
// /* Port Server. */
//
//#define EXIT_TEST_MODE (-10) /* Flags exit from */
// /* Test Mode. */
//
//#define EXIT_MODE (-11) /* Flags exit from */
// /* any Mode. */
//
// /* The following MACRO is used to convert an ASCII character into the*/
// /* equivalent decimal value. The MACRO converts lower case */
// /* characters to upper case before the conversion. */
//#define ToInt(_x) (((_x) > 0x39)?(((_x) & ~0x20)-0x37):((_x)-0x30))
//
// /* Determine the Name we will use for this compilation. */
//#define LE_DEMO_DEVICE_NAME "DEVICE"
//
// /* Following converts a Sniff Parameter in Milliseconds to frames. */
//#define MILLISECONDS_TO_BASEBAND_SLOTS(_x) ((_x) / (0.625))
//
// /* The following represent the possible values of UI_Mode variable. */
//#define UI_MODE_IS_CLIENT (2)
//#define UI_MODE_IS_SERVER (1)
//#define UI_MODE_SELECT (0)
//#define UI_MODE_IS_INVALID (-1)
//
//Byte_t String1[11]; //data packet. changed from 9 to 10
//
//
// /* The following type definition represents the container type which */
// /* holds the mapping between Bluetooth devices (based on the BD_ADDR)*/
// /* and the Link Key (BD_ADDR <-> Link Key Mapping). */
//typedef struct _tagLinkKeyInfo_t
//{
// BD_ADDR_t BD_ADDR;
// Link_Key_t LinkKey;
//} LinkKeyInfo_t;
//
// /* The following type definition represents the structure which holds*/
// /* all information about the parameter, in particular the parameter */
// /* as a string and the parameter as an unsigned int. */
//typedef struct _tagParameter_t
//{
// char *strParam;
// SDWord_t intParam;
//} Parameter_t;
//
// /* The following type definition represents the structure which holds*/
// /* a list of parameters that are to be associated with a command The */
// /* NumberofParameters variable holds the value of the number of */
// /* parameters in the list. */
//typedef struct _tagParameterList_t
//{
// int NumberofParameters;
// Parameter_t Params[MAX_NUM_OF_PARAMETERS];
//} ParameterList_t;
//
// /* The following type definition represents the structure which holds*/
// /* the command and parameters to be executed. */
//typedef struct _tagUserCommand_t
//{
// char *Command;
// ParameterList_t Parameters;
//} UserCommand_t;
//
// /* The following type definition represents the generic function */
// /* pointer to be used by all commands that can be executed by the */
// /* test program. */
//typedef int (*CommandFunction_t)(ParameterList_t *TempParam);
//
// /* The following type definition represents the structure which holds*/
// /* information used in the interpretation and execution of Commands. */
//typedef struct _tagCommandTable_t
//{
// char *CommandName;
// CommandFunction_t CommandFunction;
//} CommandTable_t;
//
// /* Structure used to hold all of the GAP LE Parameters. */
//typedef struct _tagGAPLE_Parameters_t
//{
// GAP_LE_Connectability_Mode_t ConnectableMode;
// GAP_Discoverability_Mode_t DiscoverabilityMode;
// GAP_LE_IO_Capability_t IOCapability;
// Boolean_t MITMProtection;
// Boolean_t OOBDataPresent;
//} GAPLE_Parameters_t;
//
//#define GAPLE_PARAMETERS_DATA_SIZE (sizeof(GAPLE_Parameters_t))
//
// /* The following structure holds status information about a send */
// /* process. */
//typedef struct _tagSend_Info_t
//{
// Boolean_t BufferFull;
// DWord_t BytesToSend;
// DWord_t BytesSent;
//} Send_Info_t;
//
// /* The following defines the structure that is used to hold */
// /* information about all open SPP Ports. */
//typedef struct SPP_Context_Info_t
//{
// unsigned int LocalSerialPortID;
// unsigned int ServerPortNumber;
// Word_t Connection_Handle;
// BD_ADDR_t BD_ADDR;
// DWord_t SPPServerSDPHandle;
// Boolean_t Connected;
// Send_Info_t SendInfo;
//
//#if MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE > 0
//
// unsigned int BufferLength;
// unsigned char Buffer[MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE];
//
//#endif
//
//} SPP_Context_Info_t;
//
// /* The following defines the format of a SPPLE Data Buffer. */
//typedef struct _tagSPPLE_Data_Buffer_t
//{
// unsigned int InIndex;
// unsigned int OutIndex;
// unsigned int BytesFree;
// unsigned int BufferSize;
// Byte_t Buffer[SPPLE_DATA_CREDITS];
//} SPPLE_Data_Buffer_t;
//
// /* The following structure represents the information we will store */
// /* on a Discovered GAP Service. */
//typedef struct _tagGAPS_Client_Info_t
//{
// Word_t DeviceNameHandle;
// Word_t DeviceAppearanceHandle;
//} GAPS_Client_Info_t;
//
// /* The following structure holds information on known Device */
// /* Appearance Values. */
//typedef struct _tagGAPS_Device_Appearance_Mapping_t
//{
// Word_t Appearance;
// char *String;
//} GAPS_Device_Appearance_Mapping_t;
//
// /* The following structure is used to hold a list of information */
// /* on all paired devices. */
//typedef struct _tagDeviceInfo_t
//{
// Byte_t Flags;
// Byte_t EncryptionKeySize;
// GAP_LE_Address_Type_t ConnectionAddressType;
// BD_ADDR_t ConnectionBD_ADDR;
// Long_Term_Key_t LTK;
// Random_Number_t Rand;
// Word_t EDIV;
// GAPS_Client_Info_t GAPSClientInfo;
// SPPLE_Client_Info_t ClientInfo;
// SPPLE_Server_Info_t ServerInfo;
// struct _tagDeviceInfo_t *NextDeviceInfoInfoPtr;
//} DeviceInfo_t;
//
//#define DEVICE_INFO_DATA_SIZE (sizeof(DeviceInfo_t))
//static int SendData1(ParameterList_t *TempParam);
//
//
// /* Defines the bit mask flags that may be set in the DeviceInfo_t */
// /* structure. */
//#define DEVICE_INFO_FLAGS_LTK_VALID 0x01
//#define DEVICE_INFO_FLAGS_SPPLE_SERVER 0x02
//#define DEVICE_INFO_FLAGS_SERVICE_DISCOVERY_OUTSTANDING 0x04
//#define DEVICE_INFO_FLAGS_LINK_ENCRYPTED 0x08
//
// /* The following structure is used to hold all of the SPPLE related */
// /* information pertaining to buffers and credits. */
//typedef struct _tagSPPLE_Buffer_Info_t
//{
// Send_Info_t SendInfo;
// unsigned int TransmitCredits;
// Word_t QueuedCredits;
// SPPLE_Data_Buffer_t ReceiveBuffer;
// SPPLE_Data_Buffer_t TransmitBuffer;
//} SPPLE_Buffer_Info_t;
//
// /* The following structure is used to hold information on a connected*/
// /* LE Device. */
//typedef struct _tagLE_Context_Info_t
//{
// BD_ADDR_t ConnectionBD_ADDR;
// unsigned int ConnectionID;
// SPPLE_Buffer_Info_t SPPLEBufferInfo;
// Boolean_t BufferFull;
//} LE_Context_Info_t;
//
// /* User to represent a structure to hold a BD_ADDR return from */
// /* BD_ADDRToStr. */
//typedef char BoardStr_t[16];
//
// /* The Encryption Root Key should be generated */
// /* in such a way as to guarantee 128 bits of */
// /* entropy. */
//static BTPSCONST Encryption_Key_t ER = {0x28, 0xBA, 0xE1, 0x37, 0x13, 0xB2, 0x20, 0x45, 0x16, 0xB2, 0x19, 0xD0, 0x80, 0xEE, 0x4A, 0x51};
//
// /* The Identity Root Key should be generated */
// /* in such a way as to guarantee 128 bits of */
// /* entropy. */
//static BTPSCONST Encryption_Key_t IR = {0x41, 0x09, 0xA0, 0x88, 0x09, 0x6B, 0x70, 0xC0, 0x95, 0x23, 0x3C, 0x8C, 0x48, 0xFC, 0xC9, 0xFE};
//
// /* The following keys can be regerenated on the */
// /* fly using the constant IR and ER keys and */
// /* are used globally, for all devices. */
//static Encryption_Key_t DHK;
//static Encryption_Key_t IRK;
//
//char passcode[] = "0000"; // the passcode which is used to pair with the tablet.
//Parameter_t code = { passcode, 1 }; // forming the passcode steps.
//ParameterList_t codelist = { 1, { passcode, 1 } };
//
// /* Internal Variables to this Module (Remember that all variables */
// /* declared static are initialized to 0 automatically by the */
// /* compiler as part of standard C/C++). */
//
//static int UI_Mode; /* Holds the UI Mode. */
//
////static Byte_t SPPLEBuffer[SPPLE_DATA_BUFFER_LENGTH+1]; /* Buffer that is */
// /* used for Sending/Receiving */
////Byte_t SPPLEBuffer[11]; /* SPPLE Service Data. */
//
// Byte_t SPPLEBuffer[8];
//
//Byte_t * SPPLEBufferNew; /* SPPLE Service Data. */
//
////Byte_t Buffer[11];
//
//
//static unsigned int SPPLEServiceID; /* The following holds the SPP LE */
// /* Service ID that is returned from*/
// /* GATT_Register_Service(). */
//
//static unsigned int GAPSInstanceID; /* Holds the Instance ID for the */
// /* GAP Service. */
//
//static GAPLE_Parameters_t LE_Parameters; /* Holds GAP Parameters like */
// /* Discoverability, Connectability */
// /* Modes. */
//
//static DeviceInfo_t *DeviceInfoList; /* Holds the list head for the */
// /* device info list. */
//
//static unsigned int BluetoothStackID; /* Variable which holds the Handle */
// /* of the opened Bluetooth Protocol*/
// /* Stack. */
//
//static Boolean_t LocalDeviceIsMaster; /* Boolean that tells if the local */
// /* device is the master of the */
// /* current connection. */
//
//static BD_ADDR_t CurrentLERemoteBD_ADDR; /* Variable which holds the */
// /* current LE BD_ADDR of the device*/
// /* which is currently pairing or */
// /* authenticating. */
//
//static BD_ADDR_t CurrentCBRemoteBD_ADDR; /* Variable which holds the */
// /* current CB BD_ADDR of the device*/
// /* which is currently pairing or */
// /* authenticating. */
//
//static BD_ADDR_t InquiryResultList[MAX_INQUIRY_RESULTS]; /* Variable which */
// /* contains the inquiry result */
// /* received from the most recently */
// /* preformed inquiry. */
//
//static unsigned int NumberofValidResponses; /* Variable which holds the number */
// /* of valid inquiry results within */
// /* the inquiry results array. */
//
//static LinkKeyInfo_t LinkKeyInfo[MAX_SUPPORTED_LINK_KEYS]; /* Variable holds */
// /* BD_ADDR <-> Link Keys for */
// /* pairing. */
//
//static GAP_IO_Capability_t IOCapability; /* Variable which holds the */
// /* current I/O Capabilities that */
// /* are to be used for Secure Simple*/
// /* Pairing. */
//
//static Boolean_t OOBSupport; /* Variable which flags whether */
// /* or not Out of Band Secure Simple*/
// /* Pairing exchange is supported. */
//
//static Boolean_t MITMProtection; /* Variable which flags whether or */
// /* not Man in the Middle (MITM) */
// /* protection is to be requested */
// /* during a Secure Simple Pairing */
// /* procedure. */
//
//static Boolean_t LoopbackActive; /* Variable which flags whether or */
// /* not the application is currently*/
// /* operating in Loopback Mode */
// /* (TRUE) or not (FALSE). */
//
//static Boolean_t DisplayRawData; /* Variable which flags whether or */
// /* not the application is to */
// /* simply display the Raw Data */
// /* when it is received (when not */
// /* operating in Loopback Mode). */
//
//static Boolean_t AutomaticReadActive; /* Variable which flags whether or */
// /* not the application is to */
// /* automatically read all data */
// /* as it is received. */
//
//static unsigned int NumberCommands; /* Variable which is used to hold */
// /* the number of Commands that are */
// /* supported by this application. */
// /* Commands are added individually.*/
//
//static CommandTable_t CommandTable[MAX_SUPPORTED_COMMANDS]; /* Variable which is */
// /* used to hold the actual Commands*/
// /* that are supported by this */
// /* application. */
//
//static SPP_Context_Info_t SPPContextInfo[MAX_SIMULTANEOUS_SPP_PORTS];
// /* Variable that contains */
// /* information about the current */
// /* open SPP Ports */
//
//static LE_Context_Info_t LEContextInfo[MAX_LE_CONNECTIONS]; /* Array that contains */
// /* the connection ID and BD_ADDR */
// /* of each connected device. */
//
// /* The following is used to map from ATT Error Codes to a printable */
// /* string. */
//static char *ErrorCodeStr[] =
//{
// "ATT_PROTOCOL_ERROR_CODE_NO_ERROR",
// "ATT_PROTOCOL_ERROR_CODE_INVALID_HANDLE",
// "ATT_PROTOCOL_ERROR_CODE_READ_NOT_PERMITTED",
// "ATT_PROTOCOL_ERROR_CODE_WRITE_NOT_PERMITTED",
// "ATT_PROTOCOL_ERROR_CODE_INVALID_PDU",
// "ATT_PROTOCOL_ERROR_CODE_INSUFFICIENT_AUTHENTICATION",
// "ATT_PROTOCOL_ERROR_CODE_REQUEST_NOT_SUPPORTED",
// "ATT_PROTOCOL_ERROR_CODE_INVALID_OFFSET",
// "ATT_PROTOCOL_ERROR_CODE_INSUFFICIENT_AUTHORIZATION",
// "ATT_PROTOCOL_ERROR_CODE_PREPARE_QUEUE_FULL",
// "ATT_PROTOCOL_ERROR_CODE_ATTRIBUTE_NOT_FOUND",
// "ATT_PROTOCOL_ERROR_CODE_ATTRIBUTE_NOT_LONG",
// "ATT_PROTOCOL_ERROR_CODE_INSUFFICIENT_ENCRYPTION_KEY_SIZE",
// "ATT_PROTOCOL_ERROR_CODE_INVALID_ATTRIBUTE_VALUE_LENGTH",
// "ATT_PROTOCOL_ERROR_CODE_UNLIKELY_ERROR",
// "ATT_PROTOCOL_ERROR_CODE_INSUFFICIENT_ENCRYPTION",
// "ATT_PROTOCOL_ERROR_CODE_UNSUPPORTED_GROUP_TYPE",
// "ATT_PROTOCOL_ERROR_CODE_INSUFFICIENT_RESOURCES"
//};
//
//#define NUMBER_GATT_ERROR_CODES (sizeof(ErrorCodeStr)/sizeof(char *))
//
// /* The following array is used to map Device Appearance Values to */
// /* strings. */
//static GAPS_Device_Appearance_Mapping_t AppearanceMappings[] =
//{
// {GAP_DEVICE_APPEARENCE_VALUE_UNKNOWN, "Unknown"},
// {GAP_DEVICE_APPEARENCE_VALUE_GENERIC_PHONE, "Generic Phone"},
// {GAP_DEVICE_APPEARENCE_VALUE_GENERIC_COMPUTER, "Generic Computer"},
// {GAP_DEVICE_APPEARENCE_VALUE_GENERIC_WATCH, "Generic Watch"},
// {GAP_DEVICE_APPEARENCE_VALUE_SPORTS_WATCH, "Sports Watch"},
// {GAP_DEVICE_APPEARENCE_VALUE_GENERIC_CLOCK, "Generic Clock"},
// {GAP_DEVICE_APPEARENCE_VALUE_GENERIC_DISPLAY, "Generic Display"},
// {GAP_DEVICE_APPEARENCE_VALUE_GENERIC_GENERIC_REMOTE_CONTROL, "Generic Remote Control"},
// {GAP_DEVICE_APPEARENCE_VALUE_GENERIC_EYE_GLASSES, "Eye Glasses"},
// {GAP_DEVICE_APPEARENCE_VALUE_GENERIC_TAG, "Generic Tag"},
// {GAP_DEVICE_APPEARENCE_VALUE_GENERIC_KEYRING, "Generic Keyring"},
// {GAP_DEVICE_APPEARENCE_VALUE_GENERIC_MEDIA_PLAYER, "Generic Media Player"},
// {GAP_DEVICE_APPEARENCE_VALUE_GENERIC_BARCODE_SCANNER, "Generic Barcode Scanner"},
// {GAP_DEVICE_APPEARENCE_VALUE_GENERIC_THERMOMETER, "Generic Thermometer"},
// {GAP_DEVICE_APPEARENCE_VALUE_THERMOMETER_EAR, "Ear Thermometer"},
// {GAP_DEVICE_APPEARENCE_VALUE_GENERIC_HEART_RATE_SENSOR, "Generic Heart Rate Sensor"},
// {GAP_DEVICE_APPEARENCE_VALUE_BELT_HEART_RATE_SENSOR, "Belt Heart Rate Sensor"},
// {GAP_DEVICE_APPEARENCE_VALUE_GENERIC_BLOOD_PRESSURE, "Generic Blood Pressure"},
// {GAP_DEVICE_APPEARENCE_VALUE_BLOOD_PRESSURE_ARM, "Blood Pressure: ARM"},
// {GAP_DEVICE_APPEARENCE_VALUE_BLOOD_PRESSURE_WRIST, "Blood Pressure: Wrist"},
// {GAP_DEVICE_APPEARENCE_VALUE_HUMAN_INTERFACE_DEVICE, "Human Interface Device"},
// {GAP_DEVICE_APPEARENCE_VALUE_HID_KEYBOARD, "HID Keyboard"},
// {GAP_DEVICE_APPEARENCE_VALUE_HID_MOUSE, "HID Mouse"},
// {GAP_DEVICE_APPEARENCE_VALUE_HID_JOYSTICK, "HID Joystick"},
// {GAP_DEVICE_APPEARENCE_VALUE_HID_GAMEPAD, "HID Gamepad"},
// {GAP_DEVICE_APPEARENCE_VALUE_HID_DIGITIZER_TABLET, "HID Digitizer Tablet"},
// {GAP_DEVICE_APPEARENCE_VALUE_HID_CARD_READER, "HID Card Reader"},
// {GAP_DEVICE_APPEARENCE_VALUE_HID_DIGITAL_PEN, "HID Digitizer Pen"},
// {GAP_DEVICE_APPEARENCE_VALUE_HID_BARCODE_SCANNER, "HID Bardcode Scanner"},
// {GAP_DEVICE_APPEARENCE_VALUE_GENERIC_GLUCOSE_METER, "Generic Glucose Meter"}
//};
//
//#define NUMBER_OF_APPEARANCE_MAPPINGS (sizeof(AppearanceMappings)/sizeof(GAPS_Device_Appearance_Mapping_t))
//
// /* The following string table is used to map HCI Version information */
// /* to an easily displayable version string. */
//static BTPSCONST char *HCIVersionStrings[] =
//{
// "1.0b",
// "1.1",
// "1.2",
// "2.0",
// "2.1",
// "3.0",
// "4.0",
// "4.1",
// "Unknown (greater 4.1)"
//} ;
//
//#define NUM_SUPPORTED_HCI_VERSIONS (sizeof(HCIVersionStrings)/sizeof(char *) - 1)
//
// /* The following string table is used to map the API I/O Capabilities*/
// /* values to an easily displayable string. */
//static BTPSCONST char *IOCapabilitiesStrings[] =
//{
// "Display Only",
// "Display Yes/No",
// "Keyboard Only",
// "No Input/Output",
// "Keyboard/Display"
//} ;
//
// /* The following defines a data sequence that will be used to */
// /* generate message data. */
//static char DataStr[] = "0123456789";
//static int DataStrLen = (sizeof(DataStr)-1);
//
// /*********************************************************************/
// /** SPPLE Service Table **/
// /*********************************************************************/
//
// /* The SPPLE Service Declaration UUID. */
//static BTPSCONST GATT_Primary_Service_128_Entry_t SPPLE_Service_UUID =
//{
// SPPLE_SERVICE_BLUETOOTH_UUID_CONSTANT
//};
//
// /* The Tx Characteristic Declaration. */
//static BTPSCONST GATT_Characteristic_Declaration_128_Entry_t SPPLE_Tx_Declaration =
//{
// GATT_CHARACTERISTIC_PROPERTIES_NOTIFY,
// SPPLE_TX_CHARACTERISTIC_BLUETOOTH_UUID_CONSTANT
//};
//
// /* The Tx Characteristic Value. */
//static BTPSCONST GATT_Characteristic_Value_128_Entry_t SPPLE_Tx_Value =
//{
// SPPLE_TX_CHARACTERISTIC_BLUETOOTH_UUID_CONSTANT,
// 0,
// NULL
//};
//
// /* The Tx Credits Characteristic Declaration. */
//static BTPSCONST GATT_Characteristic_Declaration_128_Entry_t SPPLE_Tx_Credits_Declaration =
//{
// (GATT_CHARACTERISTIC_PROPERTIES_READ|GATT_CHARACTERISTIC_PROPERTIES_WRITE_WITHOUT_RESPONSE|GATT_CHARACTERISTIC_PROPERTIES_WRITE),
// SPPLE_TX_CREDITS_CHARACTERISTIC_BLUETOOTH_UUID_CONSTANT
//};
//
// /* The Tx Credits Characteristic Value. */
//static BTPSCONST GATT_Characteristic_Value_128_Entry_t SPPLE_Tx_Credits_Value =
//{
// SPPLE_TX_CREDITS_CHARACTERISTIC_BLUETOOTH_UUID_CONSTANT,
// 0,
// NULL
//};
//
// /* The SPPLE RX Characteristic Declaration. */
//static BTPSCONST GATT_Characteristic_Declaration_128_Entry_t SPPLE_Rx_Declaration =
//{
// (GATT_CHARACTERISTIC_PROPERTIES_WRITE_WITHOUT_RESPONSE),
// SPPLE_RX_CHARACTERISTIC_BLUETOOTH_UUID_CONSTANT
//};
//
// /* The SPPLE RX Characteristic Value. */
//static BTPSCONST GATT_Characteristic_Value_128_Entry_t SPPLE_Rx_Value =
//{
// SPPLE_RX_CHARACTERISTIC_BLUETOOTH_UUID_CONSTANT,
// 0,
// NULL
//};
//
//
// /* The SPPLE Rx Credits Characteristic Declaration. */
//static BTPSCONST GATT_Characteristic_Declaration_128_Entry_t SPPLE_Rx_Credits_Declaration =
//{
// (GATT_CHARACTERISTIC_PROPERTIES_READ|GATT_CHARACTERISTIC_PROPERTIES_NOTIFY),
// SPPLE_RX_CREDITS_CHARACTERISTIC_BLUETOOTH_UUID_CONSTANT
//};
//
// /* The SPPLE Rx Credits Characteristic Value. */
//static BTPSCONST GATT_Characteristic_Value_128_Entry_t SPPLE_Rx_Credits_Value =
//{
// SPPLE_RX_CREDITS_CHARACTERISTIC_BLUETOOTH_UUID_CONSTANT,
// 0,
// NULL
//};
//
// /* Client Characteristic Configuration Descriptor. */
//static GATT_Characteristic_Descriptor_16_Entry_t Client_Characteristic_Configuration =
//{
// GATT_CLIENT_CHARACTERISTIC_CONFIGURATION_BLUETOOTH_UUID_CONSTANT,
// GATT_CLIENT_CHARACTERISTIC_CONFIGURATION_LENGTH,
// NULL
//};
//
// /* The following defines the SPPLE service that is registered with */
// /* the GATT_Register_Service function call. */
// /* * NOTE * This array will be registered with GATT in the call to */
// /* GATT_Register_Service. */
//BTPSCONST GATT_Service_Attribute_Entry_t SPPLE_Service[] =
//{
// {GATT_ATTRIBUTE_FLAGS_READABLE, aetPrimaryService128, (Byte_t *)&SPPLE_Service_UUID}, //0
// {GATT_ATTRIBUTE_FLAGS_READABLE, aetCharacteristicDeclaration128, (Byte_t *)&SPPLE_Tx_Declaration}, //1
// {0, aetCharacteristicValue128, (Byte_t *)&SPPLE_Tx_Value}, //2
// {GATT_ATTRIBUTE_FLAGS_READABLE_WRITABLE, aetCharacteristicDescriptor16, (Byte_t *)&Client_Characteristic_Configuration}, //3
// {GATT_ATTRIBUTE_FLAGS_READABLE, aetCharacteristicDeclaration128, (Byte_t *)&SPPLE_Tx_Credits_Declaration}, //4
// {GATT_ATTRIBUTE_FLAGS_READABLE_WRITABLE, aetCharacteristicValue128, (Byte_t *)&SPPLE_Tx_Credits_Value}, //5
// {GATT_ATTRIBUTE_FLAGS_READABLE, aetCharacteristicDeclaration128, (Byte_t *)&SPPLE_Rx_Declaration}, //6
// {GATT_ATTRIBUTE_FLAGS_WRITABLE, aetCharacteristicValue128, (Byte_t *)&SPPLE_Rx_Value}, //7
// {GATT_ATTRIBUTE_FLAGS_READABLE, aetCharacteristicDeclaration128, (Byte_t *)&SPPLE_Rx_Credits_Declaration}, //8
// {GATT_ATTRIBUTE_FLAGS_READABLE, aetCharacteristicValue128, (Byte_t *)&SPPLE_Rx_Credits_Value}, //9
// {GATT_ATTRIBUTE_FLAGS_READABLE_WRITABLE, aetCharacteristicDescriptor16, (Byte_t *)&Client_Characteristic_Configuration}, //10
//};
//
//#define SPPLE_SERVICE_ATTRIBUTE_COUNT (sizeof(SPPLE_Service)/sizeof(GATT_Service_Attribute_Entry_t))
//
//#define SPPLE_TX_CHARACTERISTIC_ATTRIBUTE_OFFSET 2
//#define SPPLE_TX_CHARACTERISTIC_CCD_ATTRIBUTE_OFFSET 3
//#define SPPLE_TX_CREDITS_CHARACTERISTIC_ATTRIBUTE_OFFSET 5
//#define SPPLE_RX_CHARACTERISTIC_ATTRIBUTE_OFFSET 7
//#define SPPLE_RX_CREDITS_CHARACTERISTIC_ATTRIBUTE_OFFSET 9
//#define SPPLE_RX_CREDITS_CHARACTERISTIC_CCD_ATTRIBUTE_OFFSET 10
//
// /*********************************************************************/
// /** END OF SERVICE TABLE **/
// /*********************************************************************/
//
// /* Internal function prototypes. */
//static Boolean_t CreateNewDeviceInfoEntry(DeviceInfo_t **ListHead, GAP_LE_Address_Type_t ConnectionAddressType, BD_ADDR_t ConnectionBD_ADDR);
//static DeviceInfo_t *SearchDeviceInfoEntryByBD_ADDR(DeviceInfo_t **ListHead, BD_ADDR_t BD_ADDR);
//static DeviceInfo_t *DeleteDeviceInfoEntry(DeviceInfo_t **ListHead, BD_ADDR_t BD_ADDR);
//static void FreeDeviceInfoEntryMemory(DeviceInfo_t *EntryToFree);
//static void FreeDeviceInfoList(DeviceInfo_t **ListHead);
//
//static void UserInterface_Client(void);
//static void UserInterface_Server(void);
//static void UserInterface_Selection(void);
//static Boolean_t CommandLineInterpreter(char *Command);
//static unsigned long StringToUnsignedInteger(char *StringInteger);
//static char *StringParser(char *String);
//static int CommandParser(UserCommand_t *TempCommand, char *Input);
//static int CommandInterpreter(UserCommand_t *TempCommand);
//static int AddCommand(char *CommandName, CommandFunction_t CommandFunction);
//static CommandFunction_t FindCommand(char *Command);
//static void ClearCommands(void);
//
//static void BD_ADDRToStr(BD_ADDR_t Board_Address, BoardStr_t BoardStr);
//static void StrToBD_ADDR(char *BoardStr, BD_ADDR_t *Board_Address);
//
//static void DisplayIOCapabilities(void);
//static void DisplayClassOfDevice(Class_of_Device_t Class_of_Device);
//static void DisplayAdvertisingData(GAP_LE_Advertising_Data_t *Advertising_Data);
//static void DisplayPairingInformation(GAP_LE_Pairing_Capabilities_t Pairing_Capabilities);
//static void DisplayUUID(GATT_UUID_t *UUID);
//static void DisplayPrompt(void);
//static void DisplayUsage(char *UsageString);
//static void DisplayFunctionError(char *Function,int Status);
//static void DisplayFunctionSuccess(char *Function);
//
//static int OpenStack(HCI_DriverInformation_t *HCI_DriverInformation, BTPS_Initialization_t *BTPS_Initialization);
//static int CloseStack(void);
//
//static int SetDisc(void);
//static int SetConnect(void);
//static int SetPairable(void);
//
//static void DumpAppearanceMappings(void);
//static Boolean_t AppearanceToString(Word_t Appearance, char **String);
//static Boolean_t AppearanceIndexToAppearance(unsigned int Index, Word_t *Appearance);
//
//static void GAPSPopulateHandles(GAPS_Client_Info_t *ClientInfo, GATT_Service_Discovery_Indication_Data_t *ServiceInfo);
//static void SPPLEPopulateHandles(SPPLE_Client_Info_t *ClientInfo, GATT_Service_Discovery_Indication_Data_t *ServiceInfo);
//
//static unsigned int AddDataToBuffer(SPPLE_Data_Buffer_t *DataBuffer, unsigned int DataLength, Byte_t *Data);
//static unsigned int RemoveDataFromBuffer(SPPLE_Data_Buffer_t *DataBuffer, unsigned int BufferLength, Byte_t *Buffer);
//static void InitializeBuffer(SPPLE_Data_Buffer_t *DataBuffer);
//
//static int EnableDisableNotificationsIndications(unsigned int ConnectionID, Word_t ClientConfigurationHandle, Word_t ClientConfigurationValue, GATT_Client_Event_Callback_t ClientEventCallback);
//
//static unsigned int FillBufferWithString(SPPLE_Data_Buffer_t *DataBuffer, unsigned *CurrentBufferLength, unsigned int MaxLength, Byte_t *Buffer);
//
//static void SPPLESendProcess(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo);
//static void SPPLESendCredits(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo, unsigned int DataLength);
//static void SPPLEReceiveCreditEvent(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo, unsigned int Credits);
//static unsigned int SPPLESendData(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo, unsigned int DataLength, Byte_t *Data);
//static void SPPLEDataIndicationEvent(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo, unsigned int DataLength, Byte_t *Data);
//static int SPPLEReadData(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo, unsigned int BufferLength, Byte_t *Buffer);
//
//static int StartScan(unsigned int BluetoothStackID);
//static int StopScan(unsigned int BluetoothStackID);
//
//static int ConnectLEDevice(unsigned int BluetoothStackID, GAP_LE_Address_Type_t Address_Type, BD_ADDR_t BD_ADDR, Boolean_t UseWhiteList);
//static int DisconnectLEDevice(unsigned int BluetoothStackID, BD_ADDR_t BD_ADDR);
//
//static void ConfigureCapabilities(GAP_LE_Pairing_Capabilities_t *Capabilities);
//static int SendPairingRequest(BD_ADDR_t BD_ADDR, Boolean_t ConnectionMaster);
//static int SlavePairingRequestResponse(BD_ADDR_t BD_ADDR);
//static int EncryptionInformationRequestResponse(BD_ADDR_t BD_ADDR, Byte_t KeySize, GAP_LE_Authentication_Response_Information_t *GAP_LE_Authentication_Response_Information);
//static int DeleteLinkKey(BD_ADDR_t BD_ADDR);
//
//static int DisplayHelp(ParameterList_t *TempParam);
//static int SetLEDiscoverabilityMode(ParameterList_t *TempParam);
//static int SetLEConnectabilityMode(ParameterList_t *TempParam);
//static int SetLEPairabilityMode(ParameterList_t *TempParam);
//static int GetLocalAddress(ParameterList_t *TempParam);
//static int SetBaudRate(ParameterList_t *TempParam);
//static int ChangeLEPairingParameters(ParameterList_t *TempParam);
//static int LEPassKeyResponse(ParameterList_t *TempParam);
//static int LEQueryEncryption(ParameterList_t *TempParam);
//static int LESetPasskey(ParameterList_t *TempParam);
//static int AdvertiseLE(ParameterList_t *TempParam);
//static int StartScanning(ParameterList_t *TempParam);
//static int StopScanning(ParameterList_t *TempParam);
//static int ConnectLE(ParameterList_t *TempParam);
//static int DisconnectLE(ParameterList_t *TempParam);
//static int PairLE(ParameterList_t *TempParam);
//static int DiscoverGAPS(ParameterList_t *TempParam);
//static int ReadLocalName(ParameterList_t *TempParam);
//static int SetLocalName(ParameterList_t *TempParam);
//static int ReadRemoteName(ParameterList_t *TempParam);
//static int ReadLocalAppearance(ParameterList_t *TempParam);
//static int SetLocalAppearance(ParameterList_t *TempParam);
//static int ReadRemoteAppearance(ParameterList_t *TempParam);
//static int DiscoverSPPLE(ParameterList_t *TempParam);
//static int RegisterSPPLE(ParameterList_t *TempParam);
//static int ConfigureSPPLE(ParameterList_t *TempParam);
//static int SendDataCommand(ParameterList_t *TempParam);
//static int ReadDataCommand(ParameterList_t *TempParam);
//static int Loopback(ParameterList_t *TempParam);
//static int DisplayRawModeData(ParameterList_t *TempParam);
//static int AutomaticReadMode(ParameterList_t *TempParam);
//
//static int Inquiry(ParameterList_t *TempParam);
//static int DisplayInquiryList(ParameterList_t *TempParam);
//static int SetCBDiscoverabilityMode(ParameterList_t *TempParam);
//static int SetCBConnectabilityMode(ParameterList_t *TempParam);
//static int SetCBPairabilityMode(ParameterList_t *TempParam);
//static int ChangeSimplePairingParameters(ParameterList_t *TempParam);
//static int Pair(ParameterList_t *TempParam);
//static int EndPairing(ParameterList_t *TempParam);
//static int PINCodeResponse(ParameterList_t *TempParam);
//static int PassKeyResponse(ParameterList_t *TempParam);
//static int UserConfirmationResponse(ParameterList_t *TempParam);
//static int GetLocalName(ParameterList_t *TempParam);
//static int SetClassOfDevice(ParameterList_t *TempParam);
//static int GetClassOfDevice(ParameterList_t *TempParam);
//static int GetRemoteName(ParameterList_t *TempParam);
//static int SniffMode(ParameterList_t *TempParam);
//static int ExitSniffMode(ParameterList_t *TempParam);
//static int OpenServer(ParameterList_t *TempParam);
//
//static int CloseServer(ParameterList_t *TempParam);
//static int OpenRemoteServer(ParameterList_t *TempParam);
//static int CloseRemoteServer(ParameterList_t *TempParam);
//static int Read(ParameterList_t *TempParam);
//static int Write(ParameterList_t *TempParam);
//static int GetConfigParams(ParameterList_t *TempParam);
//static int SetConfigParams(ParameterList_t *TempParam);
//static int GetQueueParams(ParameterList_t *TempParam);
//static int SetQueueParams(ParameterList_t *TempParam);
//static int SendData(ParameterList_t *TempParam);
//
//static int ServerMode(ParameterList_t *TempParam);
//static int ClientMode(ParameterList_t *TempParam);
//
//static int FindSPPPortIndex(unsigned int SerialPortID);
//static int FindSPPPortIndexByServerPortNumber(unsigned int ServerPortNumber);
//static int FindSPPPortIndexByAddress(BD_ADDR_t BD_ADDR);
//static int FindFreeSPPPortIndex(void);
//static int ClosePortByNumber(unsigned int LocalServerPort);
//static int FindFreeLEIndex(void);
//static int FindLEIndexByAddress(BD_ADDR_t BD_ADDR);
//static int FindLEIndexByConnectionID(unsigned int ConnectionID);
//static int UpdateConnectionID(unsigned int ConnectionID, BD_ADDR_t BD_ADDR);
//static void RemoveConnectionInfo(BD_ADDR_t BD_ADDR);
//
// /* BTPS Callback function prototypes. */
//static void BTPSAPI GAP_LE_Event_Callback(unsigned int BluetoothStackID,GAP_LE_Event_Data_t *GAP_LE_Event_Data, unsigned long CallbackParameter);
//static void BTPSAPI GATT_ServerEventCallback(unsigned int BluetoothStackID, GATT_Server_Event_Data_t *GATT_ServerEventData, unsigned long CallbackParameter);
//static void BTPSAPI GATT_ClientEventCallback_SPPLE(unsigned int BluetoothStackID, GATT_Client_Event_Data_t *GATT_Client_Event_Data, unsigned long CallbackParameter);
//static void BTPSAPI GATT_ClientEventCallback_GAPS(unsigned int BluetoothStackID, GATT_Client_Event_Data_t *GATT_Client_Event_Data, unsigned long CallbackParameter);
//static void BTPSAPI GATT_Connection_Event_Callback(unsigned int BluetoothStackID, GATT_Connection_Event_Data_t *GATT_Connection_Event_Data, unsigned long CallbackParameter);
//static void BTPSAPI GATT_Service_Discovery_Event_Callback(unsigned int BluetoothStackID, GATT_Service_Discovery_Event_Data_t *GATT_Service_Discovery_Event_Data, unsigned long CallbackParameter);
//static void BTPSAPI GAP_Event_Callback(unsigned int BluetoothStackID, GAP_Event_Data_t *GAP_Event_Data, unsigned long CallbackParameter);
//static void BTPSAPI SPP_Event_Callback(unsigned int BluetoothStackID, SPP_Event_Data_t *SPP_Event_Data, unsigned long CallbackParameter);
//static void BTPSAPI HCI_Event_Callback(unsigned int BluetoothStackID, HCI_Event_Data_t *HCI_Event_Data, unsigned long CallbackParameter);
//
// /* The following function adds the specified Entry to the specified */
// /* List. This function allocates and adds an entry to the list that */
// /* has the same attributes as parameters to this function. This */
// /* function will return FALSE if NO Entry was added. This can occur */
// /* if the element passed in was deemed invalid or the actual List */
// /* Head was invalid. */
// /* ** NOTE ** This function does not insert duplicate entries into */
// /* the list. An element is considered a duplicate if the */
// /* Connection BD_ADDR. When this occurs, this function */
// /* returns NULL. */
//static Boolean_t CreateNewDeviceInfoEntry(DeviceInfo_t **ListHead, GAP_LE_Address_Type_t ConnectionAddressType, BD_ADDR_t ConnectionBD_ADDR)
//{
// Boolean_t ret_val = FALSE;
// DeviceInfo_t *DeviceInfoPtr;
//
// /* Verify that the passed in parameters seem semi-valid. */
// if((ListHead) && (!COMPARE_NULL_BD_ADDR(ConnectionBD_ADDR)))
// {
// /* Allocate the memory for the entry. */
// if((DeviceInfoPtr = BTPS_AllocateMemory(sizeof(DeviceInfo_t))) != NULL)
// {
// /* Initialize the entry. */
// BTPS_MemInitialize(DeviceInfoPtr, 0, sizeof(DeviceInfo_t));
// DeviceInfoPtr->ConnectionAddressType = ConnectionAddressType;
// DeviceInfoPtr->ConnectionBD_ADDR = ConnectionBD_ADDR;
//
// ret_val = BSC_AddGenericListEntry_Actual(ekBD_ADDR_t, BTPS_STRUCTURE_OFFSET(DeviceInfo_t, ConnectionBD_ADDR), BTPS_STRUCTURE_OFFSET(DeviceInfo_t, NextDeviceInfoInfoPtr), (void **)(ListHead), (void *)(DeviceInfoPtr));
// if(!ret_val)
// {
// /* Failed to add to list so we should free the memory that */
// /* we allocated for the entry. */
// BTPS_FreeMemory(DeviceInfoPtr);
// }
// }
// }
//
// return(ret_val);
//}
//
// /* The following function searches the specified List for the */
// /* specified Connection BD_ADDR. This function returns NULL if */
// /* either the List Head is invalid, the BD_ADDR is invalid, or the */
// /* Connection BD_ADDR was NOT found. */
//static DeviceInfo_t *SearchDeviceInfoEntryByBD_ADDR(DeviceInfo_t **ListHead, BD_ADDR_t BD_ADDR)
//{
// return(BSC_SearchGenericListEntry(ekBD_ADDR_t, (void *)(&BD_ADDR), BTPS_STRUCTURE_OFFSET(DeviceInfo_t, ConnectionBD_ADDR), BTPS_STRUCTURE_OFFSET(DeviceInfo_t, NextDeviceInfoInfoPtr), (void **)(ListHead)));
//}
//
// /* The following function searches the specified Key Info List for */
// /* the specified BD_ADDR and removes it from the List. This function*/
// /* returns NULL if either the List Head is invalid, the BD_ADDR is */
// /* invalid, or the specified Entry was NOT present in the list. The */
// /* entry returned will have the Next Entry field set to NULL, and */
// /* the caller is responsible for deleting the memory associated with */
// /* this entry by calling the FreeKeyEntryMemory() function. */
//static DeviceInfo_t *DeleteDeviceInfoEntry(DeviceInfo_t **ListHead, BD_ADDR_t BD_ADDR)
//{
// return(BSC_DeleteGenericListEntry(ekBD_ADDR_t, (void *)(&BD_ADDR), BTPS_STRUCTURE_OFFSET(DeviceInfo_t, ConnectionBD_ADDR), BTPS_STRUCTURE_OFFSET(DeviceInfo_t, NextDeviceInfoInfoPtr), (void **)(ListHead)));
//}
//
// /* This function frees the specified Key Info Information member */
// /* memory. */
//static void FreeDeviceInfoEntryMemory(DeviceInfo_t *EntryToFree)
//{
// BSC_FreeGenericListEntryMemory((void *)(EntryToFree));
//}
//
// /* The following function deletes (and free's all memory) every */
// /* element of the specified Key Info List. Upon return of this */
// /* function, the Head Pointer is set to NULL. */
//static void FreeDeviceInfoList(DeviceInfo_t **ListHead)
//{
// BSC_FreeGenericListEntryList((void **)(ListHead), BTPS_STRUCTURE_OFFSET(DeviceInfo_t, NextDeviceInfoInfoPtr));
//}
//
// /* This function is responsible for taking the input from the user */
// /* and dispatching the appropriate Command Function. First, this */
// /* function retrieves a String of user input, parses the user input */
// /* into Command and Parameters, and finally executes the Command or */
// /* Displays an Error Message if the input is not a valid Command. */
//static void UserInterface_Client(void)
//{
// /* Next display the available commands. */
// DisplayHelp(NULL);
// ClearCommands();
//
// AddCommand("INQUIRY", Inquiry);
// AddCommand("DISPLAYINQUIRYLIST", DisplayInquiryList);
// AddCommand("PAIR", Pair);
// AddCommand("ENDPAIRING", EndPairing);
// AddCommand("PINCODERESPONSE", PINCodeResponse);
// AddCommand("PASSKEYRESPONSE", PassKeyResponse);
// AddCommand("USERCONFIRMATIONRESPONSE", UserConfirmationResponse);
// AddCommand("SETDISCOVERABILITYMODE", SetCBDiscoverabilityMode);
// AddCommand("SETCONNECTABILITYMODE", SetCBConnectabilityMode);
// AddCommand("SETPAIRABILITYMODE", SetCBPairabilityMode);
// AddCommand("CHANGESIMPLEPAIRINGPARAMETERS", ChangeSimplePairingParameters);
// AddCommand("GETLOCALADDRESS", GetLocalAddress);
// AddCommand("SETLOCALNAME", SetLocalName);
// AddCommand("GETLOCALNAME", GetLocalName);
// AddCommand("SETCLASSOFDEVICE", SetClassOfDevice);
// AddCommand("GETCLASSOFDEVICE", GetClassOfDevice);
// AddCommand("GETREMOTENAME", GetRemoteName);
// AddCommand("SNIFFMODE", SniffMode);
// AddCommand("EXITSNIFFMODE", ExitSniffMode);
// AddCommand("OPEN", OpenRemoteServer);
// AddCommand("CLOSE", CloseRemoteServer);
// AddCommand("READ", Read);
// AddCommand("WRITE", Write);
// AddCommand("GETCONFIGPARAMS", GetConfigParams);
// AddCommand("SETCONFIGPARAMS", SetConfigParams);
// AddCommand("GETQUEUEPARAMS", GetQueueParams);
// AddCommand("SETQUEUEPARAMS", SetQueueParams);
// AddCommand("LOOPBACK", Loopback);
// AddCommand("DISPLAYRAWMODEDATA", DisplayRawModeData);
// AddCommand("AUTOMATICREADMODE", AutomaticReadMode);
// AddCommand("SETBAUDRATE", SetBaudRate);
// AddCommand("CBSEND", SendData);
// AddCommand("SETDISCOVERABILITYMODE", SetLEDiscoverabilityMode);
// AddCommand("SETCONNECTABILITYMODE", SetLEConnectabilityMode);
// AddCommand("SETPAIRABILITYMODE", SetLEPairabilityMode);
// AddCommand("CHANGEPAIRINGPARAMETERS", ChangeLEPairingParameters);
// AddCommand("ADVERTISELE", AdvertiseLE);
// AddCommand("STARTSCANNING", StartScanning);
// AddCommand("STOPSCANNING", StopScanning);
// AddCommand("CONNECTLE", ConnectLE);
// AddCommand("DISCONNECTLE", DisconnectLE);
// AddCommand("PAIRLE", PairLE);
// AddCommand("LEPASSKEYRESPONSE", LEPassKeyResponse);
// AddCommand("QUERYENCRYPTIONMODE", LEQueryEncryption);
// AddCommand("SETPASSKEY", LESetPasskey);
// AddCommand("DISCOVERSPPLE", DiscoverSPPLE);
// AddCommand("REGISTERSPPLE", RegisterSPPLE);
// AddCommand("CONFIGURESPPLE", ConfigureSPPLE);
// AddCommand("DISCOVERGAPS", DiscoverGAPS);
// AddCommand("GETLOCALNAME", ReadLocalName);
// AddCommand("GETLEREMOTENAME", ReadRemoteName);
// AddCommand("GETLOCALAPPEARANCE", ReadLocalAppearance);
// AddCommand("SETLOCALAPPEARANCE", SetLocalAppearance);
// AddCommand("GETREMOTEAPPEARANCE", ReadRemoteAppearance);
// AddCommand("LESEND", SendDataCommand);
// AddCommand("LEREAD", ReadDataCommand);
// AddCommand("HELP", DisplayHelp);
//}
//
// /* This function is responsible for taking the input from the user */
// /* and dispatching the appropriate Command Function. First, this */
// /* function retrieves a String of user input, parses the user input */
// /* into Command and Parameters, and finally executes the Command or */
// /* Displays an Error Message if the input is not a valid Command. */
//static void UserInterface_Server(void)
//{
// /* Next display the available commands. */
// DisplayHelp(NULL);
//
// /* Clear the installed command. */
// ClearCommands();
//
// /* Install the commands revelant for this UI. */
// AddCommand("INQUIRY", Inquiry);
// AddCommand("DISPLAYINQUIRYLIST", DisplayInquiryList);
// AddCommand("PAIR", Pair);
// AddCommand("ENDPAIRING", EndPairing);
// AddCommand("PINCODERESPONSE", PINCodeResponse);
// AddCommand("PASSKEYRESPONSE", PassKeyResponse);
// AddCommand("USERCONFIRMATIONRESPONSE", UserConfirmationResponse);
// AddCommand("SETCBDISCOVERABILITYMODE", SetCBDiscoverabilityMode);
// AddCommand("SETCBCONNECTABILITYMODE", SetCBConnectabilityMode);
// AddCommand("SETCBPAIRABILITYMODE", SetCBPairabilityMode);
// AddCommand("CHANGESIMPLEPAIRINGPARAMETERS", ChangeSimplePairingParameters);
// AddCommand("GETLOCALADDRESS", GetLocalAddress);
// AddCommand("SETLOCALNAME", SetLocalName);
// AddCommand("GETLOCALNAME", GetLocalName);
// AddCommand("SETCLASSOFDEVICE", SetClassOfDevice);
// AddCommand("GETCLASSOFDEVICE", GetClassOfDevice);
// AddCommand("GETREMOTENAME", GetRemoteName);
// AddCommand("SNIFFMODE", SniffMode);
// AddCommand("EXITSNIFFMODE", ExitSniffMode);
// AddCommand("OPEN", OpenServer);
// AddCommand("CLOSE", CloseServer);
// AddCommand("READ", Read);
// AddCommand("WRITE", Write);
// AddCommand("GETCONFIGPARAMS", GetConfigParams);
// AddCommand("SETCONFIGPARAMS", SetConfigParams);
// AddCommand("GETQUEUEPARAMS", GetQueueParams);
// AddCommand("SETQUEUEPARAMS", SetQueueParams);
// AddCommand("LOOPBACK", Loopback);
// AddCommand("DISPLAYRAWMODEDATA", DisplayRawModeData);
// AddCommand("AUTOMATICREADMODE", AutomaticReadMode);
// AddCommand("SETBAUDRATE", SetBaudRate);
// AddCommand("CBSEND", SendData);
// AddCommand("SETDISCOVERABILITYMODE", SetLEDiscoverabilityMode);
// AddCommand("SETCONNECTABILITYMODE", SetLEConnectabilityMode);
// AddCommand("SETPAIRABILITYMODE", SetLEPairabilityMode);
// AddCommand("CHANGEPAIRINGPARAMETERS", ChangeLEPairingParameters);
// AddCommand("ADVERTISELE", AdvertiseLE);
// AddCommand("STARTSCANNING", StartScanning);
// AddCommand("STOPSCANNING", StopScanning);
// AddCommand("CONNECTLE", ConnectLE);
// AddCommand("DISCONNECTLE", DisconnectLE);
// AddCommand("PAIRLE", PairLE);
// AddCommand("LEPASSKEYRESPONSE", LEPassKeyResponse);
// AddCommand("QUERYENCRYPTIONMODE", LEQueryEncryption);
// AddCommand("SETPASSKEY", LESetPasskey);
// AddCommand("DISCOVERSPPLE", DiscoverSPPLE);
// AddCommand("REGISTERSPPLE", RegisterSPPLE);
// AddCommand("CONFIGURESPPLE", ConfigureSPPLE);
// AddCommand("DISCOVERGAPS", DiscoverGAPS);
// AddCommand("GETLOCALNAME", ReadLocalName);
// AddCommand("GETLEREMOTENAME", ReadRemoteName);
// AddCommand("GETLOCALAPPEARANCE", ReadLocalAppearance);
// AddCommand("SETLOCALAPPEARANCE", SetLocalAppearance);
// AddCommand("GETREMOTEAPPEARANCE", ReadRemoteAppearance);
// AddCommand("LESEND", SendDataCommand);
// AddCommand("LEREAD", ReadDataCommand);
// AddCommand("HELP", DisplayHelp);
//}
//
// /* The following function is responsible for choosing the user */
// /* interface to present to the user. */
//static void UserInterface_Selection(void)
//{
// /* Next display the available commands. */
// DisplayHelp(NULL);
//
// ClearCommands();
//
// AddCommand("SERVER", ServerMode);
// AddCommand("CLIENT", ClientMode);
// AddCommand("HELP", DisplayHelp);
//}
//
// /* The following function is responsible for parsing user input */
// /* and call appropriate command function. */
//static Boolean_t CommandLineInterpreter(char *Command)
//{
// int Result = !EXIT_CODE;
// Boolean_t ret_val = FALSE;
// UserCommand_t TempCommand;
//
// /* The string input by the user contains a value, now run the string */
// /* through the Command Parser. */
// if(CommandParser(&TempCommand, Command) >= 0)
// {
// Display(("\r\n"));
//
// /* The Command was successfully parsed run the Command. */
// Result = CommandInterpreter(&TempCommand);
// switch(Result)
// {
// case INVALID_COMMAND_ERROR:
// Display(("Invalid Command: %s.\r\n", TempCommand.Command));
// break;
// case FUNCTION_ERROR:
// Display(("Function Error.\r\n"));
// break;
// case EXIT_CODE:
// /* Close all connected ports. */
// if(UI_Mode == UI_MODE_IS_SERVER)
// CloseServer(NULL);
// else
// {
// if(UI_Mode == UI_MODE_IS_CLIENT)
// CloseRemoteServer(NULL);
// }
//
// /* Restart the User Interface Selection. */
// UI_Mode = UI_MODE_SELECT;
//
// /* Set up the Selection Interface. */
// UserInterface_Selection();
// break;
// }
//
// /* Display a prompt. */
// DisplayPrompt();
//
// /* Flag that a command was executed. */
// ret_val = TRUE;
// }
// else
// {
// /* Display a prompt. */
// DisplayPrompt();
//
// Display(("\r\nInvalid Command.\r\n"));
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for converting number */
// /* strings to there unsigned integer equivalent. This function can */
// /* handle leading and tailing white space, however it does not handle*/
// /* signed or comma delimited values. This function takes as its */
// /* input the string which is to be converted. The function returns */
// /* zero if an error occurs otherwise it returns the value parsed from*/
// /* the string passed as the input parameter. */
//static unsigned long StringToUnsignedInteger(char *StringInteger)
//{
// int IsHex;
// unsigned long Index;
// unsigned long ret_val = 0;
//
// /* Before proceeding make sure that the parameter that was passed as */
// /* an input appears to be at least semi-valid. */
// if((StringInteger) && (BTPS_StringLength(StringInteger)))
// {
// /* Initialize the variable. */
// Index = 0;
//
// /* Next check to see if this is a hexadecimal number. */
// if(BTPS_StringLength(StringInteger) > 2)
// {
// if((StringInteger[0] == '0') && ((StringInteger[1] == 'x') || (StringInteger[1] == 'X')))
// {
// IsHex = 1;
//
// /* Increment the String passed the Hexadecimal prefix. */
// StringInteger += 2;
// }
// else
// IsHex = 0;
// }
// else
// IsHex = 0;
//
// /* Process the value differently depending on whether or not a */
// /* Hexadecimal Number has been specified. */
// if(!IsHex)
// {
// /* Decimal Number has been specified. */
// while(1)
// {
// /* First check to make sure that this is a valid decimal */
// /* digit. */
// if((StringInteger[Index] >= '0') && (StringInteger[Index] <= '9'))
// {
// /* This is a valid digit, add it to the value being */
// /* built. */
// ret_val += (StringInteger[Index] & 0xF);
//
// /* Determine if the next digit is valid. */
// if(((Index + 1) < BTPS_StringLength(StringInteger)) && (StringInteger[Index+1] >= '0') && (StringInteger[Index+1] <= '9'))
// {
// /* The next digit is valid so multiply the current */
// /* return value by 10. */
// ret_val *= 10;
// }
// else
// {
// /* The next value is invalid so break out of the loop.*/
// break;
// }
// }
//
// Index++;
// }
// }
// else
// {
// /* Hexadecimal Number has been specified. */
// while(1)
// {
// /* First check to make sure that this is a valid Hexadecimal*/
// /* digit. */
// if(((StringInteger[Index] >= '0') && (StringInteger[Index] <= '9')) || ((StringInteger[Index] >= 'a') && (StringInteger[Index] <= 'f')) || ((StringInteger[Index] >= 'A') && (StringInteger[Index] <= 'F')))
// {
// /* This is a valid digit, add it to the value being */
// /* built. */
// if((StringInteger[Index] >= '0') && (StringInteger[Index] <= '9'))
// ret_val += (StringInteger[Index] & 0xF);
// else
// {
// if((StringInteger[Index] >= 'a') && (StringInteger[Index] <= 'f'))
// ret_val += (StringInteger[Index] - 'a' + 10);
// else
// ret_val += (StringInteger[Index] - 'A' + 10);
// }
//
// /* Determine if the next digit is valid. */
// if(((Index + 1) < BTPS_StringLength(StringInteger)) && (((StringInteger[Index+1] >= '0') && (StringInteger[Index+1] <= '9')) || ((StringInteger[Index+1] >= 'a') && (StringInteger[Index+1] <= 'f')) || ((StringInteger[Index+1] >= 'A') && (StringInteger[Index+1] <= 'F'))))
// {
// /* The next digit is valid so multiply the current */
// /* return value by 16. */
// ret_val *= 16;
// }
// else
// {
// /* The next value is invalid so break out of the loop.*/
// break;
// }
// }
//
// Index++;
// }
// }
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for parsing strings into */
// /* components. The first parameter of this function is a pointer to */
// /* the String to be parsed. This function will return the start of */
// /* the string upon success and a NULL pointer on all errors. */
//static char *StringParser(char *String)
//{
// int Index;
// char *ret_val = NULL;
//
// /* Before proceeding make sure that the string passed in appears to */
// /* be at least semi-valid. */
// if((String) && (BTPS_StringLength(String)))
// {
// /* The string appears to be at least semi-valid. Search for the */
// /* first space character and replace it with a NULL terminating */
// /* character. */
// for(Index=0, ret_val=String;Index < BTPS_StringLength(String);Index++)
// {
// /* Is this the space character. */
// if((String[Index] == ' ') || (String[Index] == '\r') || (String[Index] == '\n'))
// {
// /* This is the space character, replace it with a NULL */
// /* terminating character and set the return value to the */
// /* begining character of the string. */
// String[Index] = '\0';
// break;
// }
// }
// }
//
// return(ret_val);
//}
//
// /* This function is responsable for taking command strings and */
// /* parsing them into a command, param1, and param2. After parsing */
// /* this string the data is stored into a UserCommand_t structure to */
// /* be used by the interpreter. The first parameter of this function */
// /* is the structure used to pass the parsed command string out of the*/
// /* function. The second parameter of this function is the string */
// /* that is parsed into the UserCommand structure. Successful */
// /* execution of this function is denoted by a retrun value of zero. */
// /* Negative return values denote an error in the parsing of the */
// /* string parameter. */
//static int CommandParser(UserCommand_t *TempCommand, char *Input)
//{
// int ret_val;
// int StringLength;
// char *LastParameter;
// unsigned int Count = 0;
//
// /* Before proceeding make sure that the passed parameters appear to */
// /* be at least semi-valid. */
// if((TempCommand) && (Input) && (BTPS_StringLength(Input)))
// {
// /* First get the initial string length. */
// StringLength = BTPS_StringLength(Input);
//
// /* Retrieve the first token in the string, this should be the */
// /* commmand. */
// TempCommand->Command = StringParser(Input);
//
// /* Flag that there are NO Parameters for this Command Parse. */
// TempCommand->Parameters.NumberofParameters = 0;
//
// /* Check to see if there is a Command */
// if(TempCommand->Command)
// {
// /* Initialize the return value to zero to indicate success on */
// /* commands with no parameters. */
// ret_val = 0;
//
// /* Adjust the UserInput pointer and StringLength to remove the */
// /* Command from the data passed in before parsing the */
// /* parameters. */
// Input += BTPS_StringLength(TempCommand->Command)+1;
// StringLength = BTPS_StringLength(Input);
//
// /* There was an available command, now parse out the parameters*/
// while((StringLength > 0) && ((LastParameter = StringParser(Input)) != NULL))
// {
// /* There is an available parameter, now check to see if */
// /* there is room in the UserCommand to store the parameter */
// if(Count < (sizeof(TempCommand->Parameters.Params)/sizeof(Parameter_t)))
// {
// /* Save the parameter as a string. */
// TempCommand->Parameters.Params[Count].strParam = LastParameter;
//
// /* Save the parameter as an unsigned int intParam will */
// /* have a value of zero if an error has occurred. */
// TempCommand->Parameters.Params[Count].intParam = StringToUnsignedInteger(LastParameter);
//
// Count++;
// Input += BTPS_StringLength(LastParameter)+1;
// StringLength -= BTPS_StringLength(LastParameter)+1;
//
// ret_val = 0;
// }
// else
// {
// /* Be sure we exit out of the Loop. */
// StringLength = 0;
//
// ret_val = TO_MANY_PARAMS;
// }
// }
//
// /* Set the number of parameters in the User Command to the */
// /* number of found parameters */
// TempCommand->Parameters.NumberofParameters = Count;
// }
// else
// {
// /* No command was specified */
// ret_val = NO_COMMAND_ERROR;
// }
// }
// else
// {
// /* One or more of the passed parameters appear to be invalid. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
//
// return(ret_val);
//}
//
// /* This function is responsible for determining the command in which */
// /* the user entered and running the appropriate function associated */
// /* with that command. The first parameter of this function is a */
// /* structure containing information about the commmand to be issued. */
// /* This information includes the command name and multiple parameters*/
// /* which maybe be passed to the function to be executed. Successful */
// /* execution of this function is denoted by a return value of zero. */
// /* A negative return value implies that that command was not found */
// /* and is invalid. */
//static int CommandInterpreter(UserCommand_t *TempCommand)
//{
// int i;
// int ret_val;
// CommandFunction_t CommandFunction;
//
// /* If the command is not found in the table return with an invaild */
// /* command error */
// ret_val = INVALID_COMMAND_ERROR;
//
// /* Let's make sure that the data passed to us appears semi-valid. */
// if((TempCommand) && (TempCommand->Command))
// {
// /* Now, let's make the Command string all upper case so that we */
// /* compare against it. */
// for(i=0;i<BTPS_StringLength(TempCommand->Command);i++)
// {
// if((TempCommand->Command[i] >= 'a') && (TempCommand->Command[i] <= 'z'))
// TempCommand->Command[i] -= ('a' - 'A');
// }
//
// /* Check to see if the command which was entered was exit. */
// if(BTPS_MemCompare(TempCommand->Command, "QUIT", BTPS_StringLength("QUIT")) != 0)
// {
// /* The command entered is not exit so search for command in */
// /* table. */
// if((CommandFunction = FindCommand(TempCommand->Command)) != NULL)
// {
// /* The command was found in the table so call the command. */
// if((ret_val = ((*CommandFunction)(&TempCommand->Parameters))) == 0)
// {
// /* Return success to the caller. */
// ret_val = 0;
// }
// else
// {
// if ((ret_val != EXIT_CODE) && (ret_val != EXIT_TEST_MODE))
// ret_val = FUNCTION_ERROR;
// }
// }
// }
// else
// {
// /* The command entered is exit, set return value to EXIT_CODE */
// /* and return. */
// ret_val = EXIT_CODE;
// }
// }
// else
// ret_val = INVALID_PARAMETERS_ERROR;
//
// return(ret_val);
//}
//
// /* The following function is provided to allow a means to */
// /* programatically add Commands the Global (to this module) Command */
// /* Table. The Command Table is simply a mapping of Command Name */
// /* (NULL terminated ASCII string) to a command function. This */
// /* function returns zero if successful, or a non-zero value if the */
// /* command could not be added to the list. */
//static int AddCommand(char *CommandName, CommandFunction_t CommandFunction)
//{
// int ret_val = 0;
//
// /* First, make sure that the parameters passed to us appear to be */
// /* semi-valid. */
// if((CommandName) && (CommandFunction))
// {
// /* Next, make sure that we still have room in the Command Table */
// /* to add commands. */
// if(NumberCommands < MAX_SUPPORTED_COMMANDS)
// {
// /* Simply add the command data to the command table and */
// /* increment the number of supported commands. */
// CommandTable[NumberCommands].CommandName = CommandName;
// CommandTable[NumberCommands++].CommandFunction = CommandFunction;
//
// /* Return success to the caller. */
// ret_val = 0;
// }
// else
// ret_val = 1;
// }
// else
// ret_val = 1;
//
// return(ret_val);
//}
//
// /* The following function searches the Command Table for the */
// /* specified Command. If the Command is found, this function returns*/
// /* a NON-NULL Command Function Pointer. If the command is not found */
// /* this function returns NULL. */
//static CommandFunction_t FindCommand(char *Command)
//{
// unsigned int Index;
// CommandFunction_t ret_val;
//
// /* First, make sure that the command specified is semi-valid. */
// if(Command)
// {
// /* Now loop through each element in the table to see if there is */
// /* a match. */
// for(Index=0,ret_val=NULL;((Index<NumberCommands) && (!ret_val));Index++)
// {
// if((BTPS_StringLength(CommandTable[Index].CommandName) == BTPS_StringLength(Command)) && (BTPS_MemCompare(Command, CommandTable[Index].CommandName, BTPS_StringLength(CommandTable[Index].CommandName)) == 0))
// ret_val = CommandTable[Index].CommandFunction;
// }
// }
// else
// ret_val = NULL;
//
// return(ret_val);
//}
//
// /* The following function is provided to allow a means to clear out */
// /* all available commands from the command table. */
//static void ClearCommands(void)
//{
// /* Simply flag that there are no commands present in the table. */
// NumberCommands = 0;
//}
//
// /* The following function is responsible for converting data of type */
// /* BD_ADDR to a string. The first parameter of this function is the */
// /* BD_ADDR to be converted to a string. The second parameter of this*/
// /* function is a pointer to the string in which the converted BD_ADDR*/
// /* is to be stored. */
//static void BD_ADDRToStr(BD_ADDR_t Board_Address, BoardStr_t BoardStr)
//{
// BTPS_SprintF((char *)BoardStr, "0x%02X%02X%02X%02X%02X%02X", Board_Address.BD_ADDR5, Board_Address.BD_ADDR4, Board_Address.BD_ADDR3, Board_Address.BD_ADDR2, Board_Address.BD_ADDR1, Board_Address.BD_ADDR0);
//}
//
// /* The following function is responsible for the specified string */
// /* into data of type BD_ADDR. The first parameter of this function */
// /* is the BD_ADDR string to be converted to a BD_ADDR. The second */
// /* parameter of this function is a pointer to the BD_ADDR in which */
// /* the converted BD_ADDR String is to be stored. */
//static void StrToBD_ADDR(char *BoardStr, BD_ADDR_t *Board_Address)
//{
// char *TempPtr;
// unsigned int StringLength;
// unsigned int Index;
// unsigned char Value;
//
// if((BoardStr) && ((StringLength = BTPS_StringLength(BoardStr)) >= (sizeof(BD_ADDR_t) * 2)) && (Board_Address))
// {
// TempPtr = BoardStr;
// if((StringLength >= (sizeof(BD_ADDR_t) * 2) + 2) && (TempPtr[0] == '0') && ((TempPtr[1] == 'x') || (TempPtr[1] == 'X')))
// TempPtr += 2;
//
// for(Index=0;Index<6;Index++)
// {
// Value = (char)(ToInt(*TempPtr) * 0x10);
// TempPtr++;
// Value += (char)ToInt(*TempPtr);
// TempPtr++;
// ((char *)Board_Address)[5-Index] = (Byte_t)Value;
// }
// }
// else
// {
// if(Board_Address)
// BTPS_MemInitialize(Board_Address, 0, sizeof(BD_ADDR_t));
// }
//}
//
// /* Displays the current I/O Capabilities. */
//static void DisplayIOCapabilities(void)
//{
// Display(("LE: I/O Capabilities: %s, MITM: %s.\r\n", IOCapabilitiesStrings[(unsigned int)(LE_Parameters.IOCapability - licDisplayOnly)], LE_Parameters.MITMProtection?"TRUE":"FALSE"));
// Display(("BR/EDR: I/O Capabilities: %s, MITM: %s.\r\n", IOCapabilitiesStrings[(unsigned int)(IOCapability - icDisplayOnly)], MITMProtection?"TRUE":"FALSE"));
//}
//
// /* Utility function to display a Class of Device Structure. */
//static void DisplayClassOfDevice(Class_of_Device_t Class_of_Device)
//{
// Display(("Class of Device: 0x%02X%02X%02X.\r\n", Class_of_Device.Class_of_Device0, Class_of_Device.Class_of_Device1, Class_of_Device.Class_of_Device2));
//}
//
// /* Utility function to display advertising data. */
//static void DisplayAdvertisingData(GAP_LE_Advertising_Data_t *Advertising_Data)
//{
// unsigned int Index;
// unsigned int Index2;
//
// /* Verify that the input parameters seem semi-valid. */
// if(Advertising_Data)
// {
// for(Index = 0; Index < Advertising_Data->Number_Data_Entries; Index++)
// {
// Display((" AD Type: 0x%02X.\r\n", Advertising_Data->Data_Entries[Index].AD_Type));
// Display((" AD Length: 0x%02X.\r\n", Advertising_Data->Data_Entries[Index].AD_Data_Length));
// if(Advertising_Data->Data_Entries[Index].AD_Data_Buffer)
// {
// Display((" AD Data: "));
// for(Index2 = 0; Index2 < Advertising_Data->Data_Entries[Index].AD_Data_Length; Index2++)
// {
// Display(("0x%02X ", Advertising_Data->Data_Entries[Index].AD_Data_Buffer[Index2]));
// }
// Display(("\r\n"));
// }
// }
// }
//}
//
// /* The following function displays the pairing capabalities that is */
// /* passed into this function. */
//static void DisplayPairingInformation(GAP_LE_Pairing_Capabilities_t Pairing_Capabilities)
//{
// /* Display the IO Capability. */
// switch(Pairing_Capabilities.IO_Capability)
// {
// case licDisplayOnly:
// Display((" IO Capability: lcDisplayOnly.\r\n"));
// break;
// case licDisplayYesNo:
// Display((" IO Capability: lcDisplayYesNo.\r\n"));
// break;
// case licKeyboardOnly:
// Display((" IO Capability: lcKeyboardOnly.\r\n"));
// break;
// case licNoInputNoOutput:
// Display((" IO Capability: lcNoInputNoOutput.\r\n"));
// break;
// case licKeyboardDisplay:
// Display((" IO Capability: lcKeyboardDisplay.\r\n"));
// break;
// }
//
// Display((" MITM: %s.\r\n", (Pairing_Capabilities.MITM == TRUE)?"TRUE":"FALSE"));
// Display((" Bonding Type: %s.\r\n", (Pairing_Capabilities.Bonding_Type == lbtBonding)?"Bonding":"No Bonding"));
// Display((" OOB: %s.\r\n", (Pairing_Capabilities.OOB_Present == TRUE)?"OOB":"OOB Not Present"));
// Display((" Encryption Key Size: %d.\r\n", Pairing_Capabilities.Maximum_Encryption_Key_Size));
// Display((" Sending Keys: \r\n"));
// Display((" LTK: %s.\r\n", ((Pairing_Capabilities.Sending_Keys.Encryption_Key == TRUE)?"YES":"NO")));
// Display((" IRK: %s.\r\n", ((Pairing_Capabilities.Sending_Keys.Identification_Key == TRUE)?"YES":"NO")));
// Display((" CSRK: %s.\r\n", ((Pairing_Capabilities.Sending_Keys.Signing_Key == TRUE)?"YES":"NO")));
// Display((" Receiving Keys: \r\n"));
// Display((" LTK: %s.\r\n", ((Pairing_Capabilities.Receiving_Keys.Encryption_Key == TRUE)?"YES":"NO")));
// Display((" IRK: %s.\r\n", ((Pairing_Capabilities.Receiving_Keys.Identification_Key == TRUE)?"YES":"NO")));
// Display((" CSRK: %s.\r\n", ((Pairing_Capabilities.Receiving_Keys.Signing_Key == TRUE)?"YES":"NO")));
//}
//
// /* The following function is provided to properly print a UUID. */
//static void DisplayUUID(GATT_UUID_t *UUID)
//{
// if(UUID)
// {
// if(UUID->UUID_Type == guUUID_16)
// Display(("%02X%02X", UUID->UUID.UUID_16.UUID_Byte1, UUID->UUID.UUID_16.UUID_Byte0));
// else
// {
// if(UUID->UUID_Type == guUUID_128)
// {
// Display(("%02X%02X%02X%02X%02X%02X%02X%02X%02X%02X%02X%02X%02X%02X%02X%02X", UUID->UUID.UUID_128.UUID_Byte15, UUID->UUID.UUID_128.UUID_Byte14, UUID->UUID.UUID_128.UUID_Byte13,
// UUID->UUID.UUID_128.UUID_Byte12, UUID->UUID.UUID_128.UUID_Byte11, UUID->UUID.UUID_128.UUID_Byte10,
// UUID->UUID.UUID_128.UUID_Byte9, UUID->UUID.UUID_128.UUID_Byte8, UUID->UUID.UUID_128.UUID_Byte7,
// UUID->UUID.UUID_128.UUID_Byte6, UUID->UUID.UUID_128.UUID_Byte5, UUID->UUID.UUID_128.UUID_Byte4,
// UUID->UUID.UUID_128.UUID_Byte3, UUID->UUID.UUID_128.UUID_Byte2, UUID->UUID.UUID_128.UUID_Byte1,
// UUID->UUID.UUID_128.UUID_Byte0));
// }
// }
// }
//
// Display((".\r\n"));
//}
//
// /* Displays the correct prompt depening on the Server/Client Mode. */
//static void DisplayPrompt(void)
//{
// //Display(("\r\nSPP+LE>"));
//}
//
// /* Displays a usage string.. */
//static void DisplayUsage(char *UsageString)
//{
// Display(("Usage: %s.\r\n",UsageString));
//}
//
// /* Displays a function error message. */
//static void DisplayFunctionError(char *Function,int Status)
//{
// Display(("%s Failed: %d.\r\n", Function, Status));
//}
//
// /* Displays a function success message. */
//static void DisplayFunctionSuccess(char *Function)
//{
// Display(("%s success.\r\n",Function));
//}
//
// /* The following function is responsible for opening the SS1 */
// /* Bluetooth Protocol Stack. This function accepts a pre-populated */
// /* HCI Driver Information structure that contains the HCI Driver */
// /* Transport Information. This function returns zero on successful */
// /* execution and a negative value on all errors. */
//static int OpenStack(HCI_DriverInformation_t *HCI_DriverInformation, BTPS_Initialization_t *BTPS_Initialization)
//{
// int i;
// int Result;
// int ret_val = 0;
// char BluetoothAddress[16];
// Byte_t Status;
// Byte_t NumberLEPackets;
// Word_t LEPacketLength;
// BD_ADDR_t BD_ADDR;
// unsigned int ServiceID;
// HCI_Version_t HCIVersion;
// L2CA_Link_Connect_Params_t L2CA_Link_Connect_Params;
//
// /* First check to see if the Stack has already been opened. */
// if(!BluetoothStackID)
// {
// /* Next, makes sure that the Driver Information passed appears to */
// /* be semi-valid. */
// if(HCI_DriverInformation)
// {
// Display(("\r\n"));
//
// /* Initialize BTPSKNRl. */
// BTPS_Init((void *)BTPS_Initialization);
//
// Display(("OpenStack().\r\n"));
//
// /* Initialize the Stack */
// Result = BSC_Initialize(HCI_DriverInformation, 0);
//
// /* Next, check the return value of the initialization to see */
// /* if it was successful. */
// if(Result > 0)
// {
// /* The Stack was initialized successfully, inform the user */
// /* and set the return value of the initialization function */
// /* to the Bluetooth Stack ID. */
// BluetoothStackID = Result;
// Display(("Bluetooth Stack ID: %d.\r\n", BluetoothStackID));
//
// /* Initialize the Default Pairing Parameters. */
// LE_Parameters.IOCapability = DEFAULT_LE_IO_CAPABILITY;
// LE_Parameters.MITMProtection = DEFAULT_LE_MITM_PROTECTION;
// LE_Parameters.OOBDataPresent = FALSE;
//
// /* Initialize the default Secure Simple Pairing parameters. */
// IOCapability = DEFAULT_IO_CAPABILITY;
// OOBSupport = FALSE;
// MITMProtection = DEFAULT_MITM_PROTECTION;
//
// if(!HCI_Version_Supported(BluetoothStackID, &HCIVersion))
// Display(("Device Chipset: %s.\r\n", (HCIVersion <= NUM_SUPPORTED_HCI_VERSIONS)?HCIVersionStrings[HCIVersion]:HCIVersionStrings[NUM_SUPPORTED_HCI_VERSIONS]));
//
// /* Let's output the Bluetooth Device Address so that the */
// /* user knows what the Device Address is. */
// if(!GAP_Query_Local_BD_ADDR(BluetoothStackID, &BD_ADDR))
// {
// BD_ADDRToStr(BD_ADDR, BluetoothAddress);
//
// Display(("BD_ADDR: %s\r\n", BluetoothAddress));
// }
//
// if(HCI_Command_Supported(BluetoothStackID, HCI_SUPPORTED_COMMAND_WRITE_DEFAULT_LINK_POLICY_BIT_NUMBER) > 0)
// HCI_Write_Default_Link_Policy_Settings(BluetoothStackID, (HCI_LINK_POLICY_SETTINGS_ENABLE_MASTER_SLAVE_SWITCH|HCI_LINK_POLICY_SETTINGS_ENABLE_SNIFF_MODE), &Status);
//
// /* Go ahead and allow Master/Slave Role Switch. */
// L2CA_Link_Connect_Params.L2CA_Link_Connect_Request_Config = cqAllowRoleSwitch;
// L2CA_Link_Connect_Params.L2CA_Link_Connect_Response_Config = csMaintainCurrentRole;
//
// L2CA_Set_Link_Connection_Configuration(BluetoothStackID, &L2CA_Link_Connect_Params);
//
// if(HCI_Command_Supported(BluetoothStackID, HCI_SUPPORTED_COMMAND_WRITE_DEFAULT_LINK_POLICY_BIT_NUMBER) > 0)
// HCI_Write_Default_Link_Policy_Settings(BluetoothStackID, (HCI_LINK_POLICY_SETTINGS_ENABLE_MASTER_SLAVE_SWITCH|HCI_LINK_POLICY_SETTINGS_ENABLE_SNIFF_MODE), &Status);
//
// /* Delete all Stored Link Keys. */
// ASSIGN_BD_ADDR(BD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
//
// DeleteLinkKey(BD_ADDR);
//
// /* Flag that no connection is currently active. */
// ASSIGN_BD_ADDR(CurrentLERemoteBD_ADDR, 0, 0, 0, 0, 0, 0);
// ASSIGN_BD_ADDR(CurrentCBRemoteBD_ADDR, 0, 0, 0, 0, 0, 0);
// LocalDeviceIsMaster = FALSE;
//
// for(i=0; i<MAX_LE_CONNECTIONS; i++)
// {
// LEContextInfo[i].ConnectionID = 0;
// ASSIGN_BD_ADDR(LEContextInfo[i].ConnectionBD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
// }
//
// /* Regenerate IRK and DHK from the constant Identity Root */
// /* Key. */
// GAP_LE_Diversify_Function(BluetoothStackID, (Encryption_Key_t *)(&IR), 1,0, &IRK);
// GAP_LE_Diversify_Function(BluetoothStackID, (Encryption_Key_t *)(&IR), 3, 0, &DHK);
//
// /* Flag that we have no Key Information in the Key List. */
// DeviceInfoList = NULL;
//
// /* Initialize the GATT Service. */
// if((Result = GATT_Initialize(BluetoothStackID, GATT_INITIALIZATION_FLAGS_SUPPORT_LE, GATT_Connection_Event_Callback, 0)) == 0)
// {
// /* Determine the number of LE packets that the controller*/
// /* will accept at a time. */
// if((!HCI_LE_Read_Buffer_Size(BluetoothStackID, &Status, &LEPacketLength, &NumberLEPackets)) && (!Status) && (LEPacketLength))
// {
// NumberLEPackets = (NumberLEPackets/MAX_LE_CONNECTIONS);
// NumberLEPackets = (NumberLEPackets == 0)?1:NumberLEPackets;
// }
// else
// NumberLEPackets = 1;
//
// /* Set a limit on the number of packets that we will */
// /* queue internally. */
// GATT_Set_Queuing_Parameters(BluetoothStackID, (unsigned int)NumberLEPackets, (unsigned int)(NumberLEPackets-1), FALSE);
//
// /* Initialize the GAPS Service. */
// Result = GAPS_Initialize_Service(BluetoothStackID, &ServiceID);
// if(Result > 0)
// {
// /* Save the Instance ID of the GAP Service. */
// GAPSInstanceID = (unsigned int)Result;
//
// /* Set the GAP Device Name and Device Appearance. */
// GAPS_Set_Device_Name(BluetoothStackID, GAPSInstanceID, LE_DEMO_DEVICE_NAME);
// GAPS_Set_Device_Appearance(BluetoothStackID, GAPSInstanceID, GAP_DEVICE_APPEARENCE_VALUE_GENERIC_COMPUTER);
//
// /* Return success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* The Stack was NOT initialized successfully, inform */
// /* the user and set the return value of the */
// /* initialization function to an error. */
// DisplayFunctionError("GAPS_Initialize_Service", Result);
//
// /* Cleanup GATT Module. */
// GATT_Cleanup(BluetoothStackID);
//
// BluetoothStackID = 0;
//
// ret_val = UNABLE_TO_INITIALIZE_STACK;
// }
// }
// else
// {
// /* The Stack was NOT initialized successfully, inform the*/
// /* user and set the return value of the initialization */
// /* function to an error. */
// DisplayFunctionError("GATT_Initialize", Result);
//
// BluetoothStackID = 0;
//
// ret_val = UNABLE_TO_INITIALIZE_STACK;
// }
//
// /* Initialize SPP context. */
// BTPS_MemInitialize(SPPContextInfo, 0, sizeof(SPPContextInfo));
// }
// else
// {
// /* The Stack was NOT initialized successfully, inform the */
// /* user and set the return value of the initialization */
// /* function to an error. */
// DisplayFunctionError("BSC_Initialize", Result);
//
// BluetoothStackID = 0;
//
// ret_val = UNABLE_TO_INITIALIZE_STACK;
// }
// }
// else
// {
// /* One or more of the necessary parameters are invalid. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for closing the SS1 */
// /* Bluetooth Protocol Stack. This function requires that the */
// /* Bluetooth Protocol stack previously have been initialized via the */
// /* OpenStack() function. This function returns zero on successful */
// /* execution and a negative value on all errors. */
//static int CloseStack(void)
//{
// int ret_val = 0;
//
// /* First check to see if the Stack has been opened. */
// if(BluetoothStackID)
// {
// /* Cleanup GAP Service Module. */
// if(GAPSInstanceID)
// GAPS_Cleanup_Service(BluetoothStackID, GAPSInstanceID);
//
// /* Un-registered SPP LE Service. */
// if(SPPLEServiceID)
// GATT_Un_Register_Service(BluetoothStackID, SPPLEServiceID);
//
// /* Cleanup GATT Module. */
// GATT_Cleanup(BluetoothStackID);
//
// /* Simply close the Stack */
// BSC_Shutdown(BluetoothStackID);
//
// /* Free BTPSKRNL allocated memory. */
// BTPS_DeInit();
//
// Display(("Stack Shutdown.\r\n"));
//
// /* Free the Key List. */
// FreeDeviceInfoList(&DeviceInfoList);
//
// /* Flag that the Stack is no longer initialized. */
// BluetoothStackID = 0;
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* A valid Stack ID does not exist, inform to user. */
// ret_val = UNABLE_TO_INITIALIZE_STACK;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for placing the Local */
// /* Bluetooth Device into General Discoverablity Mode. Once in this */
// /* mode the Device will respond to Inquiry Scans from other Bluetooth*/
// /* Devices. This function requires that a valid Bluetooth Stack ID */
// /* exists before running. This function returns zero on successful */
// /* execution and a negative value if an error occurred. */
//static int SetDisc(void)
//{
// int ret_val = 0;
//
// /* First, check that a valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* A semi-valid Bluetooth Stack ID exists, now attempt to set the */
// /* attached Devices Discoverablity Mode to General. */
// ret_val = GAP_Set_Discoverability_Mode(BluetoothStackID, dmGeneralDiscoverableMode, 0);
//
// /* Next, check the return value of the GAP Set Discoverability */
// /* Mode command for successful execution. */
// if(!ret_val)
// {
// /* * NOTE * Discoverability is only applicable when we are */
// /* advertising so save the default Discoverability */
// /* Mode for later. */
// LE_Parameters.DiscoverabilityMode = dmGeneralDiscoverableMode;
// }
// else
// {
// /* An error occurred while trying to set the Discoverability */
// /* Mode of the Device. */
// DisplayFunctionError("Set Discoverable Mode", ret_val);
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for placing the Local */
// /* Bluetooth Device into Connectable Mode. Once in this mode the */
// /* Device will respond to Page Scans from other Bluetooth Devices. */
// /* This function requires that a valid Bluetooth Stack ID exists */
// /* before running. This function returns zero on success and a */
// /* negative value if an error occurred. */
//static int SetConnect(void)
//{
// int ret_val = 0;
//
// /* First, check that a valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Attempt to set the attached Device to be Connectable. */
// ret_val = GAP_Set_Connectability_Mode(BluetoothStackID, cmConnectableMode);
//
// /* Next, check the return value of the */
// /* GAP_Set_Connectability_Mode() function for successful */
// /* execution. */
// if(!ret_val)
// {
// /* * NOTE * Connectability is only an applicable when */
// /* advertising so we will just save the default */
// /* connectability for the next time we enable */
// /* advertising. */
// LE_Parameters.ConnectableMode = lcmConnectable;
// }
// else
// {
// /* An error occurred while trying to make the Device */
// /* Connectable. */
// DisplayFunctionError("Set Connectability Mode", ret_val);
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for placing the local */
// /* Bluetooth device into Pairable mode. Once in this mode the device*/
// /* will response to pairing requests from other Bluetooth devices. */
// /* This function returns zero on successful execution and a negative */
// /* value on all errors. */
//static int SetPairable(void)
//{
// int Result;
// int ret_val = 0;
//
// /* First, check that a valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Attempt to set the attached device to be pairable. */
// Result = GAP_Set_Pairability_Mode(BluetoothStackID, pmPairableMode);
//
// /* Next, check the return value of the GAP Set Pairability mode */
// /* command for successful execution. */
// if(!Result)
// {
// /* The device has been set to pairable mode, now register an */
// /* Authentication Callback to handle the Authentication events */
// /* if required. */
// Result = GAP_Register_Remote_Authentication(BluetoothStackID, GAP_Event_Callback, (unsigned long)0);
//
// /* Next, check the return value of the GAP Register Remote */
// /* Authentication command for successful execution. */
// if(!Result)
// {
// /* Now Set the LE Pairability. */
//
// /* Attempt to set the attached device to be pairable. */
// Result = GAP_LE_Set_Pairability_Mode(BluetoothStackID, lpmPairableMode);
//
// /* Next, check the return value of the GAP Set Pairability */
// /* mode command for successful execution. */
// if(!Result)
// {
// /* The device has been set to pairable mode, now register*/
// /* an Authentication Callback to handle the */
// /* Authentication events if required. */
// Result = GAP_LE_Register_Remote_Authentication(BluetoothStackID, GAP_LE_Event_Callback, (unsigned long)0);
//
// /* Next, check the return value of the GAP Register */
// /* Remote Authentication command for successful */
// /* execution. */
// if(Result)
// {
// /* An error occurred while trying to execute this */
// /* function. */
// DisplayFunctionError("GAP_LE_Register_Remote_Authentication", Result);
//
// ret_val = Result;
// }
// }
// else
// {
// /* An error occurred while trying to make the device */
// /* pairable. */
// DisplayFunctionError("GAP_LE_Set_Pairability_Mode", Result);
//
// ret_val = Result;
// }
// }
// else
// {
// /* An error occurred while trying to execute this function. */
// DisplayFunctionError("GAP_Register_Remote_Authentication", Result);
//
// ret_val = Result;
// }
// }
// else
// {
// /* An error occurred while trying to make the device pairable. */
// DisplayFunctionError("GAP_Set_Pairability_Mode", Result);
//
// ret_val = Result;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is a utility function that is used to dump */
// /* the Appearance to String Mapping Table. */
//static void DumpAppearanceMappings(void)
//{
// unsigned int Index;
//
// for(Index=0;Index<NUMBER_OF_APPEARANCE_MAPPINGS;++Index)
// Display((" %u = %s.\r\n", Index, AppearanceMappings[Index].String));
//}
//
// /* The following function is used to map a Appearance Value to it's */
// /* string representation. This function returns TRUE on success or */
// /* FALSE otherwise. */
//static Boolean_t AppearanceToString(Word_t Appearance, char **String)
//{
// Boolean_t ret_val;
// unsigned int Index;
//
// /* Verify that the input parameters are semi-valid. */
// if(String)
// {
// for(Index=0,ret_val=FALSE;Index<NUMBER_OF_APPEARANCE_MAPPINGS;++Index)
// {
// if(AppearanceMappings[Index].Appearance == Appearance)
// {
// *String = AppearanceMappings[Index].String;
// ret_val = TRUE;
// break;
// }
// }
// }
// else
// ret_val = FALSE;
//
// return(ret_val);
//}
//
// /* The following function is used to map an Index into the Appearance*/
// /* Mapping table to it's Appearance Value. This function returns */
// /* TRUE on success or FALSE otherwise. */
//static Boolean_t AppearanceIndexToAppearance(unsigned int Index, Word_t *Appearance)
//{
// Boolean_t ret_val;
//
// if((Index < NUMBER_OF_APPEARANCE_MAPPINGS) && (Appearance))
// {
// *Appearance = AppearanceMappings[Index].Appearance;
// ret_val = TRUE;
// }
// else
// ret_val = FALSE;
//
// return(ret_val);
//}
//
// /* The following function is a utility function that provides a */
// /* mechanism of populating discovered GAP Service Handles. */
//static void GAPSPopulateHandles(GAPS_Client_Info_t *ClientInfo, GATT_Service_Discovery_Indication_Data_t *ServiceInfo)
//{
// unsigned int Index1;
// GATT_Characteristic_Information_t *CurrentCharacteristic;
//
// /* Verify that the input parameters are semi-valid. */
// if((ClientInfo) && (ServiceInfo) && (ServiceInfo->ServiceInformation.UUID.UUID_Type == guUUID_16) && (GAP_COMPARE_GAP_SERVICE_UUID_TO_UUID_16(ServiceInfo->ServiceInformation.UUID.UUID.UUID_16)))
// {
// /* Loop through all characteristics discovered in the service */
// /* and populate the correct entry. */
// CurrentCharacteristic = ServiceInfo->CharacteristicInformationList;
// if(CurrentCharacteristic)
// {
// for(Index1=0;Index1<ServiceInfo->NumberOfCharacteristics;Index1++,CurrentCharacteristic++)
// {
// /* All GAP Service UUIDs are defined to be 16 bit UUIDs. */
// if(CurrentCharacteristic->Characteristic_UUID.UUID_Type == guUUID_16)
// {
// /* Determine which characteristic this is. */
// if(!GAP_COMPARE_GAP_DEVICE_NAME_UUID_TO_UUID_16(CurrentCharacteristic->Characteristic_UUID.UUID.UUID_16))
// {
// if(!GAP_COMPARE_GAP_DEVICE_APPEARANCE_UUID_TO_UUID_16(CurrentCharacteristic->Characteristic_UUID.UUID.UUID_16))
// continue;
// else
// {
// ClientInfo->DeviceAppearanceHandle = CurrentCharacteristic->Characteristic_Handle;
// continue;
// }
// }
// else
// {
// ClientInfo->DeviceNameHandle = CurrentCharacteristic->Characteristic_Handle;
// continue;
// }
// }
// }
// }
// }
//}
//
// /* The following function is a utility function that provides a */
// /* mechanism of populating a BRSM Client Information structure with */
// /* the information discovered from a GATT Service Discovery */
// /* operation. */
//static void SPPLEPopulateHandles(SPPLE_Client_Info_t *ClientInfo, GATT_Service_Discovery_Indication_Data_t *ServiceInfo)
//{
// Word_t *ClientConfigurationHandle;
// unsigned int Index1;
// unsigned int Index2;
// GATT_Characteristic_Information_t *CurrentCharacteristic;
// GATT_Characteristic_Descriptor_Information_t *CurrentDescriptor;
//
// /* Verify that the input parameters are semi-valid. */
// if((ClientInfo) && (ServiceInfo) && (ServiceInfo->ServiceInformation.UUID.UUID_Type == guUUID_128) && (SPPLE_COMPARE_SPPLE_SERVICE_UUID_TO_UUID_128(ServiceInfo->ServiceInformation.UUID.UUID.UUID_128)))
// {
// /* Loop through all characteristics discovered in the service */
// /* and populate the correct entry. */
// CurrentCharacteristic = ServiceInfo->CharacteristicInformationList;
// if(CurrentCharacteristic)
// {
// for(Index1=0;Index1<ServiceInfo->NumberOfCharacteristics;Index1++,CurrentCharacteristic++)
// {
// /* All SPPLE UUIDs are defined to be 128 bit UUIDs. */
// if(CurrentCharacteristic->Characteristic_UUID.UUID_Type == guUUID_128)
// {
// ClientConfigurationHandle = NULL;
//
// /* Determine which characteristic this is. */
// if(!SPPLE_COMPARE_SPPLE_TX_UUID_TO_UUID_128(CurrentCharacteristic->Characteristic_UUID.UUID.UUID_128))
// {
// if(!SPPLE_COMPARE_SPPLE_TX_CREDITS_UUID_TO_UUID_128(CurrentCharacteristic->Characteristic_UUID.UUID.UUID_128))
// {
// if(!SPPLE_COMPARE_SPPLE_RX_UUID_TO_UUID_128(CurrentCharacteristic->Characteristic_UUID.UUID.UUID_128))
// {
// if(!SPPLE_COMPARE_SPPLE_RX_CREDITS_UUID_TO_UUID_128(CurrentCharacteristic->Characteristic_UUID.UUID.UUID_128))
// continue;
// else
// {
// ClientInfo->Rx_Credit_Characteristic = CurrentCharacteristic->Characteristic_Handle;
// ClientConfigurationHandle = &(ClientInfo->Rx_Credit_Client_Configuration_Descriptor);
// }
// }
// else
// {
// ClientInfo->Rx_Characteristic = CurrentCharacteristic->Characteristic_Handle;
// continue;
// }
// }
// else
// {
// ClientInfo->Tx_Credit_Characteristic = CurrentCharacteristic->Characteristic_Handle;
// continue;
// }
// }
// else
// {
// ClientInfo->Tx_Characteristic = CurrentCharacteristic->Characteristic_Handle;
// ClientConfigurationHandle = &(ClientInfo->Tx_Client_Configuration_Descriptor);
// }
//
// /* Loop through the Descriptor List. */
// CurrentDescriptor = CurrentCharacteristic->DescriptorList;
// if((CurrentDescriptor) && (ClientConfigurationHandle))
// {
// for(Index2=0;Index2<CurrentCharacteristic->NumberOfDescriptors;Index2++,CurrentDescriptor++)
// {
// if(CurrentDescriptor->Characteristic_Descriptor_UUID.UUID_Type == guUUID_16)
// {
// if(GATT_COMPARE_CLIENT_CHARACTERISTIC_CONFIGURATION_ATTRIBUTE_TYPE_TO_BLUETOOTH_UUID_16(CurrentDescriptor->Characteristic_Descriptor_UUID.UUID.UUID_16))
// {
// *ClientConfigurationHandle = CurrentDescriptor->Characteristic_Descriptor_Handle;
// break;
// }
// }
// }
// }
// }
// }
// }
// }
//}
//
// /* The following function is a utility function that is used to add */
// /* data (using InIndex as the buffer index) from the buffer specified*/
// /* by the DataBuffer parameter. The second and third parameters */
// /* specified the length of the data to add and the pointer to the */
// /* data to add to the buffer. This function returns the actual */
// /* number of bytes that were added to the buffer (or 0 if none were */
// /* added). */
//static unsigned int AddDataToBuffer(SPPLE_Data_Buffer_t *DataBuffer, unsigned int DataLength, Byte_t *Data)
//{
// unsigned int BytesAdded = 0;
// unsigned int Count;
//
// /* Verify that the input parameters are valid. */
// if((DataBuffer) && (DataLength) && (Data))
// {
// /* Loop while we have data AND space in the buffer. */
// while(DataLength)
// {
// /* Get the number of bytes that can be placed in the buffer */
// /* until it wraps. */
// Count = DataBuffer->BufferSize - DataBuffer->InIndex;
//
// /* Determine if the number of bytes free is less than the */
// /* number of bytes till we wrap and choose the smaller of the */
// /* numbers. */
// Count = (DataBuffer->BytesFree < Count)?DataBuffer->BytesFree:Count;
//
// /* Cap the Count that we add to buffer to the length of the */
// /* data provided by the caller. */
// Count = (Count > DataLength)?DataLength:Count;
//
// if(Count)
// {
// /* Copy the data into the buffer. */
// BTPS_MemCopy(&DataBuffer->Buffer[DataBuffer->InIndex], Data, Count);
//
// /* Update the counts. */
// DataBuffer->InIndex += Count;
// DataBuffer->BytesFree -= Count;
// DataLength -= Count;
// BytesAdded += Count;
// Data += Count;
//
// /* Wrap the InIndex if necessary. */
// if(DataBuffer->InIndex >= DataBuffer->BufferSize)
// DataBuffer->InIndex = 0;
// }
// else
// break;
// }
// }
//
// return(BytesAdded);
//}
//
// /* The following function is a utility function that is used to */
// /* removed data (using OutIndex as the buffer index) from the buffer */
// /* specified by the DataBuffer parameter The second parameter */
// /* specifies the length of the Buffer that is pointed to by the third*/
// /* parameter. This function returns the actual number of bytes that */
// /* were removed from the DataBuffer (or 0 if none were added). */
// /* * NOTE * Buffer is optional and if not specified up to */
// /* BufferLength bytes will be deleted from the Buffer. */
//static unsigned int RemoveDataFromBuffer(SPPLE_Data_Buffer_t *DataBuffer, unsigned int BufferLength, Byte_t *Buffer)
//{
// unsigned int Count;
// unsigned int BytesRemoved = 0;
// unsigned int MaxRemove;
//
// /* Verify that the input parameters are valid. */
// if((DataBuffer) && (BufferLength))
// {
// /* Loop while we have data to remove and space in the buffer to */
// /* place it. */
// while(BufferLength)
// {
// /* Determine the number of bytes that are present in the */
// /* buffer. */
// Count = DataBuffer->BufferSize - DataBuffer->BytesFree;
// if(Count)
// {
// /* Calculate the maximum number of bytes that I can remove */
// /* from the buffer before it wraps. */
// MaxRemove = DataBuffer->BufferSize - DataBuffer->OutIndex;
//
// /* Cap max we can remove at the BufferLength of the caller's*/
// /* buffer. */
// MaxRemove = (MaxRemove > BufferLength)?BufferLength:MaxRemove;
//
// /* Cap the number of bytes I will remove in this iteration */
// /* at the maximum I can remove or the number of bytes that */
// /* are in the buffer. */
// Count = (Count > MaxRemove)?MaxRemove:Count;
//
// /* Copy the data into the caller's buffer (If specified). */
// if(Buffer)
// {
// BTPS_MemCopy(Buffer, &DataBuffer->Buffer[DataBuffer->OutIndex], Count);
// Buffer += Count;
// }
//
// /* Update the counts. */
// DataBuffer->OutIndex += Count;
// DataBuffer->BytesFree += Count;
// BytesRemoved += Count;
// BufferLength -= Count;
//
// /* Wrap the OutIndex if necessary. */
// if(DataBuffer->OutIndex >= DataBuffer->BufferSize)
// DataBuffer->OutIndex = 0;
// }
// else
// break;
// }
// }
//
// return(BytesRemoved);
//}
//
// /* The following function is used to initialize the specified buffer */
// /* to the defaults. */
//static void InitializeBuffer(SPPLE_Data_Buffer_t *DataBuffer)
//{
// /* Verify that the input parameters are valid. */
// if(DataBuffer)
// {
// DataBuffer->BufferSize = SPPLE_DATA_CREDITS;
// DataBuffer->BytesFree = SPPLE_DATA_CREDITS;
// DataBuffer->InIndex = 0;
// DataBuffer->OutIndex = 0;
// }
//}
//
// /* The following function function is used to enable/disable */
// /* notications on a specified handle. This function returns the */
// /* positive non-zero Transaction ID of the Write Request or a */
// /* negative error code. */
//static int EnableDisableNotificationsIndications(unsigned int ConnectionID, Word_t ClientConfigurationHandle, Word_t ClientConfigurationValue, GATT_Client_Event_Callback_t ClientEventCallback)
//{
// int ret_val;
// NonAlignedWord_t Buffer;
//
// /* Verify the input parameters. */
// if((BluetoothStackID) && (ConnectionID) && (ClientConfigurationHandle))
// {
// ASSIGN_HOST_WORD_TO_LITTLE_ENDIAN_UNALIGNED_WORD(&Buffer, ClientConfigurationValue);
//
// ret_val = GATT_Write_Request(BluetoothStackID, ConnectionID, ClientConfigurationHandle, sizeof(Buffer), &Buffer, ClientEventCallback, 0);
// }
// else
// ret_val = BTPS_ERROR_INVALID_PARAMETER;
//
// return(ret_val);
//}
//
// /* The following funcition is a utility function that exists to fill */
// /* the specified buffer with the DataStr that is used to send data. */
// /* This function will fill from the CurrentBufferLength up to Max */
// /* Length in Buffer. CurrentBufferLength is used to return the total*/
// /* length of the buffer. The first parameter specifies the */
// /* DeviceInfo which is used to fill any remainder of the string so */
// /* that there are no breaks in the pattern. This function returns */
// /* the number of bytes added to the transmit buffer of the specified */
// /* device. */
//static unsigned int FillBufferWithString(SPPLE_Data_Buffer_t *DataBuffer, unsigned *CurrentBufferLength, unsigned int MaxLength, Byte_t *Buffer)
//{
// unsigned int DataCount;
// unsigned int Added2Buffer = 0;
//
// /* Verify that the input parameter is semi-valid. */
// if((DataBuffer) && (CurrentBufferLength) && (MaxLength) && (Buffer))
// {
// /* Copy as much of the DataStr into the Transmit buffer as is */
// /* possible. */
// while(*CurrentBufferLength < MaxLength)
// {
// /* Cap the data to copy at the maximum of the string length and*/
// /* the remaining amount that can be placed in the buffer. */
// DataCount = (DataStrLen > (MaxLength-*CurrentBufferLength))?(MaxLength-*CurrentBufferLength):DataStrLen;
//
// /* Note we should only add full strings into the transmit */
// /* buffer. */
// if(DataCount == DataStrLen)
// {
// /* Build the data string into the SPPLEBuffer. */
// BTPS_MemCopy(&Buffer[*CurrentBufferLength], DataStr, DataCount);
//
// /* Increment the index. */
// *CurrentBufferLength += DataCount;
// }
// else
// break;
// }
// }
//
// return(Added2Buffer);
//}
//
// /* The following function is responsible for handling a Send Process.*/
//static void SPPLESendProcess(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo)
//{
// int Result;
// Boolean_t Done = FALSE;
// unsigned int TransmitIndex;
// unsigned int MaxLength;
// unsigned int SPPLEBufferLength;
// unsigned int Added2Buffer;
//
// /* Verify that the input parameter is semi-valid. */
// if((LEContextInfo) && (DeviceInfo))
// {
////xxx
////xxx Display(("Transmit Credits: %u.\r\n", DeviceInfo->TransmitCredits));
//
// /* Loop while we have data to send and we have not used up all */
// /* Transmit Credits. */
// TransmitIndex = 0;
// SPPLEBufferLength = 0;
// Added2Buffer = 0;
// while((LEContextInfo->SPPLEBufferInfo.SendInfo.BytesToSend) && (LEContextInfo->BufferFull == FALSE) && (LEContextInfo->SPPLEBufferInfo.TransmitCredits) && (!Done))
// {
// /* Get the maximum length of what we can send in this */
// /* transaction. */
// MaxLength = (LEContextInfo->SPPLEBufferInfo.SendInfo.BytesToSend > LEContextInfo->SPPLEBufferInfo.TransmitCredits)?LEContextInfo->SPPLEBufferInfo.TransmitCredits:LEContextInfo->SPPLEBufferInfo.SendInfo.BytesToSend;
// MaxLength = (MaxLength > SPPLE_DATA_BUFFER_LENGTH)?SPPLE_DATA_BUFFER_LENGTH:MaxLength;
//
// /* If we do not have any outstanding data get some more data. */
// if(!SPPLEBufferLength)
// {
// /* Send any buffered data first. */
// if(LEContextInfo->SPPLEBufferInfo.TransmitBuffer.BytesFree != LEContextInfo->SPPLEBufferInfo.TransmitBuffer.BufferSize)
// {
// /* Remove the queued data from the Transmit Buffer. */
// SPPLEBufferLength = RemoveDataFromBuffer(&(LEContextInfo->SPPLEBufferInfo.TransmitBuffer), MaxLength, SPPLEBuffer);
//
// /* If we added some data to the transmit buffer decrement*/
// /* what we just removed. */
// if(Added2Buffer>=SPPLEBufferLength)
// Added2Buffer -= SPPLEBufferLength;
// }
//
// /* Fill up the rest of the buffer with the data string. */
// Added2Buffer += FillBufferWithString(&(LEContextInfo->SPPLEBufferInfo.TransmitBuffer), &SPPLEBufferLength, MaxLength, SPPLEBuffer);
//
// /* Reset the Transmit Index to 0. */
// TransmitIndex = 0;
//
// /* If we dont have any data to send (i.e. we didn't have */
// /* enough credits to fill up a string) we should just exit */
// /* the loop. */
// if(SPPLEBufferLength == 0)
// break;
// }
//
// /* Use the correct API based on device role for SPPLE. */
// if(DeviceInfo->Flags & DEVICE_INFO_FLAGS_SPPLE_SERVER)
// {
// /* We are acting as SPPLE Server, so notify the Tx */
// /* Characteristic. */
// if(DeviceInfo->ServerInfo.Tx_Client_Configuration_Descriptor == GATT_CLIENT_CONFIGURATION_CHARACTERISTIC_NOTIFY_ENABLE)
// Result = GATT_Handle_Value_Notification(BluetoothStackID, SPPLEServiceID, LEContextInfo->ConnectionID, SPPLE_TX_CHARACTERISTIC_ATTRIBUTE_OFFSET, (Word_t)SPPLEBufferLength, &SPPLEBuffer[TransmitIndex]);
// else
// {
// /* Not configured for notifications so exit the loop. */
// Done = TRUE;
// }
// }
// else
// {
// /* We are acting as SPPLE Client, so write to the Rx */
// /* Characteristic. */
// if(DeviceInfo->ClientInfo.Tx_Characteristic)
// Result = GATT_Write_Without_Response_Request(BluetoothStackID, LEContextInfo->ConnectionID, DeviceInfo->ClientInfo.Rx_Characteristic, (Word_t)SPPLEBufferLength, &SPPLEBuffer[TransmitIndex]);
// else
// {
// /* We have not discovered the Tx Characteristic, so exit */
// /* the loop. */
// Done = TRUE;
// }
// }
//
// /* Check to see if any data was written. */
// if(!Done)
// {
// /* Check to see if the data was written successfully. */
// if(Result >= 0)
// {
////xxx Debug Statement
////xxx Display(("Actually sent %u of Maximum %u.\r\n", (unsigned int)Result, MaxLength));
//
// /* Adjust the counters. */
// LEContextInfo->SPPLEBufferInfo.SendInfo.BytesToSend -= (unsigned int)Result;
// LEContextInfo->SPPLEBufferInfo.SendInfo.BytesSent += (unsigned int)Result;
// TransmitIndex += (unsigned int)Result;
// SPPLEBufferLength -= (unsigned int)Result;
// LEContextInfo->SPPLEBufferInfo.TransmitCredits -= (unsigned int)Result;
//
// /* If we have no more remaining Tx Credits AND we have */
// /* data built up to send, we need to queue this in the Tx*/
// /* Buffer. */
// if((!(LEContextInfo->SPPLEBufferInfo.TransmitCredits)) && (SPPLEBufferLength))
// {
// /* Add the remaining data to the transmit buffer. */
// AddDataToBuffer(&(LEContextInfo->SPPLEBufferInfo.TransmitBuffer), SPPLEBufferLength, &SPPLEBuffer[TransmitIndex]);
//
// SPPLEBufferLength = 0;
// }
// }
// else
// {
// /* Check to see what error has occurred. */
// if(Result == BTPS_ERROR_INSUFFICIENT_BUFFER_SPACE)
// {
// /* Queue is full so add the data that we have into the*/
// /* transmit buffer for this device and wait on the */
// /* buffer to empty. */
// AddDataToBuffer(&(LEContextInfo->SPPLEBufferInfo.TransmitBuffer), SPPLEBufferLength, &SPPLEBuffer[TransmitIndex]);
//
// SPPLEBufferLength = 0;
//
// /* Flag that the LE buffer is full */
// LEContextInfo->BufferFull = TRUE;
////xxx
////xxx Display(("xxx Buffer Full for device %s.\r\n", __FUNCTION__));
// }
// else
// {
// Display(("SEND failed with error %d\r\n", Result));
//
// LEContextInfo->SPPLEBufferInfo.SendInfo.BytesToSend = 0;
// }
// }
// }
// }
//
// /* If we have added more bytes to the transmit buffer than we can */
// /* send in this process remove the extra. */
// if(Added2Buffer > LEContextInfo->SPPLEBufferInfo.SendInfo.BytesToSend)
// RemoveDataFromBuffer(&(LEContextInfo->SPPLEBufferInfo.TransmitBuffer), Added2Buffer-LEContextInfo->SPPLEBufferInfo.SendInfo.BytesToSend, NULL);
//
// /* Display a message if we have sent all required data. */
// if((!(LEContextInfo->SPPLEBufferInfo.SendInfo.BytesToSend)) && (LEContextInfo->SPPLEBufferInfo.SendInfo.BytesSent))
// {
// Display(("\r\nSend Complete, Sent %u.\r\n", LEContextInfo->SPPLEBufferInfo.SendInfo.BytesSent));
// DisplayPrompt();
//
// LEContextInfo->SPPLEBufferInfo.SendInfo.BytesSent = 0;
// }
// }
//}
//
// /* The following function is responsible for transmitting the */
// /* specified number of credits to the remote device. */
//static void SPPLESendCredits(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo, unsigned int DataLength)
//{
// int Result;
// unsigned int ActualCredits;
// NonAlignedWord_t Credits;
//
// /* Verify that the input parameters are semi-valid. */
// if((LEContextInfo) && (DeviceInfo) && ((DataLength) || (LEContextInfo->SPPLEBufferInfo.QueuedCredits)))
// {
////xxx Debug statement
////xxx Display(("\r\nSending %u Credits.\r\n", DataLength));
//
// /* Only attempt to send the credits if the LE buffer is not full. */
// if(LEContextInfo->BufferFull == FALSE)
// {
// /* Make sure that we don't credit more than can be filled in */
// /* our receive buffer. */
// ActualCredits = DataLength + LEContextInfo->SPPLEBufferInfo.QueuedCredits;
// ActualCredits = (ActualCredits > LEContextInfo->SPPLEBufferInfo.ReceiveBuffer.BytesFree)?LEContextInfo->SPPLEBufferInfo.ReceiveBuffer.BytesFree:ActualCredits;
//
// /* Format the credit packet. */
// ASSIGN_HOST_WORD_TO_LITTLE_ENDIAN_UNALIGNED_WORD(&Credits, ActualCredits);
//
// /* Determine how to send credits based on the role. */
// if(DeviceInfo->Flags & DEVICE_INFO_FLAGS_SPPLE_SERVER)
// {
// /* We are acting as a server so notify the Rx Credits */
// /* characteristic. */
// if(DeviceInfo->ServerInfo.Rx_Credit_Client_Configuration_Descriptor == GATT_CLIENT_CONFIGURATION_CHARACTERISTIC_NOTIFY_ENABLE)
// Result = GATT_Handle_Value_Notification(BluetoothStackID, SPPLEServiceID, LEContextInfo->ConnectionID, SPPLE_RX_CREDITS_CHARACTERISTIC_ATTRIBUTE_OFFSET, WORD_SIZE, (Byte_t *)&Credits);
// else
// Result = 0;
// }
// else
// {
// /* We are acting as a client so send a Write Without */
// /* Response packet to the Tx Credit Characteristic. */
// if(DeviceInfo->ClientInfo.Tx_Credit_Characteristic)
// Result = GATT_Write_Without_Response_Request(BluetoothStackID, LEContextInfo->ConnectionID, DeviceInfo->ClientInfo.Tx_Credit_Characteristic, WORD_SIZE, &Credits);
// else
// Result = 0;
// }
//
// /* If an error occurred we need to queue the credits to try */
// /* again. */
// if(Result >= 0)
// {
// /* Clear the queued credit count as if there were any queued*/
// /* credits they have now been sent. */
// LEContextInfo->SPPLEBufferInfo.QueuedCredits = 0;
// }
// else
// {
// if(Result == BTPS_ERROR_INSUFFICIENT_BUFFER_SPACE)
// {
// /* Flag that the buffer is full. */
// LEContextInfo->BufferFull = TRUE;
////xxx
////xxx Display(("xxx Buffer Full for device %s.\r\n", __FUNCTION__));
// }
//
// LEContextInfo->SPPLEBufferInfo.QueuedCredits += DataLength;
// }
// }
// else
// LEContextInfo->SPPLEBufferInfo.QueuedCredits += DataLength;
// }
//}
//
// /* The following function is responsible for handling a received */
// /* credit, event. */
//static void SPPLEReceiveCreditEvent(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo, unsigned int Credits)
//{
// /* Verify that the input parameters are semi-valid. */
// if((LEContextInfo) && (DeviceInfo))
// {
////xxx Debug statement
////xxx Display(("\r\nReceived %u Credits, Credit Count %u.\r\n", Credits, Credits+LEContextInfo->SPPLEBufferInfo.TransmitCredits));
//
// /* If this is a real credit event store the number of credits. */
// LEContextInfo->SPPLEBufferInfo.TransmitCredits += Credits;
//
// /* Handle any active send process. */
// SPPLESendProcess(LEContextInfo, DeviceInfo);
//
// /* Send all queued data. */
// SPPLESendData(LEContextInfo, DeviceInfo, 0, NULL);
//
// /* It is possible that we have received data queued, so call the */
// /* Data Indication Event to handle this. */
// SPPLEDataIndicationEvent(LEContextInfo, DeviceInfo, 0, NULL);
// }
//}
//
// /* The following function sends the specified data to the specified */
// /* data. This function will queue any of the data that does not go */
// /* out. This function returns the number of bytes sent if all the */
// /* data was sent, or 0. */
// /* * NOTE * If DataLength is 0 and Data is NULL then all queued data */
// /* will be sent. */
//static unsigned int SPPLESendData(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo, unsigned int DataLength, Byte_t *Data)
//{
// int Result;
// Boolean_t Done;
// unsigned int DataCount;
// unsigned int MaxLength;
// unsigned int TransmitIndex;
// unsigned int QueuedBytes;
// unsigned int SPPLEBufferLength;
// unsigned int TotalBytesTransmitted = 0;
//
// /* Verify that the input parameters are semi-valid. */
// if((LEContextInfo) && (DeviceInfo))
// {
// /* Loop while we have data to send and we can send it. */
// Done = FALSE;
// TransmitIndex = 0;
// SPPLEBufferLength = 0;
// while(!Done)
// {
// /* Check to see if we have credits to use to transmit the data */
// /* (and that the buffer is not FULL). */
// if((LEContextInfo->SPPLEBufferInfo.TransmitCredits) && (LEContextInfo->BufferFull == FALSE))
// {
// /* Get the maximum length of what we can send in this */
// /* transaction. */
// MaxLength = (SPPLE_DATA_BUFFER_LENGTH > LEContextInfo->SPPLEBufferInfo.TransmitCredits)?LEContextInfo->SPPLEBufferInfo.TransmitCredits:SPPLE_DATA_BUFFER_LENGTH;
//
// /* If we do not have any outstanding data get some more */
// /* data. */
// if(!SPPLEBufferLength)
// {
// /* Send any buffered data first. */
// if(LEContextInfo->SPPLEBufferInfo.TransmitBuffer.BytesFree != LEContextInfo->SPPLEBufferInfo.TransmitBuffer.BufferSize)
// {
// /* Remove the queued data from the Transmit Buffer. */
// SPPLEBufferLength = RemoveDataFromBuffer(&(LEContextInfo->SPPLEBufferInfo.TransmitBuffer), MaxLength, SPPLEBuffer);
// }
// else
// {
// /* Check to see if we have data to send. */
// if((DataLength) && (Data))
// {
// /* Copy the data to send into the SPPLEBuffer. */
// SPPLEBufferLength = (DataLength > MaxLength)?MaxLength:DataLength;
// BTPS_MemCopy(SPPLEBuffer, Data, SPPLEBufferLength);
//
// DataLength -= SPPLEBufferLength;
// Data += SPPLEBufferLength;
// }
// else
// {
// /* No data queued or data left to send so exit the */
// /* loop. */
// Done = TRUE;
// }
// }
//
// /* Set the count of data that we can send. */
// DataCount = SPPLEBufferLength;
//
// /* Reset the Transmit Index to 0. */
// TransmitIndex = 0;
// }
// else
// {
// /* We have data to send so cap it at the maximum that can*/
// /* be transmitted. */
// DataCount = (SPPLEBufferLength > MaxLength)?MaxLength:SPPLEBufferLength;
// }
//
// /* Try to write data if not exiting the loop. */
// if(!Done)
// {
////xxx Debug statement
////xxx Display(("\r\nTrying to send %u bytes.\r\n", DataCount));
//
// /* Use the correct API based on device role for SPPLE. */
// if(DeviceInfo->Flags & DEVICE_INFO_FLAGS_SPPLE_SERVER)
// {
// /* We are acting as SPPLE Server, so notify the Tx */
// /* Characteristic. */
// if(DeviceInfo->ServerInfo.Tx_Client_Configuration_Descriptor == GATT_CLIENT_CONFIGURATION_CHARACTERISTIC_NOTIFY_ENABLE)
// Result = GATT_Handle_Value_Notification(BluetoothStackID, SPPLEServiceID, LEContextInfo->ConnectionID, SPPLE_TX_CHARACTERISTIC_ATTRIBUTE_OFFSET, (Word_t)DataCount, &SPPLEBuffer[TransmitIndex]);
// else
// {
// /* Not configured for notifications so exit the */
// /* loop. */
// Done = TRUE;
// }
// }
// else
// {
// /* We are acting as SPPLE Client, so write to the Rx */
// /* Characteristic. */
// if(DeviceInfo->ClientInfo.Tx_Characteristic)
// Result = GATT_Write_Without_Response_Request(BluetoothStackID, LEContextInfo->ConnectionID, DeviceInfo->ClientInfo.Rx_Characteristic, (Word_t)DataCount, &SPPLEBuffer[TransmitIndex]);
// else
// {
// /* We have not discovered the Tx Characteristic, so*/
// /* exit the loop. */
// Done = TRUE;
// }
// }
//
// /* Check to see if any data was written. */
// if(!Done)
// {
// /* Check to see if the data was written successfully. */
// if(Result >= 0)
// {
// /* Adjust the counters. */
// TransmitIndex += (unsigned int)Result;
// SPPLEBufferLength -= (unsigned int)Result;
// LEContextInfo->SPPLEBufferInfo.TransmitCredits -= (unsigned int)Result;
//
////xxx Debug statement
////xxx Display(("\r\nSent %u, Remaining Credits %u.\r\n", (unsigned int)Result, DeviceInfo->TransmitCredits));
//
// /* Flag that data was sent. */
// TotalBytesTransmitted += Result;
//
// /* If we have no more remaining Tx Credits AND we */
// /* have data built up to send, we need to queue */
// /* this in the Tx Buffer. */
// if((!(LEContextInfo->SPPLEBufferInfo.TransmitCredits)) && (SPPLEBufferLength))
// {
// /* Add the remaining data to the transmit */
// /* buffer. */
// QueuedBytes = AddDataToBuffer(&(LEContextInfo->SPPLEBufferInfo.TransmitBuffer), SPPLEBufferLength, &SPPLEBuffer[TransmitIndex]);
// TotalBytesTransmitted += QueuedBytes;
//
// SPPLEBufferLength = 0;
// }
// }
// else
// {
// /* Failed to send data so add the data that we have*/
// /* into the transmit buffer for this device and */
// /* wait on the buffer to empty. */
// QueuedBytes = AddDataToBuffer(&(LEContextInfo->SPPLEBufferInfo.TransmitBuffer), SPPLEBufferLength, &SPPLEBuffer[TransmitIndex]);
// TotalBytesTransmitted += QueuedBytes;
//
// SPPLEBufferLength = 0;
//
// /* Flag that we should exit the loop. */
// Done = TRUE;
//
// /* Check to see what error has occurred. */
// if(Result == BTPS_ERROR_INSUFFICIENT_BUFFER_SPACE)
// {
// /* Flag that the LE buffer is full. */
// LEContextInfo->BufferFull = TRUE;
//
////xxx
////xxx Display(("xxx Buffer Full for device %s.\r\n", __FUNCTION__));
// }
// else
// Display(("SEND failed with error %d\r\n", Result));
// }
// }
// }
// }
// else
// {
// /* We have no transmit credits, so buffer the data. */
// QueuedBytes = AddDataToBuffer(&(LEContextInfo->SPPLEBufferInfo.TransmitBuffer), DataLength, Data);
//
// TotalBytesTransmitted += QueuedBytes;
//
// /* Exit the loop. */
// Done = TRUE;
// }
// }
// }
//
// return(TotalBytesTransmitted);
//}
//
// /* The following function is responsible for handling a data */
// /* indication event. */
//static void SPPLEDataIndicationEvent(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo, unsigned int DataLength, Byte_t *Data)
//{
// Boolean_t Done;
// unsigned int ReadLength;
// unsigned int Length;
// unsigned int Transmitted;
//
// /* Verify that the input parameters are semi-valid. */
// if((LEContextInfo) && (DeviceInfo))
// {
////xxx Debug statement
////xxx Display(("\r\nData Indication Event: %u bytes.\r\n", (unsigned int)DataLength));
//
// /* If we are automatically reading the data, go ahead and credit */
// /* what we just received, as well as reading everying in the */
// /* buffer. */
// if((AutomaticReadActive) || (LoopbackActive))
// {
// /* Loop until we read all of the data queued. */
// Done = FALSE;
// while(!Done)
// {
// /* If in loopback mode cap what we remove at the max of what*/
// /* we can send or queue. If in loopback we will also not */
// /* attempt to read more than can be filled in the transmit */
// /* buffer. This is to guard against the case where we read */
// /* data that we could not queue or transmit due to a buffer */
// /* full condition. */
// if(LoopbackActive)
// ReadLength = (SPPLE_DATA_BUFFER_LENGTH > (LEContextInfo->SPPLEBufferInfo.TransmitBuffer.BytesFree))?(LEContextInfo->SPPLEBufferInfo.TransmitBuffer.BytesFree):SPPLE_DATA_BUFFER_LENGTH;
// else
// ReadLength = SPPLE_DATA_BUFFER_LENGTH;
//
// /* Read all queued data. */
// Length = SPPLEReadData(LEContextInfo, DeviceInfo, ReadLength, SPPLEBuffer);
// if(((int)Length) > 0)
// {
// /* If loopback is active, loopback the data. */
// if(LoopbackActive)
// {
// Transmitted = SPPLESendData(LEContextInfo, DeviceInfo, Length, SPPLEBuffer);
// if((Transmitted != Length) || (LEContextInfo->BufferFull))
// {
// /* If we failed to send all that was read (or the */
// /* LE buffer is now full) then we should exit the */
// /* loop. */
// Done = TRUE;
// }
// }
//
// /* If we are displaying the data then do that here. */
// if(DisplayRawData)
// {
// SPPLEBuffer[Length] = '\0';
// Display(((char *)SPPLEBuffer));
// }
// }
// else
// Done = TRUE;
// }
//
// /* Only send/display data just received if any is specified in */
// /* the call to this function. */
// if((DataLength) && (Data))
// {
// /* If loopback is active, loopback the data just received. */
// if((AutomaticReadActive) || (LoopbackActive))
// {
// /* If we are displaying the data then do that here. */
// if(DisplayRawData)
// {
// BTPS_MemCopy(SPPLEBuffer, Data, DataLength);
// SPPLEBuffer[DataLength] = '\0';
// Display(((char *)SPPLEBuffer));
// }
//
// /* Check to see if Loopback is active, if it is we will */
// /* loopback the data we just received. */
// if(LoopbackActive)
// {
// /* Only queue the data in the receive buffer that we */
// /* cannot send. If in loopback we will also not */
// /* attempt to read more than can be filled in the */
// /* transmit buffer. This is to guard against the case*/
// /* where we read data that we could not queue or */
// /* transmit due to a buffer full condition. */
// ReadLength = (DataLength > (LEContextInfo->SPPLEBufferInfo.TransmitBuffer.BytesFree))?(LEContextInfo->SPPLEBufferInfo.TransmitBuffer.BytesFree):DataLength;
//
// /* Send the data. */
// if((Transmitted = SPPLESendData(LEContextInfo, DeviceInfo, ReadLength, Data)) > 0)
// {
// /* Credit the data we just sent. */
// SPPLESendCredits(LEContextInfo, DeviceInfo, Transmitted);
//
// /* Increment what was just sent. */
// DataLength -= ReadLength;
// Data += ReadLength;
// }
// }
// else
// {
// /* Loopback is not active so just credit back the data*/
// /* we just received. */
// SPPLESendCredits(LEContextInfo, DeviceInfo, DataLength);
//
// DataLength = 0;
// }
//
// /* If we have data left that cannot be sent, queue this */
// /* in the receive buffer. */
// if((DataLength) && (Data))
// {
// /* We are not in Loopback or Automatic Read Mode so */
// /* just buffer all the data. */
// Length = AddDataToBuffer(&(LEContextInfo->SPPLEBufferInfo.ReceiveBuffer), DataLength, Data);
// // if(Length != DataLength)
// // Display(("Receive Buffer Overflow of %u bytes", DataLength - Length));
// }
// }
//
// /* If we are displaying the data then do that here. */
// if(DisplayRawData)
// {
// BTPS_MemCopy(SPPLEBuffer, Data, DataLength);
// SPPLEBuffer[DataLength] = '\0';
// Display(((char *)SPPLEBuffer));
// }
// }
// }
// else
// {
// if((DataLength) && (Data))
// {
// /* Display a Data indication event. */
// // Display(("\r\nData Indication Event, Connection ID %u, Received %u bytes.\r\n", LEContextInfo->ConnectionID, DataLength));
//
// /* We are not in Loopback or Automatic Read Mode so just */
// /* buffer all the data. */
// Length = AddDataToBuffer(&(LEContextInfo->SPPLEBufferInfo.ReceiveBuffer), DataLength, Data);
// //if(Length != DataLength)
// //Display(("Receive Buffer Overflow of %u bytes.\r\n", DataLength - Length));
// }
// }
// }
//}
//
// /* The following function is used to read data from the specified */
// /* device. The final two parameters specify the BufferLength and the*/
// /* Buffer to read the data into. On success this function returns */
// /* the number of bytes read. If an error occurs this will return a */
// /* negative error code. */
//static int SPPLEReadData(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo, unsigned int BufferLength, Byte_t *Buffer)
//{
// int ret_val;
// Boolean_t Done;
// unsigned int Length;
// unsigned int TotalLength;
//
// /* Verify that the input parameters are semi-valid. */
// if((LEContextInfo) && (DeviceInfo) && (BufferLength) && (Buffer))
// {
// Done = FALSE;
// TotalLength = 0;
// while(!Done)
// {
// Length = RemoveDataFromBuffer(&(LEContextInfo->SPPLEBufferInfo.ReceiveBuffer), BufferLength, Buffer);
// if(Length > 0)
// {
// BufferLength -= Length;
// Buffer += Length;
// TotalLength += Length;
// }
// else
// Done = TRUE;
// }
//
// /* Credit what we read. */
// SPPLESendCredits(LEContextInfo, DeviceInfo, TotalLength);
//
// /* Return the total number of bytes read. */
// ret_val = (int)TotalLength;
// }
// else
// ret_val = BTPS_ERROR_INVALID_PARAMETER;
//
// return(ret_val);
//}
//
// /* The following function is responsible for starting a scan. */
//static int StartScan(unsigned int BluetoothStackID)
//{
// int Result;
//
// /* First, determine if the input parameters appear to be semi-valid. */
// if(BluetoothStackID)
// {
// /* Not currently scanning, go ahead and attempt to perform the */
// /* scan. */
// Result = GAP_LE_Perform_Scan(BluetoothStackID, stActive, 10, 10, latPublic, fpNoFilter, TRUE, GAP_LE_Event_Callback, 0);
//
// if(!Result)
// {
// Display(("Scan started successfully.\r\n"));
// }
// else
// {
// /* Unable to start the scan. */
// Display(("Unable to perform scan: %d\r\n", Result));
// }
// }
// else
// Result = -1;
//
// return(Result);
//}
//
// /* The following function is responsible for stopping on on-going */
// /* scan. */
//static int StopScan(unsigned int BluetoothStackID)
//{
// int Result;
//
// /* First, determine if the input parameters appear to be semi-valid. */
// if(BluetoothStackID)
// {
// Result = GAP_LE_Cancel_Scan(BluetoothStackID);
// if(!Result)
// {
// Display(("Scan stopped successfully.\r\n"));
// }
// else
// {
// /* Error stopping scan. */
// Display(("Unable to stop scan: %d\r\n", Result));
// }
// }
// else
// Result = -1;
//
// return(Result);
//}
//
// /* The following function is responsible for creating an LE */
// /* connection to the specified Remote Device. */
//static int ConnectLEDevice(unsigned int BluetoothStackID, GAP_LE_Address_Type_t Address_Type, BD_ADDR_t BD_ADDR, Boolean_t UseWhiteList)
//{
// int Result;
// int LEConnectionIndex;
// unsigned int WhiteListChanged;
// GAP_LE_White_List_Entry_t WhiteListEntry;
// GAP_LE_Connection_Parameters_t ConnectionParameters;
//
// /* First, determine if the input parameters appear to be semi-valid. */
// if((BluetoothStackID) && (!COMPARE_NULL_BD_ADDR(BD_ADDR)))
// {
// /* Make sure that there are available connections */
// if((LEConnectionIndex = FindFreeLEIndex()) >= 0)
// {
// /* Check to see if the device is already connected. */
// if(FindLEIndexByAddress(BD_ADDR) == -1)
// {
// /* Remove any previous entries for this device from the */
// /* White List. */
// WhiteListEntry.Address_Type = Address_Type;
// WhiteListEntry.Address = BD_ADDR;
//
// GAP_LE_Remove_Device_From_White_List(BluetoothStackID, 1, &WhiteListEntry, &WhiteListChanged);
//
// if(UseWhiteList)
// Result = GAP_LE_Add_Device_To_White_List(BluetoothStackID, 1, &WhiteListEntry, &WhiteListChanged);
// else
// Result = 1;
//
// /* If everything has been successful, up until this point, */
// /* then go ahead and attempt the connection. */
// if(Result >= 0)
// {
// /* Initialize the connection parameters. */
// ConnectionParameters.Connection_Interval_Min = 50;
// ConnectionParameters.Connection_Interval_Max = 200;
// ConnectionParameters.Minimum_Connection_Length = 0;
// ConnectionParameters.Maximum_Connection_Length = 10000;
// ConnectionParameters.Slave_Latency = 0;
// ConnectionParameters.Supervision_Timeout = 20000;
//
// /* Everything appears correct, go ahead and attempt to */
// /* make the connection. */
// Result = GAP_LE_Create_Connection(BluetoothStackID, 100, 100, Result?fpNoFilter:fpWhiteList, Address_Type, Result?&BD_ADDR:NULL, latPublic, &ConnectionParameters, GAP_LE_Event_Callback, 0);
//
// if(!Result)
// {
// Display(("Connection Request successful.\r\n"));
//
// /* Add to an unused position in the connection info */
// /* array. */
// LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR = BD_ADDR;
// }
// else
// {
// /* Unable to create connection. */
// Display(("Unable to create connection: %d.\r\n", Result));
// }
// }
// else
// {
// /* Unable to add device to White List. */
// Display(("Unable to add device to White List.\r\n"));
// }
// }
// else
// {
// /* Device already connected. */
// Display(("Device is already connected.\r\n"));
//
// Result = -2;
// }
// }
// else
// {
// /* MAX_LE_CONNECTIONS reached */
// Display(("Connection limit reached. No connections available.\r\n"));
// Result = -3;
// }
// }
// else
// Result = -1;
//
// return(Result);
//}
//
// /* The following function is provided to allow a mechanism to */
// /* disconnect a currently connected device. */
//static int DisconnectLEDevice(unsigned int BluetoothStackID, BD_ADDR_t BD_ADDR)
//{
// int Result;
//
// /* First, determine if the input parameters appear to be semi-valid. */
// if((BluetoothStackID) && (!COMPARE_NULL_BD_ADDR(BD_ADDR)))
// {
// /* Make sure that a device with address BD_ADDR is connected */
// if(FindLEIndexByAddress(BD_ADDR) >= 0)
// {
// Result = GAP_LE_Disconnect(BluetoothStackID, BD_ADDR);
// if(!Result)
// {
// Display(("Disconnect Request successful.\r\n"));
// }
// else
// {
// /* Unable to disconnect device. */
// Display(("Unable to disconnect device: %d.\r\n", Result));
// }
// }
// else
// {
// /* Device not connected. */
// Display(("Device is not connected.\r\n"));
//
// Result = 0;
// }
// }
// else
// Result = -1;
//
// return(Result);
//}
//
// /* The following function provides a mechanism to configure a */
// /* Pairing Capabilities structure with the application's pairing */
// /* parameters. */
//static void ConfigureCapabilities(GAP_LE_Pairing_Capabilities_t *Capabilities)
//{
// /* Make sure the Capabilities pointer is semi-valid. */
// if(Capabilities)
// {
// /* Configure the Pairing Cabilities structure. */
// Capabilities->Bonding_Type = lbtBonding;
// Capabilities->IO_Capability = LE_Parameters.IOCapability;
// Capabilities->MITM = LE_Parameters.MITMProtection;
// Capabilities->OOB_Present = LE_Parameters.OOBDataPresent;
//
// /* ** NOTE ** This application always requests that we use the */
// /* maximum encryption because this feature is not a */
// /* very good one, if we set less than the maximum we */
// /* will internally in GAP generate a key of the */
// /* maximum size (we have to do it this way) and then */
// /* we will zero out how ever many of the MSBs */
// /* necessary to get the maximum size. Also as a slave */
// /* we will have to use Non-Volatile Memory (per device */
// /* we are paired to) to store the negotiated Key Size. */
// /* By requesting the maximum (and by not storing the */
// /* negotiated key size if less than the maximum) we */
// /* allow the slave to power cycle and regenerate the */
// /* LTK for each device it is paired to WITHOUT storing */
// /* any information on the individual devices we are */
// /* paired to. */
// Capabilities->Maximum_Encryption_Key_Size = GAP_LE_MAXIMUM_ENCRYPTION_KEY_SIZE;
//
// /* This application only demostrates using Long Term Key's (LTK) */
// /* for encryption of a LE Link, however we could request and send */
// /* all possible keys here if we wanted to. */
// Capabilities->Receiving_Keys.Encryption_Key = TRUE;
// Capabilities->Receiving_Keys.Identification_Key = FALSE;
// Capabilities->Receiving_Keys.Signing_Key = FALSE;
//
// Capabilities->Sending_Keys.Encryption_Key = TRUE;
// Capabilities->Sending_Keys.Identification_Key = FALSE;
// Capabilities->Sending_Keys.Signing_Key = FALSE;
// }
//}
//
// /* The following function provides a mechanism for sending a pairing */
// /* request to a device that is connected on an LE Link. */
//static int SendPairingRequest(BD_ADDR_t BD_ADDR, Boolean_t ConnectionMaster)
//{
// int ret_val;
// BoardStr_t BoardStr;
// GAP_LE_Pairing_Capabilities_t Capabilities;
//
// /* Make sure a Bluetooth Stack is open. */
// if(BluetoothStackID)
// {
// /* Make sure the BD_ADDR is valid. */
// if(!COMPARE_NULL_BD_ADDR(BD_ADDR))
// {
// /* Configure the application pairing parameters. */
// ConfigureCapabilities(&Capabilities);
//
// /* Set the BD_ADDR of the device that we are attempting to pair*/
// /* with. */
// CurrentLERemoteBD_ADDR = BD_ADDR;
//
// BD_ADDRToStr(BD_ADDR, BoardStr);
// Display(("Attempting to Pair to %s.\r\n", BoardStr));
//
// /* Attempt to pair to the remote device. */
// if(ConnectionMaster)
// {
// /* Start the pairing process. */
// ret_val = GAP_LE_Pair_Remote_Device(BluetoothStackID, BD_ADDR, &Capabilities, GAP_LE_Event_Callback, 0);
//
// Display((" GAP_LE_Pair_Remote_Device returned %d.\r\n", ret_val));
// }
// else
// {
// /* As a slave we can only request that the Master start */
// /* the pairing process. */
// ret_val = GAP_LE_Request_Security(BluetoothStackID, BD_ADDR, Capabilities.Bonding_Type, Capabilities.MITM, GAP_LE_Event_Callback, 0);
//
// Display((" GAP_LE_Request_Security returned %d.\r\n", ret_val));
// }
// }
// else
// {
// Display(("Invalid Parameters.\r\n"));
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// Display(("Stack ID Invalid.\r\n"));
//
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function provides a mechanism of sending a Slave */
// /* Pairing Response to a Master's Pairing Request. */
//static int SlavePairingRequestResponse(BD_ADDR_t BD_ADDR)
//{
// int ret_val;
// BoardStr_t BoardStr;
// GAP_LE_Authentication_Response_Information_t AuthenticationResponseData;
//
// /* Make sure a Bluetooth Stack is open. */
// if(BluetoothStackID)
// {
// BD_ADDRToStr(BD_ADDR, BoardStr);
// Display(("Sending Pairing Response to %s.\r\n", BoardStr));
//
// /* We must be the slave if we have received a Pairing Request */
// /* thus we will respond with our capabilities. */
// AuthenticationResponseData.GAP_LE_Authentication_Type = larPairingCapabilities;
// AuthenticationResponseData.Authentication_Data_Length = GAP_LE_PAIRING_CAPABILITIES_SIZE;
//
// /* Configure the Application Pairing Parameters. */
// ConfigureCapabilities(&(AuthenticationResponseData.Authentication_Data.Pairing_Capabilities));
//
// /* Attempt to pair to the remote device. */
// ret_val = GAP_LE_Authentication_Response(BluetoothStackID, BD_ADDR, &AuthenticationResponseData);
//
// Display(("GAP_LE_Authentication_Response returned %d.\r\n", ret_val));
// }
// else
// {
// Display(("Stack ID Invalid.\r\n"));
//
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is provided to allow a mechanism of */
// /* responding to a request for Encryption Information to send to a */
// /* remote device. */
//static int EncryptionInformationRequestResponse(BD_ADDR_t BD_ADDR, Byte_t KeySize, GAP_LE_Authentication_Response_Information_t *GAP_LE_Authentication_Response_Information)
//{
// int ret_val;
// Word_t LocalDiv;
//
// /* Make sure a Bluetooth Stack is open. */
// if(BluetoothStackID)
// {
// /* Make sure the input parameters are semi-valid. */
// if((!COMPARE_NULL_BD_ADDR(BD_ADDR)) && (GAP_LE_Authentication_Response_Information))
// {
// Display((" Calling GAP_LE_Generate_Long_Term_Key.\r\n"));
//
// /* Generate a new LTK, EDIV and Rand tuple. */
// ret_val = GAP_LE_Generate_Long_Term_Key(BluetoothStackID, (Encryption_Key_t *)(&DHK), (Encryption_Key_t *)(&ER), &(GAP_LE_Authentication_Response_Information->Authentication_Data.Encryption_Information.LTK), &LocalDiv, &(GAP_LE_Authentication_Response_Information->Authentication_Data.Encryption_Information.EDIV), &(GAP_LE_Authentication_Response_Information->Authentication_Data.Encryption_Information.Rand));
// if(!ret_val)
// {
// Display((" Encryption Information Request Response.\r\n"));
//
// /* Response to the request with the LTK, EDIV and Rand */
// /* values. */
// GAP_LE_Authentication_Response_Information->GAP_LE_Authentication_Type = larEncryptionInformation;
// GAP_LE_Authentication_Response_Information->Authentication_Data_Length = GAP_LE_ENCRYPTION_INFORMATION_DATA_SIZE;
// GAP_LE_Authentication_Response_Information->Authentication_Data.Encryption_Information.Encryption_Key_Size = KeySize;
//
// ret_val = GAP_LE_Authentication_Response(BluetoothStackID, BD_ADDR, GAP_LE_Authentication_Response_Information);
// if(!ret_val)
// {
// Display((" GAP_LE_Authentication_Response (larEncryptionInformation) success.\r\n", ret_val));
// }
// else
// {
// Display((" Error - SM_Generate_Long_Term_Key returned %d.\r\n", ret_val));
// }
// }
// else
// {
// Display((" Error - SM_Generate_Long_Term_Key returned %d.\r\n", ret_val));
// }
// }
// else
// {
// Display(("Invalid Parameters.\r\n"));
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// Display(("Stack ID Invalid.\r\n"));
//
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is a utility function that exists to delete*/
// /* the specified Link Key from the Local Bluetooth Device. If a NULL*/
// /* Bluetooth Device Address is specified, then all Link Keys will be */
// /* deleted. */
//static int DeleteLinkKey(BD_ADDR_t BD_ADDR)
//{
// int Result;
// Byte_t Status_Result;
// Word_t Num_Keys_Deleted = 0;
// BD_ADDR_t NULL_BD_ADDR;
//
// Result = HCI_Delete_Stored_Link_Key(BluetoothStackID, BD_ADDR, TRUE, &Status_Result, &Num_Keys_Deleted);
//
// /* Any stored link keys for the specified address (or all) have been */
// /* deleted from the chip. Now, let's make sure that our stored Link */
// /* Key Array is in sync with these changes. */
//
// /* First check to see all Link Keys were deleted. */
// ASSIGN_BD_ADDR(NULL_BD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
//
// if(COMPARE_BD_ADDR(BD_ADDR, NULL_BD_ADDR))
// BTPS_MemInitialize(LinkKeyInfo, 0, sizeof(LinkKeyInfo));
// else
// {
// /* Individual Link Key. Go ahead and see if know about the entry */
// /* in the list. */
// for(Result=0;(Result<sizeof(LinkKeyInfo)/sizeof(LinkKeyInfo_t));Result++)
// {
// if(COMPARE_BD_ADDR(BD_ADDR, LinkKeyInfo[Result].BD_ADDR))
// {
// LinkKeyInfo[Result].BD_ADDR = NULL_BD_ADDR;
//
// break;
// }
// }
// }
//
// return(Result);
//}
//
// /* The following function is responsible for setting the application */
// /* state to support loopback mode. This function will return zero on*/
// /* successful execution and a negative value on errors. */
//static int Loopback(ParameterList_t *TempParam)
//{
// int ret_val;
//
// /* First check to see if the parameters required for the execution of*/
// /* this function appear to be semi-valid. */
// if(BluetoothStackID)
// {
// /* Next check to see if the parameters required for the execution */
// /* of this function appear to be semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 0))
// {
// if(TempParam->Params->intParam)
// LoopbackActive = TRUE;
// else
// LoopbackActive = FALSE;
// }
// else
// LoopbackActive = (LoopbackActive?FALSE:TRUE);
//
// /* Finally output the current Loopback state. */
// Display(("Current Loopback Mode set to: %s.\r\n", LoopbackActive?"ACTIVE":"INACTIVE"));
//
//#if MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE == 0
//
// if(LoopbackActive)
// Display(("SPP Loopback not supported with MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE = 0.\r\n"));
//
//#endif
//
// /* Flag success. */
// ret_val = 0;
// }
// else
// {
// /* One or more of the necessary parameters are invalid. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for setting the application */
// /* state to support displaying Raw Data. This function will return */
// /* zero on successful execution and a negative value on errors. */
//static int DisplayRawModeData(ParameterList_t *TempParam)
//{
// int ret_val;
//
// /* First check to see if the parameters required for the execution of*/
// /* this function appear to be semi-valid. */
// if(BluetoothStackID)
// {
// /* Check to see if Loopback is active. If it is then we will not */
// /* process this command (and we will inform the user). */
// if(!LoopbackActive)
// {
// /* Next check to see if the parameters required for the */
// /* execution of this function appear to be semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 0))
// {
// if(TempParam->Params->intParam)
// DisplayRawData = TRUE;
// else
// DisplayRawData = FALSE;
// }
// else
// DisplayRawData = (DisplayRawData?FALSE:TRUE);
//
// /* Output the current Raw Data Display Mode state. */
// Display(("Current Raw Data Display Mode set to: %s.\r\n", DisplayRawData?"ACTIVE":"INACTIVE"));
//
//#if MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE == 0
//
// if(DisplayRawData)
// Display(("SPP Display Raw not supported with MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE = 0.\r\n"));
//
//#endif
//
// /* Flag that the function was successful. */
// ret_val = 0;
// }
// else
// {
// Display(("Unable to process Raw Mode Display Request when operating in Loopback Mode.\r\n"));
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters are invalid. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for setting the application */
// /* state to support Automatically reading all data that is received */
// /* through SPP. This function will return zero on successful */
// /* execution and a negative value on errors. */
//static int AutomaticReadMode(ParameterList_t *TempParam)
//{
// int ret_val;
//
// /* First check to see if the parameters required for the execution of*/
// /* this function appear to be semi-valid. */
// if(BluetoothStackID)
// {
// /* Check to see if Loopback is active. If it is then we will not */
// /* process this command (and we will inform the user). */
// if(!LoopbackActive)
// {
// /* Next check to see if the parameters required for the */
// /* execution of this function appear to be semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 0))
// {
// if(TempParam->Params->intParam)
// AutomaticReadActive = TRUE;
// else
// AutomaticReadActive = FALSE;
// }
// else
// AutomaticReadActive = (AutomaticReadActive?FALSE:TRUE);
//
// /* Output the current Automatic Read Mode state. */
// Display(("Current Automatic Read Mode set to: %s.\r\n", AutomaticReadActive?"ACTIVE":"INACTIVE"));
//
//#if MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE == 0
//
// if(AutomaticReadActive)
// Display(("SPP Automatic Read Mode not supported with MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE = 0.\r\n"));
//
//#endif
//
// /* Flag that the function was successful. */
// ret_val = 0;
// }
// else
// {
// Display(("Unable to process Automatic Read Mode Request when operating in Loopback Mode.\r\n"));
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters are invalid. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for performing a General */
// /* Inquiry for discovering Bluetooth Devices. This function requires*/
// /* that a valid Bluetooth Stack ID exists before running. This */
// /* function returns zero is successful or a negative value if there */
// /* was an error. */
//static int Inquiry(ParameterList_t *TempParam)
//{
// int Result;
// int ret_val = 0;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Use the GAP_Perform_Inquiry() function to perform an Inquiry. */
// /* The Inquiry will last 10 seconds or until 1 Bluetooth Device is*/
// /* found. When the Inquiry Results become available the */
// /* GAP_Event_Callback is called. */
// Result = GAP_Perform_Inquiry(BluetoothStackID, itGeneralInquiry, 0, 0, 10, MAX_INQUIRY_RESULTS, GAP_Event_Callback, (unsigned long)NULL);
//
// /* Next, check to see if the GAP_Perform_Inquiry() function was */
// /* successful. */
// if(!Result)
// {
// /* The Inquiry appears to have been sent successfully. */
// /* Processing of the results returned from this command occurs */
// /* within the GAP_Event_Callback() function. */
//
// /* Flag that we have found NO Bluetooth Devices. */
// NumberofValidResponses = 0;
//
// ret_val = 0;
// }
// else
// {
// /* A error occurred while performing the Inquiry. */
// DisplayFunctionError("Inquiry", Result);
//
// ret_val = Result;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is a utility function that exists to */
// /* display the current Inquiry List (with Indexes). This is useful */
// /* in case the user has forgotten what Inquiry Index a particular */
// /* Bluteooth Device was located in. This function returns zero on */
// /* successful execution and a negative value on all errors. */
//static int DisplayInquiryList(ParameterList_t *TempParam)
//{
// int ret_val = 0;
// BoardStr_t Function_BoardStr;
// unsigned int Index;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Simply display all of the items in the Inquiry List. */
// Display(("Inquiry List: %d Devices%s\r\n\r\n", NumberofValidResponses, NumberofValidResponses?":":"."));
//
// for(Index=0;Index<NumberofValidResponses;Index++)
// {
// BD_ADDRToStr(InquiryResultList[Index], Function_BoardStr);
//
// Display((" Inquiry Result: %d, %s.\r\n", (Index+1), Function_BoardStr));
// }
//
// if(NumberofValidResponses)
// Display(("\r\n"));
//
// /* All finished, flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for setting the */
// /* Discoverability Mode of the local device. This function returns */
// /* zero on successful execution and a negative value on all errors. */
//static int SetCBDiscoverabilityMode(ParameterList_t *TempParam)
//{
// int Result;
// int ret_val;
// GAP_Discoverability_Mode_t DiscoverabilityMode;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Make sure that all of the parameters required for this function*/
// /* appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam >= 0) && (TempParam->Params[0].intParam <= 2))
// {
// /* Parameters appear to be valid, map the specified parameters */
// /* into the API specific parameters. */
// if(TempParam->Params[0].intParam == 1)
// DiscoverabilityMode = dmLimitedDiscoverableMode;
// else
// {
// if(TempParam->Params[0].intParam == 2)
// DiscoverabilityMode = dmGeneralDiscoverableMode;
// else
// DiscoverabilityMode = dmNonDiscoverableMode;
// }
//
// /* Parameters mapped, now set the Discoverability Mode. */
// Result = GAP_Set_Discoverability_Mode(BluetoothStackID, DiscoverabilityMode, (DiscoverabilityMode == dmLimitedDiscoverableMode)?60:0);
//
// /* Next, check the return value to see if the command was */
// /* issued successfully. */
// if(Result >= 0)
// {
// /* The Mode was changed successfully. */
// Display(("Discoverability: %s.\r\n", (DiscoverabilityMode == dmNonDiscoverableMode)?"Non":((DiscoverabilityMode == dmGeneralDiscoverableMode)?"General":"Limited")));
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* There was an error setting the Mode. */
// DisplayFunctionError("GAP_Set_Discoverability_Mode", Result);
//
// /* Flag that an error occurred while submitting the command.*/
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// DisplayUsage("SetDiscoverabilityMode [Mode(0 = Non Discoverable, 1 = Limited Discoverable, 2 = General Discoverable)]");
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for setting the */
// /* Connectability Mode of the local device. This function returns */
// /* zero on successful execution and a negative value on all errors. */
//static int SetCBConnectabilityMode(ParameterList_t *TempParam)
//{
// int Result;
// int ret_val;
// GAP_Connectability_Mode_t ConnectableMode;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Make sure that all of the parameters required for this function*/
// /* appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam >= 0) && (TempParam->Params[0].intParam <= 1))
// {
// /* Parameters appear to be valid, map the specified parameters */
// /* into the API specific parameters. */
// if(TempParam->Params[0].intParam == 0)
// ConnectableMode = cmNonConnectableMode;
// else
// ConnectableMode = cmConnectableMode;
//
// /* Parameters mapped, now set the Connectabilty Mode. */
// Result = GAP_Set_Connectability_Mode(BluetoothStackID, ConnectableMode);
//
// /* Next, check the return value to see if the command was */
// /* issued successfully. */
// if(Result >= 0)
// {
// /* The Mode was changed successfully. */
// Display(("Connectability Mode: %s.\r\n", (ConnectableMode == cmNonConnectableMode)?"Non Connectable":"Connectable"));
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* There was an error setting the Mode. */
// DisplayFunctionError("GAP_Set_Connectability_Mode", Result);
//
// /* Flag that an error occurred while submitting the command.*/
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// DisplayUsage("SetConnectabilityMode [(0 = NonConectable, 1 = Connectable)]");
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for setting the Pairability */
// /* Mode of the local device. This function returns zero on */
// /* successful execution and a negative value on all errors. */
//static int SetCBPairabilityMode(ParameterList_t *TempParam)
//{
// int Result;
// int ret_val;
// char *Mode;
// GAP_Pairability_Mode_t PairabilityMode;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Make sure that all of the parameters required for this function*/
// /* appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam >= 0) && (TempParam->Params[0].intParam <= 2))
// {
// /* Parameters appear to be valid, map the specified parameters */
// /* into the API specific parameters. */
// if(TempParam->Params[0].intParam == 0)
// {
// PairabilityMode = pmNonPairableMode;
// Mode = "pmNonPairableMode";
// }
// else
// {
// if(TempParam->Params[0].intParam == 1)
// {
// PairabilityMode = pmPairableMode;
// Mode = "pmPairableMode";
// }
// else
// {
// PairabilityMode = pmPairableMode_EnableSecureSimplePairing;
// Mode = "pmPairableMode_EnableSecureSimplePairing";
// }
// }
//
// /* Parameters mapped, now set the Pairability Mode. */
// Result = GAP_Set_Pairability_Mode(BluetoothStackID, PairabilityMode);
//
// /* Next, check the return value to see if the command was */
// /* issued successfully. */
// if(Result >= 0)
// {
// /* The Mode was changed successfully. */
// Display(("Pairability Mode Changed to %s.\r\n", Mode));
//
// /* If Secure Simple Pairing has been enabled, inform the */
// /* user of the current Secure Simple Pairing parameters. */
// if(PairabilityMode == pmPairableMode_EnableSecureSimplePairing)
// DisplayIOCapabilities();
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* There was an error setting the Mode. */
// DisplayFunctionError("GAP_Set_Pairability_Mode", Result);
//
// /* Flag that an error occurred while submitting the command.*/
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// DisplayUsage("SetPairabilityMode [Mode (0 = Non Pairable, 1 = Pairable, 2 = Pairable (Secure Simple Pairing)]");
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for changing the Secure */
// /* Simple Pairing Parameters that are exchanged during the Pairing */
// /* procedure when Secure Simple Pairing (Security Level 4) is used. */
// /* This function returns zero on successful execution and a negative */
// /* value on all errors. */
//static int ChangeSimplePairingParameters(ParameterList_t *TempParam)
//{
// int ret_val = 0;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Make sure that all of the parameters required for this function*/
// /* appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters >= 2) && (TempParam->Params[0].intParam >= 0) && (TempParam->Params[0].intParam <= 3))
// {
// /* Parameters appear to be valid, map the specified parameters */
// /* into the API specific parameters. */
// if(TempParam->Params[0].intParam == 0)
// IOCapability = icDisplayOnly;
// else
// {
// if(TempParam->Params[0].intParam == 1)
// IOCapability = icDisplayYesNo;
// else
// {
// if(TempParam->Params[0].intParam == 2)
// IOCapability = icKeyboardOnly;
// else
// IOCapability = icNoInputNoOutput;
// }
// }
//
// /* Finally map the Man in the Middle (MITM) Protection valud. */
// MITMProtection = (Boolean_t)(TempParam->Params[1].intParam?TRUE:FALSE);
//
// /* Inform the user of the New I/O Capablities. */
// DisplayIOCapabilities();
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// DisplayUsage("ChangeSimplePairingParameters [I/O Capability (0 = Display Only, 1 = Display Yes/No, 2 = Keyboard Only, 3 = No Input/Output)] [MITM Requirement (0 = No, 1 = Yes)]");
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for initiating bonding with */
// /* a remote device. This function returns zero on successful */
// /* execution and a negative value on all errors. */
//static int Pair(ParameterList_t *TempParam)
//{
// int Result;
// int ret_val;
// GAP_Bonding_Type_t BondingType;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* There are currently no active connections, make sure that all */
// /* of the parameters required for this function appear to be at */
// /* least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam) && (NumberofValidResponses) && (TempParam->Params[0].intParam <= NumberofValidResponses) && (!COMPARE_NULL_BD_ADDR(InquiryResultList[(TempParam->Params[0].intParam - 1)])))
// {
// /* Check to see if General Bonding was specified. */
// if(TempParam->NumberofParameters > 1)
// BondingType = TempParam->Params[1].intParam?btGeneral:btDedicated;
// else
// BondingType = btDedicated;
//
// /* Verify that we are not connected to device already. */
// if(FindSPPPortIndexByAddress(InquiryResultList[(TempParam->Params[0].intParam - 1)]) < 0)
// {
// /* Before we submit the command to the stack, we need to */
// /* make sure that we clear out any Link Key we have stored */
// /* for the specified device. */
// DeleteLinkKey(InquiryResultList[(TempParam->Params[0].intParam - 1)]);
//
// /* Attempt to submit the command. */
// Result = GAP_Initiate_Bonding(BluetoothStackID, InquiryResultList[(TempParam->Params[0].intParam - 1)], BondingType, GAP_Event_Callback, (unsigned long)0);
//
// /* Check the return value of the submitted command for */
// /* success. */
// if(!Result)
// {
// /* Display a messsage indicating that Bonding was */
// /* initiated successfully. */
// Display(("GAP_Initiate_Bonding(%s): Success.\r\n", (BondingType == btDedicated)?"Dedicated":"General"));
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* Display a message indicating that an error occured */
// /* while initiating bonding. */
// DisplayFunctionError("GAP_Initiate_Bonding", Result);
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* Display an error to the user describing that Pairing can */
// /* only occur when we are not connected. */
// Display(("Only valid when not connected.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// DisplayUsage("Pair [Inquiry Index] [0 = Dedicated, 1 = General (optional)]");
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for ending a previously */
// /* initiated bonding session with a remote device. This function */
// /* returns zero on successful execution and a negative value on all */
// /* errors. */
//static int EndPairing(ParameterList_t *TempParam)
//{
// int Result;
// int ret_val;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Make sure that all of the parameters required for this function*/
// /* appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam) && (NumberofValidResponses) && (TempParam->Params[0].intParam <= NumberofValidResponses) && (!COMPARE_NULL_BD_ADDR(InquiryResultList[(TempParam->Params[0].intParam - 1)])))
// {
// /* Attempt to submit the command. */
// Result = GAP_End_Bonding(BluetoothStackID, InquiryResultList[(TempParam->Params[0].intParam - 1)]);
//
// /* Check the return value of the submitted command for success.*/
// if(!Result)
// {
// /* Display a messsage indicating that the End bonding was */
// /* successfully submitted. */
// DisplayFunctionSuccess("GAP_End_Bonding");
//
// /* Flag success to the caller. */
// ret_val = 0;
//
// /* Flag that there is no longer a current Authentication */
// /* procedure in progress. */
// ASSIGN_BD_ADDR(CurrentCBRemoteBD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
// }
// else
// {
// /* Display a message indicating that an error occured while */
// /* ending bonding. */
// DisplayFunctionError("GAP_End_Bonding", Result);
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// DisplayUsage("EndPairing [Inquiry Index]");
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for issuing a GAP */
// /* Authentication Response with a PIN Code value specified via the */
// /* input parameter. This function returns zero on successful */
// /* execution and a negative value on all errors. */
//static int PINCodeResponse(ParameterList_t *TempParam)
//{
// int Result;
// int ret_val;
// PIN_Code_t PINCode;
// GAP_Authentication_Information_t GAP_Authentication_Information;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* First, check to see if there is an on-going Pairing operation */
// /* active. */
// if(!COMPARE_NULL_BD_ADDR(CurrentCBRemoteBD_ADDR))
// {
// /* Make sure that all of the parameters required for this */
// /* function appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) > 0) && (BTPS_StringLength(TempParam->Params[0].strParam) <= sizeof(PIN_Code_t)))
// {
// /* Parameters appear to be valid, go ahead and convert the */
// /* input parameter into a PIN Code. */
//
// /* Initialize the PIN code. */
// ASSIGN_PIN_CODE(PINCode, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0);
//
// BTPS_MemCopy(&PINCode, TempParam->Params[0].strParam, BTPS_StringLength(TempParam->Params[0].strParam));
//
// /* Populate the response structure. */
// GAP_Authentication_Information.GAP_Authentication_Type = atPINCode;
// GAP_Authentication_Information.Authentication_Data_Length = (Byte_t)(BTPS_StringLength(TempParam->Params[0].strParam));
// GAP_Authentication_Information.Authentication_Data.PIN_Code = PINCode;
//
// /* Submit the Authentication Response. */
// Result = GAP_Authentication_Response(BluetoothStackID, CurrentCBRemoteBD_ADDR, &GAP_Authentication_Information);
//
// /* Check the return value for the submitted command for */
// /* success. */
// if(!Result)
// {
// /* Operation was successful, inform the user. */
// Display(("GAP_Authentication_Response(), Pin Code Response Success.\r\n"));
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* Inform the user that the Authentication Response was */
// /* not successful. */
// Display(("GAP_Authentication_Response() Failure: %d.\r\n", Result));
//
// ret_val = FUNCTION_ERROR;
// }
//
// /* Flag that there is no longer a current Authentication */
// /* procedure in progress. */
// ASSIGN_BD_ADDR(CurrentCBRemoteBD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// DisplayUsage("PINCodeResponse [PIN Code]");
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* There is not currently an on-going authentication operation,*/
// /* inform the user of this error condition. */
// Display(("PIN Code Authentication Response: Authentication not in progress.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for issuing a GAP */
// /* Authentication Response with a Pass Key value specified via the */
// /* input parameter. This function returns zero on successful */
// /* execution and a negative value on all errors. */
//static int PassKeyResponse(ParameterList_t *TempParam)
//{
// int Result;
// int ret_val;
// GAP_Authentication_Information_t GAP_Authentication_Information;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* First, check to see if there is an on-going Pairing operation */
// /* active. */
// if(!COMPARE_NULL_BD_ADDR(CurrentCBRemoteBD_ADDR))
// {
// /* Make sure that all of the parameters required for this */
// /* function appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (BTPS_StringLength(TempParam->Params[0].strParam) <= GAP_PASSKEY_MAXIMUM_NUMBER_OF_DIGITS))
// {
// /* Parameters appear to be valid, go ahead and populate the */
// /* response structure. */
// GAP_Authentication_Information.GAP_Authentication_Type = atPassKey;
// GAP_Authentication_Information.Authentication_Data_Length = (Byte_t)(sizeof(DWord_t));
// GAP_Authentication_Information.Authentication_Data.Passkey = (DWord_t)(TempParam->Params[0].intParam);
//
// /* Submit the Authentication Response. */
// Result = GAP_Authentication_Response(BluetoothStackID, CurrentCBRemoteBD_ADDR, &GAP_Authentication_Information);
//
// /* Check the return value for the submitted command for */
// /* success. */
// if(!Result)
// {
// /* Operation was successful, inform the user. */
// DisplayFunctionSuccess("Passkey Response Success");
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* Inform the user that the Authentication Response was */
// /* not successful. */
// DisplayFunctionError("GAP_Authentication_Response", Result);
//
// ret_val = FUNCTION_ERROR;
// }
//
// /* Flag that there is no longer a current Authentication */
// /* procedure in progress. */
// ASSIGN_BD_ADDR(CurrentCBRemoteBD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// Display(("PassKeyResponse[Numeric Passkey(0 - 999999)].\r\n"));
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* There is not currently an on-going authentication operation,*/
// /* inform the user of this error condition. */
// Display(("Pass Key Authentication Response: Authentication not in progress.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for issuing a GAP */
// /* Authentication Response with a User Confirmation value specified */
// /* via the input parameter. This function returns zero on successful*/
// /* execution and a negative value on all errors. */
//static int UserConfirmationResponse(ParameterList_t *TempParam)
//{
// int Result;
// int ret_val;
// GAP_Authentication_Information_t GAP_Authentication_Information;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* First, check to see if there is an on-going Pairing operation */
// /* active. */
// if(!COMPARE_NULL_BD_ADDR(CurrentCBRemoteBD_ADDR))
// {
// /* Make sure that all of the parameters required for this */
// /* function appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 0))
// {
// /* Parameters appear to be valid, go ahead and populate the */
// /* response structure. */
// GAP_Authentication_Information.GAP_Authentication_Type = atUserConfirmation;
// GAP_Authentication_Information.Authentication_Data_Length = (Byte_t)(sizeof(Byte_t));
// GAP_Authentication_Information.Authentication_Data.Confirmation = (Boolean_t)(TempParam->Params[0].intParam?TRUE:FALSE);
//
// /* Submit the Authentication Response. */
// Result = GAP_Authentication_Response(BluetoothStackID, CurrentCBRemoteBD_ADDR, &GAP_Authentication_Information);
//
// /* Check the return value for the submitted command for */
// /* success. */
// if(!Result)
// {
// /* Operation was successful, inform the user. */
// DisplayFunctionSuccess("User Confirmation Response");
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* Inform the user that the Authentication Response was */
// /* not successful. */
// DisplayFunctionError("GAP_Authentication_Response", Result);
//
// ret_val = FUNCTION_ERROR;
// }
//
// /* Flag that there is no longer a current Authentication */
// /* procedure in progress. */
// ASSIGN_BD_ADDR(CurrentCBRemoteBD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// DisplayUsage("UserConfirmationResponse [Confirmation(0 = No, 1 = Yes)]");
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* There is not currently an on-going authentication operation,*/
// /* inform the user of this error condition. */
// Display(("User Confirmation Authentication Response: Authentication is not currently in progress.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for querying the Bluetooth */
// /* Device Address of the local Bluetooth Device. This function */
// /* returns zero on successful execution and a negative value on all */
// /* errors. */
//static int GetLocalAddress(ParameterList_t *TempParam)
//{
// int Result;
// int ret_val;
// BD_ADDR_t BD_ADDR;
// BoardStr_t Function_BoardStr;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Attempt to submit the command. */
// Result = GAP_Query_Local_BD_ADDR(BluetoothStackID, &BD_ADDR);
//
// /* Check the return value of the submitted command for success. */
// if(!Result)
// {
// BD_ADDRToStr(BD_ADDR, Function_BoardStr);
//
// Display(("BD_ADDR of Local Device is: %s.\r\n", Function_BoardStr));
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* Display a message indicating that an error occured while */
// /* attempting to query the Local Device Address. */
// Display(("GAP_Query_Local_BD_ADDR() Failure: %d.\r\n", Result));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for querying the Bluetooth */
// /* Device Name of the local Bluetooth Device. This function returns */
// /* zero on successful execution and a negative value on all errors. */
//static int GetLocalName(ParameterList_t *TempParam)
//{
// int Result;
// int ret_val;
// char *LocalName;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Allocate a Buffer to hold the Local Name. */
// if((LocalName = BTPS_AllocateMemory(257)) != NULL)
// {
// /* Attempt to submit the command. */
// Result = GAP_Query_Local_Device_Name(BluetoothStackID, 257, (char *)LocalName);
//
// /* Check the return value of the submitted command for success.*/
// if(!Result)
// {
// Display(("Name of Local Device is: %s.\r\n", LocalName));
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* Display a message indicating that an error occured while */
// /* attempting to query the Local Device Name. */
// Display(("GAP_Query_Local_Device_Name() Failure: %d.\r\n", Result));
//
// ret_val = FUNCTION_ERROR;
// }
//
// BTPS_FreeMemory(LocalName);
// }
// else
// {
// Display(("Failed to allocate buffer to hold Local Name.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for setting the Class of */
// /* Device of the local Bluetooth Device to a Class Of Device value. */
// /* This function returns zero on successful execution and a negative */
// /* value on all errors. */
//static int SetClassOfDevice(ParameterList_t *TempParam)
//{
// int Result;
// int ret_val;
// Class_of_Device_t Class_of_Device;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Make sure that all of the parameters required for this function*/
// /* appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 0))
// {
// /* Attempt to submit the command. */
// ASSIGN_CLASS_OF_DEVICE(Class_of_Device, (Byte_t)((TempParam->Params[0].intParam) & 0xFF), (Byte_t)(((TempParam->Params[0].intParam) >> 8) & 0xFF), (Byte_t)(((TempParam->Params[0].intParam) >> 16) & 0xFF));
//
// Result = GAP_Set_Class_Of_Device(BluetoothStackID, Class_of_Device);
//
// /* Check the return value of the submitted command for success.*/
// if(!Result)
// {
// /* Display a messsage indicating that the Class of Device */
// /* was successfully submitted. */
// DisplayClassOfDevice(Class_of_Device);
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* Display a message indicating that an error occured while */
// /* attempting to set the local Class of Device. */
// DisplayFunctionError("GAP_Set_Class_Of_Device", Result);
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// DisplayUsage("SetClassOfDevice [Class of Device]");
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for querying the Bluetooth */
// /* Class of Device of the local Bluetooth Device. This function */
// /* returns zero on successful execution and a negative value on all */
// /* errors. */
//static int GetClassOfDevice(ParameterList_t *TempParam)
//{
// int Result;
// int ret_val;
// Class_of_Device_t Class_of_Device;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Attempt to submit the command. */
// Result = GAP_Query_Class_Of_Device(BluetoothStackID, &Class_of_Device);
//
// /* Check the return value of the submitted command for success. */
// if(!Result)
// {
// Display(("Local Class of Device is: 0x%02X%02X%02X.\r\n", Class_of_Device.Class_of_Device0, Class_of_Device.Class_of_Device1, Class_of_Device.Class_of_Device2));
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* Display a message indicating that an error occured while */
// /* attempting to query the Local Class of Device. */
// Display(("GAP_Query_Class_Of_Device() Failure: %d.\r\n", Result));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for querying the Bluetooth */
// /* Device Name of the specified remote Bluetooth Device. This */
// /* function returns zero on successful execution and a negative value*/
// /* on all errors. */
//static int GetRemoteName(ParameterList_t *TempParam)
//{
// int Result;
// int ret_val;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Make sure that all of the parameters required for this function*/
// /* appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam) && (NumberofValidResponses) && (TempParam->Params[0].intParam <= NumberofValidResponses) && (!COMPARE_NULL_BD_ADDR(InquiryResultList[(TempParam->Params[0].intParam - 1)])))
// {
// /* Attempt to submit the command. */
// Result = GAP_Query_Remote_Device_Name(BluetoothStackID, InquiryResultList[(TempParam->Params[0].intParam - 1)], GAP_Event_Callback, (unsigned long)0);
//
// /* Check the return value of the submitted command for success.*/
// if(!Result)
// {
// /* Display a messsage indicating that Remote Name request */
// /* was initiated successfully. */
// DisplayFunctionSuccess("GAP_Query_Remote_Device_Name");
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* Display a message indicating that an error occured while */
// /* initiating the Remote Name request. */
// DisplayFunctionError("GAP_Query_Remote_Device_Name", Result);
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// DisplayUsage("GetRemoteName [Inquiry Index]");
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for putting a specified */
// /* connection into HCI Sniff Mode with passed in parameters. */
//static int SniffMode(ParameterList_t *TempParam)
//{
// int Result;
// int ret_val;
// int SerialPortIndex;
// Byte_t Status;
// Word_t Sniff_Max_Interval;
// Word_t Sniff_Min_Interval;
// Word_t Sniff_Attempt;
// Word_t Sniff_Timeout;
// unsigned int LocalSerialPortID;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Make sure that all of the parameters required for this function*/
// /* appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters >= 5) && (TempParam->Params[0].intParam))
// {
// LocalSerialPortID = (unsigned int)TempParam->Params[0].intParam;
// Sniff_Max_Interval = (Word_t)MILLISECONDS_TO_BASEBAND_SLOTS(TempParam->Params[1].intParam);
// Sniff_Min_Interval = (Word_t)MILLISECONDS_TO_BASEBAND_SLOTS(TempParam->Params[2].intParam);
// Sniff_Attempt = TempParam->Params[3].intParam;
// Sniff_Timeout = TempParam->Params[4].intParam;
//
// /* Make sure the Sniff Mode parameters seem semi valid. */
// if((Sniff_Attempt) && (Sniff_Max_Interval) && (Sniff_Min_Interval) && (Sniff_Min_Interval < Sniff_Max_Interval))
// {
// /* Make sure the connection handle is valid. */
// if(((SerialPortIndex = FindSPPPortIndex(LocalSerialPortID)) >= 0) && (SPPContextInfo[SerialPortIndex].Connection_Handle))
// {
// /* Now that we have the connection try and go to Sniff. */
// Result = HCI_Sniff_Mode(BluetoothStackID, SPPContextInfo[SerialPortIndex].Connection_Handle, Sniff_Max_Interval, Sniff_Min_Interval, Sniff_Attempt, Sniff_Timeout, &Status);
// if((!Result) && (Status == HCI_ERROR_CODE_NO_ERROR))
// {
// DisplayFunctionSuccess("HCI_Sniff_Mode()");
//
// /* Return success to the caller. */
// ret_val = 0;
// }
// else
// {
// Display(("Error - HCI_Sniff_Mode() %d: 0x%02X", Result, Status));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display(("Invalid Serial Port ID.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// DisplayUsage("SniffMode [SerialPortID] [MaxInterval] [MinInterval] [Attempt] [Timeout]");
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// DisplayUsage("SniffMode [SerialPortID] [MaxInterval] [MinInterval] [Attempt] [Timeout]");
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for attempting to Exit */
// /* Sniff Mode for a specified connection. */
//static int ExitSniffMode(ParameterList_t *TempParam)
//{
// int Result;
// int ret_val;
// int SerialPortIndex;
// Byte_t Status;
// unsigned int LocalSerialPortID;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Make sure that all of the parameters required for this function*/
// /* appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters >= 1) && (TempParam->Params[0].intParam))
// {
// /* Save the specified Serial Port ID. */
// LocalSerialPortID = (unsigned int)TempParam->Params[0].intParam;
//
// /* Make sure the connection handle is valid. */
// if(((SerialPortIndex = FindSPPPortIndex(LocalSerialPortID)) >= 0) && (SPPContextInfo[SerialPortIndex].Connection_Handle))
// {
// /* Attempt to Exit Sniff Mode for the Specified Device. */
// Result = HCI_Exit_Sniff_Mode(BluetoothStackID, SPPContextInfo[SerialPortIndex].Connection_Handle, &Status);
// if((!Result) && (Status == HCI_ERROR_CODE_NO_ERROR))
// {
// /* Flag that HCI_Exit_Sniff_Mode was successfull. */
// DisplayFunctionSuccess("HCI_Exit_Sniff_Mode()");
//
// ret_val = 0;
// }
// else
// {
// /* Failed to get exit sniff mode. */
// Display(("Error - HCI_Exit_Sniff_Mode() %d: 0x%02X", Result, Status));
//
// /* Return function error to the caller. */
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display(("Invalid Serial Port ID.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// DisplayUsage("ExitSniffMode [SerialPortID] ");
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for opening a Serial Port */
// /* Server on the Local Device. This function opens the Serial Port */
// /* Server on the specified RFCOMM Channel. This function returns */
// /* zero if successful, or a negative return value if an error */
// /* occurred. */
//static int OpenServer(ParameterList_t *TempParam)
//{
// int SerialPortIndex;
// int ret_val;
// char *ServiceName;
// DWord_t SPPServerSDPHandle;
// unsigned int ServerPortID;
// unsigned int ServerPortNumber;
//
// /* First check to see if a valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Next, check to see if the parameters specified are valid. */
// // if((TempParam) && (TempParam->NumberofParameters >= 1) && (TempParam->Params[0].intParam))
// // {
// /* Find an empty slot. */
// if((SerialPortIndex = FindFreeSPPPortIndex()) >= 0)
// {
// /* Save the server port number. */
// // ServerPortNumber = TempParam->Params[0].intParam;
// ServerPortNumber = 1;
//
// /* Simply attempt to open an Serial Server, on RFCOMM Server*/
// /* Port 1. */
// ret_val = SPP_Open_Server_Port(BluetoothStackID, ServerPortNumber, SPP_Event_Callback, (unsigned long)0);
//
// /* If the Open was successful, then note the Serial Port */
// /* Server ID. */
// if(ret_val > 0)
// {
// /* Note the Serial Port Server ID of the opened Serial */
// /* Port Server. */
// ServerPortID = (unsigned int)ret_val;
//
// /* Create a Buffer to hold the Service Name. */
// if((ServiceName = BTPS_AllocateMemory(64)) != NULL)
// {
// /* The Server was opened successfully, now register a */
// /* SDP Record indicating that an Serial Port Server */
// /* exists. Do this by first creating a Service Name. */
// BTPS_SprintF(ServiceName, "Serial Port Server Port %d", ServerPortNumber);
//
// /* Only register an SDP record if we have not already */
// /* opened a server on this port number. */
// if(FindSPPPortIndexByServerPortNumber(ServerPortNumber) < 0)
// {
// /* Now that a Service Name has been created try to */
// /* Register the SDP Record. */
// ret_val = SPP_Register_Generic_SDP_Record(BluetoothStackID, ServerPortID, ServiceName, &SPPServerSDPHandle);
// }
// else
// {
// /* We already have opened another SPP Port on that */
// /* RFCOMM Port Number so there is no need to */
// /* register a duplicate SDP Record. */
// SPPServerSDPHandle = 0;
// ret_val = 0;
// }
//
// /* If there was an error creating the Serial Port */
// /* Server's SDP Service Record then go ahead an close */
// /* down the server an flag an error. */
// if(ret_val < 0)
// {
// Display(("Unable to Register Server SDP Record, Error = %d.\r\n", ret_val));
//
// SPP_Close_Server_Port(BluetoothStackID, ServerPortID);
//
// /* Flag that there is no longer an Serial Port */
// /* Server Open. */
// ServerPortID = 0;
//
// ret_val = UNABLE_TO_REGISTER_SERVER;
// }
// else
// {
// /* Simply flag to the user that everything */
// /* initialized correctly. */
// Display(("Server Opened: Server Port %u, Serial Port ID %u.\r\n", (unsigned int)TempParam->Params[0].intParam, ServerPortID));
//
// /* We found an empty slot to store the context */
// SPPContextInfo[SerialPortIndex].LocalSerialPortID = ServerPortID;
// SPPContextInfo[SerialPortIndex].ServerPortNumber = ServerPortNumber;
// SPPContextInfo[SerialPortIndex].SPPServerSDPHandle = SPPServerSDPHandle;
// SPPContextInfo[SerialPortIndex].Connected = FALSE;
//
// /* If this message is not seen in the terminal log */
// /* after opening a server, then something went */
// /* wrong */
// Display(("Server Port Context Stored.\r\n"));
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
//
// /* Free the Service Name buffer. */
// BTPS_FreeMemory(ServiceName);
// }
// else
// {
// Display(("Failed to allocate buffer to hold Service Name in SDP Record.\r\n"));
// }
// }
// else
// {
// Display(("Unable to Open Server on: %d, Error = %d.\r\n", TempParam->Params[0].intParam, ret_val));
//
// ret_val = UNABLE_TO_REGISTER_SERVER;
// }
// }
// else
// {
// /* Maximum number of ports reached. */
// Display(("Maximum allowed server ports open.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// //}
// // else
// // {
// // DisplayUsage("Open [Port Number]");
//
// //ret_val = INVALID_PARAMETERS_ERROR;
// //}
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
//
//
//
//
//
//
// /* The following function is responsible for closing a Serial Port */
// /* Server that was previously opened via a successful call to the */
// /* OpenServer() function. This function returns zero if successful */
// /* or a negative return error code if there was an error. */
//static int CloseServer(ParameterList_t *TempParam)
//{
// int i;
// int ret_val = 0;
// int LocalSerialPortID;
//
// /* First check to see if a valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Figure out the server port that corresponds to the portID */
// /* requested by the user. */
// if((TempParam) && (TempParam->NumberofParameters) && (TempParam->Params[0].intParam))
// {
// LocalSerialPortID = TempParam->Params[0].intParam;
// ClosePortByNumber(LocalSerialPortID);
// }
// else
// {
// /* If no port is specified to close then we should close them */
// /* all. */
// if((!TempParam) || ((TempParam) && (TempParam->NumberofParameters == 0)))
// {
// for(i=0; i < sizeof(SPPContextInfo)/sizeof(SPP_Context_Info_t); i++)
// {
// /* If a server is register then close the port. */
// if((SPPContextInfo[i].LocalSerialPortID) && (SPPContextInfo[i].ServerPortNumber))
// ClosePortByNumber(SPPContextInfo[i].LocalSerialPortID);
// }
// }
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for initiating a connection */
// /* with a Remote Serial Port Server. This function returns zero if */
// /* successful and a negative value if an error occurred. */
//static int OpenRemoteServer(ParameterList_t *TempParam)
//{
// int ret_val;
// int Result;
// int SerialPortIndex;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Next, check that we are in client mode. */
// if(UI_Mode == UI_MODE_IS_CLIENT)
// {
// /* Next, let's make sure that the user has specified a Remote */
// /* Bluetooth Device to open. */
// if((TempParam) && (TempParam->NumberofParameters > 1) && (TempParam->Params[0].intParam) && (NumberofValidResponses) && (TempParam->Params[0].intParam <= NumberofValidResponses) && (!COMPARE_NULL_BD_ADDR(InquiryResultList[(TempParam->Params[0].intParam - 1)])) && (TempParam->Params[1].intParam))
// {
// /* Find a free serial port entry. */
// if((SerialPortIndex = FindFreeSPPPortIndex()) >= 0)
// {
// /* Now let's attempt to open the Remote Serial Port */
// /* Server. */
// Result = SPP_Open_Remote_Port(BluetoothStackID, InquiryResultList[(TempParam->Params[0].intParam - 1)], TempParam->Params[1].intParam, SPP_Event_Callback, (unsigned long)0);
// if(Result > 0)
// {
// /* Inform the user that the call to open the Remote */
// /* Serial Port Server was successful. */
// Display(("SPP_Open_Remote_Port success, Serial Port ID = %u.\r\n", (unsigned int)Result));
//
// /* Note the Serial Port Client ID and Bluetooth */
// /* Address. */
// SPPContextInfo[SerialPortIndex].LocalSerialPortID = (unsigned int)Result;
// SPPContextInfo[SerialPortIndex].BD_ADDR = InquiryResultList[(TempParam->Params[0].intParam - 1)];
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* Inform the user that the call to Open the Remote */
// /* Serial Port Server failed. */
// DisplayFunctionError("SPP_Open_Remote_Port", Result);
//
// /* One or more of the necessary parameters is/are */
// /* invalid. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* Maximum client ports reached. */
// Display(("Maximum allowed client ports open.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// DisplayUsage("Open [Inquiry Index] [RFCOMM Server Port].\r\n");
//
// /* One or more of the necessary parameters is/are invalid. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for terminating a connection*/
// /* with a Remote Serial Port Server. This function returns zero if */
// /* successful and a negative value if an error occurred. */
//static int CloseRemoteServer(ParameterList_t *TempParam)
//{
// int i;
// int ret_val = 0;
// unsigned int LocalSerialPortID;
//
// /* First check to see if a valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Figure out the server port that corresponds to the portID */
// /* requested by the user. */
// if((TempParam) && (TempParam->NumberofParameters) && (TempParam->Params[0].intParam))
// {
// LocalSerialPortID = TempParam->Params[0].intParam;
// ClosePortByNumber(LocalSerialPortID);
// }
// else
// {
// /* If no port is specified to close then we should close them */
// /* all. */
// if((!TempParam) || ((TempParam) && (TempParam->NumberofParameters == 0)))
// {
// for(i=0; i < sizeof(SPPContextInfo)/sizeof(SPP_Context_Info_t); i++)
// {
// /* Attempt to close this port. */
// if(SPPContextInfo[i].LocalSerialPortID)
// ClosePortByNumber(SPPContextInfo[i].LocalSerialPortID);
// }
// }
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for reading data that was */
// /* received via an Open SPP port. The function reads a fixed number */
// /* of bytes at a time from the SPP Port and displays it. If the call */
// /* to the SPP_Data_Read() function is successful but no data is */
// /* available to read the function displays "No data to read.". This */
// /* function requires that a valid Bluetooth Stack ID and Serial Port */
// /* ID exist before running. This function returns zero if successful*/
// /* and a negative value if an error occurred. */
//static int Read(ParameterList_t *TempParam)
//{
// int ret_val;
// int Result;
// int SerialPortIndex;
// char Buffer_1[17];
// unsigned int LocalSerialPortID;
// int i=0;
// int j=0;
// char Don_BLe_Adre[12];
//
// /* First check to see if the parameters required for the execution of*/
// /* this function appear to be semi-valid. */
// if(BluetoothStackID)
// {
// /* Only allow the Read Command if we are not in Loopback or */
// /* Display Raw Data Mode. */
// if((!LoopbackActive) && (!DisplayRawData))
// {
// /* Verify that the parameters to this function are valid. */
// // if((TempParam) && (TempParam->NumberofParameters) && (TempParam->Params[0].intParam))
// //{
// /* Save the selected Serial Port ID. */
// // LocalSerialPortID = (unsigned int)TempParam->Params[0].intParam;
// LocalSerialPortID =1;
//
//
// /* Find the serial port entry for this port. */
// if(((SerialPortIndex = FindSPPPortIndex(LocalSerialPortID)) >= 0) && (SPPContextInfo[SerialPortIndex].Connected == TRUE))
// {
// /* The required parameters appear to be semi-valid, send */
// /* the command to Read Data from SPP. */
// do
// {
// /* Attempt to read data from the buffer. */
// Result = SPP_Data_Read(BluetoothStackID, SPPContextInfo[SerialPortIndex].LocalSerialPortID, sizeof(Buffer_1), Buffer_1);
//
// /* Next, check the return value to see if the command */
// /* was successfully. */
// if(Result >= 0)
// {
// /* Null terminate the read data. */
// // Buffer[Result] = 0;
//
// /* Data was read successfully, the result indicates*/
// /* the of bytes that were successfully Read. */
// //Display(("Read: %d.\r\n", Result));
//
// if(Result > 0)
// {
// Display(("Read: %d.\r\n", Result));
//
//
// /* Display(("Message1: %c\r\n", Buffer_1[0]));
// Display(("Message2: %c\r\n", Buffer_1[1]));
// Display(("Message3: %c\r\n", Buffer_1[2]));
// Display(("Message4: %c\r\n", Buffer_1[3]));
// Display(("Message5: %c\r\n", Buffer_1[4]));
// Display(("Message6: %c\r\n", Buffer_1[5]));
// Display(("Message7: %c\r\n", Buffer_1[6]));
// Display(("Message8: %c\r\n", Buffer_1[7]));
// Display(("Message9: %c\r\n", Buffer_1[8]));
// Display(("Message10: %c\r\n", Buffer_1[9]));
// Display(("Message11: %c\r\n", Buffer_1[10]));
// Display(("Message12: %c\r\n", Buffer_1[11]));
// Display(("Message13: %c\r\n", Buffer_1[12]));
// Display(("Message14: %c\r\n", Buffer_1[13]));
// Display(("Message15: %c\r\n", Buffer_1[14]));
// Display(("Message16: %c\r\n", Buffer_1[15]));
// Display(("Message17: %c\r\n", Buffer_1[16]));*/
//
// /* for(i=0,j=0;i<=16 && j<=11;i+=2,j++)
// {
// Don_BLe_Adre[j]=Buffer_1[i];
// }
// */
// //Don_BLe_Adre[j]=Buffer_1[i];
//
//
//
//
//
// }
//
//
//
// ret_val = 0;
// }
// else
// {
// /* An error occurred while reading from SPP. */
// DisplayFunctionError("SPP_Data_Read Failure", Result);
//
// ret_val = Result;
// }
// } while(Result > 0);
// }
// else
// {
// /* Maximum client ports reached. */
// Display(("Port is invalid or not connected.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// //}
// // else
// // {
// // DisplayUsage("Read [SerialPortID].\r\n");
//
// /* One or more of the necessary parameters is/are invalid. */
// //ret_val = INVALID_PARAMETERS_ERROR;
// //}
// }
// else
// {
// /* Simply inform the user that this command is not available in*/
// /* this mode. */
// Display(("This operation cannot be performed while in Loopback Mode or while Displaying Raw Data.\r\n"));
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters are invalid. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
//
// return(ret_val);
//}
//
//
//
//
// /* The following function is responsible for Writing Data to an Open */
// /* SPP Port. The string that is written is defined by the constant */
// /* TEST_DATA (at the top of this file). This function requires that */
// /* a valid Bluetooth Stack ID and Serial Port ID exist before */
// /* running. This function returns zero is successful or a negative */
// /* return value if there was an error. */
//static int Write(ParameterList_t *TempParam)
//{
// int ret_val;
// int Result;
// int SerialPortIndex;
// unsigned int LocalSerialPortID;
//
//
//
// /* First check to see if the parameters required for the execution of*/
// /* this function appear to be semi-valid. */
// if(BluetoothStackID)
// {
// /* Verify that the parameters to this function are valid. */
// // if((TempParam) && (TempParam->NumberofParameters) && (TempParam->Params[0].intParam) )
// //{
// /* Save the selected Serial Port ID. */
// // LocalSerialPortID = TempParam->Params[0].intParam;
// LocalSerialPortID = 1;
//
// /* Find the serial port entry for this port. */
// if(((SerialPortIndex = FindSPPPortIndex(LocalSerialPortID)) >= 0) && (SPPContextInfo[SerialPortIndex].Connected == TRUE))
// {
// /* Simply write out the default string value. */
// //Result = SPP_Data_Write(BluetoothStackID, SPPContextInfo[SerialPortIndex].LocalSerialPortID, (Word_t)DataStrLen, (Byte_t *)DataStr);
//
//
//
// // Result = SPP_Data_Write(BluetoothStackID, SPPContextInfo[SerialPortIndex].LocalSerialPortID, 11, SPPLEBufferNew);
//
// Result = SPP_Data_Write(BluetoothStackID, SPPContextInfo[SerialPortIndex].LocalSerialPortID, 10, data);
//
//
// //Display(("\n after packet====== var8=%d---->",data[8]));
//
//
// /* Next, check the return value to see if the command was */
// /* issued successfully. */
// if(Result >= 0)
// {
// /* The Data was written successfully, Result indicates the*/
// /* number of bytes successfully written. */
// //Display(("Wrote: %d.\r\n", Result));
//
// // Display(("\n var8=%d---->",data[2]));
//
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* There was an error writing the Data to the SPP Port. */
// Display(("Failed: %d.\r\n", Result));
//
// /* Flag that an error occurred while submitting the */
// /* command. */
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* Maximum client ports reached. */
// // Display(("Port is invalid or not connected.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// // }
// //else
// //{
// // DisplayUsage("Write [SerialPortID].\r\n");
//
// /* One or more of the necessary parameters is/are invalid. */
// //ret_val = INVALID_PARAMETERS_ERROR;
// //}
// }
// else
// {
// /* One or more of the necessary parameters are invalid. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for querying the current */
// /* configuration parameters that are used by SPP. This function will*/
// /* return zero on successful execution and a negative value on */
// /* errors. */
//static int GetConfigParams(ParameterList_t *TempParam)
//{
// int ret_val;
// SPP_Configuration_Params_t SPPConfigurationParams;
//
// /* First check to see if the parameters required for the execution of*/
// /* this function appear to be semi-valid. */
// if(BluetoothStackID)
// {
// /* Simply query the configuration parameters. */
// ret_val = SPP_Get_Configuration_Parameters(BluetoothStackID, &SPPConfigurationParams);
//
// if(ret_val >= 0)
// {
// /* Parameters have been queried successfully, go ahead and */
// /* notify the user. */
// Display(("SPP_Get_Configuration_Parameters(): Success\r\n", ret_val));
// Display((" MaximumFrameSize : %d (0x%X)\r\n", SPPConfigurationParams.MaximumFrameSize, SPPConfigurationParams.MaximumFrameSize));
// Display((" TransmitBufferSize : %d (0x%X)\r\n", SPPConfigurationParams.TransmitBufferSize, SPPConfigurationParams.TransmitBufferSize));
// Display((" ReceiveBufferSize : %d (0x%X)\r\n", SPPConfigurationParams.ReceiveBufferSize, SPPConfigurationParams.ReceiveBufferSize));
//
// /* Flag success. */
// ret_val = 0;
// }
// else
// {
// /* Error querying the current parameters. */
// Display(("SPP_Get_Configuration_Parameters(): Error %d.\r\n", ret_val));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters are invalid. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for setting the current */
// /* configuration parameters that are used by SPP. This function will*/
// /* return zero on successful execution and a negative value on */
// /* errors. */
//static int SetConfigParams(ParameterList_t *TempParam)
//{
// int ret_val;
// SPP_Configuration_Params_t SPPConfigurationParams;
//
// /* First check to see if the parameters required for the execution of*/
// /* this function appear to be semi-valid. */
// if(BluetoothStackID)
// {
// /* Next check to see if the parameters required for the execution */
// /* of this function appear to be semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 2))
// {
// /* Parameters have been specified, go ahead and write them to */
// /* the stack. */
// SPPConfigurationParams.MaximumFrameSize = (unsigned int)(TempParam->Params[0].intParam);
// SPPConfigurationParams.TransmitBufferSize = (unsigned int)(TempParam->Params[1].intParam);
// SPPConfigurationParams.ReceiveBufferSize = (unsigned int)(TempParam->Params[2].intParam);
//
// ret_val = SPP_Set_Configuration_Parameters(BluetoothStackID, &SPPConfigurationParams);
//
// if(ret_val >= 0)
// {
// Display(("SPP_Set_Configuration_Parameters(): Success\r\n", ret_val));
// Display((" MaximumFrameSize : %d (0x%X)\r\n", SPPConfigurationParams.MaximumFrameSize, SPPConfigurationParams.MaximumFrameSize));
// Display((" TransmitBufferSize : %d (0x%X)\r\n", SPPConfigurationParams.TransmitBufferSize, SPPConfigurationParams.TransmitBufferSize));
// Display((" ReceiveBufferSize : %d (0x%X)\r\n", SPPConfigurationParams.ReceiveBufferSize, SPPConfigurationParams.ReceiveBufferSize));
//
// /* Flag success. */
// ret_val = 0;
// }
// else
// {
// /* Error setting the current parameters. */
// Display(("SPP_Set_Configuration_Parameters(): Error %d.\r\n", ret_val));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// DisplayUsage("SetConfigParams [MaximumFrameSize] [TransmitBufferSize (0: don't change)] [ReceiveBufferSize (0: don't change)]");
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters are invalid. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for querying the current */
// /* queuing parameters that are used by SPP/RFCOMM (into L2CAP). This*/
// /* function will return zero on successful execution and a negative */
// /* value on errors. */
//static int GetQueueParams(ParameterList_t *TempParam)
//{
// int ret_val;
// unsigned int MaximumNumberDataPackets;
// unsigned int QueuedDataPacketsThreshold;
//
// /* First check to see if the parameters required for the execution of*/
// /* this function appear to be semi-valid. */
// if(BluetoothStackID)
// {
// /* Simply query the queuing parameters. */
// ret_val = SPP_Get_Queuing_Parameters(BluetoothStackID, &MaximumNumberDataPackets, &QueuedDataPacketsThreshold);
//
// if(ret_val >= 0)
// {
// /* Parameters have been queried successfully, go ahead and */
// /* notify the user. */
// Display(("SPP_Get_Queuing_Parameters(): Success.\r\n"));
// Display((" MaximumNumberDataPackets : %d (0x%X)\r\n", MaximumNumberDataPackets, MaximumNumberDataPackets));
// Display((" QueuedDataPacketsThreshold : %d (0x%X)\r\n", QueuedDataPacketsThreshold, QueuedDataPacketsThreshold));
//
// /* Flag success. */
// ret_val = 0;
// }
// else
// {
// /* Error querying the current parameters. */
// Display(("SPP_Get_Queuing_Parameters(): Error %d.\r\n", ret_val));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters are invalid. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for setting the current */
// /* queuing parameters that are used by SPP/RFCOMM (into L2CAP). This*/
// /* function will return zero on successful execution and a negative */
// /* value on errors. */
//static int SetQueueParams(ParameterList_t *TempParam)
//{
// int ret_val;
//
// /* First check to see if the parameters required for the execution of*/
// /* this function appear to be semi-valid. */
// if(BluetoothStackID)
// {
// /* Next check to see if the parameters required for the execution */
// /* of this function appear to be semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 1))
// {
// /* Parameters have been specified, go ahead and write them to */
// /* the stack. */
// ret_val = SPP_Set_Queuing_Parameters(BluetoothStackID, (unsigned int)(TempParam->Params[0].intParam), (unsigned int)(TempParam->Params[1].intParam));
//
// if(ret_val >= 0)
// {
// Display(("SPP_Set_Queuing_Parameters(): Success.\r\n"));
// Display((" MaximumNumberDataPackets : %d (0x%X)\r\n", (unsigned int)(TempParam->Params[0].intParam), (unsigned int)(TempParam->Params[0].intParam)));
// Display((" QueuedDataPacketsThreshold : %d (0x%X)\r\n", (unsigned int)(TempParam->Params[1].intParam), (unsigned int)(TempParam->Params[1].intParam)));
//
// /* Flag success. */
// ret_val = 0;
// }
// else
// {
// /* Error setting the current parameters. */
// Display(("SPP_Set_Queuing_Parameters(): Error %d.\r\n", ret_val));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// DisplayUsage("SetQueueParams [MaximumNumberDataPackets] [QueuedDataPacketsThreshold]");
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters are invalid. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following thread is responsible for checking changing the */
// /* current Baud Rate used to talk to the Radio. */
// /* * NOTE * This function ONLY configures the Baud Rate for a TI */
// /* Bluetooth chipset. */
//static int SetBaudRate(ParameterList_t *TempParam)
//{
// int ret_val;
//
// /* First check to see if the parameters required for the execution of*/
// /* this function appear to be semi-valid. */
// if(BluetoothStackID)
// {
// /* Next check to see if the parameters required for the execution */
// /* of this function appear to be semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam))
// {
// /* Next, write the command to the device. */
// ret_val = VS_Update_UART_Baud_Rate(BluetoothStackID, (DWord_t)TempParam->Params[0].intParam);
// if(!ret_val)
// {
// Display(("VS_Update_UART_Baud_Rate(%u): Success.\r\n", TempParam->Params[0].intParam));
// }
// else
// {
// /* Unable to write vendor specific command to chipset. */
// Display(("VS_Update_UART_Baud_Rate(%u): Failure %d, %d.\r\n", TempParam->Params[0].intParam, ret_val));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// DisplayUsage("SetBaudRate [BaudRate]");
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters are invalid. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for sending a number of */
// /* characters to a remote device to which a connection exists. The */
// /* function receives a parameter that indicates the number of byte to*/
// /* be transferred. This function will return zero on successful */
// /* execution and a negative value on errors. */
//static int SendData(ParameterList_t *TempParam)
//{
// int SerialPortIndex;
// int Ndx;
// Word_t DataCount;
// Boolean_t Done;
// unsigned int LocalSerialPortID;
//
// /* Make sure that all of the parameters required for this function */
// /* appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters >= 2) && (TempParam->Params[0].intParam > 0) && (TempParam->Params[1].intParam))
// {
// /* Store the Serial Port ID in a local variable. */
// LocalSerialPortID = TempParam->Params[1].intParam;
//
// /* Verify that there is a connection that is established. */
// if((SerialPortIndex = FindSPPPortIndex(LocalSerialPortID)) >= 0)
// {
// /* Chcek to see if we are sending to another port. */
// if(!SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend)
// {
// /* Get the count of the number of bytes to send. */
// SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend = (DWord_t)TempParam->Params[0].intParam;
// SPPContextInfo[SerialPortIndex].SendInfo.BytesSent = 0;
//
// Done = FALSE;
// while((SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend) && (!Done))
// {
// /* Set the Number of bytes to send in the first packet. */
// if(SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend > DataStrLen)
// DataCount = DataStrLen;
// else
// DataCount = SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend;
//
// Ndx = SPP_Data_Write(BluetoothStackID, LocalSerialPortID, DataCount, (unsigned char *)DataStr);
// if(Ndx >= 0)
// {
// /* Adjust the counters. */
// SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend -= Ndx;
// if(Ndx < DataCount)
// {
// SPPContextInfo[SerialPortIndex].SendInfo.BytesSent = Ndx;
// SPPContextInfo[SerialPortIndex].SendInfo.BufferFull = TRUE;
// Done = TRUE;
// }
// }
// else
// {
// Display(("SEND failed with error %d\r\n", Ndx));
// SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend = 0;
// }
// }
// }
// else
// Display(("Send Currently in progress.\r\n"));
// }
// else
// Display(("Context not found\r\n"));
// }
// else
// DisplayUsage("SEND [Number of Bytes to send] [Serial Port ID]\r\n");
//
// return(0);
//}
//
// /* The following function is responsible for changing the User */
// /* Interface Mode to Server. */
//static int ServerMode(ParameterList_t *TempParam)
//{
// UI_Mode = UI_MODE_IS_SERVER;
//
// UserInterface_Server();
//
// return(0);
//}
//
// /* The following function is responsible for changing the User */
// /* Interface Mode to Client. */
//static int ClientMode(ParameterList_t *TempParam)
//{
// UI_Mode = UI_MODE_IS_CLIENT;
//
// UserInterface_Client();
//
// return(0);
//}
//
// /* The following function is responsible for displaying the current */
// /* Command Options for either Serial Port Client or Serial Port */
// /* Server. The input parameter to this function is completely */
// /* ignored, and only needs to be passed in because all Commands that */
// /* can be entered at the Prompt pass in the parsed information. This*/
// /* function displays the current Command Options that are available */
// /* and always returns zero. */
//static int DisplayHelp(ParameterList_t *TempParam)
//{
// if(UI_Mode == UI_MODE_IS_CLIENT)
// {
// Display(("\r\n"));
// Display(("******************************************************************\r\n"));
// Display(("* Command Options General: Help, GetLocalAddress, SetBaudRate *\r\n"));
// Display(("* Quit, *\r\n"));
// Display(("* Command Options BR/EDR: Inquiry, DisplayInquiryList, Pair, *\r\n"));
// Display(("* EndPairing, PINCodeResponse, *\r\n"));
// Display(("* PassKeyResponse, *\r\n"));
// Display(("* UserConfirmationResponse, *\r\n"));
// Display(("* SetDiscoverabilityMode, *\r\n"));
// Display(("* SetConnectabilityMode, *\r\n"));
// Display(("* SetPairabilityMode, *\r\n"));
// Display(("* ChangeSimplePairingParameters, *\r\n"));
// Display(("* GetLocalName, SetLocalName, *\r\n"));
// Display(("* GetClassOfDevice, SetClassOfDevice, *\r\n"));
// Display(("* GetRemoteName, SniffMode, *\r\n"));
// Display(("* ExitSniffMode, Open, Close, Read, *\r\n"));
// Display(("* Write, GetConfigParams, *\r\n"));
// Display(("* SetConfigParams, GetQueueParams, *\r\n"));
// Display(("* DisplayRawModeData, AutomaticReadMode,*\r\n"));
// Display(("* SetQueueParams, Loopback, *\r\n"));
// Display(("* CBSend. *\r\n"));
// }
// else
// {
// if(UI_Mode == UI_MODE_IS_SERVER)
// {
// Display(("\r\n"));
// Display(("******************************************************************\r\n"));
// Display(("* Command Options General: Help, GetLocalAddress, SetBaudRate *\r\n"));
// Display(("* Quit, *\r\n"));
// Display(("* Command Options BR/EDR: Inquiry, DisplayInquiryList, Pair, *\r\n"));
// Display(("* EndPairing, PINCodeResponse, *\r\n"));
// Display(("* PassKeyResponse, *\r\n"));
// Display(("* UserConfirmationResponse, *\r\n"));
// Display(("* SetDiscoverabilityMode, *\r\n"));
// Display(("* SetConnectabilityMode, *\r\n"));
// Display(("* SetPairabilityMode, *\r\n"));
// Display(("* ChangeSimplePairingParameters, *\r\n"));
// Display(("* GetLocalName, SetLocalName, *\r\n"));
// Display(("* GetClassOfDevice, SetClassOfDevice, *\r\n"));
// Display(("* GetRemoteName, SniffMode, *\r\n"));
// Display(("* ExitSniffMode, Open, Close, Read, *\r\n"));
// Display(("* Write, GetConfigParams, *\r\n"));
// Display(("* SetConfigParams, GetQueueParams, *\r\n"));
// Display(("* SetQueueParams, Loopback, *\r\n"));
// Display(("* DisplayRawModeData, AutomaticReadMode,*\r\n"));
// Display(("* CBSend. *\r\n"));
// }
// else
// {
// Display(("\r\n"));
// Display(("******************************************************************\r\n"));
// Display(("* Command Options: Server, Client, Help *\r\n"));
// Display(("******************************************************************\r\n"));
// }
// }
//
// if(UI_Mode != UI_MODE_SELECT)
// {
// Display(("* Command Options GAPLE: SetDiscoverabilityMode, *\r\n"));
// Display(("* SetConnectabilityMode, *\r\n"));
// Display(("* SetPairabilityMode, *\r\n"));
// Display(("* ChangePairingParameters, *\r\n"));
// Display(("* AdvertiseLE, StartScanning, *\r\n"));
// Display(("* StopScanning, ConnectLE, *\r\n"));
// Display(("* DisconnectLE, PairLE, *\r\n"));
// Display(("* LEPasskeyResponse, *\r\n"));
// Display(("* QueryEncryptionMode, SetPasskey, *\r\n"));
// Display(("* DiscoverGAPS, GetLocalName, *\r\n"));
// Display(("* SetLocalName, GetLERemoteName, *\r\n"));
// Display(("* SetLocalAppearance, *\r\n"));
// Display(("* GetLocalAppearance, *\r\n"));
// Display(("* GetRemoteAppearance, *\r\n"));
// Display(("* Command Options SPPLE: DiscoverSPPLE, RegisterSPPLE, LESend, *\r\n"));
// Display(("* ConfigureSPPLE, LERead, Loopback, *\r\n"));
// Display(("* DisplayRawModeData, AutomaticReadMode *\r\n"));
// Display(("******************************************************************\r\n"));
// }
//
// return(0);
//}
//
// /* The following function is responsible for setting the */
// /* Discoverability Mode of the local device. This function returns */
// /* zero on successful execution and a negative value on all errors. */
//static int SetLEDiscoverabilityMode(ParameterList_t *TempParam)
//{
// int ret_val;
// GAP_Discoverability_Mode_t DiscoverabilityMode;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Make sure that all of the parameters required for this function*/
// /* appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam >= 0) && (TempParam->Params[0].intParam <= 2))
// {
// /* Parameters appear to be valid, map the specified parameters */
// /* into the API specific parameters. */
// if(TempParam->Params[0].intParam == 1)
// DiscoverabilityMode = dmLimitedDiscoverableMode;
// else
// {
// if(TempParam->Params[0].intParam == 2)
// DiscoverabilityMode = dmGeneralDiscoverableMode;
// else
// DiscoverabilityMode = dmNonDiscoverableMode;
// }
//
// /* Set the LE Discoveryability Mode. */
// LE_Parameters.DiscoverabilityMode = DiscoverabilityMode;
//
// /* The Mode was changed successfully. */
// Display(("Discoverability: %s.\r\n", (DiscoverabilityMode == dmNonDiscoverableMode)?"Non":((DiscoverabilityMode == dmGeneralDiscoverableMode)?"General":"Limited")));
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// DisplayUsage("SetDiscoverabilityMode [Mode(0 = Non Discoverable, 1 = Limited Discoverable, 2 = General Discoverable)]");
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for setting the */
// /* Connectability Mode of the local device. This function returns */
// /* zero on successful execution and a negative value on all errors. */
//static int SetLEConnectabilityMode(ParameterList_t *TempParam)
//{
// int ret_val;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Make sure that all of the parameters required for this function*/
// /* appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters >= 1) && (TempParam->Params[0].intParam >= 0) && (TempParam->Params[0].intParam <= 1))
// {
// /* Parameters appear to be valid, map the specified parameters */
// /* into the API specific parameters. */
// /* * NOTE * The Connectability Mode in LE is only applicable */
// /* when advertising, if a device is not advertising */
// /* it is not connectable. */
// if(TempParam->Params[0].intParam == 0)
// LE_Parameters.ConnectableMode = lcmNonConnectable;
// else
// LE_Parameters.ConnectableMode = lcmConnectable;
//
// /* The Mode was changed successfully. */
// Display(("Connectability Mode: %s.\r\n", (LE_Parameters.ConnectableMode == lcmNonConnectable)?"Non Connectable":"Connectable"));
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// DisplayUsage("SetConnectabilityMode [(0 = NonConectable, 1 = Connectable)]");
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for setting the Pairability */
// /* Mode of the local device. This function returns zero on */
// /* successful execution and a negative value on all errors. */
//static int SetLEPairabilityMode(ParameterList_t *TempParam)
//{
// int Result;
// int ret_val;
// char *Mode;
// GAP_LE_Pairability_Mode_t PairabilityMode;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Make sure that all of the parameters required for this function*/
// /* appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam >= 0) && (TempParam->Params[0].intParam <= 1))
// {
// /* Parameters appear to be valid, map the specified parameters */
// /* into the API specific parameters. */
// if(TempParam->Params[0].intParam == 0)
// {
// PairabilityMode = lpmNonPairableMode;
// Mode = "lpmNonPairableMode";
// }
// else
// {
// PairabilityMode = lpmPairableMode;
// Mode = "lpmPairableMode";
// }
//
// /* Parameters mapped, now set the Pairability Mode. */
// Result = GAP_LE_Set_Pairability_Mode(BluetoothStackID, PairabilityMode);
//
// /* Next, check the return value to see if the command was */
// /* issued successfully. */
// if(Result >= 0)
// {
// /* The Mode was changed successfully. */
// Display(("Pairability Mode Changed to %s.\r\n", Mode));
//
// /* If Secure Simple Pairing has been enabled, inform the */
// /* user of the current Secure Simple Pairing parameters. */
// if(PairabilityMode == lpmPairableMode)
// DisplayIOCapabilities();
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* There was an error setting the Mode. */
// DisplayFunctionError("GAP_Set_Pairability_Mode", Result);
//
// /* Flag that an error occurred while submitting the command.*/
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// DisplayUsage("SetPairabilityMode [Mode (0 = Non Pairable, 1 = Pairable]");
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// Display(("Invalid Stack ID.\r\n"));
//
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for changing the Secure */
// /* Simple Pairing Parameters that are exchanged during the Pairing */
// /* procedure when Secure Simple Pairing (Security Level 4) is used. */
// /* This function returns zero on successful execution and a negative */
// /* value on all errors. */
//static int ChangeLEPairingParameters(ParameterList_t *TempParam)
//{
// int ret_val;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Make sure that all of the parameters required for this function*/
// /* appear to be at least semi-valid. */
// if((TempParam) && (TempParam->Params[0].intParam >= 0) && (TempParam->Params[0].intParam <= 4))
// {
// /* Parameters appear to be valid, map the specified parameters */
// /* into the API specific parameters. */
// if(TempParam->Params[0].intParam == 0)
// LE_Parameters.IOCapability = licDisplayOnly;
// else
// {
// if(TempParam->Params[0].intParam == 1)
// LE_Parameters.IOCapability = licDisplayYesNo;
// else
// {
// if(TempParam->Params[0].intParam == 2)
// LE_Parameters.IOCapability = licKeyboardOnly;
// else
// {
// if(TempParam->Params[0].intParam == 3)
// LE_Parameters.IOCapability = licNoInputNoOutput;
// else
// LE_Parameters.IOCapability = licKeyboardDisplay;
// }
// }
// }
//
// /* Finally map the Man in the Middle (MITM) Protection valud. */
// LE_Parameters.MITMProtection = (Boolean_t)(TempParam->Params[1].intParam?TRUE:FALSE);
//
// /* Inform the user of the New I/O Capablities. */
// DisplayIOCapabilities();
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// Display(("Usage: ChangePairingParameters [I/O Capability (0 = Display Only, 1 = Display Yes/No, 2 = Keyboard Only, 3 = No Input/Output, 4 = Keyboard/Display)] [MITM Requirement (0 = No, 1 = Yes)].\r\n"));
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for issuing a GAP */
// /* Authentication Response with a Pass Key value specified via the */
// /* input parameter. This function returns zero on successful */
// /* execution and a negative value on all errors. */
//static int LEPassKeyResponse(ParameterList_t *TempParam)
//{
// int Result;
// int ret_val;
// GAP_LE_Authentication_Response_Information_t GAP_LE_Authentication_Response_Information;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* First, check to see if there is an on-going Pairing operation */
// /* active. */
// if(!COMPARE_NULL_BD_ADDR(CurrentLERemoteBD_ADDR))
// {
// /* Make sure that all of the parameters required for this */
// /* function appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (BTPS_StringLength(TempParam->Params[0].strParam) <= GAP_LE_PASSKEY_MAXIMUM_NUMBER_OF_DIGITS))
// {
// /* Parameters appear to be valid, go ahead and populate the */
// /* response structure. */
// GAP_LE_Authentication_Response_Information.GAP_LE_Authentication_Type = larPasskey;
// GAP_LE_Authentication_Response_Information.Authentication_Data_Length = (Byte_t)(sizeof(DWord_t));
// GAP_LE_Authentication_Response_Information.Authentication_Data.Passkey = (DWord_t)(TempParam->Params[0].intParam);
//
// /* Submit the Authentication Response. */
// Result = GAP_LE_Authentication_Response(BluetoothStackID, CurrentLERemoteBD_ADDR, &GAP_LE_Authentication_Response_Information);
//
// /* Check the return value for the submitted command for */
// /* success. */
// if(!Result)
// {
// /* Operation was successful, inform the user. */
// DisplayFunctionSuccess("Passkey Response");
//
// /* Flag success to the caller. */
// ret_val = 0;
// }
// else
// {
// /* Inform the user that the Authentication Response was */
// /* not successful. */
// DisplayFunctionError("GAP_LE_Authentication_Response", Result);
//
// ret_val = FUNCTION_ERROR;
// }
//
// /* Flag that there is no longer a current Authentication */
// /* procedure in progress. */
// ASSIGN_BD_ADDR(CurrentLERemoteBD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// Display(("PassKeyResponse [Numeric Passkey(0 - 999999)].\r\n"));
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* There is not currently an on-going authentication operation,*/
// /* inform the user of this error condition. */
// Display(("Pass Key Authentication Response: Authentication not in progress.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
// /* The following function is responsible for quering the Encryption */
// /* Mode for an LE Connection. This function returns zero on */
// /* successful execution and a negative value on all errors. */
//static int LEQueryEncryption(ParameterList_t *TempParam)
//{
// int ret_val;
// int LEConnectionIndex;
// BD_ADDR_t BD_ADDR;
// GAP_Encryption_Mode_t GAP_Encryption_Mode;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /*Next, make sure that a valid device address exists. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
// {
// /* Convert the parameter to a Bluetooth Device Address. */
// StrToBD_ADDR(TempParam->Params[0].strParam, &BD_ADDR);
//
// /* Find the LE Connection Index for this connection. */
// if((LEConnectionIndex = FindLEIndexByAddress(BD_ADDR)) >= 0)
// {
// /* Query the current Encryption Mode for this Connection. */
// ret_val = GAP_LE_Query_Encryption_Mode(BluetoothStackID, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR, &GAP_Encryption_Mode);
// if(!ret_val)
// Display(("Current Encryption Mode: %s.\r\n", (GAP_Encryption_Mode == emEnabled)?"Enabled":"Disabled"));
// else
// {
// Display(("Error - GAP_LE_Query_Encryption_Mode returned %d.\r\n", ret_val));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* There is not currently an on-going authentication */
// /* operation, inform the user of this error condition. */
// Display(("No connections established.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* Invalid parameters specified so flag an error to the user. */
// Display(("Usage: QueryEncryptionMode [BD_ADDR].\r\n"));
//
// /* Flag that an error occurred while submitting the command. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for quering the Encryption */
// /* Mode for an LE Connection. This function returns zero on */
// /* successful execution and a negative value on all errors. */
//static int LESetPasskey(ParameterList_t *TempParam)
//{
// int ret_val;
// DWord_t Passkey;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Make sure that all of the parameters required for this */
// /* function appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters >= 1) && ((TempParam->Params[0].intParam == 0) || (TempParam->Params[0].intParam == 1)))
// {
// if(TempParam->Params[0].intParam == 1)
// {
// /* We are setting the passkey so make sure it is valid. */
// if(BTPS_StringLength(TempParam->Params[1].strParam) <= GAP_LE_PASSKEY_MAXIMUM_NUMBER_OF_DIGITS)
// {
// Passkey = (DWord_t)(TempParam->Params[1].intParam);
//
// ret_val = GAP_LE_Set_Fixed_Passkey(BluetoothStackID, &Passkey);
// if(!ret_val)
// Display(("Fixed Passkey set to %06l.\r\n", Passkey));
// }
// else
// {
// Display(("Error - Invalid Passkey.\r\n"));
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* Un-set the fixed passkey that we previously configured. */
// ret_val = GAP_LE_Set_Fixed_Passkey(BluetoothStackID, NULL);
// if(!ret_val)
// Display(("Fixed Passkey no longer configured.\r\n"));
// }
//
// /* If GAP_LE_Set_Fixed_Passkey returned an error display this. */
// if((ret_val) && (ret_val != INVALID_PARAMETERS_ERROR))
// {
// Display(("Error - GAP_LE_Set_Fixed_Passkey returned %d.\r\n", ret_val));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* One or more of the necessary parameters is/are invalid. */
// Display(("SetPasskey [(0 = UnSet Passkey, 1 = Set Fixed Passkey)] [6 Digit Passkey (optional)].\r\n"));
//
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for enabling LE */
// /* Advertisements. This function returns zero on successful */
// /* execution and a negative value on all errors. */
//static int AdvertiseLE(ParameterList_t *TempParam)
//{
// int ret_val;
// int Length;
// GAP_LE_Advertising_Parameters_t AdvertisingParameters;
// GAP_LE_Connectability_Parameters_t ConnectabilityParameters;
// union
// {
// Advertising_Data_t AdvertisingData;
// Scan_Response_Data_t ScanResponseData;
// } Advertisement_Data_Buffer;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Make sure that all of the parameters required for this function*/
// /* appear to be at least semi-valid. */
// // if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam >= 0) && (TempParam->Params[0].intParam <= 1))
// //{
// /* Determine whether to enable or disable Advertising. */
// // if(TempParam->Params[0].intParam == 0)
// // {
// /* Disable Advertising. */
// // ret_val = GAP_LE_Advertising_Disable(BluetoothStackID);
// // if(!ret_val)
// // Display((" GAP_LE_Advertising_Disable success.\r\n"));
// //else
// //{
// // Display((" GAP_LE_Advertising_Disable returned %d.\r\n", ret_val));
//
// //ret_val = FUNCTION_ERROR;
// //}
// //}
// // else
// //{
// /* Enable Advertising. */
// /* Set the Advertising Data. */
// BTPS_MemInitialize(&(Advertisement_Data_Buffer.AdvertisingData), 0, sizeof(Advertising_Data_t));
//
// /* Set the Flags A/D Field (1 byte type and 1 byte Flags. */
// Advertisement_Data_Buffer.AdvertisingData.Advertising_Data[0] = 2;
// Advertisement_Data_Buffer.AdvertisingData.Advertising_Data[1] = HCI_LE_ADVERTISING_REPORT_DATA_TYPE_FLAGS;
// Advertisement_Data_Buffer.AdvertisingData.Advertising_Data[2] = 0;
//
// /* Configure the flags field based on the Discoverability */
// /* Mode. */
// if(LE_Parameters.DiscoverabilityMode == dmGeneralDiscoverableMode)
// Advertisement_Data_Buffer.AdvertisingData.Advertising_Data[2] = HCI_LE_ADVERTISING_FLAGS_GENERAL_DISCOVERABLE_MODE_FLAGS_BIT_MASK;
// else
// {
// if(LE_Parameters.DiscoverabilityMode == dmLimitedDiscoverableMode)
// Advertisement_Data_Buffer.AdvertisingData.Advertising_Data[2] = HCI_LE_ADVERTISING_FLAGS_LIMITED_DISCOVERABLE_MODE_FLAGS_BIT_MASK;
// }
//
// /* Write thee advertising data to the chip. */
// ret_val = GAP_LE_Set_Advertising_Data(BluetoothStackID, (Advertisement_Data_Buffer.AdvertisingData.Advertising_Data[0] + 1), &(Advertisement_Data_Buffer.AdvertisingData));
// if(!ret_val)
// {
// BTPS_MemInitialize(&(Advertisement_Data_Buffer.ScanResponseData), 0, sizeof(Scan_Response_Data_t));
//
// /* Set the Scan Response Data. */
// Length = BTPS_StringLength(LE_DEMO_DEVICE_NAME);
// if(Length < (ADVERTISING_DATA_MAXIMUM_SIZE - 2))
// {
// Advertisement_Data_Buffer.ScanResponseData.Scan_Response_Data[1] = HCI_LE_ADVERTISING_REPORT_DATA_TYPE_LOCAL_NAME_COMPLETE;
// }
// else
// {
// Advertisement_Data_Buffer.ScanResponseData.Scan_Response_Data[1] = HCI_LE_ADVERTISING_REPORT_DATA_TYPE_LOCAL_NAME_SHORTENED;
// Length = (ADVERTISING_DATA_MAXIMUM_SIZE - 2);
// }
//
// Advertisement_Data_Buffer.ScanResponseData.Scan_Response_Data[0] = (Byte_t)(1 + Length);
// BTPS_MemCopy(&(Advertisement_Data_Buffer.ScanResponseData.Scan_Response_Data[2]),LE_DEMO_DEVICE_NAME,Length);
//
// ret_val = GAP_LE_Set_Scan_Response_Data(BluetoothStackID, (Advertisement_Data_Buffer.ScanResponseData.Scan_Response_Data[0] + 1), &(Advertisement_Data_Buffer.ScanResponseData));
// if(!ret_val)
// {
// /* Set up the advertising parameters. */
// AdvertisingParameters.Advertising_Channel_Map = HCI_LE_ADVERTISING_CHANNEL_MAP_DEFAULT;
// AdvertisingParameters.Scan_Request_Filter = fpNoFilter;
// AdvertisingParameters.Connect_Request_Filter = fpNoFilter;
// AdvertisingParameters.Advertising_Interval_Min = 100;
// AdvertisingParameters.Advertising_Interval_Max = 200;
//
// /* Configure the Connectability Parameters. */
// /* * NOTE * Since we do not ever put ourselves to be */
// /* direct connectable then we will set the */
// /* DirectAddress to all 0s. */
// ConnectabilityParameters.Connectability_Mode = LE_Parameters.ConnectableMode;
// ConnectabilityParameters.Own_Address_Type = latPublic;
// ConnectabilityParameters.Direct_Address_Type = latPublic;
// ASSIGN_BD_ADDR(ConnectabilityParameters.Direct_Address, 0, 0, 0, 0, 0, 0);
//
// /* Now enable advertising. */
// ret_val = GAP_LE_Advertising_Enable(BluetoothStackID, TRUE, &AdvertisingParameters, &ConnectabilityParameters, GAP_LE_Event_Callback, 0);
// if(!ret_val)
// {
// Display((" GAP_LE_Advertising_Enable success.\r\n"));
// }
// else
// {
// Display((" GAP_LE_Advertising_Enable returned %d.\r\n", ret_val));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display((" GAP_LE_Set_Advertising_Data(dtScanResponse) returned %d.\r\n", ret_val));
//
// ret_val = FUNCTION_ERROR;
// }
//
// }
// else
// {
// Display((" GAP_LE_Set_Advertising_Data(dtAdvertising) returned %d.\r\n", ret_val));
//
// ret_val = FUNCTION_ERROR;
// }
// // }
// // }
// //else
// //{
// // DisplayUsage("Advertise [(0 = Disable, 1 = Enable)].");
//
// //ret_val = INVALID_PARAMETERS_ERROR;
// //}
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(0);
//}
//
//
// /* The following function is responsible for starting an LE scan */
// /* procedure. This function returns zero if successful and a */
// /* negative value if an error occurred. */
//static int StartScanning(ParameterList_t *TempParam)
//{
// int ret_val;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Simply start scanning. */
// if(!StartScan(BluetoothStackID))
// ret_val = 0;
// else
// ret_val = FUNCTION_ERROR;
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for stopping an LE scan */
// /* procedure. This function returns zero if successful and a */
// /* negative value if an error occurred. */
//static int StopScanning(ParameterList_t *TempParam)
//{
// int ret_val;
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Simply stop scanning. */
// if(!StopScan(BluetoothStackID))
// ret_val = 0;
// else
// ret_val = FUNCTION_ERROR;
// }
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for connecting to an LE */
// /* device. This function returns zero if successful and a negative */
// /* value if an error occurred. */
//static int ConnectLE(ParameterList_t *TempParam)
//{
// int ret_val;
// BD_ADDR_t BD_ADDR;
// GAP_LE_Address_Type_t Address_Type;
// char BT_address[12] = "f43538fe9c18";
//
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /* Next, make sure that a valid device address exists. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
// {
// /* Check to see if the address type is specified. */
// if(TempParam->NumberofParameters >= 2)
// {
// if(TempParam->Params[1].intParam)
// Address_Type = latRandom;
// else
// Address_Type = latPublic;
// }
// else
// Address_Type = latRandom;
//
// /* Convert the parameter to a Bluetooth Device Address. */
// StrToBD_ADDR(TempParam->Params[0].strParam, &BD_ADDR);
//
// if(!ConnectLEDevice(BluetoothStackID, Address_Type, BD_ADDR, FALSE))
// ret_val = 0;
// else
// ret_val = FUNCTION_ERROR;
// }
// else
// {
// /* Invalid parameters specified so flag an error to the user. */
// DisplayUsage("ConnectLE [BD_ADDR] [Address Type (0 = Public/Default, 1 = Random) Optional]");
//
// /* Flag that an error occurred while submitting the command. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for disconnecting to an LE */
// /* device. This function returns zero if successful and a negative */
// /* value if an error occurred. */
//static int DisconnectLE(ParameterList_t *TempParam)
//{
// int ret_val;
// int LEConnectionIndex;
// BD_ADDR_t BD_ADDR;
// char BT_address[12] = "f43538fe9c18";
//
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /*Next, make sure that a valid device address exists. */
// // if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
// // {
// /* Convert the parameter to a Bluetooth Device Address. */
// StrToBD_ADDR(BT_address, &BD_ADDR);
//
// /* Find the LE Connection Index for this connection. */
// if((LEConnectionIndex = FindLEIndexByAddress(BD_ADDR)) >= 0)
// {
// /* Attempt to disconnect the device. */
// if(!DisconnectLEDevice(BluetoothStackID, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR))
// ret_val = 0;
// else
// ret_val = FUNCTION_ERROR;
// }
// else
// {
// /* No matching ConnectionBD_ADDR. */
// Display(("No connection with BD_ADDR %s exists.\r\n", TempParam->Params[0].strParam));
//
// ret_val = FUNCTION_ERROR;
// }
// // }
// // else
// //{
// /* Invalid parameters specified so flag an error to the user. */
// // Display(("Usage: DisconnectLE [BD_ADDR].\r\n"));
//
// /* Flag that an error occurred while submitting the command. */
// //ret_val = INVALID_PARAMETERS_ERROR;
// //}
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is provided to allow a mechanism of */
// /* Pairing (or requesting security if a slave) to the connected */
// /* device. */
//static int PairLE(ParameterList_t *TempParam)
//{
// int ret_val;
// int LEConnectionIndex;
// BD_ADDR_t BD_ADDR;
// char BT_address[12] = "f43538fe9c18";
//
//
// /* First, check that valid Bluetooth Stack ID exists. */
// if(BluetoothStackID)
// {
// /*Next, make sure that a valid device address exists. */
// // if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
// //{
// /* Convert the parameter to a Bluetooth Device Address. */
// StrToBD_ADDR(BT_address, &BD_ADDR);
//
// /* Find the LE Connection Index for this connection. */
// if((LEConnectionIndex = FindLEIndexByAddress(BD_ADDR)) >= 0)
// {
// /* Attempt to send a pairing request to the specified */
// /* device. */
// if(!SendPairingRequest(LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR, LocalDeviceIsMaster))
// ret_val = 0;
// else
// ret_val = FUNCTION_ERROR;
// }
// else
// {
// /* No matching ConnectionBD_ADDR. */
// Display(("No connection with BD_ADDR %s exists.\r\n", TempParam->Params[0].strParam));
//
// ret_val = FUNCTION_ERROR;
// }
// // }
// //else
// //{
// /* Invalid parameters specified so flag an error to the user. */
// // Display(("Usage: PairLE [BD_ADDR].\r\n"));
//
// /* Flag that an error occurred while submitting the command. */
// //ret_val = INVALID_PARAMETERS_ERROR;
// //}
// }
// else
// {
// /* No valid Bluetooth Stack ID exists. */
// ret_val = INVALID_STACK_ID_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for performing a GAP Service*/
// /* Service Discovery Operation. This function will return zero on */
// /* successful execution and a negative value on errors. */
//static int DiscoverGAPS(ParameterList_t *TempParam)
//{
// int ret_val;
// int LEConnectionIndex;
// BD_ADDR_t BD_ADDR;
// GATT_UUID_t UUID[1];
// DeviceInfo_t *DeviceInfo;
//
// /* Next, make sure that a valid device address exists. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
// {
// /* Convert the parameter to a Bluetooth Device Address. */
// StrToBD_ADDR(TempParam->Params[0].strParam, &BD_ADDR);
//
// /* Find the LE Connection Index for this connection. */
// if((LEConnectionIndex = FindLEIndexByAddress(BD_ADDR)) >= 0)
// {
// /* Get the device info for the connection device. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
// {
// /* Verify that no service discovery is outstanding for this */
// /* device. */
// if(!(DeviceInfo->Flags & DEVICE_INFO_FLAGS_SERVICE_DISCOVERY_OUTSTANDING))
// {
// /* Configure the filter so that only the SPP LE Service */
// /* is discovered. */
// UUID[0].UUID_Type = guUUID_16;
// GAP_ASSIGN_GAP_SERVICE_UUID_16(UUID[0].UUID.UUID_16);
//
// /* Start the service discovery process. */
// ret_val = GATT_Start_Service_Discovery(BluetoothStackID, LEContextInfo[LEConnectionIndex].ConnectionID, (sizeof(UUID)/sizeof(GATT_UUID_t)), UUID, GATT_Service_Discovery_Event_Callback, 0);
// if(!ret_val)
// {
// /* Display success message. */
// Display(("GATT_Start_Service_Discovery success.\r\n"));
//
// /* Flag that a Service Discovery Operation is */
// /* outstanding. */
// DeviceInfo->Flags |= DEVICE_INFO_FLAGS_SERVICE_DISCOVERY_OUTSTANDING;
// }
// else
// {
// /* An error occur so just clean-up. */
// Display(("Error - GATT_Start_Service_Discovery returned %d.\r\n", ret_val));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display(("Service Discovery Operation Outsanding for Device.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display(("No Device Info.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* No matching ConnectionBD_ADDR. */
// Display(("No connection with BD_ADDR %s exists.\r\n", TempParam->Params[0].strParam));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* Invalid parameters specified so flag an error to the user. */
// Display(("Usage: DiscoverGAPS [BD_ADDR].\r\n"));
//
// /* Flag that an error occurred while submitting the command. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for reading the current */
// /* Local Device Name. This function will return zero on successful */
// /* execution and a negative value on errors. */
//static int ReadLocalName(ParameterList_t *TempParam)
//{
// int ret_val;
// char NameBuffer[BTPS_CONFIGURATION_GAPS_MAXIMUM_SUPPORTED_DEVICE_NAME+1];
//
// /* Verify that the GAP Service is registered. */
// if(GAPSInstanceID)
// {
// /* Initialize the Name Buffer to all ZEROs. */
// BTPS_MemInitialize(NameBuffer, 0, sizeof(NameBuffer));
//
// /* Query the Local Name. */
// ret_val = GAPS_Query_Device_Name(BluetoothStackID, GAPSInstanceID, NameBuffer);
// if(!ret_val)
// Display(("Device Name: %s.\r\n", NameBuffer));
// else
// {
// Display(("Error - GAPS_Query_Device_Name returned %d.\r\n", ret_val));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display(("GAP Service not registered.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for setting the current */
// /* Local Device Name. This function will return zero on successful */
// /* execution and a negative value on errors. */
//static int SetLocalName(ParameterList_t *TempParam)
//{
// int ret_val;
//
// /* Verify that the input parameters are semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (BTPS_StringLength(TempParam->Params[0].strParam) > 0) && (BTPS_StringLength(TempParam->Params[0].strParam) <= BTPS_CONFIGURATION_GAPS_MAXIMUM_SUPPORTED_DEVICE_NAME))
// {
// /* Verify that the GAP Service is registered. */
// if(GAPSInstanceID)
// {
// /* Attempt to submit the command. */
// ret_val = GAP_Set_Local_Device_Name(BluetoothStackID, TempParam->Params[0].strParam);
// if(!ret_val)
// {
// /* Query the Local Name. */
// ret_val = GAPS_Set_Device_Name(BluetoothStackID, GAPSInstanceID, TempParam->Params[0].strParam);
// if(!ret_val)
// Display(("Local Devce Name set to %s.\r\n", TempParam->Params[0].strParam));
// else
// {
// Display(("Error - GAPS_Query_Device_Name returned %d.\r\n", ret_val));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display(("Error - GAP_Set_Local_Device_Name returned %d.\r\n", ret_val));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display(("GAP Service not registered.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display(("Usage: SetLocalName [NameString].\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for reading the Device Name */
// /* for the currently connected remote device. This function will */
// /* return zero on successful execution and a negative value on */
// /* errors. */
//static int ReadRemoteName(ParameterList_t *TempParam)
//{
// int ret_val;
// int LEConnectionIndex;
// BD_ADDR_t BD_ADDR;
// DeviceInfo_t *DeviceInfo;
//
// /* Next, make sure that a valid device address exists. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
// {
// /* Convert the parameter to a Bluetooth Device Address. */
// StrToBD_ADDR(TempParam->Params[0].strParam, &BD_ADDR);
//
// /* Find the LE Connection Index for this connection. */
// if((LEConnectionIndex = FindLEIndexByAddress(BD_ADDR)) >= 0)
// {
// /* Get the device info for the connection device. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
// {
// /* Verify that we discovered the Device Name Handle. */
// if(DeviceInfo->GAPSClientInfo.DeviceNameHandle)
// {
// /* Attempt to read the remote device name. */
// ret_val = GATT_Read_Value_Request(BluetoothStackID, LEContextInfo[LEConnectionIndex].ConnectionID, DeviceInfo->GAPSClientInfo.DeviceNameHandle, GATT_ClientEventCallback_GAPS, (unsigned long)DeviceInfo->GAPSClientInfo.DeviceNameHandle);
// if(ret_val > 0)
// {
// Display(("Attempting to read Remote Device Name.\r\n"));
//
// ret_val = 0;
// }
// else
// {
// Display(("Error - GATT_Read_Value_Request returned %d.\r\n", ret_val));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display(("GAP Service Device Name Handle not discovered.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display(("No Device Info.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* No matching ConnectionBD_ADDR. */
// Display(("No connection with BD_ADDR %s exists.\r\n", TempParam->Params[0].strParam));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* Invalid parameters specified so flag an error to the user. */
// Display(("Usage: GetLERemoteName [BD_ADDR].\r\n"));
//
// /* Flag that an error occurred while submitting the command. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for reading the Local Device*/
// /* Appearance value. This function will return zero on successful */
// /* execution and a negative value on errors. */
//static int ReadLocalAppearance(ParameterList_t *TempParam)
//{
// int ret_val;
// char *AppearanceString;
// Word_t Appearance;
//
// /* Verify that the GAP Service is registered. */
// if(GAPSInstanceID)
// {
// /* Query the Local Name. */
// ret_val = GAPS_Query_Device_Appearance(BluetoothStackID, GAPSInstanceID, &Appearance);
// if(!ret_val)
// {
// /* Map the Appearance to a String. */
// if(AppearanceToString(Appearance, &AppearanceString))
// Display(("Device Appearance: %s(%u).\r\n", AppearanceString, Appearance));
// else
// Display(("Device Appearance: Unknown(%u).\r\n", Appearance));
// }
// else
// {
// Display(("Error - GAPS_Query_Device_Appearance returned %d.\r\n", ret_val));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display(("GAP Service not registered.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for setting the Local Device*/
// /* Appearance value. This function will return zero on successful */
// /* execution and a negative value on errors. */
//static int SetLocalAppearance(ParameterList_t *TempParam)
//{
// int ret_val;
// Word_t Appearance;
//
// /* Verify that the input parameters are semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam >= 0) && (TempParam->Params[0].intParam < NUMBER_OF_APPEARANCE_MAPPINGS))
// {
// /* Verify that the GAP Service is registered. */
// if(GAPSInstanceID)
// {
// /* Map the Appearance Index to the GAP Appearance Value. */
// if(AppearanceIndexToAppearance(TempParam->Params[0].intParam, &Appearance))
// {
// /* Set the Local Appearance. */
// ret_val = GAPS_Set_Device_Appearance(BluetoothStackID, GAPSInstanceID, Appearance);
// if(!ret_val)
// Display(("GAPS_Set_Device_Appearance success.\r\n"));
// else
// {
// Display(("Error - GAPS_Set_Device_Appearance returned %d.\r\n", ret_val));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display(("Invalid Appearance Index.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display(("GAP Service not registered.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display(("Usage: SetLocalAppearance [Index].\r\n"));
// Display(("Where Index = \r\n"));
// DumpAppearanceMappings();
//
// ret_val = FUNCTION_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for reading the Device Name */
// /* for the currently connected remote device. This function will */
// /* return zero on successful execution and a negative value on */
// /* errors. */
//static int ReadRemoteAppearance(ParameterList_t *TempParam)
//{
// int ret_val;
// int LEConnectionIndex;
// BD_ADDR_t BD_ADDR;
// DeviceInfo_t *DeviceInfo;
//
// /* Next, make sure that a valid device address exists. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
// {
// /* Convert the parameter to a Bluetooth Device Address. */
// StrToBD_ADDR(TempParam->Params[0].strParam, &BD_ADDR);
//
// /* Find the LE Connection Index for this connection. */
// if((LEConnectionIndex = FindLEIndexByAddress(BD_ADDR)) >= 0)
// {
// /* Get the device info for the connection device. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
// {
// /* Verify that we discovered the Device Name Handle. */
// if(DeviceInfo->GAPSClientInfo.DeviceAppearanceHandle)
// {
// /* Attempt to read the remote device name. */
// ret_val = GATT_Read_Value_Request(BluetoothStackID, LEContextInfo[LEConnectionIndex].ConnectionID, DeviceInfo->GAPSClientInfo.DeviceAppearanceHandle, GATT_ClientEventCallback_GAPS, (unsigned long)DeviceInfo->GAPSClientInfo.DeviceAppearanceHandle);
// if(ret_val > 0)
// {
// Display(("Attempting to read Remote Device Appearance.\r\n"));
//
// ret_val = 0;
// }
// else
// {
// Display(("Error - GATT_Read_Value_Request returned %d.\r\n", ret_val));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display(("GAP Service Device Appearance Handle not discovered.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display(("No Device Info.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* No matching ConnectionBD_ADDR. */
// Display(("No connection with BD_ADDR %s exists.\r\n", TempParam->Params[0].strParam));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* Invalid parameters specified so flag an error to the user. */
// Display(("Usage: GetRemoteAppearance [BD_ADDR].\r\n"));
//
// /* Flag that an error occurred while submitting the command. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for performing a SPPLE */
// /* Service Discovery Operation. This function will return zero on */
// /* successful execution and a negative value on errors. */
//static int DiscoverSPPLE(ParameterList_t *TempParam)
//{
// int ret_val;
// int LEConnectionIndex;
// BD_ADDR_t BD_ADDR;
// GATT_UUID_t UUID[1];
// DeviceInfo_t *DeviceInfo;
// char BT_address[12]="f43538fe9c18";
//
// /* Next, make sure that a valid device address exists. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
// {
// /* Convert the parameter to a Bluetooth Device Address. */
// StrToBD_ADDR(BT_address, &BD_ADDR);
//
// /* Find the LE Connection Index for this connection. */
// if((LEConnectionIndex = FindLEIndexByAddress(BD_ADDR)) >= 0)
// {
// /* Get the device info for the connection device. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
// {
// /* Verify that no service discovery is outstanding for this */
// /* device. */
// if(!(DeviceInfo->Flags & DEVICE_INFO_FLAGS_SERVICE_DISCOVERY_OUTSTANDING))
// {
// /* Configure the filter so that only the SPP LE Service */
// /* is discovered. */
// UUID[0].UUID_Type = guUUID_128;
// SPPLE_ASSIGN_SPPLE_SERVICE_UUID_128(&(UUID[0].UUID.UUID_128));
//
// /* Start the service discovery process. */
// ret_val = GATT_Start_Service_Discovery(BluetoothStackID, LEContextInfo[LEConnectionIndex].ConnectionID, (sizeof(UUID)/sizeof(GATT_UUID_t)), UUID, GATT_Service_Discovery_Event_Callback, 0);
// if(!ret_val)
// {
// /* Display success message. */
// Display(("GATT_Start_Service_Discovery success.\r\n"));
//
// /* Flag that a Service Discovery Operation is */
// /* outstanding. */
// DeviceInfo->Flags |= DEVICE_INFO_FLAGS_SERVICE_DISCOVERY_OUTSTANDING;
// }
// else
// {
// /* An error occur so just clean-up. */
// Display(("Error - GATT_Start_Service_Discovery returned %d.\r\n", ret_val));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display(("Service Discovery Operation Outsanding for Device.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display(("No Device Info.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* No matching ConnectionBD_ADDR. */
// Display(("No connection with BD_ADDR %s exists.\r\n", TempParam->Params[0].strParam));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* Invalid parameters specified so flag an error to the user. */
// Display(("Usage: DiscoverSPPLE [BD_ADDR].\r\n"));
//
// /* Flag that an error occurred while submitting the command. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for registering a SPPLE */
// /* Service. This function will return zero on successful execution */
// /* and a negative value on errors. */
//static int RegisterSPPLE(ParameterList_t *TempParam)
//{
// int ret_val;
// GATT_Attribute_Handle_Group_t ServiceHandleGroup;
//
// /* Verify that there is no active connection. */
// if(FindFreeLEIndex() != -1)
// {
// /* Verify that the Service is not already registered. */
// if(!SPPLEServiceID)
// {
// /* Initialize the handle group to 0 . */
// ServiceHandleGroup.Starting_Handle = 0;
// ServiceHandleGroup.Ending_Handle = 0;
//
// /* Register the SPPLE Service. */
// ret_val = GATT_Register_Service(BluetoothStackID, SPPLE_SERVICE_FLAGS, SPPLE_SERVICE_ATTRIBUTE_COUNT, (GATT_Service_Attribute_Entry_t *)SPPLE_Service, &ServiceHandleGroup, GATT_ServerEventCallback, 0);
// if(ret_val > 0)
// {
// /* Display success message. */
// Display(("Sucessfully registered SPPLE Service.\r\n"));
//
// /* Save the ServiceID of the registered service. */
// SPPLEServiceID = (unsigned int)ret_val;
//
// /* Return success to the caller. */
// ret_val = 0;
// }
// }
// else
// {
// Display(("SPPLE Service already registered.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display(("Connection currently active.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for configure a SPPLE */
// /* Service on a remote device. This function will return zero on */
// /* successful execution and a negative value on errors. */
//static int ConfigureSPPLE(ParameterList_t *TempParam)
//{
// int ret_val;
// int LEConnectionIndex;
// BD_ADDR_t BD_ADDR;
// DeviceInfo_t *DeviceInfo;
// char BT_address[12]="f43538fe9c18";
//
// /* Next, make sure that a valid device address exists. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
// {
// /* Convert the parameter to a Bluetooth Device Address. */
// StrToBD_ADDR(TempParam->Params[0].strParam, &BD_ADDR);
//
// /* Find the LE Connection Index for this connection. */
// if((LEConnectionIndex = FindLEIndexByAddress(BD_ADDR)) >= 0)
// {
// /* Get the device info for the connection device. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
// {
// /* Determine if a service discovery operation has been */
// /* previously done. */
// if(SPPLE_CLIENT_INFORMATION_VALID(DeviceInfo->ClientInfo))
// {
// Display(("SPPLE Service found on remote device, attempting to read Transmit Credits, and configured CCCDs.\r\n"));
//
// /* Send the Initial Credits to the remote device. */
// SPPLESendCredits(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.ReceiveBuffer.BytesFree);
//
// /* Enable Notifications on the proper characteristics. */
// EnableDisableNotificationsIndications(LEContextInfo[LEConnectionIndex].ConnectionID, DeviceInfo->ClientInfo.Rx_Credit_Client_Configuration_Descriptor, GATT_CLIENT_CONFIGURATION_CHARACTERISTIC_NOTIFY_ENABLE, GATT_ClientEventCallback_SPPLE);
// EnableDisableNotificationsIndications(LEContextInfo[LEConnectionIndex].ConnectionID, DeviceInfo->ClientInfo.Tx_Client_Configuration_Descriptor, GATT_CLIENT_CONFIGURATION_CHARACTERISTIC_NOTIFY_ENABLE, GATT_ClientEventCallback_SPPLE);
//
// ret_val = 0;
// }
// else
// {
// Display(("No SPPLE Service discovered on device.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// Display(("No Device Info.\r\n"));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* No matching ConnectionBD_ADDR. */
// Display(("No connection with BD_ADDR %s exists.\r\n", TempParam->Params[0].strParam));
//
// ret_val = FUNCTION_ERROR;
// }
// }
// else
// {
// /* Invalid parameters specified so flag an error to the user. */
// Display(("Usage: ConfigureSPPLE [BD_ADDR].\r\n"));
//
// /* Flag that an error occurred while submitting the command. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for sending a number of */
// /* characters to a remote device to which a connection exists. The */
// /* function receives a parameter that indicates the number of byte to*/
// /* be transferred. This function will return zero on successful */
// /* execution and a negative value on errors. */
//static int SendDataCommand(ParameterList_t *TempParam)
//{
// int LEConnectionIndex;
// BD_ADDR_t BD_ADDR;
// DeviceInfo_t *DeviceInfo;
// char BT_address[12]="cc78ab7945c2";
//
// /* Make sure that all of the parameters required for this function */
// /* appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters >= 2) && (TempParam->Params[1].intParam > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
// {
// /* Convert the parameter to a Bluetooth Device Address. */
// StrToBD_ADDR(TempParam->Params[0].strParam, &BD_ADDR);
//
// /* Find the LE Connection Index for this connection. */
// if((LEConnectionIndex = FindLEIndexByAddress(BD_ADDR)) >= 0)
// {
// /* Check to see if we are sending to another port. */
// if(!(LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.SendInfo.BytesToSend))
// {
// /* Get the device info for the connection device. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
// {
// /* Get the count of the number of bytes to send. */
// LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.SendInfo.BytesToSend = (Word_t)DataStrLen;//(DWord_t)TempParam->Params[1].intParam;
// LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.SendInfo.BytesSent = 0;
//
// /* Kick start the send process. */
// SPPLESendProcess(&(LEContextInfo[LEConnectionIndex]), DeviceInfo);
// }
// else
// Display(("No Device Info.\r\n"));
// }
// else
// Display(("Send Currently in progress.\r\n"));
// }
// else
// {
// /* No matching ConnectionBD_ADDR. */
// Display(("No connection with BD_ADDR %s exists.\r\n", TempParam->Params[0].strParam));
// }
// }
// else
// DisplayUsage("LESEND [BD_ADDR] [Number of Bytes to send]\r\n");
//
// return(0);
//}
//
// /* The following function is responsible for reading data sent by a */
// /* remote device to which a connection exists. This function will */
// /* return zero on successful execution and a negative value on */
// /* errors.
// */
//uint32_t temp=0;
//int count = 0;
//uint32_t i=0;
//
//static int ReadDataCommand(ParameterList_t *TempParam)
//{
// int LEConnectionIndex;
//
// Boolean_t Done;
// char BT_address[12] = "f43538fe9c18";
// // char BT_address[12] = "d78206cba936";
//
// BD_ADDR_t BD_ADDR;
// unsigned int Temp;
// DeviceInfo_t *DeviceInfo;
//
//
//
// /* Next, make sure that a valid device address exists. */
// // if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
// //{
// /* Convert the parameter to a Bluetooth Device Address. */
// // StrToBD_ADDR(TempParam->Params[0].strParam, &BD_ADDR);
// StrToBD_ADDR(BT_address, &BD_ADDR);
//
// /* Find the LE Connection Index for this connection. */
// if((LEConnectionIndex = FindLEIndexByAddress(BD_ADDR)) >= 0)
// {
// /* Get the device info for the connection device. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
// {
// /* Determine the number of bytes we are going to read. */
// Temp = LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.ReceiveBuffer.BufferSize - LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.ReceiveBuffer.BytesFree;
//
// Display(("Read_data: %d.\r\n", Temp));
//
//
// /* Loop and read all of the data. */
// Done = FALSE;
// while(!Done)
// {
//
// /* Read the data. */
// Temp = SPPLEReadData(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, 10, SPPLEBuffer);
//
// Display(("readinfd\n"));
//
// if(Temp > 0)
// {
//
// SPPLEBufferNew = SPPLEBuffer;
//
// Display(("SPPLEBufferNew before=========%d\n",SPPLEBuffer[7]));
// temp=temp + SPPLEBufferNew[0];
// if( SPPLEBufferNew[0]==123)
// {
// if(!(temp==7626))
// Display(("%d\n",i++));
// err=0x62;
// Display(("%x\n",err));
//
// temp=0;
// }
//
//
//
// SPPLEBufferNew[Temp] = '\0';
//
//
// //Write(NULL);
//
// // return 2;
// }
// else
// {
// Done = TRUE;
//
// }
//
//
// }
//
// }
// else
// Display(("No Device Info.\r\n"));
// }
// else
// {
// int i;
// /* No matching ConnectionBD_ADDR. */
// // Display(("No connection with BD_ADDR %s exists.\r\n", TempParam->Params[0].strParam));
// Display(("no data.\r\n"));
// /* for(i=0; i<=(sizeof(SPPLEBufferNew)) ;i++)
// {
// SPPLEBufferNew[i]=0;
// }*/
// }
// // }
// //else
// //{
// /* Invalid parameters specified so flag an error to the user. */
// // Display(("Usage: LEREAD [BD_ADDR].\r\n"));
// //}
//
// return(0);
//}
//
// /* The following function is a utility function that is used to find */
// /* the SPP Port Index by the specified Serial Port ID. This function*/
// /* returns the index of the Serial Port or -1 on failure. */
//static int FindSPPPortIndex(unsigned int SerialPortID)
//{
// int ret_val = -1;
// unsigned int i;
//
// /* Search the list for the Serial Port Info. */
// for(i=0; i < sizeof(SPPContextInfo)/sizeof(SPP_Context_Info_t); i++)
// {
// /* Check to see if this entry matches the entry we are to search */
// /* for. */
// if(SPPContextInfo[i].LocalSerialPortID == SerialPortID)
// {
// ret_val = (int)i;
// break;
// }
// }
//
// return(ret_val);
//}
//
// /* The following function is a utility function that is used to find */
// /* the SPP Port Index by the specified Server Port Number. This */
// /* function returns the index of the Serial Port or -1 on failure. */
//static int FindSPPPortIndexByServerPortNumber(unsigned int ServerPortNumber)
//{
// int ret_val = -1;
// unsigned int i;
//
// /* Search the list for the Serial Port Info. */
// for(i=0; i < sizeof(SPPContextInfo)/sizeof(SPP_Context_Info_t); i++)
// {
// /* Check to see if this entry matches the entry we are to search */
// /* for. */
// if(SPPContextInfo[i].ServerPortNumber == ServerPortNumber)
// {
// ret_val = (int)i;
// break;
// }
// }
//
// return(ret_val);
//}
//
// /* The following function is a utility function that is used to find */
// /* the SPP Port Index by the specified BD_ADDR. This function */
// /* returns the index of the Serial Port or -1 on failure. */
//static int FindSPPPortIndexByAddress(BD_ADDR_t BD_ADDR)
//{
// int ret_val = -1;
// unsigned int i;
//
// /* Search the list for the Serial Port Info. */
// for(i=0; i < sizeof(SPPContextInfo)/sizeof(SPP_Context_Info_t); i++)
// {
// /* Check to see if this entry matches the entry we are to search */
// /* for. */
// if(COMPARE_BD_ADDR(SPPContextInfo[i].BD_ADDR, BD_ADDR))
// {
// ret_val = (int)i;
// break;
// }
// }
//
// return(ret_val);
//}
//
// /* The following function is a utility function that is used to find */
// /* a SPP Port Index that is not currently in use. This function */
// /* returns the index of the Serial Port or -1 on failure. */
//static int FindFreeSPPPortIndex(void)
//{
// return(FindSPPPortIndex(0));
//}
//
// /* The following function is a utility function which is used to */
// /* close the specified port by the specified Serial Port ID. */
//static int ClosePortByNumber(unsigned int LocalSerialPortID)
//{
// int i;
// int ret_val;
// Boolean_t ServerPort;
//
// /* Find an empty slot. */
// if((i = FindSPPPortIndex(LocalSerialPortID)) >= 0)
// {
// /* Un-register the SDP Record registered for this server port. */
// if(SPPContextInfo[i].ServerPortNumber)
// {
// if(SPPContextInfo[i].SPPServerSDPHandle)
// SPP_Un_Register_SDP_Record(BluetoothStackID, SPPContextInfo[i].LocalSerialPortID, SPPContextInfo[i].SPPServerSDPHandle);
//
// ServerPort = TRUE;
// }
// else
// ServerPort = FALSE;
//
// /* Close the specified server port. */
// if(ServerPort)
// ret_val = SPP_Close_Server_Port(BluetoothStackID, SPPContextInfo[i].LocalSerialPortID);
// else
// ret_val = SPP_Close_Port(BluetoothStackID, SPPContextInfo[i].LocalSerialPortID);
//
// if(ret_val < 0)
// {
// if(ServerPort)
// DisplayFunctionError("SPP_Close_Server_Port", ret_val);
// else
// DisplayFunctionError("SPP_Close_Port", ret_val);
//
// ret_val = FUNCTION_ERROR;
// }
// else
// ret_val = 0;
//
// /* Clear SPP Server info for that port. */
// BTPS_MemInitialize(&SPPContextInfo[i], 0, sizeof(SPPContextInfo[i]));
//
// Display(("Port Context Cleared.\r\n"));
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for iterating through the */
// /* array BDInfoArray[MAX_LE_CONNECTIONS], which contains the */
// /* connection information for connected LE devices. It returns -1 if*/
// /* the a free connection index is not found. If a free index is */
// /* found, it returns the free index which can be used for another */
// /* connection. */
//static int FindFreeLEIndex(void)
//{
// BD_ADDR_t NullBD_ADDR;
//
// ASSIGN_BD_ADDR(NullBD_ADDR, 0, 0, 0, 0, 0, 0);
//
// return(FindLEIndexByAddress(NullBD_ADDR));
//}
//
// /* The following function is responsible for iterating through the */
// /* array BDInfoArray[MAX_LE_CONNECTIONS], which contains the */
// /* connection information for connected LE devices. It returns -1 if*/
// /* the BD_ADDR is not found. If the BD_ADDR is found, it returns the*/
// /* index at which the BD_ADDR was found in the array. */
//static int FindLEIndexByAddress(BD_ADDR_t BD_ADDR)
//{
// int i;
// int ret_val = -1;
//
// for(i=0; i<MAX_LE_CONNECTIONS; i++)
// {
// if(COMPARE_BD_ADDR(BD_ADDR, LEContextInfo[i].ConnectionBD_ADDR))
// {
// ret_val = i;
// break;
// }
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for iterating through the */
// /* array BDInfoArray[MAX_LE_CONNECTIONS], which contains the */
// /* connection information for connected LE devices. It returns -1 if*/
// /* the Connection ID is not found. If the Connection ID is found, it*/
// /* returns the index at which the Connection ID was found in the */
// /* array. */
//static int FindLEIndexByConnectionID(unsigned int ConnectionID)
//{
// int i;
// int ret_val = -1;
//
// for(i=0; i<MAX_LE_CONNECTIONS; i++)
// {
// if(LEContextInfo[i].ConnectionID == ConnectionID)
// {
// ret_val = i;
// break;
// }
// }
//
// return(ret_val);
//}
//
// /* The following function is responsible for updating the connection */
// /* identifier for a given BD_ADDR. If an entry in the array */
// /* BDInfoArray[MAX_LE_CONNECTIONS] has a matching BD_ADDR, then its */
// /* ConnectionID is set to the passed value of ConnectionID and the */
// /* function returns its index in the array. If no matching BD_ADDR */
// /* is found, the function returns -1. */
//static int UpdateConnectionID(unsigned int ConnectionID, BD_ADDR_t BD_ADDR)
//{
// int LEConnectionIndex;
//
// /* Check for the index of the entry for this connection. */
// LEConnectionIndex = FindLEIndexByAddress(BD_ADDR);
// if(LEConnectionIndex >= 0)
// LEContextInfo[LEConnectionIndex].ConnectionID = ConnectionID;
// else
// {
// Display(("Error in updating ConnectionID.\r\n"));
// }
//
// return(LEConnectionIndex);
//}
//
// /* The following function is responsible for clearing the values of */
// /* an entry in BDInfoArray if its ConnectionBD_ADDR matches BD_ADDR. */
//static void RemoveConnectionInfo(BD_ADDR_t BD_ADDR)
//{
// int LEConnectionIndex;
//
// /* If an index is returned (any but -1), then found */
// LEConnectionIndex = FindLEIndexByAddress(BD_ADDR);
// if(LEConnectionIndex >= 0)
// {
// ASSIGN_BD_ADDR(LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
// LEContextInfo[LEConnectionIndex].ConnectionID = 0;
//
// /* Re-initialize the Transmit and Receive Buffers, as well as the */
// /* transmit credits. */
// InitializeBuffer(&(LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.TransmitBuffer));
// InitializeBuffer(&(LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.ReceiveBuffer));
//
// /* Clear the Transmit Credits count. */
// LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.TransmitCredits = 0;
//
// /* Flag that no credits are queued. */
// LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.QueuedCredits = 0;
//
// /* Clear the SPPLE Send Information. */
// LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.SendInfo.BytesToSend = 0;
// LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.SendInfo.BytesSent = 0;
// LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.SendInfo.BufferFull = FALSE;
// }
//}
//
// /* ***************************************************************** */
// /* Event Callbacks */
// /* ***************************************************************** */
//
// /* The following function is for the GAP LE Event Receive Data */
// /* Callback. This function will be called whenever a Callback has */
// /* been registered for the specified GAP LE Action that is associated*/
// /* with the Bluetooth Stack. This function passes to the caller the */
// /* GAP LE Event Data of the specified Event and the GAP LE Event */
// /* Callback Parameter that was specified when this Callback was */
// /* installed. The caller is free to use the contents of the GAP LE */
// /* Event Data ONLY in the context of this callback. If the caller */
// /* requires the Data for a longer period of time, then the callback */
// /* function MUST copy the data into another Data Buffer. This */
// /* function is guaranteed NOT to be invoked more than once */
// /* simultaneously for the specified installed callback (i.e. this */
// /* function DOES NOT have be reentrant). It Needs to be noted */
// /* however, that if the same Callback is installed more than once, */
// /* then the callbacks will be called serially. Because of this, the */
// /* processing in this function should be as efficient as possible. */
// /* It should also be noted that this function is called in the Thread*/
// /* Context of a Thread that the User does NOT own. Therefore, */
// /* processing in this function should be as efficient as possible */
// /* (this argument holds anyway because other GAP Events will not be */
// /* processed while this function call is outstanding). */
// /* * NOTE * This function MUST NOT Block and wait for Events that can*/
// /* only be satisfied by Receiving a Bluetooth Event */
// /* Callback. A Deadlock WILL occur because NO Bluetooth */
// /* Callbacks will be issued while this function is currently*/
// /* outstanding. */
//static void BTPSAPI GAP_LE_Event_Callback(unsigned int BluetoothStackID, GAP_LE_Event_Data_t *GAP_LE_Event_Data, unsigned long CallbackParameter)
//{
// int Result;
// int LEConnectionInfo;
// BoardStr_t BoardStr;
// unsigned int Index;
// DeviceInfo_t *DeviceInfo;
// Long_Term_Key_t GeneratedLTK;
// GAP_LE_Security_Information_t GAP_LE_Security_Information;
// GAP_LE_Connection_Parameters_t ConnectionParameters;
// GAP_LE_Advertising_Report_Data_t *DeviceEntryPtr;
// GAP_LE_Authentication_Event_Data_t *Authentication_Event_Data;
// GAP_LE_Authentication_Response_Information_t GAP_LE_Authentication_Response_Information;
//
// /* Verify that all parameters to this callback are Semi-Valid. */
// if((BluetoothStackID) && (GAP_LE_Event_Data))
// {
// switch(GAP_LE_Event_Data->Event_Data_Type)
// {
// case etLE_Advertising_Report:
// Display(("\r\netLE_Advertising_Report with size %d.\r\n",(int)GAP_LE_Event_Data->Event_Data_Size));
// Display((" %d Responses.\r\n",GAP_LE_Event_Data->Event_Data.GAP_LE_Advertising_Report_Event_Data->Number_Device_Entries));
//
// for(Index = 0; Index < GAP_LE_Event_Data->Event_Data.GAP_LE_Advertising_Report_Event_Data->Number_Device_Entries; Index++)
// {
// DeviceEntryPtr = &(GAP_LE_Event_Data->Event_Data.GAP_LE_Advertising_Report_Event_Data->Advertising_Data[Index]);
//
// /* Display the packet type for the device */
// switch(DeviceEntryPtr->Advertising_Report_Type)
// {
// case rtConnectableUndirected:
// Display((" Advertising Type: %s.\r\n", "rtConnectableUndirected"));
// break;
// case rtConnectableDirected:
// Display((" Advertising Type: %s.\r\n", "rtConnectableDirected"));
// break;
// case rtScannableUndirected:
// Display((" Advertising Type: %s.\r\n", "rtScannableUndirected"));
// break;
// case rtNonConnectableUndirected:
// Display((" Advertising Type: %s.\r\n", "rtNonConnectableUndirected"));
// break;
// case rtScanResponse:
// Display((" Advertising Type: %s.\r\n", "rtScanResponse"));
// break;
// }
//
// /* Display the Address Type. */
// if(DeviceEntryPtr->Address_Type == latPublic)
// {
// Display((" Address Type: %s.\r\n","atPublic"));
// }
// else
// {
// Display((" Address Type: %s.\r\n","atRandom"));
// }
//
// /* Display the Device Address. */
// Display((" Address: 0x%02X%02X%02X%02X%02X%02X.\r\n", DeviceEntryPtr->BD_ADDR.BD_ADDR5, DeviceEntryPtr->BD_ADDR.BD_ADDR4, DeviceEntryPtr->BD_ADDR.BD_ADDR3, DeviceEntryPtr->BD_ADDR.BD_ADDR2, DeviceEntryPtr->BD_ADDR.BD_ADDR1, DeviceEntryPtr->BD_ADDR.BD_ADDR0));
// Display((" RSSI: %d.\r\n", (int)DeviceEntryPtr->RSSI));
// Display((" Data Length: %d.\r\n", DeviceEntryPtr->Raw_Report_Length));
//
// DisplayAdvertisingData(&(DeviceEntryPtr->Advertising_Data));
// }
// break;
// case etLE_Connection_Complete:
// Display(("\r\netLE_Connection_Complete with size %d.\r\n",(int)GAP_LE_Event_Data->Event_Data_Size));
//
// if(GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data)
// {
// BD_ADDRToStr(GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Peer_Address, BoardStr);
//
// Display((" Status: 0x%02X.\r\n", GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Status));
// Display((" Role: %s.\r\n", (GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Master)?"Master":"Slave"));
// Display((" Address Type: %s.\r\n", (GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Peer_Address_Type == latPublic)?"Public":"Random"));
// Display((" BD_ADDR: %s.\r\n", BoardStr));
//
// if(GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Status == HCI_ERROR_CODE_NO_ERROR)
// {
// /* If not already in the connection info array, add */
// /* it. */
// if(FindLEIndexByAddress(GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Peer_Address) < 0)
// {
// /* Find an unused position in the connection info */
// /* array. */
// LEConnectionInfo = FindFreeLEIndex();
// if(LEConnectionInfo >= 0)
// LEContextInfo[LEConnectionInfo].ConnectionBD_ADDR = GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Peer_Address;
// }
//
// /* Set a global flag to indicate if we are the */
// /* connection master. */
// LocalDeviceIsMaster = GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Master;
//
// /* Make sure that no entry already exists. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Peer_Address)) == NULL)
// {
// /* No entry exists so create one. */
// if(!CreateNewDeviceInfoEntry(&DeviceInfoList, GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Peer_Address_Type, GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Peer_Address))
// Display(("Failed to add device to Device Info List.\r\n"));
// }
// else
// {
// /* If we are the Master of the connection we will */
// /* attempt to Re-Establish Security if a LTK for */
// /* this device exists (i.e. we previously paired).*/
// if(LocalDeviceIsMaster)
// {
// /* Re-Establish Security if there is a LTK that */
// /* is stored for this device. */
// if(DeviceInfo->Flags & DEVICE_INFO_FLAGS_LTK_VALID)
// {
// /* Re-Establish Security with this LTK. */
// Display(("Attempting to Re-Establish Security.\r\n"));
//
// /* Attempt to re-establish security to this */
// /* device. */
// GAP_LE_Security_Information.Local_Device_Is_Master = TRUE;
// BTPS_MemCopy(&(GAP_LE_Security_Information.Security_Information.Master_Information.LTK), &(DeviceInfo->LTK), LONG_TERM_KEY_SIZE);
// BTPS_MemCopy(&(GAP_LE_Security_Information.Security_Information.Master_Information.Rand), &(DeviceInfo->Rand), RANDOM_NUMBER_DATA_SIZE);
//
// GAP_LE_Security_Information.Security_Information.Master_Information.EDIV = DeviceInfo->EDIV;
// GAP_LE_Security_Information.Security_Information.Master_Information.Encryption_Key_Size = DeviceInfo->EncryptionKeySize;
//
// Result = GAP_LE_Reestablish_Security(BluetoothStackID, DeviceInfo->ConnectionBD_ADDR, &GAP_LE_Security_Information, GAP_LE_Event_Callback, 0);
// if(Result)
// {
// Display(("GAP_LE_Reestablish_Security returned %d.\r\n",Result));
// }
// }
// }
// }
// }
// else
// {
// /* Clear the Connection ID. */
// RemoveConnectionInfo(GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Peer_Address);
// }
// }
// break;
// case etLE_Disconnection_Complete:
// Display(("\r\netLE_Disconnection_Complete with size %d.\r\n", (int)GAP_LE_Event_Data->Event_Data_Size));
//
// if(GAP_LE_Event_Data->Event_Data.GAP_LE_Disconnection_Complete_Event_Data)
// {
// Display((" Status: 0x%02X.\r\n", GAP_LE_Event_Data->Event_Data.GAP_LE_Disconnection_Complete_Event_Data->Status));
// Display((" Reason: 0x%02X.\r\n", GAP_LE_Event_Data->Event_Data.GAP_LE_Disconnection_Complete_Event_Data->Reason));
//
// BD_ADDRToStr(GAP_LE_Event_Data->Event_Data.GAP_LE_Disconnection_Complete_Event_Data->Peer_Address, BoardStr);
//
// Display((" BD_ADDR: %s.\r\n", BoardStr));
//
// /* Check to see if the device info is present in the */
// /* list. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, GAP_LE_Event_Data->Event_Data.GAP_LE_Disconnection_Complete_Event_Data->Peer_Address)) != NULL)
// {
// /* Flag that no service discovery operation is */
// /* outstanding for this device. */
// DeviceInfo->Flags &= ~DEVICE_INFO_FLAGS_SERVICE_DISCOVERY_OUTSTANDING;
//
// /* Clear the CCCDs stored for this device. */
// DeviceInfo->ServerInfo.Rx_Credit_Client_Configuration_Descriptor = 0;
// DeviceInfo->ServerInfo.Tx_Client_Configuration_Descriptor = 0;
//
// /* If this device is not paired, then delete it. The */
// /* link will be encrypted if the device is paired. */
// if(!(DeviceInfo->Flags & DEVICE_INFO_FLAGS_LINK_ENCRYPTED))
// {
// if((DeviceInfo = DeleteDeviceInfoEntry(&DeviceInfoList, GAP_LE_Event_Data->Event_Data.GAP_LE_Disconnection_Complete_Event_Data->Peer_Address)) != NULL)
// FreeDeviceInfoEntryMemory(DeviceInfo);
// }
// else
// {
// /* Flag that the Link is no longer encrypted since */
// /* we have disconnected. */
// DeviceInfo->Flags &= ~DEVICE_INFO_FLAGS_LINK_ENCRYPTED;
// }
// }
// }
// break;
// case etLE_Connection_Parameter_Update_Request:
// Display(("\r\netLE_Connection_Parameter_Update_Request with size %d.\r\n", (int)GAP_LE_Event_Data->Event_Data_Size));
//
// if(GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data)
// {
// BD_ADDRToStr(GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data->BD_ADDR, BoardStr);
// Display((" BD_ADDR: %s.\r\n", BoardStr));
// Display((" Minimum Interval: %u.\r\n", (unsigned int)GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data->Conn_Interval_Min));
// Display((" Maximum Interval: %u.\r\n", (unsigned int)GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data->Conn_Interval_Max));
// Display((" Slave Latency: %u.\r\n", (unsigned int)GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data->Slave_Latency));
// Display((" Supervision Timeout: %u.\r\n", (unsigned int)GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data->Conn_Supervision_Timeout));
//
// /* Initialize the connection parameters. */
// ConnectionParameters.Connection_Interval_Min = GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data->Conn_Interval_Min;
// ConnectionParameters.Connection_Interval_Max = GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data->Conn_Interval_Max;
// ConnectionParameters.Slave_Latency = GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data->Slave_Latency;
// ConnectionParameters.Supervision_Timeout = GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data->Conn_Supervision_Timeout;
// ConnectionParameters.Minimum_Connection_Length = 0;
// ConnectionParameters.Maximum_Connection_Length = 10000;
//
// Display(("\r\nAttempting to accept connection parameter update request.\r\n"));
//
// /* Go ahead and accept whatever the slave has requested. */
// Result = GAP_LE_Connection_Parameter_Update_Response(BluetoothStackID, GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data->BD_ADDR, TRUE, &ConnectionParameters);
// if(!Result)
// {
// Display((" GAP_LE_Connection_Parameter_Update_Response() success.\r\n"));
// }
// else
// {
// Display((" GAP_LE_Connection_Parameter_Update_Response() error %d.\r\n", Result));
// }
// }
// break;
// case etLE_Connection_Parameter_Updated:
// Display(("\r\netLE_Connection_Parameter_Updated with size %d.\r\n", (int)GAP_LE_Event_Data->Event_Data_Size));
//
// if(GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Updated_Event_Data)
// {
// BD_ADDRToStr(GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Updated_Event_Data->BD_ADDR, BoardStr);
// Display((" Status: 0x%02X.\r\n", GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Updated_Event_Data->Status));
// Display((" BD_ADDR: %s.\r\n", BoardStr));
//
// if(GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Updated_Event_Data->Status == HCI_ERROR_CODE_NO_ERROR)
// {
// Display((" Connection Interval: %u.\r\n", (unsigned int)GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Updated_Event_Data->Current_Connection_Parameters.Connection_Interval));
// Display((" Slave Latency: %u.\r\n", (unsigned int)GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Updated_Event_Data->Current_Connection_Parameters.Slave_Latency));
// Display((" Supervision Timeout: %u.\r\n", (unsigned int)GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Updated_Event_Data->Current_Connection_Parameters.Supervision_Timeout));
// }
// }
// break;
// case etLE_Encryption_Change:
// Display(("\r\netLE_Encryption_Change with size %d.\r\n",(int)GAP_LE_Event_Data->Event_Data_Size));
//
// /* Search for the device entry to see flag if the link is */
// /* encrypted. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, GAP_LE_Event_Data->Event_Data.GAP_LE_Encryption_Change_Event_Data->BD_ADDR)) != NULL)
// {
// /* Check to see if the encryption change was successful. */
// if((GAP_LE_Event_Data->Event_Data.GAP_LE_Encryption_Change_Event_Data->Encryption_Change_Status == HCI_ERROR_CODE_NO_ERROR) && (GAP_LE_Event_Data->Event_Data.GAP_LE_Encryption_Change_Event_Data->Encryption_Mode == emEnabled))
// DeviceInfo->Flags |= DEVICE_INFO_FLAGS_LINK_ENCRYPTED;
// else
// DeviceInfo->Flags &= ~DEVICE_INFO_FLAGS_LINK_ENCRYPTED;
// }
// break;
// case etLE_Encryption_Refresh_Complete:
// Display(("\r\netLE_Encryption_Refresh_Complete with size %d.\r\n", (int)GAP_LE_Event_Data->Event_Data_Size));
//
// /* Search for the device entry to see flag if the link is */
// /* encrypted. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, GAP_LE_Event_Data->Event_Data.GAP_LE_Encryption_Refresh_Complete_Event_Data->BD_ADDR)) != NULL)
// {
// /* Check to see if the refresh was successful. */
// if(GAP_LE_Event_Data->Event_Data.GAP_LE_Encryption_Refresh_Complete_Event_Data->Status == HCI_ERROR_CODE_NO_ERROR)
// DeviceInfo->Flags |= DEVICE_INFO_FLAGS_LINK_ENCRYPTED;
// else
// DeviceInfo->Flags &= ~DEVICE_INFO_FLAGS_LINK_ENCRYPTED;
// }
// break;
// case etLE_Authentication:
// Display(("\r\netLE_Authentication with size %d.\r\n", (int)GAP_LE_Event_Data->Event_Data_Size));
//
// /* Make sure the authentication event data is valid before */
// /* continueing. */
// if((Authentication_Event_Data = GAP_LE_Event_Data->Event_Data.GAP_LE_Authentication_Event_Data) != NULL)
// {
// BD_ADDRToStr(Authentication_Event_Data->BD_ADDR, BoardStr);
//
// switch(Authentication_Event_Data->GAP_LE_Authentication_Event_Type)
// {
// case latLongTermKeyRequest:
// Display((" latKeyRequest: \r\n"));
// Display((" BD_ADDR: %s.\r\n", BoardStr));
//
// /* The other side of a connection is requesting */
// /* that we start encryption. Thus we should */
// /* regenerate LTK for this connection and send it */
// /* to the chip. */
// Result = GAP_LE_Regenerate_Long_Term_Key(BluetoothStackID, (Encryption_Key_t *)(&DHK), (Encryption_Key_t *)(&ER), Authentication_Event_Data->Authentication_Event_Data.Long_Term_Key_Request.EDIV, &(Authentication_Event_Data->Authentication_Event_Data.Long_Term_Key_Request.Rand), &GeneratedLTK);
// if(!Result)
// {
// Display((" GAP_LE_Regenerate_Long_Term_Key Success.\r\n"));
//
// /* Respond with the Re-Generated Long Term Key. */
// GAP_LE_Authentication_Response_Information.GAP_LE_Authentication_Type = larLongTermKey;
// GAP_LE_Authentication_Response_Information.Authentication_Data_Length = GAP_LE_LONG_TERM_KEY_INFORMATION_DATA_SIZE;
// GAP_LE_Authentication_Response_Information.Authentication_Data.Long_Term_Key_Information.Encryption_Key_Size = GAP_LE_MAXIMUM_ENCRYPTION_KEY_SIZE;
//
// BTPS_MemCopy(&(GAP_LE_Authentication_Response_Information.Authentication_Data.Long_Term_Key_Information.Long_Term_Key), &GeneratedLTK, LONG_TERM_KEY_SIZE);
// }
// else
// {
// Display((" GAP_LE_Regenerate_Long_Term_Key returned %d.\r\n",Result));
//
// /* Since we failed to generate the requested key*/
// /* we should respond with a negative response. */
// GAP_LE_Authentication_Response_Information.GAP_LE_Authentication_Type = larLongTermKey;
// GAP_LE_Authentication_Response_Information.Authentication_Data_Length = 0;
// }
//
// /* Send the Authentication Response. */
// Result = GAP_LE_Authentication_Response(BluetoothStackID, Authentication_Event_Data->BD_ADDR, &GAP_LE_Authentication_Response_Information);
// if(Result)
// {
// Display((" GAP_LE_Authentication_Response returned %d.\r\n",Result));
// }
// break;
// case latSecurityRequest:
// /* Display the data for this event. */
// /* * NOTE * This is only sent from Slave to Master.*/
// /* Thus we must be the Master in this */
// /* connection. */
// Display((" latSecurityRequest:.\r\n"));
// Display((" BD_ADDR: %s.\r\n", BoardStr));
// Display((" Bonding Type: %s.\r\n", ((Authentication_Event_Data->Authentication_Event_Data.Security_Request.Bonding_Type == lbtBonding)?"Bonding":"No Bonding")));
// Display((" MITM: %s.\r\n", ((Authentication_Event_Data->Authentication_Event_Data.Security_Request.MITM == TRUE)?"YES":"NO")));
//
// /* Determine if we have previously paired with the */
// /* device. If we have paired we will attempt to */
// /* re-establish security using a previously */
// /* exchanged LTK. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, Authentication_Event_Data->BD_ADDR)) != NULL)
// {
// /* Determine if a Valid Long Term Key is stored */
// /* for this device. */
// if(DeviceInfo->Flags & DEVICE_INFO_FLAGS_LTK_VALID)
// {
// Display(("Attempting to Re-Establish Security.\r\n"));
//
// /* Attempt to re-establish security to this */
// /* device. */
// GAP_LE_Security_Information.Local_Device_Is_Master = TRUE;
//
// BTPS_MemCopy(&(GAP_LE_Security_Information.Security_Information.Master_Information.LTK), &(DeviceInfo->LTK), LONG_TERM_KEY_SIZE);
// BTPS_MemCopy(&(GAP_LE_Security_Information.Security_Information.Master_Information.Rand), &(DeviceInfo->Rand), RANDOM_NUMBER_DATA_SIZE);
//
// GAP_LE_Security_Information.Security_Information.Master_Information.EDIV = DeviceInfo->EDIV;
// GAP_LE_Security_Information.Security_Information.Master_Information.Encryption_Key_Size = DeviceInfo->EncryptionKeySize;
//
// Result = GAP_LE_Reestablish_Security(BluetoothStackID, Authentication_Event_Data->BD_ADDR, &GAP_LE_Security_Information, GAP_LE_Event_Callback, 0);
// if(Result)
// {
// Display(("GAP_LE_Reestablish_Security returned %d.\r\n",Result));
// }
// }
// else
// {
// CurrentLERemoteBD_ADDR = Authentication_Event_Data->BD_ADDR;
//
// /* We do not have a stored Link Key for this */
// /* device so go ahead and pair to this */
// /* device. */
// SendPairingRequest(Authentication_Event_Data->BD_ADDR, TRUE);
// }
// }
// else
// {
// CurrentLERemoteBD_ADDR = Authentication_Event_Data->BD_ADDR;
//
// /* There is no Key Info Entry for this device */
// /* so we will just treat this as a slave */
// /* request and initiate pairing. */
// SendPairingRequest(Authentication_Event_Data->BD_ADDR, TRUE);
// }
//
// break;
// case latPairingRequest:
// CurrentLERemoteBD_ADDR = Authentication_Event_Data->BD_ADDR;
//
// Display(("Pairing Request: %s.\r\n",BoardStr));
// DisplayPairingInformation(Authentication_Event_Data->Authentication_Event_Data.Pairing_Request);
//
// /* This is a pairing request. Respond with a */
// /* Pairing Response. */
// /* * NOTE * This is only sent from Master to Slave.*/
// /* Thus we must be the Slave in this */
// /* connection. */
//
// /* Send the Pairing Response. */
// SlavePairingRequestResponse(Authentication_Event_Data->BD_ADDR);
// break;
// case latConfirmationRequest:
// Display(("latConfirmationRequest.\r\n"));
//
// if(Authentication_Event_Data->Authentication_Event_Data.Confirmation_Request.Request_Type == crtNone)
// {
// Display(("Invoking Just Works.\r\n"));
//
// /* Just Accept Just Works Pairing. */
// GAP_LE_Authentication_Response_Information.GAP_LE_Authentication_Type = larConfirmation;
//
// /* By setting the Authentication_Data_Length to */
// /* any NON-ZERO value we are informing the GAP */
// /* LE Layer that we are accepting Just Works */
// /* Pairing. */
// GAP_LE_Authentication_Response_Information.Authentication_Data_Length = DWORD_SIZE;
//
// Result = GAP_LE_Authentication_Response(BluetoothStackID, Authentication_Event_Data->BD_ADDR, &GAP_LE_Authentication_Response_Information);
// if(Result)
// {
// Display(("GAP_LE_Authentication_Response returned %d.\r\n",Result));
// }
// }
// else
// {
// if(Authentication_Event_Data->Authentication_Event_Data.Confirmation_Request.Request_Type == crtPasskey)
// {
// Display(("Call LEPasskeyResponse [PASSCODE].\r\n"));
// }
// else
// {
// if(Authentication_Event_Data->Authentication_Event_Data.Confirmation_Request.Request_Type == crtDisplay)
// {
// Display(("Passkey: %06l.\r\n", Authentication_Event_Data->Authentication_Event_Data.Confirmation_Request.Display_Passkey));
// }
// }
// }
// break;
// case latSecurityEstablishmentComplete:
// Display(("Security Re-Establishment Complete: %s.\r\n", BoardStr));
// Display((" Status: 0x%02X.\r\n", Authentication_Event_Data->Authentication_Event_Data.Security_Establishment_Complete.Status));
// break;
// case latPairingStatus:
// ASSIGN_BD_ADDR(CurrentLERemoteBD_ADDR, 0, 0, 0, 0, 0, 0);
//
// Display(("Pairing Status: %s.\r\n", BoardStr));
// Display((" Status: 0x%02X.\r\n", Authentication_Event_Data->Authentication_Event_Data.Pairing_Status.Status));
//
// if(Authentication_Event_Data->Authentication_Event_Data.Pairing_Status.Status == GAP_LE_PAIRING_STATUS_NO_ERROR)
// {
// Display((" Key Size: %d.\r\n", Authentication_Event_Data->Authentication_Event_Data.Pairing_Status.Negotiated_Encryption_Key_Size));
// }
// else
// {
// /* Failed to pair so delete the key entry for */
// /* this device and disconnect the link. */
// if((DeviceInfo = DeleteDeviceInfoEntry(&DeviceInfoList, Authentication_Event_Data->BD_ADDR)) != NULL)
// FreeDeviceInfoEntryMemory(DeviceInfo);
//
// /* Disconnect the Link. */
// GAP_LE_Disconnect(BluetoothStackID, Authentication_Event_Data->BD_ADDR);
// }
// break;
// case latEncryptionInformationRequest:
// Display(("Encryption Information Request %s.\r\n", BoardStr));
//
// /* Generate new LTK,EDIV and Rand and respond with */
// /* them. */
// EncryptionInformationRequestResponse(Authentication_Event_Data->BD_ADDR, Authentication_Event_Data->Authentication_Event_Data.Encryption_Request_Information.Encryption_Key_Size, &GAP_LE_Authentication_Response_Information);
// break;
// case latEncryptionInformation:
// /* Display the information from the event. */
// Display((" Encryption Information from RemoteDevice: %s.\r\n", BoardStr));
// Display((" Key Size: %d.\r\n", Authentication_Event_Data->Authentication_Event_Data.Encryption_Information.Encryption_Key_Size));
//
// /* ** NOTE ** If we are the Slave we will NOT */
// /* store the LTK that is sent to us by */
// /* the Master. However if it was ever */
// /* desired that the Master and Slave */
// /* switch roles in a later connection */
// /* we could store that information at */
// /* this point. */
// if(LocalDeviceIsMaster)
// {
// /* Search for the entry for this slave to store */
// /* the information into. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, Authentication_Event_Data->BD_ADDR)) != NULL)
// {
// BTPS_MemCopy(&(DeviceInfo->LTK), &(Authentication_Event_Data->Authentication_Event_Data.Encryption_Information.LTK), LONG_TERM_KEY_SIZE);
// BTPS_MemCopy(&(DeviceInfo->Rand), &(Authentication_Event_Data->Authentication_Event_Data.Encryption_Information.Rand), RANDOM_NUMBER_DATA_SIZE);
//
// DeviceInfo->EDIV = Authentication_Event_Data->Authentication_Event_Data.Encryption_Information.EDIV;
// DeviceInfo->EncryptionKeySize = Authentication_Event_Data->Authentication_Event_Data.Encryption_Information.Encryption_Key_Size;
// DeviceInfo->Flags |= DEVICE_INFO_FLAGS_LTK_VALID;
// }
// else
// {
// Display(("No Key Info Entry for this Slave.\r\n"));
// }
// }
// break;
// }
// }
// break;
// }
//
// /* Display the command prompt. */
// DisplayPrompt();
// }
//}
//
// /* The following function is for an GATT Server Event Callback. This*/
// /* function will be called whenever a GATT Request is made to the */
// /* server who registers this function that cannot be handled */
// /* internally by GATT. This function passes to the caller the GATT */
// /* Server Event Data that occurred and the GATT Server Event Callback*/
// /* Parameter that was specified when this Callback was installed. */
// /* The caller is free to use the contents of the GATT Server Event */
// /* Data ONLY in the context of this callback. If the caller requires*/
// /* the Data for a longer period of time, then the callback function */
// /* MUST copy the data into another Data Buffer. This function is */
// /* guaranteed NOT to be invoked more than once simultaneously for the*/
// /* specified installed callback (i.e. this function DOES NOT have be*/
// /* reentrant). It Needs to be noted however, that if the same */
// /* Callback is installed more than once, then the callbacks will be */
// /* called serially. Because of this, the processing in this function*/
// /* should be as efficient as possible. It should also be noted that */
// /* this function is called in the Thread Context of a Thread that the*/
// /* User does NOT own. Therefore, processing in this function should */
// /* be as efficient as possible (this argument holds anyway because */
// /* another GATT Event (Server/Client or Connection) will not be */
// /* processed while this function call is outstanding). */
// /* * NOTE * This function MUST NOT Block and wait for Events that can*/
// /* only be satisfied by Receiving a Bluetooth Event */
// /* Callback. A Deadlock WILL occur because NO Bluetooth */
// /* Callbacks will be issued while this function is currently*/
// /* outstanding. */
//static void BTPSAPI GATT_ServerEventCallback(unsigned int BluetoothStackID, GATT_Server_Event_Data_t *GATT_ServerEventData, unsigned long CallbackParameter)
//{
// int LEConnectionIndex;
// Byte_t Temp[2];
// Word_t Value;
// Word_t PreviousValue;
// Word_t AttributeOffset;
// DeviceInfo_t *DeviceInfo;
//
// /* Verify that all parameters to this callback are Semi-Valid. */
// if((BluetoothStackID) && (GATT_ServerEventData))
// {
// switch(GATT_ServerEventData->Event_Data_Type)
// {
// case etGATT_Server_Read_Request:
// /* Verify that the Event Data is valid. */
// if(GATT_ServerEventData->Event_Data.GATT_Read_Request_Data)
// {
// /* Verify that the read isn't a read blob (no SPPLE */
// /* readable characteristics are long). */
// if(GATT_ServerEventData->Event_Data.GATT_Read_Request_Data->AttributeValueOffset == 0)
// {
// /* Find the LE Connection Index for this connection. */
// if((LEConnectionIndex = FindLEIndexByAddress(GATT_ServerEventData->Event_Data.GATT_Read_Request_Data->RemoteDevice)) >= 0)
// {
// /* Grab the device info for the currently */
// /* connected device. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
// {
// /* Determine which request this read is coming */
// /* for. */
// switch(GATT_ServerEventData->Event_Data.GATT_Read_Request_Data->AttributeOffset)
// {
// case SPPLE_TX_CHARACTERISTIC_CCD_ATTRIBUTE_OFFSET:
// ASSIGN_HOST_WORD_TO_LITTLE_ENDIAN_UNALIGNED_WORD(Temp, DeviceInfo->ServerInfo.Tx_Client_Configuration_Descriptor);
// break;
// case SPPLE_TX_CREDITS_CHARACTERISTIC_ATTRIBUTE_OFFSET:
// ASSIGN_HOST_WORD_TO_LITTLE_ENDIAN_UNALIGNED_WORD(Temp, LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.TransmitCredits);
// break;
// case SPPLE_RX_CREDITS_CHARACTERISTIC_ATTRIBUTE_OFFSET:
// ASSIGN_HOST_WORD_TO_LITTLE_ENDIAN_UNALIGNED_WORD(Temp, LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.ReceiveBuffer.BytesFree);
// break;
// case SPPLE_RX_CREDITS_CHARACTERISTIC_CCD_ATTRIBUTE_OFFSET:
// ASSIGN_HOST_WORD_TO_LITTLE_ENDIAN_UNALIGNED_WORD(Temp, DeviceInfo->ServerInfo.Rx_Credit_Client_Configuration_Descriptor);
// break;
// }
//
// GATT_Read_Response(BluetoothStackID, GATT_ServerEventData->Event_Data.GATT_Read_Request_Data->TransactionID, WORD_SIZE, Temp);
// }
// else
// {
// Display(("Error - No device info entry for this device.\r\n"));
// }
// }
// else
// {
// Display(("Error - No such device connected.\r\n"));
// }
// }
// else
// GATT_Error_Response(BluetoothStackID, GATT_ServerEventData->Event_Data.GATT_Read_Request_Data->TransactionID, GATT_ServerEventData->Event_Data.GATT_Read_Request_Data->AttributeOffset, ATT_PROTOCOL_ERROR_CODE_ATTRIBUTE_NOT_LONG);
// }
// else
// Display(("Invalid Read Request Event Data.\r\n"));
// break;
// case etGATT_Server_Write_Request:
// /* Verify that the Event Data is valid. */
// if(GATT_ServerEventData->Event_Data.GATT_Write_Request_Data)
// {
// if(GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeValueOffset == 0)
// {
// /* Cache the Attribute Offset. */
// AttributeOffset = GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeOffset;
//
// /* Verify that the value is of the correct length. */
// if((AttributeOffset == SPPLE_RX_CHARACTERISTIC_ATTRIBUTE_OFFSET) || ((GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeValueLength) && (GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeValueLength <= WORD_SIZE)))
// {
// /* Find the LE Connection Index for this */
// /* connection. */
// if((LEConnectionIndex = FindLEIndexByAddress(GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->RemoteDevice)) >= 0)
// {
// /* Grab the device info for the currently */
// /* connected device. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
// {
// /* Since the value appears valid go ahead and*/
// /* accept the write request. */
// GATT_Write_Response(BluetoothStackID, GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->TransactionID);
//
// /* If this is not a write to the Rx */
// /* Characteristic we will read the data here.*/
// if(AttributeOffset != SPPLE_RX_CHARACTERISTIC_ATTRIBUTE_OFFSET)
// {
// if(GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeValueLength == WORD_SIZE)
// Value = READ_UNALIGNED_WORD_LITTLE_ENDIAN(GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeValue);
// else
// Value = READ_UNALIGNED_BYTE_LITTLE_ENDIAN(GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeValue);
// }
//
// /* Determine which attribute this write */
// /* request is for. */
// switch(AttributeOffset)
// {
// case SPPLE_TX_CHARACTERISTIC_CCD_ATTRIBUTE_OFFSET:
// /* Client has updated the Tx CCCD. Now*/
// /* we need to check if we have any data*/
// /* to send. */
// DeviceInfo->ServerInfo.Tx_Client_Configuration_Descriptor = Value;
//
// /* If may be possible for transmit */
// /* queued data now. So fake a Receive */
// /* Credit event with 0 as the received */
// /* credits. */
// SPPLEReceiveCreditEvent(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, 0);
// break;
// case SPPLE_TX_CREDITS_CHARACTERISTIC_ATTRIBUTE_OFFSET:
// /* Client has sent updated credits. */
// SPPLEReceiveCreditEvent(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, Value);
// break;
// case SPPLE_RX_CHARACTERISTIC_ATTRIBUTE_OFFSET:
// /* Client has sent data, so we should */
// /* handle this as a data indication */
// /* event. */
// SPPLEDataIndicationEvent(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeValueLength, GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeValue);
//
// if((!AutomaticReadActive) && (!LoopbackActive))
// DisplayPrompt();
// break;
// case SPPLE_RX_CREDITS_CHARACTERISTIC_CCD_ATTRIBUTE_OFFSET:
// /* Cache the previous CCD Value. */
// PreviousValue = DeviceInfo->ServerInfo.Rx_Credit_Client_Configuration_Descriptor;
//
// /* Note the updated Rx CCCD Value. */
// DeviceInfo->ServerInfo.Rx_Credit_Client_Configuration_Descriptor = Value;
//
// /* If we were not previously configured*/
// /* for notifications send the initial */
// /* credits to the device. */
// if(PreviousValue != GATT_CLIENT_CONFIGURATION_CHARACTERISTIC_NOTIFY_ENABLE)
// {
// /* Send the initial credits to the */
// /* device. */
// SPPLESendCredits(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.ReceiveBuffer.BytesFree);
// }
// break;
// }
// }
// else
// {
// Display(("Error - No device info entry for this device.\r\n"));
// }
// }
// else
// {
// Display(("Error - No such device connected."));
// }
// }
// else
// GATT_Error_Response(BluetoothStackID, GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->TransactionID, GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeOffset, ATT_PROTOCOL_ERROR_CODE_INVALID_ATTRIBUTE_VALUE_LENGTH);
// }
// else
// GATT_Error_Response(BluetoothStackID, GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->TransactionID, GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeOffset, ATT_PROTOCOL_ERROR_CODE_ATTRIBUTE_NOT_LONG);
// }
// else
// Display(("Invalid Write Request Event Data.\r\n"));
// break;
// }
// }
// else
// {
// /* There was an error with one or more of the input parameters. */
// Display(("\r\n"));
//
// Display(("GATT Callback Data: Event_Data = NULL.\r\n"));
//
// DisplayPrompt();
// }
//}
//
// /* The following function is for an GATT Client Event Callback. This*/
// /* function will be called whenever a GATT Response is received for a*/
// /* request that was made when this function was registered. This */
// /* function passes to the caller the GATT Client Event Data that */
// /* occurred and the GATT Client Event Callback Parameter that was */
// /* specified when this Callback was installed. The caller is free to*/
// /* use the contents of the GATT Client Event Data ONLY in the context*/
// /* of this callback. If the caller requires the Data for a longer */
// /* period of time, then the callback function MUST copy the data into*/
// /* another Data Buffer. This function is guaranteed NOT to be */
// /* invoked more than once simultaneously for the specified installed */
// /* callback (i.e. this function DOES NOT have be reentrant). It */
// /* Needs to be noted however, that if the same Callback is installed */
// /* more than once, then the callbacks will be called serially. */
// /* Because of this, the processing in this function should be as */
// /* efficient as possible. It should also be noted that this function*/
// /* is called in the Thread Context of a Thread that the User does NOT*/
// /* own. Therefore, processing in this function should be as */
// /* efficient as possible (this argument holds anyway because another */
// /* GATT Event (Server/Client or Connection) will not be processed */
// /* while this function call is outstanding). */
// /* * NOTE * This function MUST NOT Block and wait for Events that can*/
// /* only be satisfied by Receiving a Bluetooth Event */
// /* Callback. A Deadlock WILL occur because NO Bluetooth */
// /* Callbacks will be issued while this function is currently*/
// /* outstanding. */
//static void BTPSAPI GATT_ClientEventCallback_SPPLE(unsigned int BluetoothStackID, GATT_Client_Event_Data_t *GATT_Client_Event_Data, unsigned long CallbackParameter)
//{
// int LEConnectionIndex;
// Word_t Credits;
// BoardStr_t BoardStr;
// DeviceInfo_t *DeviceInfo;
//
// /* Verify that all parameters to this callback are Semi-Valid. */
// if((BluetoothStackID) && (GATT_Client_Event_Data))
// {
// /* Determine the event that occurred. */
// switch(GATT_Client_Event_Data->Event_Data_Type)
// {
// case etGATT_Client_Error_Response:
// if(GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data)
// {
// Display(("\r\nError Response.\r\n"));
// BD_ADDRToStr(GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->RemoteDevice, BoardStr);
// Display(("Connection ID: %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ConnectionID));
// Display(("Transaction ID: %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->TransactionID));
// Display(("Connection Type: %s.\r\n", (GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ConnectionType == gctLE)?"LE":"BR/EDR"));
// Display(("BD_ADDR: %s.\r\n", BoardStr));
// Display(("Error Type: %s.\r\n", (GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorType == retErrorResponse)?"Response Error":"Response Timeout"));
//
// /* Only print out the rest if it is valid. */
// if(GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorType == retErrorResponse)
// {
// Display(("Request Opcode: 0x%02X.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->RequestOpCode));
// Display(("Request Handle: 0x%04X.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->RequestHandle));
// Display(("Error Code: 0x%02X.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorCode));
//
// if(GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorCode < NUMBER_GATT_ERROR_CODES)
// {
// Display(("Error Mesg: %s.\r\n", ErrorCodeStr[GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorCode]));
// }
// else
// {
// Display(("Error Mesg: Unknown.\r\n", ErrorCodeStr[GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorCode]));
// }
// }
// }
// else
// Display(("Error - Null Error Response Data.\r\n"));
// break;
// case etGATT_Client_Read_Response:
// if(GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data)
// {
// /* Find the LE Connection Index for this connection. */
// if((LEConnectionIndex = FindLEIndexByAddress(GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->RemoteDevice)) >= 0)
// {
// /* Grab the device info for the currently connected */
// /* device. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
// {
// if((Word_t)CallbackParameter == DeviceInfo->ClientInfo.Rx_Credit_Characteristic)
// {
// /* Make sure this is the correct size for a Rx */
// /* Credit Characteristic. */
// if(GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->AttributeValueLength == WORD_SIZE)
// {
// /* Display the credits we just received. */
// Credits = READ_UNALIGNED_WORD_LITTLE_ENDIAN(GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->AttributeValue);
// Display(("\r\nReceived %u Initial Credits.\r\n", Credits));
//
// /* We have received the initial credits from */
// /* the device so go ahead and handle a */
// /* Receive Credit Event. */
// SPPLEReceiveCreditEvent(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, Credits);
// }
// }
// }
// }
// }
// else
// Display(("\r\nError - Null Read Response Data.\r\n"));
// break;
// case etGATT_Client_Exchange_MTU_Response:
// if(GATT_Client_Event_Data->Event_Data.GATT_Exchange_MTU_Response_Data)
// {
// Display(("\r\nExchange MTU Response.\r\n"));
// BD_ADDRToStr(GATT_Client_Event_Data->Event_Data.GATT_Exchange_MTU_Response_Data->RemoteDevice, BoardStr);
// Display(("Connection ID: %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Exchange_MTU_Response_Data->ConnectionID));
// Display(("Transaction ID: %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Exchange_MTU_Response_Data->TransactionID));
// Display(("Connection Type: %s.\r\n", (GATT_Client_Event_Data->Event_Data.GATT_Exchange_MTU_Response_Data->ConnectionType == gctLE)?"LE":"BR/EDR"));
// Display(("BD_ADDR: %s.\r\n", BoardStr));
// Display(("MTU: %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Exchange_MTU_Response_Data->ServerMTU));
// }
// else
// Display(("\r\nError - Null Write Response Data.\r\n"));
// break;
// case etGATT_Client_Write_Response:
// if(GATT_Client_Event_Data->Event_Data.GATT_Write_Response_Data)
// {
// Display(("\r\nWrite Response.\r\n"));
// BD_ADDRToStr(GATT_Client_Event_Data->Event_Data.GATT_Write_Response_Data->RemoteDevice, BoardStr);
// Display(("Connection ID: %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Write_Response_Data->ConnectionID));
// Display(("Transaction ID: %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Write_Response_Data->TransactionID));
// Display(("Connection Type: %s.\r\n", (GATT_Client_Event_Data->Event_Data.GATT_Write_Response_Data->ConnectionType == gctLE)?"LE":"BR/EDR"));
// Display(("BD_ADDR: %s.\r\n", BoardStr));
// Display(("Bytes Written: %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Write_Response_Data->BytesWritten));
// }
// else
// Display(("\r\nError - Null Write Response Data.\r\n"));
// break;
// }
//
// /* Print the command line prompt. */
// DisplayPrompt();
// }
// else
// {
// /* There was an error with one or more of the input parameters. */
// Display(("\r\n"));
//
// Display(("GATT Callback Data: Event_Data = NULL.\r\n"));
//
// DisplayPrompt();
// }
//}
//
//
// /* The following function is for an GATT Client Event Callback. This*/
// /* function will be called whenever a GATT Response is received for a*/
// /* request that was made when this function was registered. This */
// /* function passes to the caller the GATT Client Event Data that */
// /* occurred and the GATT Client Event Callback Parameter that was */
// /* specified when this Callback was installed. The caller is free to*/
// /* use the contents of the GATT Client Event Data ONLY in the context*/
// /* of this callback. If the caller requires the Data for a longer */
// /* period of time, then the callback function MUST copy the data into*/
// /* another Data Buffer. This function is guaranteed NOT to be */
// /* invoked more than once simultaneously for the specified installed */
// /* callback (i.e. this function DOES NOT have be reentrant). It */
// /* Needs to be noted however, that if the same Callback is installed */
// /* more than once, then the callbacks will be called serially. */
// /* Because of this, the processing in this function should be as */
// /* efficient as possible. It should also be noted that this function*/
// /* is called in the Thread Context of a Thread that the User does NOT*/
// /* own. Therefore, processing in this function should be as */
// /* efficient as possible (this argument holds anyway because another */
// /* GATT Event (Server/Client or Connection) will not be processed */
// /* while this function call is outstanding). */
// /* * NOTE * This function MUST NOT Block and wait for Events that can*/
// /* only be satisfied by Receiving a Bluetooth Event */
// /* Callback. A Deadlock WILL occur because NO Bluetooth */
// /* Callbacks will be issued while this function is currently*/
// /* outstanding. */
//static void BTPSAPI GATT_ClientEventCallback_GAPS(unsigned int BluetoothStackID, GATT_Client_Event_Data_t *GATT_Client_Event_Data, unsigned long CallbackParameter)
//{
// char *NameBuffer;
// Word_t Appearance;
// BoardStr_t BoardStr;
// DeviceInfo_t *DeviceInfo;
//
// /* Verify that all parameters to this callback are Semi-Valid. */
// if((BluetoothStackID) && (GATT_Client_Event_Data))
// {
// /* Determine the event that occurred. */
// switch(GATT_Client_Event_Data->Event_Data_Type)
// {
// case etGATT_Client_Error_Response:
// if(GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data)
// {
// Display(("\r\nError Response.\r\n"));
// BD_ADDRToStr(GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->RemoteDevice, BoardStr);
// Display(("Connection ID: %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ConnectionID));
// Display(("Transaction ID: %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->TransactionID));
// Display(("Connection Type: %s.\r\n", (GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ConnectionType == gctLE)?"LE":"BR/EDR"));
// Display(("BD_ADDR: %s.\r\n", BoardStr));
// Display(("Error Type: %s.\r\n", (GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorType == retErrorResponse)?"Response Error":"Response Timeout"));
//
// /* Only print out the rest if it is valid. */
// if(GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorType == retErrorResponse)
// {
// Display(("Request Opcode: 0x%02X.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->RequestOpCode));
// Display(("Request Handle: 0x%04X.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->RequestHandle));
// Display(("Error Code: 0x%02X.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorCode));
//
// if(GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorCode < NUMBER_GATT_ERROR_CODES)
// {
// Display(("Error Mesg: %s.\r\n", ErrorCodeStr[GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorCode]));
// }
// else
// {
// Display(("Error Mesg: Unknown.\r\n", ErrorCodeStr[GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorCode]));
// }
// }
// }
// else
// Display(("Error - Null Error Response Data.\r\n"));
// break;
// case etGATT_Client_Read_Response:
// if(GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data)
// {
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->RemoteDevice)) != NULL)
// {
// if((Word_t)CallbackParameter == DeviceInfo->GAPSClientInfo.DeviceNameHandle)
// {
// /* Display the remote device name. */
// if((NameBuffer = (char *)BTPS_AllocateMemory(GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->AttributeValueLength+1)) != NULL)
// {
// BTPS_MemInitialize(NameBuffer, 0, GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->AttributeValueLength+1);
// BTPS_MemCopy(NameBuffer, GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->AttributeValue, GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->AttributeValueLength);
//
// Display(("\r\nRemote Device Name: %s.\r\n", NameBuffer));
//
// BTPS_FreeMemory(NameBuffer);
// }
// }
// else
// {
// if((Word_t)CallbackParameter == DeviceInfo->GAPSClientInfo.DeviceAppearanceHandle)
// {
// if(GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->AttributeValueLength == GAP_DEVICE_APPEARENCE_VALUE_LENGTH)
// {
// Appearance = READ_UNALIGNED_WORD_LITTLE_ENDIAN(GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->AttributeValue);
// if(AppearanceToString(Appearance, &NameBuffer))
// Display(("\r\nRemote Device Appearance: %s(%u).\r\n", NameBuffer, Appearance));
// else
// Display(("\r\nRemote Device Appearance: Unknown(%u).\r\n", Appearance));
// }
// else
// Display(("Invalid Remote Appearance Value Length %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->AttributeValueLength));
// }
// }
// }
// }
// else
// Display(("\r\nError - Null Read Response Data.\r\n"));
// break;
// }
//
// /* Print the command line prompt. */
// DisplayPrompt();
// }
// else
// {
// /* There was an error with one or more of the input parameters. */
// Display(("\r\n"));
//
// Display(("GATT Callback Data: Event_Data = NULL.\r\n"));
//
// DisplayPrompt();
// }
//}
//
// /* The following function is for an GATT Connection Event Callback. */
// /* This function is called for GATT Connection Events that occur on */
// /* the specified Bluetooth Stack. This function passes to the caller*/
// /* the GATT Connection Event Data that occurred and the GATT */
// /* Connection Event Callback Parameter that was specified when this */
// /* Callback was installed. The caller is free to use the contents of*/
// /* the GATT Client Event Data ONLY in the context of this callback. */
// /* If the caller requires the Data for a longer period of time, then */
// /* the callback function MUST copy the data into another Data Buffer.*/
// /* This function is guaranteed NOT to be invoked more than once */
// /* simultaneously for the specified installed callback (i.e. this */
// /* function DOES NOT have be reentrant). It Needs to be noted */
// /* however, that if the same Callback is installed more than once, */
// /* then the callbacks will be called serially. Because of this, the */
// /* processing in this function should be as efficient as possible. */
// /* It should also be noted that this function is called in the Thread*/
// /* Context of a Thread that the User does NOT own. Therefore, */
// /* processing in this function should be as efficient as possible */
// /* (this argument holds anyway because another GATT Event */
// /* (Server/Client or Connection) will not be processed while this */
// /* function call is outstanding). */
// /* * NOTE * This function MUST NOT Block and wait for Events that can*/
// /* only be satisfied by Receiving a Bluetooth Event */
// /* Callback. A Deadlock WILL occur because NO Bluetooth */
// /* Callbacks will be issued while this function is currently*/
// /* outstanding. */
//static void BTPSAPI GATT_Connection_Event_Callback(unsigned int BluetoothStackID, GATT_Connection_Event_Data_t *GATT_Connection_Event_Data, unsigned long CallbackParameter)
//{
// int LEConnectionIndex;
// Word_t Credits;
// Boolean_t SuppressResponse = FALSE;
// BoardStr_t BoardStr;
// DeviceInfo_t *DeviceInfo;
//
// /* Verify that all parameters to this callback are Semi-Valid. */
// if((BluetoothStackID) && (GATT_Connection_Event_Data))
// {
// /* Determine the Connection Event that occurred. */
// switch(GATT_Connection_Event_Data->Event_Data_Type)
// {
// case etGATT_Connection_Device_Connection:
// if(GATT_Connection_Event_Data->Event_Data.GATT_Device_Connection_Data)
// {
// /* Update the ConnectionID associated with the BD_ADDR */
// /* If UpdateConnectionID returns -1, then it failed. */
// if(UpdateConnectionID(GATT_Connection_Event_Data->Event_Data.GATT_Device_Connection_Data->ConnectionID, GATT_Connection_Event_Data->Event_Data.GATT_Device_Connection_Data->RemoteDevice) < 0)
// Display(("Error - No matching ConnectionBD_ADDR found."));
//
// Display(("\r\netGATT_Connection_Device_Connection with size %u: \r\n", GATT_Connection_Event_Data->Event_Data_Size));
// BD_ADDRToStr(GATT_Connection_Event_Data->Event_Data.GATT_Device_Connection_Data->RemoteDevice, BoardStr);
// Display((" Connection ID: %u.\r\n", GATT_Connection_Event_Data->Event_Data.GATT_Device_Connection_Data->ConnectionID));
// Display((" Connection Type: %s.\r\n", ((GATT_Connection_Event_Data->Event_Data.GATT_Device_Connection_Data->ConnectionType == gctLE)?"LE":"BR/EDR")));
// Display((" Remote Device: %s.\r\n", BoardStr));
// Display((" Connection MTU: %u.\r\n", GATT_Connection_Event_Data->Event_Data.GATT_Device_Connection_Data->MTU));
//
// /* Find the LE Connection Index for this connection. */
// if((LEConnectionIndex = FindLEIndexByAddress(GATT_Connection_Event_Data->Event_Data.GATT_Device_Connection_Data->RemoteDevice)) >= 0)
// {
// /* Search for the device info for the connection. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
// {
// /* Clear the SPPLE Role Flag. */
// DeviceInfo->Flags &= ~DEVICE_INFO_FLAGS_SPPLE_SERVER;
//
// /* Initialize the Transmit and Receive Buffers. */
// InitializeBuffer(&(LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.ReceiveBuffer));
// InitializeBuffer(&(LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.TransmitBuffer));
//
// /* Flag that we do not have any transmit credits */
// /* yet. */
// LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.TransmitCredits = 0;
//
// /* Flag that no credits are queued. */
// LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.QueuedCredits = 0;
//
// if(!LocalDeviceIsMaster)
// {
// /* Flag that we will act as the Server. */
// DeviceInfo->Flags |= DEVICE_INFO_FLAGS_SPPLE_SERVER;
//
// /* Send the Initial Credits if the Rx Credit CCD*/
// /* is already configured (for a bonded device */
// /* this could be the case). */
// SPPLESendCredits(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.ReceiveBuffer.BytesFree);
// }
// else
// {
// /* Attempt to update the MTU to the maximum */
// /* supported. */
// GATT_Exchange_MTU_Request(BluetoothStackID, GATT_Connection_Event_Data->Event_Data.GATT_Device_Connection_Data->ConnectionID, BTPS_CONFIGURATION_GATT_MAXIMUM_SUPPORTED_MTU_SIZE, GATT_ClientEventCallback_SPPLE, 0);
// }
// }
// }
// }
// else
// Display(("Error - Null Connection Data.\r\n"));
// break;
// case etGATT_Connection_Device_Disconnection:
// if(GATT_Connection_Event_Data->Event_Data.GATT_Device_Disconnection_Data)
// {
// /* Clear the Connection ID. */
// RemoveConnectionInfo(GATT_Connection_Event_Data->Event_Data.GATT_Device_Disconnection_Data->RemoteDevice);
//
// Display(("\r\netGATT_Connection_Device_Disconnection with size %u: \r\n", GATT_Connection_Event_Data->Event_Data_Size));
// BD_ADDRToStr(GATT_Connection_Event_Data->Event_Data.GATT_Device_Disconnection_Data->RemoteDevice, BoardStr);
// Display((" Connection ID: %u.\r\n", GATT_Connection_Event_Data->Event_Data.GATT_Device_Disconnection_Data->ConnectionID));
// Display((" Connection Type: %s.\r\n", ((GATT_Connection_Event_Data->Event_Data.GATT_Device_Disconnection_Data->ConnectionType == gctLE)?"LE":"BR/EDR")));
// Display((" Remote Device: %s.\r\n", BoardStr));
// }
// else
// Display(("Error - Null Disconnection Data.\r\n"));
// break;
// case etGATT_Connection_Device_Buffer_Empty:
// if(GATT_Connection_Event_Data->Event_Data.GATT_Device_Buffer_Empty_Data)
// {
// /* Find the LE Connection Index for this connection. */
// if((LEConnectionIndex = FindLEIndexByAddress(GATT_Connection_Event_Data->Event_Data.GATT_Device_Buffer_Empty_Data->RemoteDevice)) >= 0)
// {
// /* Grab the device info for the currently connected */
// /* device. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
// {
// //xxx
// //xxx Display(("xxx Buffer Empty for device.\r\n"));
//
// /* Flag that the buffer is no longer empty. */
// LEContextInfo[LEConnectionIndex].BufferFull = FALSE;
//
// /* Attempt to send any queued credits that we may */
// /* have. */
// SPPLESendCredits(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, 0);
//
// /* If may be possible for transmit queued data now.*/
// /* So fake a Receive Credit event with 0 as the */
// /* received credits. */
// SPPLEReceiveCreditEvent(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, 0);
//
// /* Suppress the command prompt. */
// SuppressResponse = TRUE;
// }
// }
// }
// break;
// case etGATT_Connection_Server_Notification:
// if(GATT_Connection_Event_Data->Event_Data.GATT_Server_Notification_Data)
// {
// /* Find the LE Connection Index for this connection. */
// if((LEConnectionIndex = FindLEIndexByAddress(GATT_Connection_Event_Data->Event_Data.GATT_Server_Notification_Data->RemoteDevice)) >= 0)
// {
// /* Find the Device Info for the device that has sent */
// /* us the notification. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
// {
// /* Determine the characteristic that is being */
// /* notified. */
// if(GATT_Connection_Event_Data->Event_Data.GATT_Server_Notification_Data->AttributeHandle == DeviceInfo->ClientInfo.Rx_Credit_Characteristic)
// {
// /* Verify that the length of the Rx Credit */
// /* Notification is correct. */
// if(GATT_Connection_Event_Data->Event_Data.GATT_Server_Notification_Data->AttributeValueLength == WORD_SIZE)
// {
// Credits = READ_UNALIGNED_WORD_LITTLE_ENDIAN(GATT_Connection_Event_Data->Event_Data.GATT_Server_Notification_Data->AttributeValue);
//
// /* Handle the received credits event. */
// SPPLEReceiveCreditEvent(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, Credits);
//
// /* Suppress the command prompt. */
// SuppressResponse = TRUE;
// }
// }
// else
// {
// if(GATT_Connection_Event_Data->Event_Data.GATT_Server_Notification_Data->AttributeHandle == DeviceInfo->ClientInfo.Tx_Characteristic)
// {
// /* This is a Tx Characteristic Event. So */
// /* call the function to handle the data */
// /* indication event. */
// SPPLEDataIndicationEvent(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, GATT_Connection_Event_Data->Event_Data.GATT_Server_Notification_Data->AttributeValueLength, GATT_Connection_Event_Data->Event_Data.GATT_Server_Notification_Data->AttributeValue);
//
// /* If we are not looping back or doing */
// /* automatic reads we will display the */
// /* prompt. */
// if((!AutomaticReadActive) && (!LoopbackActive))
// SuppressResponse = FALSE;
// else
// SuppressResponse = TRUE;
// }
// }
// }
// }
// }
// else
// Display(("Error - Null Server Notification Data.\r\n"));
// break;
// }
//
// /* Print the command line prompt. */
// if(!SuppressResponse)
// DisplayPrompt();
// }
// else
// {
// /* There was an error with one or more of the input parameters. */
// Display(("\r\n"));
//
// Display(("GATT Connection Callback Data: Event_Data = NULL.\r\n"));
//
// DisplayPrompt();
// }
//}
//
// /* The following function is for an GATT Discovery Event Callback. */
// /* This function will be called whenever a GATT Service is discovered*/
// /* or a previously started service discovery process is completed. */
// /* This function passes to the caller the GATT Discovery Event Data */
// /* that occurred and the GATT Client Event Callback Parameter that */
// /* was specified when this Callback was installed. The caller is */
// /* free to use the contents of the GATT Discovery Event Data ONLY in */
// /* the context of this callback. If the caller requires the Data for*/
// /* a longer period of time, then the callback function MUST copy the */
// /* data into another Data Buffer. This function is guaranteed NOT to*/
// /* be invoked more than once simultaneously for the specified */
// /* installed callback (i.e. this function DOES NOT have be */
// /* reentrant). It Needs to be noted however, that if the same */
// /* Callback is installed more than once, then the callbacks will be */
// /* called serially. Because of this, the processing in this function*/
// /* should be as efficient as possible. It should also be noted that */
// /* this function is called in the Thread Context of a Thread that the*/
// /* User does NOT own. Therefore, processing in this function should */
// /* be as efficient as possible (this argument holds anyway because */
// /* another GATT Discovery Event will not be processed while this */
// /* function call is outstanding). */
// /* * NOTE * This function MUST NOT Block and wait for Events that can*/
// /* only be satisfied by Receiving a Bluetooth Event */
// /* Callback. A Deadlock WILL occur because NO Bluetooth */
// /* Callbacks will be issued while this function is currently*/
// /* outstanding. */
//static void BTPSAPI GATT_Service_Discovery_Event_Callback(unsigned int BluetoothStackID, GATT_Service_Discovery_Event_Data_t *GATT_Service_Discovery_Event_Data, unsigned long CallbackParameter)
//{
// int LEConnectionIndex;
// DeviceInfo_t *DeviceInfo;
//
// /* Verify that the input parameters are semi-valid. */
// if((BluetoothStackID) && (GATT_Service_Discovery_Event_Data))
// {
// switch(GATT_Service_Discovery_Event_Data->Event_Data_Type)
// {
// case etGATT_Service_Discovery_Indication:
// /* Verify the event data. */
// if(GATT_Service_Discovery_Event_Data->Event_Data.GATT_Service_Discovery_Indication_Data)
// {
// /* Find the LE Connection Index for this connection. */
// if((LEConnectionIndex = FindLEIndexByConnectionID(GATT_Service_Discovery_Event_Data->Event_Data.GATT_Service_Discovery_Indication_Data->ConnectionID)) >= 0)
// {
// /* Find the device info for this connection. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
// {
// Display(("\r\n"));
// Display(("Service 0x%04X - 0x%04X, UUID: ", GATT_Service_Discovery_Event_Data->Event_Data.GATT_Service_Discovery_Indication_Data->ServiceInformation.Service_Handle, GATT_Service_Discovery_Event_Data->Event_Data.GATT_Service_Discovery_Indication_Data->ServiceInformation.End_Group_Handle));
// DisplayUUID(&(GATT_Service_Discovery_Event_Data->Event_Data.GATT_Service_Discovery_Indication_Data->ServiceInformation.UUID));
// Display(("\r\n"));
//
// /* Attempt to populate the handles for the GAP */
// /* Service. */
// GAPSPopulateHandles(&(DeviceInfo->GAPSClientInfo), GATT_Service_Discovery_Event_Data->Event_Data.GATT_Service_Discovery_Indication_Data);
//
// /* Attempt to populate the handles for the SPPLE */
// /* Service. */
// SPPLEPopulateHandles(&(DeviceInfo->ClientInfo), GATT_Service_Discovery_Event_Data->Event_Data.GATT_Service_Discovery_Indication_Data);
// }
// }
// }
// break;
// case etGATT_Service_Discovery_Complete:
// /* Verify the event data. */
// if(GATT_Service_Discovery_Event_Data->Event_Data.GATT_Service_Discovery_Complete_Data)
// {
// Display(("\r\n"));
// Display(("Service Discovery Operation Complete, Status 0x%02X.\r\n", GATT_Service_Discovery_Event_Data->Event_Data.GATT_Service_Discovery_Complete_Data->Status));
//
// /* Find the LE Connection Index for this connection. */
// if((LEConnectionIndex = FindLEIndexByConnectionID(GATT_Service_Discovery_Event_Data->Event_Data.GATT_Service_Discovery_Complete_Data->ConnectionID)) >= 0)
// {
// /* Find the device info for this connection. */
// if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
// {
// /* Flag that no service discovery operation is */
// /* outstanding for this device. */
// DeviceInfo->Flags &= ~DEVICE_INFO_FLAGS_SERVICE_DISCOVERY_OUTSTANDING;
// }
// }
// }
// break;
// }
//
// DisplayPrompt();
// }
// else
// {
// /* There was an error with one or more of the input parameters. */
// Display(("\r\n"));
//
// Display(("GATT Callback Data: Event_Data = NULL.\r\n"));
//
// DisplayPrompt();
// }
//}
//
// /* The following function is for the GAP Event Receive Data Callback.*/
// /* This function will be called whenever a Callback has been */
// /* registered for the specified GAP Action that is associated with */
// /* the Bluetooth Stack. This function passes to the caller the GAP */
// /* Event Data of the specified Event and the GAP Event Callback */
// /* Parameter that was specified when this Callback was installed. */
// /* The caller is free to use the contents of the GAP Event Data ONLY */
// /* in the context of this callback. If the caller requires the Data */
// /* for a longer period of time, then the callback function MUST copy */
// /* the data into another Data Buffer. This function is guaranteed */
// /* NOT to be invoked more than once simultaneously for the specified */
// /* installed callback (i.e. this function DOES NOT have be */
// /* reentrant). It Needs to be noted however, that if the same */
// /* Callback is installed more than once, then the callbacks will be */
// /* called serially. Because of this, the processing in this function*/
// /* should be as efficient as possible. It should also be noted that */
// /* this function is called in the Thread Context of a Thread that the*/
// /* User does NOT own. Therefore, processing in this function should */
// /* be as efficient as possible (this argument holds anyway because */
// /* other GAP Events will not be processed while this function call is*/
// /* outstanding). */
// /* * NOTE * This function MUST NOT Block and wait for events that */
// /* can only be satisfied by Receiving other GAP Events. A */
// /* Deadlock WILL occur because NO GAP Event Callbacks will */
// /* be issued while this function is currently outstanding. */
//static void BTPSAPI GAP_Event_Callback(unsigned int BluetoothStackID, GAP_Event_Data_t *GAP_Event_Data, unsigned long CallbackParameter)
//{
// int Result;
// int Index;
// BD_ADDR_t NULL_BD_ADDR;
// Boolean_t OOB_Data;
// Boolean_t MITM;
// BoardStr_t Callback_BoardStr;
// GAP_IO_Capability_t RemoteIOCapability;
// GAP_Inquiry_Event_Data_t *GAP_Inquiry_Event_Data;
// GAP_Remote_Name_Event_Data_t *GAP_Remote_Name_Event_Data;
// GAP_Authentication_Information_t GAP_Authentication_Information;
//
// /* First, check to see if the required parameters appear to be */
// /* semi-valid. */
// if((BluetoothStackID) && (GAP_Event_Data))
// {
// /* The parameters appear to be semi-valid, now check to see what */
// /* type the incoming event is. */
// switch(GAP_Event_Data->Event_Data_Type)
// {
// case etInquiry_Result:
// /* The GAP event received was of type Inquiry_Result. */
// GAP_Inquiry_Event_Data = GAP_Event_Data->Event_Data.GAP_Inquiry_Event_Data;
//
// /* Next, Check to see if the inquiry event data received */
// /* appears to be semi-valid. */
// if(GAP_Inquiry_Event_Data)
// {
// /* Now, check to see if the gap inquiry event data's */
// /* inquiry data appears to be semi-valid. */
// if(GAP_Inquiry_Event_Data->GAP_Inquiry_Data)
// {
// Display(("\r\n"));
//
// /* Display a list of all the devices found from */
// /* performing the inquiry. */
// for(Index=0;(Index<GAP_Inquiry_Event_Data->Number_Devices) && (Index<MAX_INQUIRY_RESULTS);Index++)
// {
// InquiryResultList[Index] = GAP_Inquiry_Event_Data->GAP_Inquiry_Data[Index].BD_ADDR;
// BD_ADDRToStr(GAP_Inquiry_Event_Data->GAP_Inquiry_Data[Index].BD_ADDR, Callback_BoardStr);
//
// Display(("Result: %d,%s.\r\n", (Index+1), Callback_BoardStr));
// }
//
// NumberofValidResponses = GAP_Inquiry_Event_Data->Number_Devices;
// }
// }
// break;
// case etInquiry_Entry_Result:
// /* Next convert the BD_ADDR to a string. */
// BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Inquiry_Entry_Event_Data->BD_ADDR, Callback_BoardStr);
//
// /* Display this GAP Inquiry Entry Result. */
// Display(("\r\n"));
// Display(("Inquiry Entry: %s.\r\n", Callback_BoardStr));
// break;
// case etAuthentication:
// /* An authentication event occurred, determine which type of*/
// /* authentication event occurred. */
// switch(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->GAP_Authentication_Event_Type)
// {
// case atLinkKeyRequest:
// BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
// Display(("\r\n"));
// Display(("atLinkKeyRequest: %s\r\n", Callback_BoardStr));
//
// /* Setup the authentication information response */
// /* structure. */
// GAP_Authentication_Information.GAP_Authentication_Type = atLinkKey;
// GAP_Authentication_Information.Authentication_Data_Length = 0;
//
// /* See if we have stored a Link Key for the specified */
// /* device. */
// for(Index=0;Index<(sizeof(LinkKeyInfo)/sizeof(LinkKeyInfo_t));Index++)
// {
// if(COMPARE_BD_ADDR(LinkKeyInfo[Index].BD_ADDR, GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device))
// {
// /* Link Key information stored, go ahead and */
// /* respond with the stored Link Key. */
// GAP_Authentication_Information.Authentication_Data_Length = sizeof(Link_Key_t);
// GAP_Authentication_Information.Authentication_Data.Link_Key = LinkKeyInfo[Index].LinkKey;
//
// break;
// }
// }
//
// /* Submit the authentication response. */
// Result = GAP_Authentication_Response(BluetoothStackID, GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, &GAP_Authentication_Information);
//
// /* Check the result of the submitted command. */
// if(!Result)
// DisplayFunctionSuccess("GAP_Authentication_Response");
// else
// DisplayFunctionError("GAP_Authentication_Response", Result);
// break;
// case atPINCodeRequest:
// /* A pin code request event occurred, first display */
// /* the BD_ADD of the remote device requesting the pin.*/
// BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
// Display(("\r\n"));
// Display(("atPINCodeRequest: %s\r\n", Callback_BoardStr));
//
// /* Note the current Remote BD_ADDR that is requesting */
// /* the PIN Code. */
// CurrentCBRemoteBD_ADDR = GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device;
//
// /* Inform the user that they will need to respond with*/
// /* a PIN Code Response. */
// Display(("Respond with: PINCodeResponse\r\n"));
// PINCodeResponse(&codelist);
// break;
// case atAuthenticationStatus:
// /* An authentication status event occurred, display */
// /* all relevant information. */
// BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
// Display(("\r\n"));
// Display(("atAuthenticationStatus: %d for %s\r\n", GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Authentication_Event_Data.Authentication_Status, Callback_BoardStr));
//
// /* Flag that there is no longer a current */
// /* Authentication procedure in progress. */
// ASSIGN_BD_ADDR(CurrentCBRemoteBD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
// break;
// case atLinkKeyCreation:
// /* A link key creation event occurred, first display */
// /* the remote device that caused this event. */
// BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
// Display(("\r\n"));
// Display(("atLinkKeyCreation: %s\r\n", Callback_BoardStr));
//
// /* Now store the link Key in either a free location OR*/
// /* over the old key location. */
// ASSIGN_BD_ADDR(NULL_BD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
//
// for(Index=0,Result=-1;Index<(sizeof(LinkKeyInfo)/sizeof(LinkKeyInfo_t));Index++)
// {
// if(COMPARE_BD_ADDR(LinkKeyInfo[Index].BD_ADDR, GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device))
// break;
// else
// {
// if((Result == (-1)) && (COMPARE_BD_ADDR(LinkKeyInfo[Index].BD_ADDR, NULL_BD_ADDR)))
// Result = Index;
// }
// }
//
// /* If we didn't find a match, see if we found an empty*/
// /* location. */
// if(Index == (sizeof(LinkKeyInfo)/sizeof(LinkKeyInfo_t)))
// Index = Result;
//
// /* Check to see if we found a location to store the */
// /* Link Key information into. */
// if(Index != (-1))
// {
// LinkKeyInfo[Index].BD_ADDR = GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device;
// LinkKeyInfo[Index].LinkKey = GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Authentication_Event_Data.Link_Key_Info.Link_Key;
//
// Display(("Link Key Stored.\r\n"));
// }
// else
// Display(("Link Key array full.\r\n"));
// break;
// case atIOCapabilityRequest:
// BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
// Display(("\r\n"));
// Display(("atIOCapabilityRequest: %s\r\n", Callback_BoardStr));
//
// /* Setup the Authentication Information Response */
// /* structure. */
// GAP_Authentication_Information.GAP_Authentication_Type = atIOCapabilities;
// GAP_Authentication_Information.Authentication_Data_Length = sizeof(GAP_IO_Capabilities_t);
// GAP_Authentication_Information.Authentication_Data.IO_Capabilities.IO_Capability = (GAP_IO_Capability_t)IOCapability;
// GAP_Authentication_Information.Authentication_Data.IO_Capabilities.MITM_Protection_Required = MITMProtection;
// GAP_Authentication_Information.Authentication_Data.IO_Capabilities.OOB_Data_Present = OOBSupport;
//
// /* Submit the Authentication Response. */
// Result = GAP_Authentication_Response(BluetoothStackID, GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, &GAP_Authentication_Information);
//
// /* Check the result of the submitted command. */
// /* Check the result of the submitted command. */
// if(!Result)
// DisplayFunctionSuccess("Auth");
// else
// DisplayFunctionError("Auth", Result);
// break;
// case atIOCapabilityResponse:
// BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
// Display(("\r\n"));
// Display(("atIOCapabilityResponse: %s\r\n", Callback_BoardStr));
//
// RemoteIOCapability = GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Authentication_Event_Data.IO_Capabilities.IO_Capability;
// MITM = (Boolean_t)GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Authentication_Event_Data.IO_Capabilities.MITM_Protection_Required;
// OOB_Data = (Boolean_t)GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Authentication_Event_Data.IO_Capabilities.OOB_Data_Present;
//
// Display(("Capabilities: %s%s%s\r\n", IOCapabilitiesStrings[RemoteIOCapability], ((MITM)?", MITM":""), ((OOB_Data)?", OOB Data":"")));
// break;
// case atUserConfirmationRequest:
// BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
// Display(("\r\n"));
// Display(("atUserConfirmationRequest: %s\r\n", Callback_BoardStr));
//
// CurrentCBRemoteBD_ADDR = GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device;
//
// if(IOCapability != icDisplayYesNo)
// {
// /* Invoke JUST Works Process... */
// GAP_Authentication_Information.GAP_Authentication_Type = atUserConfirmation;
// GAP_Authentication_Information.Authentication_Data_Length = (Byte_t)sizeof(Byte_t);
// GAP_Authentication_Information.Authentication_Data.Confirmation = TRUE;
//
// /* Submit the Authentication Response. */
// Display(("\r\nAuto Accepting: %l\r\n", GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Authentication_Event_Data.Numeric_Value));
//
// Result = GAP_Authentication_Response(BluetoothStackID, GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, &GAP_Authentication_Information);
//
// if(!Result)
// DisplayFunctionSuccess("GAP_Authentication_Response");
// else
// DisplayFunctionError("GAP_Authentication_Response", Result);
//
// /* Flag that there is no longer a current */
// /* Authentication procedure in progress. */
// ASSIGN_BD_ADDR(CurrentCBRemoteBD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
// }
// else
// {
// Display(("User Confirmation: %l\r\n", (unsigned long)GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Authentication_Event_Data.Numeric_Value));
//
// /* Inform the user that they will need to respond */
// /* with a PIN Code Response. */
// Display(("Respond with: UserConfirmationResponse\r\n"));
// }
// break;
// case atPasskeyRequest:
// BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
// Display(("\r\n"));
// Display(("atPasskeyRequest: %s\r\n", Callback_BoardStr));
//
// /* Note the current Remote BD_ADDR that is requesting */
// /* the Passkey. */
// CurrentCBRemoteBD_ADDR = GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device;
//
// /* Inform the user that they will need to respond with*/
// /* a Passkey Response. */
// Display(("Respond with: PassKeyResponse\r\n"));
// break;
// case atRemoteOutOfBandDataRequest:
// BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
// Display(("\r\n"));
// Display(("atRemoteOutOfBandDataRequest: %s\r\n", Callback_BoardStr));
//
// /* This application does not support OOB data so */
// /* respond with a data length of Zero to force a */
// /* negative reply. */
// GAP_Authentication_Information.GAP_Authentication_Type = atOutOfBandData;
// GAP_Authentication_Information.Authentication_Data_Length = 0;
//
// Result = GAP_Authentication_Response(BluetoothStackID, GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, &GAP_Authentication_Information);
//
// if(!Result)
// DisplayFunctionSuccess("GAP_Authentication_Response");
// else
// DisplayFunctionError("GAP_Authentication_Response", Result);
// break;
// case atPasskeyNotification:
// BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
// Display(("\r\n"));
// Display(("atPasskeyNotification: %s\r\n", Callback_BoardStr));
//
// Display(("Passkey Value: %u\r\n", GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Authentication_Event_Data.Numeric_Value));
// break;
// case atKeypressNotification:
// BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
// Display(("\r\n"));
// Display(("atKeypressNotification: %s\r\n", Callback_BoardStr));
//
// Display(("Keypress: %d\r\n", (int)GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Authentication_Event_Data.Keypress_Type));
// break;
// default:
// Display(("Un-handled Auth. Event.\r\n"));
// break;
// }
// break;
// case etRemote_Name_Result:
// /* Bluetooth Stack has responded to a previously issued */
// /* Remote Name Request that was issued. */
// GAP_Remote_Name_Event_Data = GAP_Event_Data->Event_Data.GAP_Remote_Name_Event_Data;
// if(GAP_Remote_Name_Event_Data)
// {
// /* Inform the user of the Result. */
// BD_ADDRToStr(GAP_Remote_Name_Event_Data->Remote_Device, Callback_BoardStr);
//
// Display(("\r\n"));
// Display(("BD_ADDR: %s.\r\n", Callback_BoardStr));
//
// if(GAP_Remote_Name_Event_Data->Remote_Name)
// Display(("Name: %s.\r\n", GAP_Remote_Name_Event_Data->Remote_Name));
// else
// Display(("Name: NULL.\r\n"));
// }
// break;
// case etEncryption_Change_Result:
// BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Encryption_Mode_Event_Data->Remote_Device, Callback_BoardStr);
// Display(("\r\netEncryption_Change_Result for %s, Status: 0x%02X, Mode: %s.\r\n", Callback_BoardStr,
// GAP_Event_Data->Event_Data.GAP_Encryption_Mode_Event_Data->Encryption_Change_Status,
// ((GAP_Event_Data->Event_Data.GAP_Encryption_Mode_Event_Data->Encryption_Mode == emDisabled)?"Disabled": "Enabled")));
// break;
// default:
// /* An unknown/unexpected GAP event was received. */
// Display(("\r\nUnknown Event: %d.\r\n", GAP_Event_Data->Event_Data_Type));
// break;
// }
// }
// else
// {
// /* There was an error with one or more of the input parameters. */
// Display(("\r\n"));
// Display(("Null Event\r\n"));
// }
//
// DisplayPrompt();
//}
//
// /* The following function is for an SPP Event Callback. This */
// /* function will be called whenever a SPP Event occurs that is */
// /* associated with the Bluetooth Stack. This function passes to the */
// /* caller the SPP Event Data that occurred and the SPP Event Callback*/
// /* Parameter that was specified when this Callback was installed. */
// /* The caller is free to use the contents of the SPP SPP Event Data */
// /* ONLY in the context of this callback. If the caller requires the */
// /* Data for a longer period of time, then the callback function MUST */
// /* copy the data into another Data Buffer. This function is */
// /* guaranteed NOT to be invoked more than once simultaneously for the*/
// /* specified installed callback (i.e. this function DOES NOT have be*/
// /* reentrant). It Needs to be noted however, that if the same */
// /* Callback is installed more than once, then the callbacks will be */
// /* called serially. Because of this, the processing in this function*/
// /* should be as efficient as possible. It should also be noted that */
// /* this function is called in the Thread Context of a Thread that the*/
// /* User does NOT own. Therefore, processing in this function should */
// /* be as efficient as possible (this argument holds anyway because */
// /* another SPP Event will not be processed while this function call */
// /* is outstanding). */
// /* * NOTE * This function MUST NOT Block and wait for Events that */
// /* can only be satisfied by Receiving SPP Event Packets. A */
// /* Deadlock WILL occur because NO SPP Event Callbacks will */
// /* be issued while this function is currently outstanding. */
//static void BTPSAPI SPP_Event_Callback(unsigned int BluetoothStackID, SPP_Event_Data_t *SPP_Event_Data, unsigned long CallbackParameter)
//{
// int SerialPortIndex;
// int ret_val = 0;
// int Index;
// int Index1;
// int TempLength;
//
//#if ((SPP_PERFORM_MASTER_ROLE_SWITCH) && (MAX_SIMULTANEOUS_SPP_PORTS > 1))
// Byte_t StatusResult;
// Word_t Connection_HandleResult;
// Byte_t Current_Role;
//#endif
//
// Word_t ConnectionHandle;
// Boolean_t _DisplayPrompt = TRUE;
// Boolean_t Done;
// BoardStr_t Callback_BoardStr;
// unsigned int LocalSerialPortID;
//
// /* **** SEE SPPAPI.H for a list of all possible event types. This */
// /* program only services its required events. **** */
//
// /* First, check to see if the required parameters appear to be */
// /* semi-valid. */
// if((SPP_Event_Data) && (BluetoothStackID))
// {
// /* The parameters appear to be semi-valid, now check to see what */
// /* type the incoming event is. */
// switch(SPP_Event_Data->Event_Data_Type)
// {
// case etPort_Open_Indication:
// /* A remote port is requesting a connection. */
// BD_ADDRToStr(SPP_Event_Data->Event_Data.SPP_Open_Port_Indication_Data->BD_ADDR, Callback_BoardStr);
//
// Display(("\r\n"));
// Display(("SPP Open Indication, ID: 0x%04X, Board: %s.\r\n", SPP_Event_Data->Event_Data.SPP_Open_Port_Indication_Data->SerialPortID, Callback_BoardStr));
//
// /* Find the index of the SPP Port Information. */
// if((SerialPortIndex = FindSPPPortIndex(SPP_Event_Data->Event_Data.SPP_Open_Port_Indication_Data->SerialPortID)) >= 0)
// {
// /* Flag that we are connected to the device. */
// SPPContextInfo[SerialPortIndex].Connected = TRUE;
// SPPContextInfo[SerialPortIndex].BD_ADDR = SPP_Event_Data->Event_Data.SPP_Open_Port_Indication_Data->BD_ADDR;
//
// /* Query the connection handle. */
// ret_val = GAP_Query_Connection_Handle(BluetoothStackID, SPPContextInfo[SerialPortIndex].BD_ADDR, &ConnectionHandle);
// if(ret_val)
// {
// /* Failed to Query the Connection Handle. */
// DisplayFunctionError("GAP_Query_Connection_Handle()",ret_val);
// }
// else
// {
// /* Save the connection handle of this connection. */
// SPPContextInfo[SerialPortIndex].Connection_Handle = ConnectionHandle;
//
//#if ((SPP_PERFORM_MASTER_ROLE_SWITCH) && (MAX_SIMULTANEOUS_SPP_PORTS > 1))
//
// /* First determine the current role to determine if we*/
// /* are already the master. */
// StatusResult = 0;
// ret_val = HCI_Role_Discovery(BluetoothStackID, SPPContextInfo[SerialPortIndex].Connection_Handle, &StatusResult, &Connection_HandleResult, &Current_Role);
// if((ret_val == 0) && (StatusResult == HCI_ERROR_CODE_NO_ERROR))
// {
// /* Check to see if we aren't currently the master. */
// if(Current_Role != HCI_CURRENT_ROLE_MASTER)
// {
// /* Attempt to switch to the master role. */
// StatusResult = 0;
// ret_val = HCI_Switch_Role(BluetoothStackID, SPPContextInfo[SerialPortIndex].BD_ADDR, HCI_ROLE_SWITCH_BECOME_MASTER, &StatusResult);
// if((ret_val == 0) && (StatusResult == HCI_ERROR_CODE_NO_ERROR))
// {
// Display(("\r\nInitiating Role Switch.\r\n"));
// }
// else
// {
// Display(("HCI Switch Role failed. %d: 0x%02X", ret_val, StatusResult));
// }
// }
// }
// else
// {
// Display(("HCI Role Discovery failed. %d: 0x%02X", ret_val, StatusResult));
// }
//
//#endif
//
// }
// }
// break;
// case etPort_Open_Confirmation:
// /* A Client Port was opened. The Status indicates the */
// /* Status of the Open. */
// Display(("\r\n"));
// Display(("SPP Open Confirmation, ID: 0x%04X, Status 0x%04X.\r\n", SPP_Event_Data->Event_Data.SPP_Open_Port_Confirmation_Data->SerialPortID,
// SPP_Event_Data->Event_Data.SPP_Open_Port_Confirmation_Data->PortOpenStatus));
//
//
// /* Find the index of the SPP Port Information. */
// if((SerialPortIndex = FindSPPPortIndex(SPP_Event_Data->Event_Data.SPP_Open_Port_Confirmation_Data->SerialPortID)) >= 0)
// {
// /* Check the Status to make sure that an error did not */
// /* occur. */
// if(SPP_Event_Data->Event_Data.SPP_Open_Port_Confirmation_Data->PortOpenStatus)
// {
// /* An error occurred while opening the Serial Port so */
// /* invalidate the Serial Port ID. */
// BTPS_MemInitialize(&SPPContextInfo[SerialPortIndex], 0, sizeof(SPPContextInfo[SerialPortIndex]));
// }
// else
// {
// /* Flag that we are connected to the device. */
// SPPContextInfo[SerialPortIndex].Connected = TRUE;
//
// /* Query the connection Handle. */
// ret_val = GAP_Query_Connection_Handle(BluetoothStackID, SPPContextInfo[SerialPortIndex].BD_ADDR, &ConnectionHandle);
// if(ret_val)
// {
// /* Failed to Query the Connection Handle. */
// DisplayFunctionError("GAP_Query_Connection_Handle()",ret_val);
// }
// else
// {
// /* Save the connection handle of this connection. */
// SPPContextInfo[SerialPortIndex].Connection_Handle = ConnectionHandle;
//
//#if ((SPP_PERFORM_MASTER_ROLE_SWITCH) && (MAX_SIMULTANEOUS_SPP_PORTS > 1))
//
// /* First determine the current role to determine if*/
// /* we are already the master. */
// StatusResult = 0;
// ret_val = HCI_Role_Discovery(BluetoothStackID, SPPContextInfo[SerialPortIndex].Connection_Handle, &StatusResult, &Connection_HandleResult, &Current_Role);
// if((ret_val == 0) && (StatusResult == HCI_ERROR_CODE_NO_ERROR))
// {
// /* Check to see if we aren't currently the */
// /* master. */
// if(Current_Role != HCI_CURRENT_ROLE_MASTER)
// {
// /* Attempt to switch to the master role. */
// StatusResult = 0;
// ret_val = HCI_Switch_Role(BluetoothStackID, SPPContextInfo[SerialPortIndex].BD_ADDR, HCI_ROLE_SWITCH_BECOME_MASTER, &StatusResult);
// if((ret_val == 0) && (StatusResult == HCI_ERROR_CODE_NO_ERROR))
// {
// Display(("\r\nInitiating Role Switch.\r\n"));
// }
// else
// {
// Display(("HCI Switch Role failed. %d: 0x%02X", ret_val, StatusResult));
// }
// }
// }
// else
// {
// Display(("HCI Role Discovery failed. %d: 0x%02X", ret_val, StatusResult));
// }
//
//#endif
//
// }
// }
// }
// break;
// case etPort_Close_Port_Indication:
// /* The Remote Port was Disconnected. */
// LocalSerialPortID = SPP_Event_Data->Event_Data.SPP_Close_Port_Indication_Data->SerialPortID;
//
// Display(("\r\n"));
// Display(("SPP Close Port, ID: 0x%04X\r\n", LocalSerialPortID));
//
// /* Find the port index of the SPP Port that just closed. */
// if((SerialPortIndex = FindSPPPortIndex(LocalSerialPortID)) >= 0)
// {
// ASSIGN_BD_ADDR(SPPContextInfo[SerialPortIndex].BD_ADDR, 0, 0, 0, 0, 0, 0);
// SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend = 0;
// SPPContextInfo[SerialPortIndex].Connected = FALSE;
//
// /* If this is a client port we also need to clear the */
// /* Serial Port ID since it is no longer in use. */
// if(SPPContextInfo[SerialPortIndex].ServerPortNumber == 0)
// SPPContextInfo[SerialPortIndex].LocalSerialPortID = 0;
// }
// break;
// case etPort_Status_Indication:
// /* Display Information about the new Port Status. */
// Display(("\r\n"));
// Display(("SPP Port Status Indication: 0x%04X, Status: 0x%04X, Break Status: 0x%04X, Length: 0x%04X.\r\n", SPP_Event_Data->Event_Data.SPP_Port_Status_Indication_Data->SerialPortID,
// SPP_Event_Data->Event_Data.SPP_Port_Status_Indication_Data->PortStatus,
// SPP_Event_Data->Event_Data.SPP_Port_Status_Indication_Data->BreakStatus,
// SPP_Event_Data->Event_Data.SPP_Port_Status_Indication_Data->BreakTimeout));
//
// break;
// case etPort_Data_Indication:
// /* Data was received. Process it differently based upon the*/
// /* current state of the Loopback Mode. */
// LocalSerialPortID = SPP_Event_Data->Event_Data.SPP_Data_Indication_Data->SerialPortID;
//
// /* Find the port index of the correct SPP Port. */
// if((SerialPortIndex = FindSPPPortIndex(LocalSerialPortID)) >= 0)
// {
//
//#if MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE > 0
//
// /* Determine what data mode we are in. */
// if(LoopbackActive)
// {
// /* Initialize Done to false. */
// Done = FALSE;
//
// /* Loop until the write buffer is full or there is not*/
// /* more data to read. */
// while((Done == FALSE) && (SPPContextInfo[SerialPortIndex].SendInfo.BufferFull == FALSE))
// {
// /* The application state is currently in the loop */
// /* back state. Read as much data as we can read. */
// if((TempLength = SPP_Data_Read(BluetoothStackID, LocalSerialPortID, (Word_t)sizeof(SPPContextInfo[SerialPortIndex].Buffer), (Byte_t *)SPPContextInfo[SerialPortIndex].Buffer)) > 0)
// {
// /* Adjust the Current Buffer Length by the */
// /* number of bytes which were successfully read.*/
// SPPContextInfo[SerialPortIndex].BufferLength = TempLength;
//
// /* Next attempt to write all of the data which */
// /* is currently in the buffer. */
// if((TempLength = SPP_Data_Write(BluetoothStackID, LocalSerialPortID, (Word_t)SPPContextInfo[SerialPortIndex].BufferLength, (Byte_t *)SPPContextInfo[SerialPortIndex].Buffer)) < (int)SPPContextInfo[SerialPortIndex].BufferLength)
// {
// /* Not all of the data was successfully */
// /* written or an error occurred, first check */
// /* to see if an error occurred. */
// if(TempLength >= 0)
// {
// /* An error did not occur therefore the */
// /* Transmit Buffer must be full. Adjust */
// /* the Buffer and Buffer Length by the */
// /* amount which as successfully written. */
// if(TempLength)
// {
// for(Index=0,Index1=TempLength;Index1<SPPContextInfo[SerialPortIndex].BufferLength;Index++,Index1++)
// SPPContextInfo[SerialPortIndex].Buffer[Index] = SPPContextInfo[SerialPortIndex].Buffer[Index1];
//
// SPPContextInfo[SerialPortIndex].BufferLength -= TempLength;
// }
//
// /* Set the flag indicating that the SPP */
// /* Write Buffer is full. */
// SPPContextInfo[SerialPortIndex].SendInfo.BufferFull = TRUE;
// }
// else
// Done = TRUE;
// }
// }
// else
// Done = TRUE;
// }
//
// _DisplayPrompt = FALSE;
// }
// else
// {
// /* If we are operating in Raw Data Display Mode then */
// /* simply display the data that was give to use. */
// if((DisplayRawData) || (AutomaticReadActive))
// {
// /* Initialize Done to false. */
// Done = FALSE;
//
// /* Loop through and read all data that is present */
// /* in the buffer. */
// while(!Done)
// {
//
// /* Read as much data as possible. */
// if((TempLength = SPP_Data_Read(BluetoothStackID, LocalSerialPortID, (Word_t)sizeof(SPPContextInfo[SerialPortIndex].Buffer)-1, (Byte_t *)SPPContextInfo[SerialPortIndex].Buffer)) > 0)
// {
// /* Now simply display each character that we */
// /* have just read. */
// if(DisplayRawData)
// {
// SPPContextInfo[SerialPortIndex].Buffer[TempLength] = '\0';
//
// Display(((char *)SPPContextInfo[SerialPortIndex].Buffer));
// }
// }
// else
// {
// /* Either an error occurred or there is no */
// /* more data to be read. */
// if(TempLength < 0)
// {
// /* Error occurred. */
// Display(("SPP_Data_Read(): Error %d.\r\n", TempLength));
// }
//
// /* Regardless if an error occurred, we are */
// /* finished with the current loop. */
// Done = TRUE;
// }
// }
//
// _DisplayPrompt = FALSE;
// }
// else
// {
// /* Simply inform the user that data has arrived. */
// Display(("\r\n"));
// Display(("SPP Data Indication, ID: 0x%04X, Length: 0x%04X.\r\n", SPP_Event_Data->Event_Data.SPP_Data_Indication_Data->SerialPortID,
// SPP_Event_Data->Event_Data.SPP_Data_Indication_Data->DataLength));
// }
// }
//
//#else
//
// /* Simply inform the user that data has arrived. */
// Display(("\r\n"));
// Display(("SPP Data Indication, ID: 0x%04X, Length: 0x%04X.\r\n", SPP_Event_Data->Event_Data.SPP_Data_Indication_Data->SerialPortID,
// SPP_Event_Data->Event_Data.SPP_Data_Indication_Data->DataLength));
//
//#endif
//
// }
// break;
// case etPort_Send_Port_Information_Indication:
// /* Simply Respond with the information that was sent to us. */
// ret_val = SPP_Respond_Port_Information(BluetoothStackID, SPP_Event_Data->Event_Data.SPP_Send_Port_Information_Indication_Data->SerialPortID, &SPP_Event_Data->Event_Data.SPP_Send_Port_Information_Indication_Data->SPPPortInformation);
// break;
// case etPort_Transmit_Buffer_Empty_Indication:
// /* Locate the serial port for the SPP Port that now has a */
// /* transmit buffer empty. */
// LocalSerialPortID = SPP_Event_Data->Event_Data.SPP_Transmit_Buffer_Empty_Indication_Data->SerialPortID;
//
// /* Attempt to find the index of the SPP Port entry. */
// if((SerialPortIndex = FindSPPPortIndex(LocalSerialPortID)) >= 0)
// {
// /* Flag that this buffer is no longer full. */
// SPPContextInfo[SerialPortIndex].SendInfo.BufferFull = FALSE;
//
// /* The transmit buffer is now empty after being full. */
// /* Next check the current application state. */
// if(SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend)
// {
// /* Send the remainder of the last attempt. */
// TempLength = (DataStrLen-SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend);
//
// SPPContextInfo[SerialPortIndex].SendInfo.BytesSent = SPP_Data_Write(BluetoothStackID, LocalSerialPortID, TempLength, (unsigned char *)&(DataStr[SPPContextInfo[SerialPortIndex].SendInfo.BytesSent]));
// if((int)(SPPContextInfo[SerialPortIndex].SendInfo.BytesSent) >= 0)
// {
// if(SPPContextInfo[SerialPortIndex].SendInfo.BytesSent <= SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend)
// SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend -= SPPContextInfo[SerialPortIndex].SendInfo.BytesSent;
// else
// SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend = 0;
//
// while(SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend)
// {
// /* Set the Number of bytes to send in the next */
// /* packet. */
// if(SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend > DataStrLen)
// TempLength = DataStrLen;
// else
// TempLength = SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend;
//
// SPPContextInfo[SerialPortIndex].SendInfo.BytesSent = SPP_Data_Write(BluetoothStackID, LocalSerialPortID, TempLength, (unsigned char *)DataStr);
// if((int)(SPPContextInfo[SerialPortIndex].SendInfo.BytesSent) >= 0)
// {
// SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend -= SPPContextInfo[SerialPortIndex].SendInfo.BytesSent;
// if(SPPContextInfo[SerialPortIndex].SendInfo.BytesSent < TempLength)
// break;
// }
// else
// {
// Display(("SPP_Data_Write returned %d.\r\n", (int)SPPContextInfo[SerialPortIndex].SendInfo.BytesSent));
//
// SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend = 0;
// }
// }
// }
// else
// {
// Display(("SPP_Data_Write returned %d.\r\n", (int)SPPContextInfo[SerialPortIndex].SendInfo.BytesSent));
//
// SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend = 0;
// }
// }
// else
// {
//
//#if MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE > 0
//
// if(LoopbackActive)
// {
// /* Initialize Done to false. */
// Done = FALSE;
//
// /* Loop until the write buffer is full or there is */
// /* not more data to read. */
// while(Done == FALSE)
// {
// /* The application state is currently in the */
// /* loop back state. Read as much data as we can*/
// /* read. */
// if(((TempLength = SPP_Data_Read(BluetoothStackID, LocalSerialPortID, (Word_t)(sizeof(SPPContextInfo[SerialPortIndex].Buffer)-SPPContextInfo[SerialPortIndex].BufferLength), (Byte_t *)&(SPPContextInfo[SerialPortIndex].Buffer[SPPContextInfo[SerialPortIndex].BufferLength]))) > 0) || (SPPContextInfo[SerialPortIndex].BufferLength > 0))
// {
// /* Adjust the Current Buffer Length by the */
// /* number of bytes which were successfully */
// /* read. */
// if(TempLength > 0)
// SPPContextInfo[SerialPortIndex].BufferLength += TempLength;
//
// /* Next attempt to write all of the data */
// /* which is currently in the buffer. */
// if((TempLength = SPP_Data_Write(BluetoothStackID, LocalSerialPortID, (Word_t)SPPContextInfo[SerialPortIndex].BufferLength, (Byte_t *)SPPContextInfo[SerialPortIndex].Buffer)) < (int)SPPContextInfo[SerialPortIndex].BufferLength)
// {
// /* Not all of the data was successfully */
// /* written or an error occurred, first */
// /* check to see if an error occurred. */
// if(TempLength >= 0)
// {
// /* An error did not occur therefore the*/
// /* Transmit Buffer must be full. */
// /* Adjust the Buffer and Buffer Length */
// /* by the amount which was successfully*/
// /* written. */
// if(TempLength)
// {
// for(Index=0,Index1=TempLength;Index1<SPPContextInfo[SerialPortIndex].BufferLength;Index++,Index1++)
// SPPContextInfo[SerialPortIndex].Buffer[Index] = SPPContextInfo[SerialPortIndex].Buffer[Index1];
//
// SPPContextInfo[SerialPortIndex].BufferLength -= TempLength;
// }
// else
// Done = TRUE;
//
// /* Set the flag indicating that the SPP*/
// /* Write Buffer is full. */
// SPPContextInfo[SerialPortIndex].SendInfo.BufferFull = TRUE;
// }
// else
// Done = TRUE;
// }
// else
// {
// SPPContextInfo[SerialPortIndex].BufferLength = 0;
//
// SPPContextInfo[SerialPortIndex].SendInfo.BufferFull = FALSE;
// }
// }
// else
// Done = TRUE;
// }
// }
// else
// {
// /* Only print the event indication to the user if */
// /* we are NOT operating in Raw Data Display Mode. */
// if(!DisplayRawData)
// {
// Display(("\r\nTransmit Buffer Empty Indication, ID: 0x%04X\r\n", SPP_Event_Data->Event_Data.SPP_Transmit_Buffer_Empty_Indication_Data->SerialPortID));
// }
// }
//
//#else
//
// Display(("\r\nTransmit Buffer Empty Indication, ID: 0x%04X\r\n", SPP_Event_Data->Event_Data.SPP_Transmit_Buffer_Empty_Indication_Data->SerialPortID));
//
//#endif
//
// }
// }
// else
// {
// Display(("Could not find SPP server Context after Buffer Empty Indication.\r\n"));
// }
//
// _DisplayPrompt = FALSE;
// break;
// default:
// /* An unknown/unexpected SPP event was received. */
// Display(("\r\n"));
// Display(("Unknown Event.\r\n"));
// break;
// }
//
// /* Check the return value of any function that might have been */
// /* executed in the callback. */
// if(ret_val)
// {
// /* An error occurred, so output an error message. */
// Display(("\r\n"));
// Display(("Error %d.\r\n", ret_val));
// }
// }
// else
// {
// /* There was an error with one or more of the input parameters. */
// Display(("Null Event\r\n"));
// }
//
// if(_DisplayPrompt)
// DisplayPrompt();
//}
//
// /* The following function is responsible for processing HCI Mode */
// /* change events. */
//static void BTPSAPI HCI_Event_Callback(unsigned int BluetoothStackID, HCI_Event_Data_t *HCI_Event_Data, unsigned long CallbackParameter)
//{
// char *Mode;
//
//#if ((SPP_PERFORM_MASTER_ROLE_SWITCH) && (MAX_SIMULTANEOUS_SPP_PORTS > 1))
// int SerialPortIndex;
//#endif
//
// /* Make sure that the input parameters that were passed to us are */
// /* semi-valid. */
// if((BluetoothStackID) && (HCI_Event_Data))
// {
// /* Process the Event Data. */
// switch(HCI_Event_Data->Event_Data_Type)
// {
//
//#if ((SPP_PERFORM_MASTER_ROLE_SWITCH) && (MAX_SIMULTANEOUS_SPP_PORTS > 1))
//
// case etRole_Change_Event:
// if(HCI_Event_Data->Event_Data.HCI_Role_Change_Event_Data)
// {
// /* Find the Serial Port entry for this event. */
// if((SerialPortIndex = FindSPPPortIndexByAddress(HCI_Event_Data->Event_Data.HCI_Role_Change_Event_Data->BD_ADDR)) >= 0)
// {
// if((HCI_Event_Data->Event_Data.HCI_Role_Change_Event_Data->Status == HCI_ERROR_CODE_NO_ERROR) && (HCI_Event_Data->Event_Data.HCI_Role_Change_Event_Data->New_Role == HCI_CURRENT_ROLE_MASTER))
// {
// Display(("\r\nSPP Port %u: Role Change Success.\r\n", SPPContextInfo[SerialPortIndex].LocalSerialPortID));
// }
// else
// {
// Display(("\r\nSPP Port %u: Role Change Failure (Status 0x%02X, Role 0x%02X).\r\n", SPPContextInfo[SerialPortIndex].LocalSerialPortID, HCI_Event_Data->Event_Data.HCI_Role_Change_Event_Data->Status, HCI_Event_Data->Event_Data.HCI_Role_Change_Event_Data->New_Role));
// }
//
// DisplayPrompt();
// }
// }
// break;
//
//#endif
//
// case etMode_Change_Event:
// if(HCI_Event_Data->Event_Data.HCI_Mode_Change_Event_Data)
// {
// switch(HCI_Event_Data->Event_Data.HCI_Mode_Change_Event_Data->Current_Mode)
// {
// case HCI_CURRENT_MODE_HOLD_MODE:
// Mode = "Hold";
// break;
// case HCI_CURRENT_MODE_SNIFF_MODE:
// Mode = "Sniff";
// break;
// case HCI_CURRENT_MODE_PARK_MODE:
// Mode = "Park";
// break;
// case HCI_CURRENT_MODE_ACTIVE_MODE:
// default:
// Mode = "Active";
// break;
// }
//
// Display(("\r\n"));
// Display(("HCI Mode Change Event, Status: 0x%02X, Connection Handle: %d, Mode: %s, Interval: %d\r\n", HCI_Event_Data->Event_Data.HCI_Mode_Change_Event_Data->Status,
// HCI_Event_Data->Event_Data.HCI_Mode_Change_Event_Data->Connection_Handle,
// Mode,
// HCI_Event_Data->Event_Data.HCI_Mode_Change_Event_Data->Interval));
// DisplayPrompt();
// }
// break;
// }
// }
//}
//
// /* ***************************************************************** */
// /* End of Event Callbacks. */
// /* ***************************************************************** */
//
// /* The following function is used to initialize the application */
// /* instance. This function should open the stack and prepare to */
// /* execute commands based on user input. The first parameter passed */
// /* to this function is the HCI Driver Information that will be used */
// /* when opening the stack and the second parameter is used to pass */
// /* parameters to BTPS_Init. This function returns the */
// /* BluetoothStackID returned from BSC_Initialize on success or a */
// /* negative error code (of the form APPLICATION_ERROR_XXX). */
//int InitializeApplication(HCI_DriverInformation_t *HCI_DriverInformation, BTPS_Initialization_t *BTPS_Initialization)
//{
// int ret_val = APPLICATION_ERROR_UNABLE_TO_OPEN_STACK;
// LoopbackActive = FALSE;
// DisplayRawData = FALSE;
// AutomaticReadActive = FALSE;
// NumberofValidResponses = 0;
//
//
// /* Next, makes sure that the Driver Information passed appears to be */
// /* semi-valid. */
// if((HCI_DriverInformation) && (BTPS_Initialization))
// {
// /* Try to Open the stack and check if it was successful. */
// if(!OpenStack(HCI_DriverInformation, BTPS_Initialization))
// {
// /* First, attempt to set the Device to be Connectable. */
// ret_val = SetConnect();
//
// /* Next, check to see if the Device was successfully made */
// /* Connectable. */
// if(!ret_val)
// {
// /* Now that the device is Connectable attempt to make it */
// /* Discoverable. */
// ret_val = SetDisc();
//
// /* Next, check to see if the Device was successfully made */
// /* Discoverable. */
// if(!ret_val)
// {
// /* Now that the device is discoverable attempt to make it*/
// /* pairable. */
// ret_val = SetPairable();
// if(!ret_val)
// {
// /* Attempt to register a HCI Event Callback. */
// ret_val = HCI_Register_Event_Callback(BluetoothStackID, HCI_Event_Callback, (unsigned long)NULL);
// if(ret_val > 0)
// {
// /* Restart the User Interface Selection. */
// //UI_Mode = UI_MODE_SELECT;
// UI_Mode = UI_MODE_IS_SERVER;
// // UI_Mode = UI_MODE_IS_CLIENT;
//
// /* Set up the Selection Interface. */
// // UserInterface_Selection();
// UserInterface_Server();
// // UserInterface_Client();
//
//
// /* Display the first command prompt. */
// DisplayPrompt();
//
// /* Return success to the caller. */
// ret_val = (int)BluetoothStackID;
// }
// }
// else
// DisplayFunctionError("SetPairable", ret_val);
// }
// else
// DisplayFunctionError("SetDisc", ret_val);
// }
// else
// DisplayFunctionError("SetDisc", ret_val);
//
// /* In some error occurred then close the stack. */
// if(ret_val < 0)
// {
// /* Close the Bluetooth Stack. */
// CloseStack();
// }
// }
// else
// {
// /* There was an error while attempting to open the Stack. */
// Display(("Unable to open the stack.\r\n"));
// }
// }
// else
// ret_val = APPLICATION_ERROR_INVALID_PARAMETERS;
//
// AdvertiseLE(NULL);
// RegisterSPPLE(NULL);
//
// //ConnectLE(NULL);
// // DiscoverSPPLE(NULL);
// //ConfigureSPPLE(NULL);
// // OpenServer(NULL);
//
// return(ret_val);
//}
//
// /* The following function is used to process a command line string. */
// /* This function takes as it's only parameter the command line string*/
// /* to be parsed and returns TRUE if a command was parsed and executed*/
// /* or FALSE otherwise. */
//
//Boolean_t ProcessCommandLine(char *String)
//{
// return(CommandLineInterpreter(String));
//}
//
//
//
//void ProcessCommandLine1()
//{
//
// ReadDataCommand(NULL);
//
//
//}
//void ProcessCommandLine3()
//{
//
// Write(NULL);
//
//}
//
//void ProcessCommandLine4()
//{
//
// Read(NULL);
// if(lock1 == false)
// {
// Display(("Reading:\r\n"));
//
// ConnectLE(NULL);
// DiscoverSPPLE(NULL);
// ConfigureSPPLE(NULL);
// lock1=true;
// }
//
//
//}
//
//
///*************************************************************
//* Function: ProcessCommandLine()
//*
//* Description: This function is called by IBP.c which will form the
//* data packets. Here, the data is copied to a string and then
//* Write() is called where the packet is transmitted to tablet.
//*
//*
//* Parameters: first parameter is the the packet to be sent to tablet,
//* second parameter is the size of the packet to be sent.
//*
//* Returns: NULL
//*
//* Reentrancy: Yes.
//*
//* Execution Requirements/Assumptions: NULL
//*
//*************************************************************/
//
//
//void ProcessCommandLine2(Byte_t *String2) // for data packet
//{
// int x=0;
// for(x=0;x<2;x++)
// {
// String3[x]=String2[x]; // copy this to string3 so that spp_data_write_ can access this data packet variable.
// //Display(("\nstring3-[var] , x=%d---> %d-",x,String3[x]));
// }
// SendData1(NULL);
//}
//
///*************************************************************
//* Function: SendData1()
//*
//* Description: This function is called by ProcessCommandLine3, and this
//* function will send the service packet to the tablet.
//*
//*
//* Parameters: NULL
//*
//* Returns: integer.
//*
//* Reentrancy: Yes.
//*
//* Execution Requirements/Assumptions: NULL
//*
//*************************************************************/
//
//static int SendData1(ParameterList_t *TempParam)
//{
// int Ndx;
//
// if (BluetoothStackID)
// {
// // Display(("\n bluetooth stack id"));
//
// Ndx = SPP_Data_Write(BluetoothStackID, 1, sizeof(String3), String3);
// if (Ndx >= 0)
// {
// //Display(("\n bluetooth send data ok"));
// }
//
// else
// {
// // Display(("\n bluetooth not ok"));
// }
// }
// return (0);
//}
/*****< sppledemo.c >**********************************************************/
/* Copyright 2012 - 2014 Stonestreet One. */
/* All Rights Reserved. */
/* */
/* SPPLEDEMO - Embedded Bluetooth SPP Emulation using GATT (LE) application. */
/* */
/* Author: Tim Cook */
/* */
/*** MODIFICATION HISTORY *****************************************************/
/* */
/* mm/dd/yy F. Lastname Description of Modification */
/* -------- ----------- ------------------------------------------------*/
/* 04/16/12 Tim Cook Initial creation. */
/* 01/09/13 M. Buckley Adapted use of ConnectionID and */
/* ConnectionBD_ADDR for use with multiple devices */
/******************************************************************************/
#include <stdio.h> /* Included for sscanf. */
#include "Main.h" /* Application Interface Abstraction. */
#include "SPPLEDemo.h" /* Application Header. */
#include "SS1BTPS.h" /* Main SS1 BT Stack Header. */
#include "SS1BTGAT.h" /* Main SS1 GATT Header. */
#include "SS1BTGAP.h" /* Main SS1 GAP Service Header. */
#include "BTPSKRNL.h" /* BTPS Kernel Header. */
#include "driverlib/uart.h"
#include "utils/uartstdio.h"
#include <stdbool.h>
#include <stdint.h>
#include "inc/hw_memmap.h"
#include "inc/hw_types.h"
#include "driverlib/gpio.h"
#include "driverlib/i2c.h"
#include "driverlib/pin_map.h"
#include "driverlib/sysctl.h"
#include "CCSv5/IBP.h"
static Byte_t String3[2];
bool lock1=false;
Byte_t SPPLEBufferNew[8];
Byte_t SPPLEBuffer[3];
char read_data;
char Don_Address[12];
uint8_t variable;
#define MAX_SUPPORTED_COMMANDS (64) /* Denotes the */
/* maximum number of */
/* User Commands that*/
/* are supported by */
/* this application. */
#define MAX_NUM_OF_PARAMETERS (5) /* Denotes the max */
/* number of */
/* parameters a */
/* command can have. */
#define MAX_INQUIRY_RESULTS (20) /* Denotes the max */
/* number of inquiry */
/* results. */
#define MAX_SUPPORTED_LINK_KEYS (1) /* Max supported Link*/
/* keys. */
#define MAX_LE_CONNECTIONS (2) /* Denotes the max */
/* number of LE */
/* connections that */
/* are allowed at */
/* the same time. */
#define MAX_SIMULTANEOUS_SPP_PORTS (1) /* Maximum SPP Ports */
/* that we support. */
#define MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE (64) /* Maximum size of the*/
/* buffer used in */
/* loopback mode. */
#define SPP_PERFORM_MASTER_ROLE_SWITCH (1) /* Defines if TRUE */
/* that a role switch */
/* should be performed*/
/* for all SPP */
/* connections. */
#define DEFAULT_LE_IO_CAPABILITY (licNoInputNoOutput) /* Denotes the */
/* default I/O */
/* Capability that is*/
/* used with LE */
/* Pairing. */
#define DEFAULT_LE_MITM_PROTECTION (TRUE) /* Denotes the */
/* default value used*/
/* for Man in the */
/* Middle (MITM) */
/* protection used */
/* with LE Pairing. */
#define DEFAULT_IO_CAPABILITY (icDisplayYesNo) /* Denotes the */
/* default I/O */
/* Capability that is*/
/* used with Secure */
/* Simple Pairing. */
#define DEFAULT_MITM_PROTECTION (TRUE) /* Denotes the */
/* default value used*/
/* for Man in the */
/* Middle (MITM) */
/* protection used */
/* with Secure Simple*/
/* Pairing. */
#define SPPLE_DATA_BUFFER_LENGTH (BTPS_CONFIGURATION_GATT_MAXIMUM_SUPPORTED_MTU_SIZE)
/* Defines the length*/
/* of a SPPLE Data */
/* Buffer. */
#define SPPLE_DATA_CREDITS (SPPLE_DATA_BUFFER_LENGTH*1) /* Defines the */
/* number of credits */
/* in an SPPLE Buffer*/
#define NO_COMMAND_ERROR (-1) /* Denotes that no */
/* command was */
/* specified to the */
/* parser. */
#define INVALID_COMMAND_ERROR (-2) /* Denotes that the */
/* Command does not */
/* exist for */
/* processing. */
#define EXIT_CODE (-3) /* Denotes that the */
/* Command specified */
/* was the Exit */
/* Command. */
#define FUNCTION_ERROR (-4) /* Denotes that an */
/* error occurred in */
/* execution of the */
/* Command Function. */
#define TO_MANY_PARAMS (-5) /* Denotes that there*/
/* are more */
/* parameters then */
/* will fit in the */
/* UserCommand. */
#define INVALID_PARAMETERS_ERROR (-6) /* Denotes that an */
/* error occurred due*/
/* to the fact that */
/* one or more of the*/
/* required */
/* parameters were */
/* invalid. */
#define UNABLE_TO_INITIALIZE_STACK (-7) /* Denotes that an */
/* error occurred */
/* while Initializing*/
/* the Bluetooth */
/* Protocol Stack. */
#define INVALID_STACK_ID_ERROR (-8) /* Denotes that an */
/* occurred due to */
/* attempted */
/* execution of a */
/* Command when a */
/* Bluetooth Protocol*/
/* Stack has not been*/
/* opened. */
#define UNABLE_TO_REGISTER_SERVER (-9) /* Denotes that an */
/* error occurred */
/* when trying to */
/* create a Serial */
/* Port Server. */
#define EXIT_TEST_MODE (-10) /* Flags exit from */
/* Test Mode. */
#define EXIT_MODE (-11) /* Flags exit from */
/* any Mode. */
/* The following MACRO is used to convert an ASCII character into the*/
/* equivalent decimal value. The MACRO converts lower case */
/* characters to upper case before the conversion. */
#define ToInt(_x) (((_x) > 0x39)?(((_x) & ~0x20)-0x37):((_x)-0x30))
/* Determine the Name we will use for this compilation. */
#define LE_DEMO_DEVICE_NAME "SPPLEDEMO"
/* Following converts a Sniff Parameter in Milliseconds to frames. */
#define MILLISECONDS_TO_BASEBAND_SLOTS(_x) ((_x) / (0.625))
/* The following represent the possible values of UI_Mode variable. */
#define UI_MODE_IS_CLIENT (2)
#define UI_MODE_IS_SERVER (1)
#define UI_MODE_SELECT (0)
#define UI_MODE_IS_INVALID (-1)
/* The following type definition represents the container type which */
/* holds the mapping between Bluetooth devices (based on the BD_ADDR)*/
/* and the Link Key (BD_ADDR <-> Link Key Mapping). */
typedef struct _tagLinkKeyInfo_t
{
BD_ADDR_t BD_ADDR;
Link_Key_t LinkKey;
} LinkKeyInfo_t;
/* The following type definition represents the structure which holds*/
/* all information about the parameter, in particular the parameter */
/* as a string and the parameter as an unsigned int. */
typedef struct _tagParameter_t
{
char *strParam;
SDWord_t intParam;
} Parameter_t;
/* The following type definition represents the structure which holds*/
/* a list of parameters that are to be associated with a command The */
/* NumberofParameters variable holds the value of the number of */
/* parameters in the list. */
typedef struct _tagParameterList_t
{
int NumberofParameters;
Parameter_t Params[MAX_NUM_OF_PARAMETERS];
} ParameterList_t;
/* The following type definition represents the structure which holds*/
/* the command and parameters to be executed. */
typedef struct _tagUserCommand_t
{
char *Command;
ParameterList_t Parameters;
} UserCommand_t;
/* The following type definition represents the generic function */
/* pointer to be used by all commands that can be executed by the */
/* test program. */
typedef int (*CommandFunction_t)(ParameterList_t *TempParam);
/* The following type definition represents the structure which holds*/
/* information used in the interpretation and execution of Commands. */
typedef struct _tagCommandTable_t
{
char *CommandName;
CommandFunction_t CommandFunction;
} CommandTable_t;
/* Structure used to hold all of the GAP LE Parameters. */
typedef struct _tagGAPLE_Parameters_t
{
GAP_LE_Connectability_Mode_t ConnectableMode;
GAP_Discoverability_Mode_t DiscoverabilityMode;
GAP_LE_IO_Capability_t IOCapability;
Boolean_t MITMProtection;
Boolean_t OOBDataPresent;
} GAPLE_Parameters_t;
#define GAPLE_PARAMETERS_DATA_SIZE (sizeof(GAPLE_Parameters_t))
/* The following structure holds status information about a send */
/* process. */
typedef struct _tagSend_Info_t
{
Boolean_t BufferFull;
DWord_t BytesToSend;
DWord_t BytesSent;
} Send_Info_t;
/* The following defines the structure that is used to hold */
/* information about all open SPP Ports. */
typedef struct SPP_Context_Info_t
{
unsigned int LocalSerialPortID;
unsigned int ServerPortNumber;
Word_t Connection_Handle;
BD_ADDR_t BD_ADDR;
DWord_t SPPServerSDPHandle;
Boolean_t Connected;
Send_Info_t SendInfo;
#if MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE > 0
unsigned int BufferLength;
unsigned char Buffer[MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE];
#endif
} SPP_Context_Info_t;
/* The following defines the format of a SPPLE Data Buffer. */
typedef struct _tagSPPLE_Data_Buffer_t
{
unsigned int InIndex;
unsigned int OutIndex;
unsigned int BytesFree;
unsigned int BufferSize;
Byte_t Buffer[SPPLE_DATA_CREDITS];
} SPPLE_Data_Buffer_t;
/* The following structure represents the information we will store */
/* on a Discovered GAP Service. */
typedef struct _tagGAPS_Client_Info_t
{
Word_t DeviceNameHandle;
Word_t DeviceAppearanceHandle;
} GAPS_Client_Info_t;
/* The following structure holds information on known Device */
/* Appearance Values. */
typedef struct _tagGAPS_Device_Appearance_Mapping_t
{
Word_t Appearance;
char *String;
} GAPS_Device_Appearance_Mapping_t;
/* The following structure is used to hold a list of information */
/* on all paired devices. */
typedef struct _tagDeviceInfo_t
{
Byte_t Flags;
Byte_t EncryptionKeySize;
GAP_LE_Address_Type_t ConnectionAddressType;
BD_ADDR_t ConnectionBD_ADDR;
Long_Term_Key_t LTK;
Random_Number_t Rand;
Word_t EDIV;
GAPS_Client_Info_t GAPSClientInfo;
SPPLE_Client_Info_t ClientInfo;
SPPLE_Server_Info_t ServerInfo;
struct _tagDeviceInfo_t *NextDeviceInfoInfoPtr;
} DeviceInfo_t;
#define DEVICE_INFO_DATA_SIZE (sizeof(DeviceInfo_t))
static int SendData1(ParameterList_t *TempParam);
/* Defines the bit mask flags that may be set in the DeviceInfo_t */
/* structure. */
#define DEVICE_INFO_FLAGS_LTK_VALID 0x01
#define DEVICE_INFO_FLAGS_SPPLE_SERVER 0x02
#define DEVICE_INFO_FLAGS_SERVICE_DISCOVERY_OUTSTANDING 0x04
#define DEVICE_INFO_FLAGS_LINK_ENCRYPTED 0x08
/* The following structure is used to hold all of the SPPLE related */
/* information pertaining to buffers and credits. */
typedef struct _tagSPPLE_Buffer_Info_t
{
Send_Info_t SendInfo;
unsigned int TransmitCredits;
Word_t QueuedCredits;
SPPLE_Data_Buffer_t ReceiveBuffer;
SPPLE_Data_Buffer_t TransmitBuffer;
} SPPLE_Buffer_Info_t;
/* The following structure is used to hold information on a connected*/
/* LE Device. */
typedef struct _tagLE_Context_Info_t
{
BD_ADDR_t ConnectionBD_ADDR;
unsigned int ConnectionID;
SPPLE_Buffer_Info_t SPPLEBufferInfo;
Boolean_t BufferFull;
} LE_Context_Info_t;
/* User to represent a structure to hold a BD_ADDR return from */
/* BD_ADDRToStr. */
typedef char BoardStr_t[16];
/* The Encryption Root Key should be generated */
/* in such a way as to guarantee 128 bits of */
/* entropy. */
static BTPSCONST Encryption_Key_t ER = {0x28, 0xBA, 0xE1, 0x37, 0x13, 0xB2, 0x20, 0x45, 0x16, 0xB2, 0x19, 0xD0, 0x80, 0xEE, 0x4A, 0x51};
/* The Identity Root Key should be generated */
/* in such a way as to guarantee 128 bits of */
/* entropy. */
static BTPSCONST Encryption_Key_t IR = {0x41, 0x09, 0xA0, 0x88, 0x09, 0x6B, 0x70, 0xC0, 0x95, 0x23, 0x3C, 0x8C, 0x48, 0xFC, 0xC9, 0xFE};
/* The following keys can be regerenated on the */
/* fly using the constant IR and ER keys and */
/* are used globally, for all devices. */
static Encryption_Key_t DHK;
static Encryption_Key_t IRK;
/* Internal Variables to this Module (Remember that all variables */
/* declared static are initialized to 0 automatically by the */
/* compiler as part of standard C/C++). */
char passcode[] = "0000"; // the passcode which is used to pair with the tablet.
Parameter_t code = { passcode, 1 }; // forming the passcode steps.
ParameterList_t codelist = { 1, { passcode, 1 } };
static int UI_Mode; /* Holds the UI Mode. */
//static Byte_t SPPLEBuffer[8]; /* Buffer that is */
/* used for Sending/Receiving */
/* SPPLE Service Data. */
static unsigned int SPPLEServiceID; /* The following holds the SPP LE */
/* Service ID that is returned from*/
/* GATT_Register_Service(). */
static unsigned int GAPSInstanceID; /* Holds the Instance ID for the */
/* GAP Service. */
static GAPLE_Parameters_t LE_Parameters; /* Holds GAP Parameters like */
/* Discoverability, Connectability */
/* Modes. */
static DeviceInfo_t *DeviceInfoList; /* Holds the list head for the */
/* device info list. */
static unsigned int BluetoothStackID; /* Variable which holds the Handle */
/* of the opened Bluetooth Protocol*/
/* Stack. */
static Boolean_t LocalDeviceIsMaster; /* Boolean that tells if the local */
/* device is the master of the */
/* current connection. */
static BD_ADDR_t CurrentLERemoteBD_ADDR; /* Variable which holds the */
/* current LE BD_ADDR of the device*/
/* which is currently pairing or */
/* authenticating. */
static BD_ADDR_t CurrentCBRemoteBD_ADDR; /* Variable which holds the */
/* current CB BD_ADDR of the device*/
/* which is currently pairing or */
/* authenticating. */
static BD_ADDR_t InquiryResultList[MAX_INQUIRY_RESULTS]; /* Variable which */
/* contains the inquiry result */
/* received from the most recently */
/* preformed inquiry. */
static unsigned int NumberofValidResponses; /* Variable which holds the number */
/* of valid inquiry results within */
/* the inquiry results array. */
static LinkKeyInfo_t LinkKeyInfo[MAX_SUPPORTED_LINK_KEYS]; /* Variable holds */
/* BD_ADDR <-> Link Keys for */
/* pairing. */
static GAP_IO_Capability_t IOCapability; /* Variable which holds the */
/* current I/O Capabilities that */
/* are to be used for Secure Simple*/
/* Pairing. */
static Boolean_t OOBSupport; /* Variable which flags whether */
/* or not Out of Band Secure Simple*/
/* Pairing exchange is supported. */
static Boolean_t MITMProtection; /* Variable which flags whether or */
/* not Man in the Middle (MITM) */
/* protection is to be requested */
/* during a Secure Simple Pairing */
/* procedure. */
static Boolean_t LoopbackActive; /* Variable which flags whether or */
/* not the application is currently*/
/* operating in Loopback Mode */
/* (TRUE) or not (FALSE). */
static Boolean_t DisplayRawData; /* Variable which flags whether or */
/* not the application is to */
/* simply display the Raw Data */
/* when it is received (when not */
/* operating in Loopback Mode). */
static Boolean_t AutomaticReadActive; /* Variable which flags whether or */
/* not the application is to */
/* automatically read all data */
/* as it is received. */
static unsigned int NumberCommands; /* Variable which is used to hold */
/* the number of Commands that are */
/* supported by this application. */
/* Commands are added individually.*/
static CommandTable_t CommandTable[MAX_SUPPORTED_COMMANDS]; /* Variable which is */
/* used to hold the actual Commands*/
/* that are supported by this */
/* application. */
static SPP_Context_Info_t SPPContextInfo[MAX_SIMULTANEOUS_SPP_PORTS];
/* Variable that contains */
/* information about the current */
/* open SPP Ports */
static LE_Context_Info_t LEContextInfo[MAX_LE_CONNECTIONS]; /* Array that contains */
/* the connection ID and BD_ADDR */
/* of each connected device. */
/* The following is used to map from ATT Error Codes to a printable */
/* string. */
static char *ErrorCodeStr[] =
{
"ATT_PROTOCOL_ERROR_CODE_NO_ERROR",
"ATT_PROTOCOL_ERROR_CODE_INVALID_HANDLE",
"ATT_PROTOCOL_ERROR_CODE_READ_NOT_PERMITTED",
"ATT_PROTOCOL_ERROR_CODE_WRITE_NOT_PERMITTED",
"ATT_PROTOCOL_ERROR_CODE_INVALID_PDU",
"ATT_PROTOCOL_ERROR_CODE_INSUFFICIENT_AUTHENTICATION",
"ATT_PROTOCOL_ERROR_CODE_REQUEST_NOT_SUPPORTED",
"ATT_PROTOCOL_ERROR_CODE_INVALID_OFFSET",
"ATT_PROTOCOL_ERROR_CODE_INSUFFICIENT_AUTHORIZATION",
"ATT_PROTOCOL_ERROR_CODE_PREPARE_QUEUE_FULL",
"ATT_PROTOCOL_ERROR_CODE_ATTRIBUTE_NOT_FOUND",
"ATT_PROTOCOL_ERROR_CODE_ATTRIBUTE_NOT_LONG",
"ATT_PROTOCOL_ERROR_CODE_INSUFFICIENT_ENCRYPTION_KEY_SIZE",
"ATT_PROTOCOL_ERROR_CODE_INVALID_ATTRIBUTE_VALUE_LENGTH",
"ATT_PROTOCOL_ERROR_CODE_UNLIKELY_ERROR",
"ATT_PROTOCOL_ERROR_CODE_INSUFFICIENT_ENCRYPTION",
"ATT_PROTOCOL_ERROR_CODE_UNSUPPORTED_GROUP_TYPE",
"ATT_PROTOCOL_ERROR_CODE_INSUFFICIENT_RESOURCES"
};
#define NUMBER_GATT_ERROR_CODES (sizeof(ErrorCodeStr)/sizeof(char *))
/* The following array is used to map Device Appearance Values to */
/* strings. */
static GAPS_Device_Appearance_Mapping_t AppearanceMappings[] =
{
{GAP_DEVICE_APPEARENCE_VALUE_UNKNOWN, "Unknown"},
{GAP_DEVICE_APPEARENCE_VALUE_GENERIC_PHONE, "Generic Phone"},
{GAP_DEVICE_APPEARENCE_VALUE_GENERIC_COMPUTER, "Generic Computer"},
{GAP_DEVICE_APPEARENCE_VALUE_GENERIC_WATCH, "Generic Watch"},
{GAP_DEVICE_APPEARENCE_VALUE_SPORTS_WATCH, "Sports Watch"},
{GAP_DEVICE_APPEARENCE_VALUE_GENERIC_CLOCK, "Generic Clock"},
{GAP_DEVICE_APPEARENCE_VALUE_GENERIC_DISPLAY, "Generic Display"},
{GAP_DEVICE_APPEARENCE_VALUE_GENERIC_GENERIC_REMOTE_CONTROL, "Generic Remote Control"},
{GAP_DEVICE_APPEARENCE_VALUE_GENERIC_EYE_GLASSES, "Eye Glasses"},
{GAP_DEVICE_APPEARENCE_VALUE_GENERIC_TAG, "Generic Tag"},
{GAP_DEVICE_APPEARENCE_VALUE_GENERIC_KEYRING, "Generic Keyring"},
{GAP_DEVICE_APPEARENCE_VALUE_GENERIC_MEDIA_PLAYER, "Generic Media Player"},
{GAP_DEVICE_APPEARENCE_VALUE_GENERIC_BARCODE_SCANNER, "Generic Barcode Scanner"},
{GAP_DEVICE_APPEARENCE_VALUE_GENERIC_THERMOMETER, "Generic Thermometer"},
{GAP_DEVICE_APPEARENCE_VALUE_THERMOMETER_EAR, "Ear Thermometer"},
{GAP_DEVICE_APPEARENCE_VALUE_GENERIC_HEART_RATE_SENSOR, "Generic Heart Rate Sensor"},
{GAP_DEVICE_APPEARENCE_VALUE_BELT_HEART_RATE_SENSOR, "Belt Heart Rate Sensor"},
{GAP_DEVICE_APPEARENCE_VALUE_GENERIC_BLOOD_PRESSURE, "Generic Blood Pressure"},
{GAP_DEVICE_APPEARENCE_VALUE_BLOOD_PRESSURE_ARM, "Blood Pressure: ARM"},
{GAP_DEVICE_APPEARENCE_VALUE_BLOOD_PRESSURE_WRIST, "Blood Pressure: Wrist"},
{GAP_DEVICE_APPEARENCE_VALUE_HUMAN_INTERFACE_DEVICE, "Human Interface Device"},
{GAP_DEVICE_APPEARENCE_VALUE_HID_KEYBOARD, "HID Keyboard"},
{GAP_DEVICE_APPEARENCE_VALUE_HID_MOUSE, "HID Mouse"},
{GAP_DEVICE_APPEARENCE_VALUE_HID_JOYSTICK, "HID Joystick"},
{GAP_DEVICE_APPEARENCE_VALUE_HID_GAMEPAD, "HID Gamepad"},
{GAP_DEVICE_APPEARENCE_VALUE_HID_DIGITIZER_TABLET, "HID Digitizer Tablet"},
{GAP_DEVICE_APPEARENCE_VALUE_HID_CARD_READER, "HID Card Reader"},
{GAP_DEVICE_APPEARENCE_VALUE_HID_DIGITAL_PEN, "HID Digitizer Pen"},
{GAP_DEVICE_APPEARENCE_VALUE_HID_BARCODE_SCANNER, "HID Bardcode Scanner"},
{GAP_DEVICE_APPEARENCE_VALUE_GENERIC_GLUCOSE_METER, "Generic Glucose Meter"}
};
#define NUMBER_OF_APPEARANCE_MAPPINGS (sizeof(AppearanceMappings)/sizeof(GAPS_Device_Appearance_Mapping_t))
/* The following string table is used to map HCI Version information */
/* to an easily displayable version string. */
static BTPSCONST char *HCIVersionStrings[] =
{
"1.0b",
"1.1",
"1.2",
"2.0",
"2.1",
"3.0",
"4.0",
"4.1",
"Unknown (greater 4.1)"
} ;
#define NUM_SUPPORTED_HCI_VERSIONS (sizeof(HCIVersionStrings)/sizeof(char *) - 1)
/* The following string table is used to map the API I/O Capabilities*/
/* values to an easily displayable string. */
static BTPSCONST char *IOCapabilitiesStrings[] =
{
"Display Only",
"Display Yes/No",
"Keyboard Only",
"No Input/Output",
"Keyboard/Display"
} ;
/* The following defines a data sequence that will be used to */
/* generate message data. */
static char DataStr[] = "0123456789";
static int DataStrLen = (sizeof(DataStr)-1);
/*********************************************************************/
/** SPPLE Service Table **/
/*********************************************************************/
/* The SPPLE Service Declaration UUID. */
static BTPSCONST GATT_Primary_Service_128_Entry_t SPPLE_Service_UUID =
{
SPPLE_SERVICE_BLUETOOTH_UUID_CONSTANT
};
/* The Tx Characteristic Declaration. */
static BTPSCONST GATT_Characteristic_Declaration_128_Entry_t SPPLE_Tx_Declaration =
{
GATT_CHARACTERISTIC_PROPERTIES_NOTIFY,
SPPLE_TX_CHARACTERISTIC_BLUETOOTH_UUID_CONSTANT
};
/* The Tx Characteristic Value. */
static BTPSCONST GATT_Characteristic_Value_128_Entry_t SPPLE_Tx_Value =
{
SPPLE_TX_CHARACTERISTIC_BLUETOOTH_UUID_CONSTANT,
0,
NULL
};
/* The Tx Credits Characteristic Declaration. */
static BTPSCONST GATT_Characteristic_Declaration_128_Entry_t SPPLE_Tx_Credits_Declaration =
{
(GATT_CHARACTERISTIC_PROPERTIES_READ|GATT_CHARACTERISTIC_PROPERTIES_WRITE_WITHOUT_RESPONSE|GATT_CHARACTERISTIC_PROPERTIES_WRITE),
SPPLE_TX_CREDITS_CHARACTERISTIC_BLUETOOTH_UUID_CONSTANT
};
/* The Tx Credits Characteristic Value. */
static BTPSCONST GATT_Characteristic_Value_128_Entry_t SPPLE_Tx_Credits_Value =
{
SPPLE_TX_CREDITS_CHARACTERISTIC_BLUETOOTH_UUID_CONSTANT,
0,
NULL
};
/* The SPPLE RX Characteristic Declaration. */
static BTPSCONST GATT_Characteristic_Declaration_128_Entry_t SPPLE_Rx_Declaration =
{
(GATT_CHARACTERISTIC_PROPERTIES_WRITE_WITHOUT_RESPONSE),
SPPLE_RX_CHARACTERISTIC_BLUETOOTH_UUID_CONSTANT
};
/* The SPPLE RX Characteristic Value. */
static BTPSCONST GATT_Characteristic_Value_128_Entry_t SPPLE_Rx_Value =
{
SPPLE_RX_CHARACTERISTIC_BLUETOOTH_UUID_CONSTANT,
0,
NULL
};
/* The SPPLE Rx Credits Characteristic Declaration. */
static BTPSCONST GATT_Characteristic_Declaration_128_Entry_t SPPLE_Rx_Credits_Declaration =
{
(GATT_CHARACTERISTIC_PROPERTIES_READ|GATT_CHARACTERISTIC_PROPERTIES_NOTIFY),
SPPLE_RX_CREDITS_CHARACTERISTIC_BLUETOOTH_UUID_CONSTANT
};
/* The SPPLE Rx Credits Characteristic Value. */
static BTPSCONST GATT_Characteristic_Value_128_Entry_t SPPLE_Rx_Credits_Value =
{
SPPLE_RX_CREDITS_CHARACTERISTIC_BLUETOOTH_UUID_CONSTANT,
0,
NULL
};
/* Client Characteristic Configuration Descriptor. */
static GATT_Characteristic_Descriptor_16_Entry_t Client_Characteristic_Configuration =
{
GATT_CLIENT_CHARACTERISTIC_CONFIGURATION_BLUETOOTH_UUID_CONSTANT,
GATT_CLIENT_CHARACTERISTIC_CONFIGURATION_LENGTH,
NULL
};
/* The following defines the SPPLE service that is registered with */
/* the GATT_Register_Service function call. */
/* * NOTE * This array will be registered with GATT in the call to */
/* GATT_Register_Service. */
BTPSCONST GATT_Service_Attribute_Entry_t SPPLE_Service[] =
{
{GATT_ATTRIBUTE_FLAGS_READABLE, aetPrimaryService128, (Byte_t *)&SPPLE_Service_UUID}, //0
{GATT_ATTRIBUTE_FLAGS_READABLE, aetCharacteristicDeclaration128, (Byte_t *)&SPPLE_Tx_Declaration}, //1
{0, aetCharacteristicValue128, (Byte_t *)&SPPLE_Tx_Value}, //2
{GATT_ATTRIBUTE_FLAGS_READABLE_WRITABLE, aetCharacteristicDescriptor16, (Byte_t *)&Client_Characteristic_Configuration}, //3
{GATT_ATTRIBUTE_FLAGS_READABLE, aetCharacteristicDeclaration128, (Byte_t *)&SPPLE_Tx_Credits_Declaration}, //4
{GATT_ATTRIBUTE_FLAGS_READABLE_WRITABLE, aetCharacteristicValue128, (Byte_t *)&SPPLE_Tx_Credits_Value}, //5
{GATT_ATTRIBUTE_FLAGS_READABLE, aetCharacteristicDeclaration128, (Byte_t *)&SPPLE_Rx_Declaration}, //6
{GATT_ATTRIBUTE_FLAGS_WRITABLE, aetCharacteristicValue128, (Byte_t *)&SPPLE_Rx_Value}, //7
{GATT_ATTRIBUTE_FLAGS_READABLE, aetCharacteristicDeclaration128, (Byte_t *)&SPPLE_Rx_Credits_Declaration}, //8
{GATT_ATTRIBUTE_FLAGS_READABLE, aetCharacteristicValue128, (Byte_t *)&SPPLE_Rx_Credits_Value}, //9
{GATT_ATTRIBUTE_FLAGS_READABLE_WRITABLE, aetCharacteristicDescriptor16, (Byte_t *)&Client_Characteristic_Configuration}, //10
};
#define SPPLE_SERVICE_ATTRIBUTE_COUNT (sizeof(SPPLE_Service)/sizeof(GATT_Service_Attribute_Entry_t))
#define SPPLE_TX_CHARACTERISTIC_ATTRIBUTE_OFFSET 2
#define SPPLE_TX_CHARACTERISTIC_CCD_ATTRIBUTE_OFFSET 3
#define SPPLE_TX_CREDITS_CHARACTERISTIC_ATTRIBUTE_OFFSET 5
#define SPPLE_RX_CHARACTERISTIC_ATTRIBUTE_OFFSET 7
#define SPPLE_RX_CREDITS_CHARACTERISTIC_ATTRIBUTE_OFFSET 9
#define SPPLE_RX_CREDITS_CHARACTERISTIC_CCD_ATTRIBUTE_OFFSET 10
/*********************************************************************/
/** END OF SERVICE TABLE **/
/*********************************************************************/
/* Internal function prototypes. */
static Boolean_t CreateNewDeviceInfoEntry(DeviceInfo_t **ListHead, GAP_LE_Address_Type_t ConnectionAddressType, BD_ADDR_t ConnectionBD_ADDR);
static DeviceInfo_t *SearchDeviceInfoEntryByBD_ADDR(DeviceInfo_t **ListHead, BD_ADDR_t BD_ADDR);
static DeviceInfo_t *DeleteDeviceInfoEntry(DeviceInfo_t **ListHead, BD_ADDR_t BD_ADDR);
static void FreeDeviceInfoEntryMemory(DeviceInfo_t *EntryToFree);
static void FreeDeviceInfoList(DeviceInfo_t **ListHead);
static void UserInterface_Client(void);
static void UserInterface_Server(void);
static void UserInterface_Selection(void);
static Boolean_t CommandLineInterpreter(char *Command);
static unsigned long StringToUnsignedInteger(char *StringInteger);
static char *StringParser(char *String);
static int CommandParser(UserCommand_t *TempCommand, char *Input);
static int CommandInterpreter(UserCommand_t *TempCommand);
static int AddCommand(char *CommandName, CommandFunction_t CommandFunction);
static CommandFunction_t FindCommand(char *Command);
static void ClearCommands(void);
static void BD_ADDRToStr(BD_ADDR_t Board_Address, BoardStr_t BoardStr);
static void StrToBD_ADDR(char *BoardStr, BD_ADDR_t *Board_Address);
static void DisplayIOCapabilities(void);
static void DisplayClassOfDevice(Class_of_Device_t Class_of_Device);
static void DisplayAdvertisingData(GAP_LE_Advertising_Data_t *Advertising_Data);
static void DisplayPairingInformation(GAP_LE_Pairing_Capabilities_t Pairing_Capabilities);
static void DisplayUUID(GATT_UUID_t *UUID);
static void DisplayPrompt(void);
static void DisplayUsage(char *UsageString);
static void DisplayFunctionError(char *Function,int Status);
static void DisplayFunctionSuccess(char *Function);
static int OpenStack(HCI_DriverInformation_t *HCI_DriverInformation, BTPS_Initialization_t *BTPS_Initialization);
static int CloseStack(void);
static int SetDisc(void);
static int SetConnect(void);
static int SetPairable(void);
static void DumpAppearanceMappings(void);
static Boolean_t AppearanceToString(Word_t Appearance, char **String);
static Boolean_t AppearanceIndexToAppearance(unsigned int Index, Word_t *Appearance);
static void GAPSPopulateHandles(GAPS_Client_Info_t *ClientInfo, GATT_Service_Discovery_Indication_Data_t *ServiceInfo);
static void SPPLEPopulateHandles(SPPLE_Client_Info_t *ClientInfo, GATT_Service_Discovery_Indication_Data_t *ServiceInfo);
static unsigned int AddDataToBuffer(SPPLE_Data_Buffer_t *DataBuffer, unsigned int DataLength, Byte_t *Data);
static unsigned int RemoveDataFromBuffer(SPPLE_Data_Buffer_t *DataBuffer, unsigned int BufferLength, Byte_t *Buffer);
static void InitializeBuffer(SPPLE_Data_Buffer_t *DataBuffer);
static int EnableDisableNotificationsIndications(unsigned int ConnectionID, Word_t ClientConfigurationHandle, Word_t ClientConfigurationValue, GATT_Client_Event_Callback_t ClientEventCallback);
static unsigned int FillBufferWithString(SPPLE_Data_Buffer_t *DataBuffer, unsigned *CurrentBufferLength, unsigned int MaxLength, Byte_t *Buffer);
static void SPPLESendProcess(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo);
static void SPPLESendCredits(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo, unsigned int DataLength);
static void SPPLEReceiveCreditEvent(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo, unsigned int Credits);
static unsigned int SPPLESendData(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo, unsigned int DataLength, Byte_t *Data);
static void SPPLEDataIndicationEvent(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo, unsigned int DataLength, Byte_t *Data);
static int SPPLEReadData(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo, unsigned int BufferLength, Byte_t *Buffer);
static int StartScan(unsigned int BluetoothStackID);
static int StopScan(unsigned int BluetoothStackID);
static int ConnectLEDevice(unsigned int BluetoothStackID, GAP_LE_Address_Type_t Address_Type, BD_ADDR_t BD_ADDR, Boolean_t UseWhiteList);
static int DisconnectLEDevice(unsigned int BluetoothStackID, BD_ADDR_t BD_ADDR);
static void ConfigureCapabilities(GAP_LE_Pairing_Capabilities_t *Capabilities);
static int SendPairingRequest(BD_ADDR_t BD_ADDR, Boolean_t ConnectionMaster);
static int SlavePairingRequestResponse(BD_ADDR_t BD_ADDR);
static int EncryptionInformationRequestResponse(BD_ADDR_t BD_ADDR, Byte_t KeySize, GAP_LE_Authentication_Response_Information_t *GAP_LE_Authentication_Response_Information);
static int DeleteLinkKey(BD_ADDR_t BD_ADDR);
static int DisplayHelp(ParameterList_t *TempParam);
static int SetLEDiscoverabilityMode(ParameterList_t *TempParam);
static int SetLEConnectabilityMode(ParameterList_t *TempParam);
static int SetLEPairabilityMode(ParameterList_t *TempParam);
static int GetLocalAddress(ParameterList_t *TempParam);
static int SetBaudRate(ParameterList_t *TempParam);
static int ChangeLEPairingParameters(ParameterList_t *TempParam);
static int LEPassKeyResponse(ParameterList_t *TempParam);
static int LEQueryEncryption(ParameterList_t *TempParam);
static int LESetPasskey(ParameterList_t *TempParam);
static int AdvertiseLE(ParameterList_t *TempParam);
static int StartScanning(ParameterList_t *TempParam);
static int StopScanning(ParameterList_t *TempParam);
static int ConnectLE(ParameterList_t *TempParam);
static int DisconnectLE(ParameterList_t *TempParam);
static int PairLE(ParameterList_t *TempParam);
static int DiscoverGAPS(ParameterList_t *TempParam);
static int ReadLocalName(ParameterList_t *TempParam);
static int SetLocalName(ParameterList_t *TempParam);
static int ReadRemoteName(ParameterList_t *TempParam);
static int ReadLocalAppearance(ParameterList_t *TempParam);
static int SetLocalAppearance(ParameterList_t *TempParam);
static int ReadRemoteAppearance(ParameterList_t *TempParam);
static int DiscoverSPPLE(ParameterList_t *TempParam);
static int RegisterSPPLE(ParameterList_t *TempParam);
static int ConfigureSPPLE(ParameterList_t *TempParam);
static int SendDataCommand(ParameterList_t *TempParam);
static int ReadDataCommand(ParameterList_t *TempParam);
static int Loopback(ParameterList_t *TempParam);
static int DisplayRawModeData(ParameterList_t *TempParam);
static int AutomaticReadMode(ParameterList_t *TempParam);
static int Inquiry(ParameterList_t *TempParam);
static int DisplayInquiryList(ParameterList_t *TempParam);
static int SetCBDiscoverabilityMode(ParameterList_t *TempParam);
static int SetCBConnectabilityMode(ParameterList_t *TempParam);
static int SetCBPairabilityMode(ParameterList_t *TempParam);
static int ChangeSimplePairingParameters(ParameterList_t *TempParam);
static int Pair(ParameterList_t *TempParam);
static int EndPairing(ParameterList_t *TempParam);
static int PINCodeResponse(ParameterList_t *TempParam);
static int PassKeyResponse(ParameterList_t *TempParam);
static int UserConfirmationResponse(ParameterList_t *TempParam);
static int GetLocalName(ParameterList_t *TempParam);
static int SetClassOfDevice(ParameterList_t *TempParam);
static int GetClassOfDevice(ParameterList_t *TempParam);
static int GetRemoteName(ParameterList_t *TempParam);
static int SniffMode(ParameterList_t *TempParam);
static int ExitSniffMode(ParameterList_t *TempParam);
static int OpenServer(ParameterList_t *TempParam);
static int CloseServer(ParameterList_t *TempParam);
static int OpenRemoteServer(ParameterList_t *TempParam);
static int CloseRemoteServer(ParameterList_t *TempParam);
static int Read(ParameterList_t *TempParam);
static int Write(ParameterList_t *TempParam);
static int GetConfigParams(ParameterList_t *TempParam);
static int SetConfigParams(ParameterList_t *TempParam);
static int GetQueueParams(ParameterList_t *TempParam);
static int SetQueueParams(ParameterList_t *TempParam);
static int SendData(ParameterList_t *TempParam);
static int ServerMode(ParameterList_t *TempParam);
static int ClientMode(ParameterList_t *TempParam);
static int FindSPPPortIndex(unsigned int SerialPortID);
static int FindSPPPortIndexByServerPortNumber(unsigned int ServerPortNumber);
static int FindSPPPortIndexByAddress(BD_ADDR_t BD_ADDR);
static int FindFreeSPPPortIndex(void);
static int ClosePortByNumber(unsigned int LocalServerPort);
static int FindFreeLEIndex(void);
static int FindLEIndexByAddress(BD_ADDR_t BD_ADDR);
static int FindLEIndexByConnectionID(unsigned int ConnectionID);
static int UpdateConnectionID(unsigned int ConnectionID, BD_ADDR_t BD_ADDR);
static void RemoveConnectionInfo(BD_ADDR_t BD_ADDR);
/* BTPS Callback function prototypes. */
static void BTPSAPI GAP_LE_Event_Callback(unsigned int BluetoothStackID,GAP_LE_Event_Data_t *GAP_LE_Event_Data, unsigned long CallbackParameter);
static void BTPSAPI GATT_ServerEventCallback(unsigned int BluetoothStackID, GATT_Server_Event_Data_t *GATT_ServerEventData, unsigned long CallbackParameter);
static void BTPSAPI GATT_ClientEventCallback_SPPLE(unsigned int BluetoothStackID, GATT_Client_Event_Data_t *GATT_Client_Event_Data, unsigned long CallbackParameter);
static void BTPSAPI GATT_ClientEventCallback_GAPS(unsigned int BluetoothStackID, GATT_Client_Event_Data_t *GATT_Client_Event_Data, unsigned long CallbackParameter);
static void BTPSAPI GATT_Connection_Event_Callback(unsigned int BluetoothStackID, GATT_Connection_Event_Data_t *GATT_Connection_Event_Data, unsigned long CallbackParameter);
static void BTPSAPI GATT_Service_Discovery_Event_Callback(unsigned int BluetoothStackID, GATT_Service_Discovery_Event_Data_t *GATT_Service_Discovery_Event_Data, unsigned long CallbackParameter);
static void BTPSAPI GAP_Event_Callback(unsigned int BluetoothStackID, GAP_Event_Data_t *GAP_Event_Data, unsigned long CallbackParameter);
static void BTPSAPI SPP_Event_Callback(unsigned int BluetoothStackID, SPP_Event_Data_t *SPP_Event_Data, unsigned long CallbackParameter);
static void BTPSAPI HCI_Event_Callback(unsigned int BluetoothStackID, HCI_Event_Data_t *HCI_Event_Data, unsigned long CallbackParameter);
/* The following function adds the specified Entry to the specified */
/* List. This function allocates and adds an entry to the list that */
/* has the same attributes as parameters to this function. This */
/* function will return FALSE if NO Entry was added. This can occur */
/* if the element passed in was deemed invalid or the actual List */
/* Head was invalid. */
/* ** NOTE ** This function does not insert duplicate entries into */
/* the list. An element is considered a duplicate if the */
/* Connection BD_ADDR. When this occurs, this function */
/* returns NULL. */
static Boolean_t CreateNewDeviceInfoEntry(DeviceInfo_t **ListHead, GAP_LE_Address_Type_t ConnectionAddressType, BD_ADDR_t ConnectionBD_ADDR)
{
Boolean_t ret_val = FALSE;
DeviceInfo_t *DeviceInfoPtr;
/* Verify that the passed in parameters seem semi-valid. */
if((ListHead) && (!COMPARE_NULL_BD_ADDR(ConnectionBD_ADDR)))
{
/* Allocate the memory for the entry. */
if((DeviceInfoPtr = BTPS_AllocateMemory(sizeof(DeviceInfo_t))) != NULL)
{
/* Initialize the entry. */
BTPS_MemInitialize(DeviceInfoPtr, 0, sizeof(DeviceInfo_t));
DeviceInfoPtr->ConnectionAddressType = ConnectionAddressType;
DeviceInfoPtr->ConnectionBD_ADDR = ConnectionBD_ADDR;
ret_val = BSC_AddGenericListEntry_Actual(ekBD_ADDR_t, BTPS_STRUCTURE_OFFSET(DeviceInfo_t, ConnectionBD_ADDR), BTPS_STRUCTURE_OFFSET(DeviceInfo_t, NextDeviceInfoInfoPtr), (void **)(ListHead), (void *)(DeviceInfoPtr));
if(!ret_val)
{
/* Failed to add to list so we should free the memory that */
/* we allocated for the entry. */
BTPS_FreeMemory(DeviceInfoPtr);
}
}
}
return(ret_val);
}
/* The following function searches the specified List for the */
/* specified Connection BD_ADDR. This function returns NULL if */
/* either the List Head is invalid, the BD_ADDR is invalid, or the */
/* Connection BD_ADDR was NOT found. */
static DeviceInfo_t *SearchDeviceInfoEntryByBD_ADDR(DeviceInfo_t **ListHead, BD_ADDR_t BD_ADDR)
{
return(BSC_SearchGenericListEntry(ekBD_ADDR_t, (void *)(&BD_ADDR), BTPS_STRUCTURE_OFFSET(DeviceInfo_t, ConnectionBD_ADDR), BTPS_STRUCTURE_OFFSET(DeviceInfo_t, NextDeviceInfoInfoPtr), (void **)(ListHead)));
}
/* The following function searches the specified Key Info List for */
/* the specified BD_ADDR and removes it from the List. This function*/
/* returns NULL if either the List Head is invalid, the BD_ADDR is */
/* invalid, or the specified Entry was NOT present in the list. The */
/* entry returned will have the Next Entry field set to NULL, and */
/* the caller is responsible for deleting the memory associated with */
/* this entry by calling the FreeKeyEntryMemory() function. */
static DeviceInfo_t *DeleteDeviceInfoEntry(DeviceInfo_t **ListHead, BD_ADDR_t BD_ADDR)
{
return(BSC_DeleteGenericListEntry(ekBD_ADDR_t, (void *)(&BD_ADDR), BTPS_STRUCTURE_OFFSET(DeviceInfo_t, ConnectionBD_ADDR), BTPS_STRUCTURE_OFFSET(DeviceInfo_t, NextDeviceInfoInfoPtr), (void **)(ListHead)));
}
/* This function frees the specified Key Info Information member */
/* memory. */
static void FreeDeviceInfoEntryMemory(DeviceInfo_t *EntryToFree)
{
BSC_FreeGenericListEntryMemory((void *)(EntryToFree));
}
/* The following function deletes (and free's all memory) every */
/* element of the specified Key Info List. Upon return of this */
/* function, the Head Pointer is set to NULL. */
static void FreeDeviceInfoList(DeviceInfo_t **ListHead)
{
BSC_FreeGenericListEntryList((void **)(ListHead), BTPS_STRUCTURE_OFFSET(DeviceInfo_t, NextDeviceInfoInfoPtr));
}
/* This function is responsible for taking the input from the user */
/* and dispatching the appropriate Command Function. First, this */
/* function retrieves a String of user input, parses the user input */
/* into Command and Parameters, and finally executes the Command or */
/* Displays an Error Message if the input is not a valid Command. */
static void UserInterface_Client(void)
{
/* Next display the available commands. */
DisplayHelp(NULL);
ClearCommands();
AddCommand("INQUIRY", Inquiry);
AddCommand("DISPLAYINQUIRYLIST", DisplayInquiryList);
AddCommand("PAIR", Pair);
AddCommand("ENDPAIRING", EndPairing);
AddCommand("PINCODERESPONSE", PINCodeResponse);
AddCommand("PASSKEYRESPONSE", PassKeyResponse);
AddCommand("USERCONFIRMATIONRESPONSE", UserConfirmationResponse);
AddCommand("SETDISCOVERABILITYMODE", SetCBDiscoverabilityMode);
AddCommand("SETCONNECTABILITYMODE", SetCBConnectabilityMode);
AddCommand("SETPAIRABILITYMODE", SetCBPairabilityMode);
AddCommand("CHANGESIMPLEPAIRINGPARAMETERS", ChangeSimplePairingParameters);
AddCommand("GETLOCALADDRESS", GetLocalAddress);
AddCommand("SETLOCALNAME", SetLocalName);
AddCommand("GETLOCALNAME", GetLocalName);
AddCommand("SETCLASSOFDEVICE", SetClassOfDevice);
AddCommand("GETCLASSOFDEVICE", GetClassOfDevice);
AddCommand("GETREMOTENAME", GetRemoteName);
AddCommand("SNIFFMODE", SniffMode);
AddCommand("EXITSNIFFMODE", ExitSniffMode);
AddCommand("OPEN", OpenRemoteServer);
AddCommand("CLOSE", CloseRemoteServer);
AddCommand("READ", Read);
AddCommand("WRITE", Write);
AddCommand("GETCONFIGPARAMS", GetConfigParams);
AddCommand("SETCONFIGPARAMS", SetConfigParams);
AddCommand("GETQUEUEPARAMS", GetQueueParams);
AddCommand("SETQUEUEPARAMS", SetQueueParams);
AddCommand("LOOPBACK", Loopback);
AddCommand("DISPLAYRAWMODEDATA", DisplayRawModeData);
AddCommand("AUTOMATICREADMODE", AutomaticReadMode);
AddCommand("SETBAUDRATE", SetBaudRate);
AddCommand("CBSEND", SendData);
AddCommand("SETDISCOVERABILITYMODE", SetLEDiscoverabilityMode);
AddCommand("SETCONNECTABILITYMODE", SetLEConnectabilityMode);
AddCommand("SETPAIRABILITYMODE", SetLEPairabilityMode);
AddCommand("CHANGEPAIRINGPARAMETERS", ChangeLEPairingParameters);
AddCommand("ADVERTISELE", AdvertiseLE);
AddCommand("STARTSCANNING", StartScanning);
AddCommand("STOPSCANNING", StopScanning);
AddCommand("CONNECTLE", ConnectLE);
AddCommand("DISCONNECTLE", DisconnectLE);
AddCommand("PAIRLE", PairLE);
AddCommand("LEPASSKEYRESPONSE", LEPassKeyResponse);
AddCommand("QUERYENCRYPTIONMODE", LEQueryEncryption);
AddCommand("SETPASSKEY", LESetPasskey);
AddCommand("DISCOVERSPPLE", DiscoverSPPLE);
AddCommand("REGISTERSPPLE", RegisterSPPLE);
AddCommand("CONFIGURESPPLE", ConfigureSPPLE);
AddCommand("DISCOVERGAPS", DiscoverGAPS);
AddCommand("GETLOCALNAME", ReadLocalName);
AddCommand("GETLEREMOTENAME", ReadRemoteName);
AddCommand("GETLOCALAPPEARANCE", ReadLocalAppearance);
AddCommand("SETLOCALAPPEARANCE", SetLocalAppearance);
AddCommand("GETREMOTEAPPEARANCE", ReadRemoteAppearance);
AddCommand("LESEND", SendDataCommand);
AddCommand("LEREAD", ReadDataCommand);
AddCommand("HELP", DisplayHelp);
}
/* This function is responsible for taking the input from the user */
/* and dispatching the appropriate Command Function. First, this */
/* function retrieves a String of user input, parses the user input */
/* into Command and Parameters, and finally executes the Command or */
/* Displays an Error Message if the input is not a valid Command. */
static void UserInterface_Server(void)
{
/* Next display the available commands. */
DisplayHelp(NULL);
/* Clear the installed command. */
ClearCommands();
/* Install the commands revelant for this UI. */
AddCommand("INQUIRY", Inquiry);
AddCommand("DISPLAYINQUIRYLIST", DisplayInquiryList);
AddCommand("PAIR", Pair);
AddCommand("ENDPAIRING", EndPairing);
AddCommand("PINCODERESPONSE", PINCodeResponse);
AddCommand("PASSKEYRESPONSE", PassKeyResponse);
AddCommand("USERCONFIRMATIONRESPONSE", UserConfirmationResponse);
AddCommand("SETCBDISCOVERABILITYMODE", SetCBDiscoverabilityMode);
AddCommand("SETCBCONNECTABILITYMODE", SetCBConnectabilityMode);
AddCommand("SETCBPAIRABILITYMODE", SetCBPairabilityMode);
AddCommand("CHANGESIMPLEPAIRINGPARAMETERS", ChangeSimplePairingParameters);
AddCommand("GETLOCALADDRESS", GetLocalAddress);
AddCommand("SETLOCALNAME", SetLocalName);
AddCommand("GETLOCALNAME", GetLocalName);
AddCommand("SETCLASSOFDEVICE", SetClassOfDevice);
AddCommand("GETCLASSOFDEVICE", GetClassOfDevice);
AddCommand("GETREMOTENAME", GetRemoteName);
AddCommand("SNIFFMODE", SniffMode);
AddCommand("EXITSNIFFMODE", ExitSniffMode);
AddCommand("OPEN", OpenServer);
AddCommand("CLOSE", CloseServer);
AddCommand("READ", Read);
AddCommand("WRITE", Write);
AddCommand("GETCONFIGPARAMS", GetConfigParams);
AddCommand("SETCONFIGPARAMS", SetConfigParams);
AddCommand("GETQUEUEPARAMS", GetQueueParams);
AddCommand("SETQUEUEPARAMS", SetQueueParams);
AddCommand("LOOPBACK", Loopback);
AddCommand("DISPLAYRAWMODEDATA", DisplayRawModeData);
AddCommand("AUTOMATICREADMODE", AutomaticReadMode);
AddCommand("SETBAUDRATE", SetBaudRate);
AddCommand("CBSEND", SendData);
AddCommand("SETDISCOVERABILITYMODE", SetLEDiscoverabilityMode);
AddCommand("SETCONNECTABILITYMODE", SetLEConnectabilityMode);
AddCommand("SETPAIRABILITYMODE", SetLEPairabilityMode);
AddCommand("CHANGEPAIRINGPARAMETERS", ChangeLEPairingParameters);
AddCommand("ADVERTISELE", AdvertiseLE);
AddCommand("STARTSCANNING", StartScanning);
AddCommand("STOPSCANNING", StopScanning);
AddCommand("CONNECTLE", ConnectLE);
AddCommand("DISCONNECTLE", DisconnectLE);
AddCommand("PAIRLE", PairLE);
AddCommand("LEPASSKEYRESPONSE", LEPassKeyResponse);
AddCommand("QUERYENCRYPTIONMODE", LEQueryEncryption);
AddCommand("SETPASSKEY", LESetPasskey);
AddCommand("DISCOVERSPPLE", DiscoverSPPLE);
AddCommand("REGISTERSPPLE", RegisterSPPLE);
AddCommand("CONFIGURESPPLE", ConfigureSPPLE);
AddCommand("DISCOVERGAPS", DiscoverGAPS);
AddCommand("GETLOCALNAME", ReadLocalName);
AddCommand("GETLEREMOTENAME", ReadRemoteName);
AddCommand("GETLOCALAPPEARANCE", ReadLocalAppearance);
AddCommand("SETLOCALAPPEARANCE", SetLocalAppearance);
AddCommand("GETREMOTEAPPEARANCE", ReadRemoteAppearance);
AddCommand("LESEND", SendDataCommand);
AddCommand("LEREAD", ReadDataCommand);
AddCommand("HELP", DisplayHelp);
}
/* The following function is responsible for choosing the user */
/* interface to present to the user. */
static void UserInterface_Selection(void)
{
/* Next display the available commands. */
DisplayHelp(NULL);
ClearCommands();
AddCommand("SERVER", ServerMode);
AddCommand("CLIENT", ClientMode);
AddCommand("HELP", DisplayHelp);
}
/* The following function is responsible for parsing user input */
/* and call appropriate command function. */
static Boolean_t CommandLineInterpreter(char *Command)
{
int Result = !EXIT_CODE;
Boolean_t ret_val = FALSE;
UserCommand_t TempCommand;
/* The string input by the user contains a value, now run the string */
/* through the Command Parser. */
if(CommandParser(&TempCommand, Command) >= 0)
{
Display(("\r\n"));
/* The Command was successfully parsed run the Command. */
Result = CommandInterpreter(&TempCommand);
switch(Result)
{
case INVALID_COMMAND_ERROR:
Display(("Invalid Command: %s.\r\n", TempCommand.Command));
break;
case FUNCTION_ERROR:
Display(("Function Error.\r\n"));
break;
case EXIT_CODE:
/* Close all connected ports. */
if(UI_Mode == UI_MODE_IS_SERVER)
CloseServer(NULL);
else
{
if(UI_Mode == UI_MODE_IS_CLIENT)
CloseRemoteServer(NULL);
}
/* Restart the User Interface Selection. */
UI_Mode = UI_MODE_SELECT;
/* Set up the Selection Interface. */
UserInterface_Selection();
break;
}
/* Display a prompt. */
DisplayPrompt();
/* Flag that a command was executed. */
ret_val = TRUE;
}
else
{
/* Display a prompt. */
DisplayPrompt();
Display(("\r\nInvalid Command.\r\n"));
}
return(ret_val);
}
/* The following function is responsible for converting number */
/* strings to there unsigned integer equivalent. This function can */
/* handle leading and tailing white space, however it does not handle*/
/* signed or comma delimited values. This function takes as its */
/* input the string which is to be converted. The function returns */
/* zero if an error occurs otherwise it returns the value parsed from*/
/* the string passed as the input parameter. */
static unsigned long StringToUnsignedInteger(char *StringInteger)
{
int IsHex;
unsigned long Index;
unsigned long ret_val = 0;
/* Before proceeding make sure that the parameter that was passed as */
/* an input appears to be at least semi-valid. */
if((StringInteger) && (BTPS_StringLength(StringInteger)))
{
/* Initialize the variable. */
Index = 0;
/* Next check to see if this is a hexadecimal number. */
if(BTPS_StringLength(StringInteger) > 2)
{
if((StringInteger[0] == '0') && ((StringInteger[1] == 'x') || (StringInteger[1] == 'X')))
{
IsHex = 1;
/* Increment the String passed the Hexadecimal prefix. */
StringInteger += 2;
}
else
IsHex = 0;
}
else
IsHex = 0;
/* Process the value differently depending on whether or not a */
/* Hexadecimal Number has been specified. */
if(!IsHex)
{
/* Decimal Number has been specified. */
while(1)
{
/* First check to make sure that this is a valid decimal */
/* digit. */
if((StringInteger[Index] >= '0') && (StringInteger[Index] <= '9'))
{
/* This is a valid digit, add it to the value being */
/* built. */
ret_val += (StringInteger[Index] & 0xF);
/* Determine if the next digit is valid. */
if(((Index + 1) < BTPS_StringLength(StringInteger)) && (StringInteger[Index+1] >= '0') && (StringInteger[Index+1] <= '9'))
{
/* The next digit is valid so multiply the current */
/* return value by 10. */
ret_val *= 10;
}
else
{
/* The next value is invalid so break out of the loop.*/
break;
}
}
Index++;
}
}
else
{
/* Hexadecimal Number has been specified. */
while(1)
{
/* First check to make sure that this is a valid Hexadecimal*/
/* digit. */
if(((StringInteger[Index] >= '0') && (StringInteger[Index] <= '9')) || ((StringInteger[Index] >= 'a') && (StringInteger[Index] <= 'f')) || ((StringInteger[Index] >= 'A') && (StringInteger[Index] <= 'F')))
{
/* This is a valid digit, add it to the value being */
/* built. */
if((StringInteger[Index] >= '0') && (StringInteger[Index] <= '9'))
ret_val += (StringInteger[Index] & 0xF);
else
{
if((StringInteger[Index] >= 'a') && (StringInteger[Index] <= 'f'))
ret_val += (StringInteger[Index] - 'a' + 10);
else
ret_val += (StringInteger[Index] - 'A' + 10);
}
/* Determine if the next digit is valid. */
if(((Index + 1) < BTPS_StringLength(StringInteger)) && (((StringInteger[Index+1] >= '0') && (StringInteger[Index+1] <= '9')) || ((StringInteger[Index+1] >= 'a') && (StringInteger[Index+1] <= 'f')) || ((StringInteger[Index+1] >= 'A') && (StringInteger[Index+1] <= 'F'))))
{
/* The next digit is valid so multiply the current */
/* return value by 16. */
ret_val *= 16;
}
else
{
/* The next value is invalid so break out of the loop.*/
break;
}
}
Index++;
}
}
}
return(ret_val);
}
/* The following function is responsible for parsing strings into */
/* components. The first parameter of this function is a pointer to */
/* the String to be parsed. This function will return the start of */
/* the string upon success and a NULL pointer on all errors. */
static char *StringParser(char *String)
{
int Index;
char *ret_val = NULL;
/* Before proceeding make sure that the string passed in appears to */
/* be at least semi-valid. */
if((String) && (BTPS_StringLength(String)))
{
/* The string appears to be at least semi-valid. Search for the */
/* first space character and replace it with a NULL terminating */
/* character. */
for(Index=0, ret_val=String;Index < BTPS_StringLength(String);Index++)
{
/* Is this the space character. */
if((String[Index] == ' ') || (String[Index] == '\r') || (String[Index] == '\n'))
{
/* This is the space character, replace it with a NULL */
/* terminating character and set the return value to the */
/* begining character of the string. */
String[Index] = '\0';
break;
}
}
}
return(ret_val);
}
/* This function is responsable for taking command strings and */
/* parsing them into a command, param1, and param2. After parsing */
/* this string the data is stored into a UserCommand_t structure to */
/* be used by the interpreter. The first parameter of this function */
/* is the structure used to pass the parsed command string out of the*/
/* function. The second parameter of this function is the string */
/* that is parsed into the UserCommand structure. Successful */
/* execution of this function is denoted by a retrun value of zero. */
/* Negative return values denote an error in the parsing of the */
/* string parameter. */
static int CommandParser(UserCommand_t *TempCommand, char *Input)
{
int ret_val;
int StringLength;
char *LastParameter;
unsigned int Count = 0;
/* Before proceeding make sure that the passed parameters appear to */
/* be at least semi-valid. */
if((TempCommand) && (Input) && (BTPS_StringLength(Input)))
{
/* First get the initial string length. */
StringLength = BTPS_StringLength(Input);
/* Retrieve the first token in the string, this should be the */
/* commmand. */
TempCommand->Command = StringParser(Input);
/* Flag that there are NO Parameters for this Command Parse. */
TempCommand->Parameters.NumberofParameters = 0;
/* Check to see if there is a Command */
if(TempCommand->Command)
{
/* Initialize the return value to zero to indicate success on */
/* commands with no parameters. */
ret_val = 0;
/* Adjust the UserInput pointer and StringLength to remove the */
/* Command from the data passed in before parsing the */
/* parameters. */
Input += BTPS_StringLength(TempCommand->Command)+1;
StringLength = BTPS_StringLength(Input);
/* There was an available command, now parse out the parameters*/
while((StringLength > 0) && ((LastParameter = StringParser(Input)) != NULL))
{
/* There is an available parameter, now check to see if */
/* there is room in the UserCommand to store the parameter */
if(Count < (sizeof(TempCommand->Parameters.Params)/sizeof(Parameter_t)))
{
/* Save the parameter as a string. */
TempCommand->Parameters.Params[Count].strParam = LastParameter;
/* Save the parameter as an unsigned int intParam will */
/* have a value of zero if an error has occurred. */
TempCommand->Parameters.Params[Count].intParam = StringToUnsignedInteger(LastParameter);
Count++;
Input += BTPS_StringLength(LastParameter)+1;
StringLength -= BTPS_StringLength(LastParameter)+1;
ret_val = 0;
}
else
{
/* Be sure we exit out of the Loop. */
StringLength = 0;
ret_val = TO_MANY_PARAMS;
}
}
/* Set the number of parameters in the User Command to the */
/* number of found parameters */
TempCommand->Parameters.NumberofParameters = Count;
}
else
{
/* No command was specified */
ret_val = NO_COMMAND_ERROR;
}
}
else
{
/* One or more of the passed parameters appear to be invalid. */
ret_val = INVALID_PARAMETERS_ERROR;
}
return(ret_val);
}
/* This function is responsible for determining the command in which */
/* the user entered and running the appropriate function associated */
/* with that command. The first parameter of this function is a */
/* structure containing information about the commmand to be issued. */
/* This information includes the command name and multiple parameters*/
/* which maybe be passed to the function to be executed. Successful */
/* execution of this function is denoted by a return value of zero. */
/* A negative return value implies that that command was not found */
/* and is invalid. */
static int CommandInterpreter(UserCommand_t *TempCommand)
{
int i;
int ret_val;
CommandFunction_t CommandFunction;
/* If the command is not found in the table return with an invaild */
/* command error */
ret_val = INVALID_COMMAND_ERROR;
/* Let's make sure that the data passed to us appears semi-valid. */
if((TempCommand) && (TempCommand->Command))
{
/* Now, let's make the Command string all upper case so that we */
/* compare against it. */
for(i=0;i<BTPS_StringLength(TempCommand->Command);i++)
{
if((TempCommand->Command[i] >= 'a') && (TempCommand->Command[i] <= 'z'))
TempCommand->Command[i] -= ('a' - 'A');
}
/* Check to see if the command which was entered was exit. */
if(BTPS_MemCompare(TempCommand->Command, "QUIT", BTPS_StringLength("QUIT")) != 0)
{
/* The command entered is not exit so search for command in */
/* table. */
if((CommandFunction = FindCommand(TempCommand->Command)) != NULL)
{
/* The command was found in the table so call the command. */
if((ret_val = ((*CommandFunction)(&TempCommand->Parameters))) == 0)
{
/* Return success to the caller. */
ret_val = 0;
}
else
{
if ((ret_val != EXIT_CODE) && (ret_val != EXIT_TEST_MODE))
ret_val = FUNCTION_ERROR;
}
}
}
else
{
/* The command entered is exit, set return value to EXIT_CODE */
/* and return. */
ret_val = EXIT_CODE;
}
}
else
ret_val = INVALID_PARAMETERS_ERROR;
return(ret_val);
}
/* The following function is provided to allow a means to */
/* programatically add Commands the Global (to this module) Command */
/* Table. The Command Table is simply a mapping of Command Name */
/* (NULL terminated ASCII string) to a command function. This */
/* function returns zero if successful, or a non-zero value if the */
/* command could not be added to the list. */
static int AddCommand(char *CommandName, CommandFunction_t CommandFunction)
{
int ret_val = 0;
/* First, make sure that the parameters passed to us appear to be */
/* semi-valid. */
if((CommandName) && (CommandFunction))
{
/* Next, make sure that we still have room in the Command Table */
/* to add commands. */
if(NumberCommands < MAX_SUPPORTED_COMMANDS)
{
/* Simply add the command data to the command table and */
/* increment the number of supported commands. */
CommandTable[NumberCommands].CommandName = CommandName;
CommandTable[NumberCommands++].CommandFunction = CommandFunction;
/* Return success to the caller. */
ret_val = 0;
}
else
ret_val = 1;
}
else
ret_val = 1;
return(ret_val);
}
/* The following function searches the Command Table for the */
/* specified Command. If the Command is found, this function returns*/
/* a NON-NULL Command Function Pointer. If the command is not found */
/* this function returns NULL. */
static CommandFunction_t FindCommand(char *Command)
{
unsigned int Index;
CommandFunction_t ret_val;
/* First, make sure that the command specified is semi-valid. */
if(Command)
{
/* Now loop through each element in the table to see if there is */
/* a match. */
for(Index=0,ret_val=NULL;((Index<NumberCommands) && (!ret_val));Index++)
{
if((BTPS_StringLength(CommandTable[Index].CommandName) == BTPS_StringLength(Command)) && (BTPS_MemCompare(Command, CommandTable[Index].CommandName, BTPS_StringLength(CommandTable[Index].CommandName)) == 0))
ret_val = CommandTable[Index].CommandFunction;
}
}
else
ret_val = NULL;
return(ret_val);
}
/* The following function is provided to allow a means to clear out */
/* all available commands from the command table. */
static void ClearCommands(void)
{
/* Simply flag that there are no commands present in the table. */
NumberCommands = 0;
}
/* The following function is responsible for converting data of type */
/* BD_ADDR to a string. The first parameter of this function is the */
/* BD_ADDR to be converted to a string. The second parameter of this*/
/* function is a pointer to the string in which the converted BD_ADDR*/
/* is to be stored. */
static void BD_ADDRToStr(BD_ADDR_t Board_Address, BoardStr_t BoardStr)
{
BTPS_SprintF((char *)BoardStr, "0x%02X%02X%02X%02X%02X%02X", Board_Address.BD_ADDR5, Board_Address.BD_ADDR4, Board_Address.BD_ADDR3, Board_Address.BD_ADDR2, Board_Address.BD_ADDR1, Board_Address.BD_ADDR0);
}
/* The following function is responsible for the specified string */
/* into data of type BD_ADDR. The first parameter of this function */
/* is the BD_ADDR string to be converted to a BD_ADDR. The second */
/* parameter of this function is a pointer to the BD_ADDR in which */
/* the converted BD_ADDR String is to be stored. */
static void StrToBD_ADDR(char *BoardStr, BD_ADDR_t *Board_Address)
{
char *TempPtr;
unsigned int StringLength;
unsigned int Index;
unsigned char Value;
if((BoardStr) && ((StringLength = BTPS_StringLength(BoardStr)) >= (sizeof(BD_ADDR_t) * 2)) && (Board_Address))
{
TempPtr = BoardStr;
if((StringLength >= (sizeof(BD_ADDR_t) * 2) + 2) && (TempPtr[0] == '0') && ((TempPtr[1] == 'x') || (TempPtr[1] == 'X')))
TempPtr += 2;
for(Index=0;Index<6;Index++)
{
Value = (char)(ToInt(*TempPtr) * 0x10);
TempPtr++;
Value += (char)ToInt(*TempPtr);
TempPtr++;
((char *)Board_Address)[5-Index] = (Byte_t)Value;
}
}
else
{
if(Board_Address)
BTPS_MemInitialize(Board_Address, 0, sizeof(BD_ADDR_t));
}
}
/* Displays the current I/O Capabilities. */
static void DisplayIOCapabilities(void)
{
Display(("LE: I/O Capabilities: %s, MITM: %s.\r\n", IOCapabilitiesStrings[(unsigned int)(LE_Parameters.IOCapability - licDisplayOnly)], LE_Parameters.MITMProtection?"TRUE":"FALSE"));
Display(("BR/EDR: I/O Capabilities: %s, MITM: %s.\r\n", IOCapabilitiesStrings[(unsigned int)(IOCapability - icDisplayOnly)], MITMProtection?"TRUE":"FALSE"));
}
/* Utility function to display a Class of Device Structure. */
static void DisplayClassOfDevice(Class_of_Device_t Class_of_Device)
{
Display(("Class of Device: 0x%02X%02X%02X.\r\n", Class_of_Device.Class_of_Device0, Class_of_Device.Class_of_Device1, Class_of_Device.Class_of_Device2));
}
/* Utility function to display advertising data. */
static void DisplayAdvertisingData(GAP_LE_Advertising_Data_t *Advertising_Data)
{
unsigned int Index;
unsigned int Index2;
/* Verify that the input parameters seem semi-valid. */
if(Advertising_Data)
{
for(Index = 0; Index < Advertising_Data->Number_Data_Entries; Index++)
{
Display((" AD Type: 0x%02X.\r\n", Advertising_Data->Data_Entries[Index].AD_Type));
Display((" AD Length: 0x%02X.\r\n", Advertising_Data->Data_Entries[Index].AD_Data_Length));
if(Advertising_Data->Data_Entries[Index].AD_Data_Buffer)
{
Display((" AD Data: "));
for(Index2 = 0; Index2 < Advertising_Data->Data_Entries[Index].AD_Data_Length; Index2++)
{
Display(("0x%02X ", Advertising_Data->Data_Entries[Index].AD_Data_Buffer[Index2]));
}
Display(("\r\n"));
}
}
}
}
/* The following function displays the pairing capabalities that is */
/* passed into this function. */
static void DisplayPairingInformation(GAP_LE_Pairing_Capabilities_t Pairing_Capabilities)
{
/* Display the IO Capability. */
switch(Pairing_Capabilities.IO_Capability)
{
case licDisplayOnly:
Display((" IO Capability: lcDisplayOnly.\r\n"));
break;
case licDisplayYesNo:
Display((" IO Capability: lcDisplayYesNo.\r\n"));
break;
case licKeyboardOnly:
Display((" IO Capability: lcKeyboardOnly.\r\n"));
break;
case licNoInputNoOutput:
Display((" IO Capability: lcNoInputNoOutput.\r\n"));
break;
case licKeyboardDisplay:
Display((" IO Capability: lcKeyboardDisplay.\r\n"));
break;
}
Display((" MITM: %s.\r\n", (Pairing_Capabilities.MITM == TRUE)?"TRUE":"FALSE"));
Display((" Bonding Type: %s.\r\n", (Pairing_Capabilities.Bonding_Type == lbtBonding)?"Bonding":"No Bonding"));
Display((" OOB: %s.\r\n", (Pairing_Capabilities.OOB_Present == TRUE)?"OOB":"OOB Not Present"));
Display((" Encryption Key Size: %d.\r\n", Pairing_Capabilities.Maximum_Encryption_Key_Size));
Display((" Sending Keys: \r\n"));
Display((" LTK: %s.\r\n", ((Pairing_Capabilities.Sending_Keys.Encryption_Key == TRUE)?"YES":"NO")));
Display((" IRK: %s.\r\n", ((Pairing_Capabilities.Sending_Keys.Identification_Key == TRUE)?"YES":"NO")));
Display((" CSRK: %s.\r\n", ((Pairing_Capabilities.Sending_Keys.Signing_Key == TRUE)?"YES":"NO")));
Display((" Receiving Keys: \r\n"));
Display((" LTK: %s.\r\n", ((Pairing_Capabilities.Receiving_Keys.Encryption_Key == TRUE)?"YES":"NO")));
Display((" IRK: %s.\r\n", ((Pairing_Capabilities.Receiving_Keys.Identification_Key == TRUE)?"YES":"NO")));
Display((" CSRK: %s.\r\n", ((Pairing_Capabilities.Receiving_Keys.Signing_Key == TRUE)?"YES":"NO")));
}
/* The following function is provided to properly print a UUID. */
static void DisplayUUID(GATT_UUID_t *UUID)
{
if(UUID)
{
if(UUID->UUID_Type == guUUID_16)
Display(("%02X%02X", UUID->UUID.UUID_16.UUID_Byte1, UUID->UUID.UUID_16.UUID_Byte0));
else
{
if(UUID->UUID_Type == guUUID_128)
{
Display(("%02X%02X%02X%02X%02X%02X%02X%02X%02X%02X%02X%02X%02X%02X%02X%02X", UUID->UUID.UUID_128.UUID_Byte15, UUID->UUID.UUID_128.UUID_Byte14, UUID->UUID.UUID_128.UUID_Byte13,
UUID->UUID.UUID_128.UUID_Byte12, UUID->UUID.UUID_128.UUID_Byte11, UUID->UUID.UUID_128.UUID_Byte10,
UUID->UUID.UUID_128.UUID_Byte9, UUID->UUID.UUID_128.UUID_Byte8, UUID->UUID.UUID_128.UUID_Byte7,
UUID->UUID.UUID_128.UUID_Byte6, UUID->UUID.UUID_128.UUID_Byte5, UUID->UUID.UUID_128.UUID_Byte4,
UUID->UUID.UUID_128.UUID_Byte3, UUID->UUID.UUID_128.UUID_Byte2, UUID->UUID.UUID_128.UUID_Byte1,
UUID->UUID.UUID_128.UUID_Byte0));
}
}
}
Display((".\r\n"));
}
/* Displays the correct prompt depening on the Server/Client Mode. */
static void DisplayPrompt(void)
{
// Display(("\r\nSPP+LE>"));
}
/* Displays a usage string.. */
static void DisplayUsage(char *UsageString)
{
Display(("Usage: %s.\r\n",UsageString));
}
/* Displays a function error message. */
static void DisplayFunctionError(char *Function,int Status)
{
Display(("%s Failed: %d.\r\n", Function, Status));
}
/* Displays a function success message. */
static void DisplayFunctionSuccess(char *Function)
{
Display(("%s success.\r\n",Function));
}
/* The following function is responsible for opening the SS1 */
/* Bluetooth Protocol Stack. This function accepts a pre-populated */
/* HCI Driver Information structure that contains the HCI Driver */
/* Transport Information. This function returns zero on successful */
/* execution and a negative value on all errors. */
static int OpenStack(HCI_DriverInformation_t *HCI_DriverInformation, BTPS_Initialization_t *BTPS_Initialization)
{
int i;
int Result;
int ret_val = 0;
char BluetoothAddress[16];
Byte_t Status;
Byte_t NumberLEPackets;
Word_t LEPacketLength;
BD_ADDR_t BD_ADDR;
unsigned int ServiceID;
HCI_Version_t HCIVersion;
L2CA_Link_Connect_Params_t L2CA_Link_Connect_Params;
/* First check to see if the Stack has already been opened. */
if(!BluetoothStackID)
{
/* Next, makes sure that the Driver Information passed appears to */
/* be semi-valid. */
if(HCI_DriverInformation)
{
Display(("\r\n"));
/* Initialize BTPSKNRl. */
BTPS_Init((void *)BTPS_Initialization);
Display(("OpenStack().\r\n"));
/* Initialize the Stack */
Result = BSC_Initialize(HCI_DriverInformation, 0);
/* Next, check the return value of the initialization to see */
/* if it was successful. */
if(Result > 0)
{
/* The Stack was initialized successfully, inform the user */
/* and set the return value of the initialization function */
/* to the Bluetooth Stack ID. */
BluetoothStackID = Result;
Display(("Bluetooth Stack ID: %d.\r\n", BluetoothStackID));
/* Initialize the Default Pairing Parameters. */
LE_Parameters.IOCapability = DEFAULT_LE_IO_CAPABILITY;
LE_Parameters.MITMProtection = DEFAULT_LE_MITM_PROTECTION;
LE_Parameters.OOBDataPresent = FALSE;
/* Initialize the default Secure Simple Pairing parameters. */
IOCapability = DEFAULT_IO_CAPABILITY;
OOBSupport = FALSE;
MITMProtection = DEFAULT_MITM_PROTECTION;
if(!HCI_Version_Supported(BluetoothStackID, &HCIVersion))
Display(("Device Chipset: %s.\r\n", (HCIVersion <= NUM_SUPPORTED_HCI_VERSIONS)?HCIVersionStrings[HCIVersion]:HCIVersionStrings[NUM_SUPPORTED_HCI_VERSIONS]));
/* Let's output the Bluetooth Device Address so that the */
/* user knows what the Device Address is. */
if(!GAP_Query_Local_BD_ADDR(BluetoothStackID, &BD_ADDR))
{
BD_ADDRToStr(BD_ADDR, BluetoothAddress);
Display(("BD_ADDR: %s\r\n", BluetoothAddress));
}
if(HCI_Command_Supported(BluetoothStackID, HCI_SUPPORTED_COMMAND_WRITE_DEFAULT_LINK_POLICY_BIT_NUMBER) > 0)
HCI_Write_Default_Link_Policy_Settings(BluetoothStackID, (HCI_LINK_POLICY_SETTINGS_ENABLE_MASTER_SLAVE_SWITCH|HCI_LINK_POLICY_SETTINGS_ENABLE_SNIFF_MODE), &Status);
/* Go ahead and allow Master/Slave Role Switch. */
L2CA_Link_Connect_Params.L2CA_Link_Connect_Request_Config = cqAllowRoleSwitch;
L2CA_Link_Connect_Params.L2CA_Link_Connect_Response_Config = csMaintainCurrentRole;
L2CA_Set_Link_Connection_Configuration(BluetoothStackID, &L2CA_Link_Connect_Params);
if(HCI_Command_Supported(BluetoothStackID, HCI_SUPPORTED_COMMAND_WRITE_DEFAULT_LINK_POLICY_BIT_NUMBER) > 0)
HCI_Write_Default_Link_Policy_Settings(BluetoothStackID, (HCI_LINK_POLICY_SETTINGS_ENABLE_MASTER_SLAVE_SWITCH|HCI_LINK_POLICY_SETTINGS_ENABLE_SNIFF_MODE), &Status);
/* Delete all Stored Link Keys. */
ASSIGN_BD_ADDR(BD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
DeleteLinkKey(BD_ADDR);
GAP_Set_Local_Device_Name(BluetoothStackID, // sets the name BTMOD to bluetooth device.
LE_DEMO_DEVICE_NAME);
/* Flag that no connection is currently active. */
ASSIGN_BD_ADDR(CurrentLERemoteBD_ADDR, 0, 0, 0, 0, 0, 0);
ASSIGN_BD_ADDR(CurrentCBRemoteBD_ADDR, 0, 0, 0, 0, 0, 0);
LocalDeviceIsMaster = TRUE;
for(i=0; i<MAX_LE_CONNECTIONS; i++)
{
LEContextInfo[i].ConnectionID = 0;
ASSIGN_BD_ADDR(LEContextInfo[i].ConnectionBD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
}
/* Regenerate IRK and DHK from the constant Identity Root */
/* Key. */
GAP_LE_Diversify_Function(BluetoothStackID, (Encryption_Key_t *)(&IR), 1,0, &IRK);
GAP_LE_Diversify_Function(BluetoothStackID, (Encryption_Key_t *)(&IR), 3, 0, &DHK);
/* Flag that we have no Key Information in the Key List. */
DeviceInfoList = NULL;
/* Initialize the GATT Service. */
if((Result = GATT_Initialize(BluetoothStackID, GATT_INITIALIZATION_FLAGS_SUPPORT_LE, GATT_Connection_Event_Callback, 0)) == 0)
{
/* Determine the number of LE packets that the controller*/
/* will accept at a time. */
if((!HCI_LE_Read_Buffer_Size(BluetoothStackID, &Status, &LEPacketLength, &NumberLEPackets)) && (!Status) && (LEPacketLength))
{
NumberLEPackets = (NumberLEPackets/MAX_LE_CONNECTIONS);
NumberLEPackets = (NumberLEPackets == 0)?1:NumberLEPackets;
}
else
NumberLEPackets = 1;
/* Set a limit on the number of packets that we will */
/* queue internally. */
GATT_Set_Queuing_Parameters(BluetoothStackID, (unsigned int)NumberLEPackets, (unsigned int)(NumberLEPackets-1), FALSE);
/* Initialize the GAPS Service. */
Result = GAPS_Initialize_Service(BluetoothStackID, &ServiceID);
if(Result > 0)
{
/* Save the Instance ID of the GAP Service. */
GAPSInstanceID = (unsigned int)Result;
/* Set the GAP Device Name and Device Appearance. */
GAPS_Set_Device_Name(BluetoothStackID, GAPSInstanceID, LE_DEMO_DEVICE_NAME);
GAPS_Set_Device_Appearance(BluetoothStackID, GAPSInstanceID, GAP_DEVICE_APPEARENCE_VALUE_GENERIC_COMPUTER);
/* Return success to the caller. */
ret_val = 0;
}
else
{
/* The Stack was NOT initialized successfully, inform */
/* the user and set the return value of the */
/* initialization function to an error. */
DisplayFunctionError("GAPS_Initialize_Service", Result);
/* Cleanup GATT Module. */
GATT_Cleanup(BluetoothStackID);
BluetoothStackID = 0;
ret_val = UNABLE_TO_INITIALIZE_STACK;
}
}
else
{
/* The Stack was NOT initialized successfully, inform the*/
/* user and set the return value of the initialization */
/* function to an error. */
DisplayFunctionError("GATT_Initialize", Result);
BluetoothStackID = 0;
ret_val = UNABLE_TO_INITIALIZE_STACK;
}
/* Initialize SPP context. */
BTPS_MemInitialize(SPPContextInfo, 0, sizeof(SPPContextInfo));
}
else
{
/* The Stack was NOT initialized successfully, inform the */
/* user and set the return value of the initialization */
/* function to an error. */
DisplayFunctionError("BSC_Initialize", Result);
BluetoothStackID = 0;
ret_val = UNABLE_TO_INITIALIZE_STACK;
}
}
else
{
/* One or more of the necessary parameters are invalid. */
ret_val = INVALID_PARAMETERS_ERROR;
}
}
return(ret_val);
}
/* The following function is responsible for closing the SS1 */
/* Bluetooth Protocol Stack. This function requires that the */
/* Bluetooth Protocol stack previously have been initialized via the */
/* OpenStack() function. This function returns zero on successful */
/* execution and a negative value on all errors. */
static int CloseStack(void)
{
int ret_val = 0;
/* First check to see if the Stack has been opened. */
if(BluetoothStackID)
{
/* Cleanup GAP Service Module. */
if(GAPSInstanceID)
GAPS_Cleanup_Service(BluetoothStackID, GAPSInstanceID);
/* Un-registered SPP LE Service. */
if(SPPLEServiceID)
GATT_Un_Register_Service(BluetoothStackID, SPPLEServiceID);
/* Cleanup GATT Module. */
GATT_Cleanup(BluetoothStackID);
/* Simply close the Stack */
BSC_Shutdown(BluetoothStackID);
/* Free BTPSKRNL allocated memory. */
BTPS_DeInit();
Display(("Stack Shutdown.\r\n"));
/* Free the Key List. */
FreeDeviceInfoList(&DeviceInfoList);
/* Flag that the Stack is no longer initialized. */
BluetoothStackID = 0;
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* A valid Stack ID does not exist, inform to user. */
ret_val = UNABLE_TO_INITIALIZE_STACK;
}
return(ret_val);
}
/* The following function is responsible for placing the Local */
/* Bluetooth Device into General Discoverablity Mode. Once in this */
/* mode the Device will respond to Inquiry Scans from other Bluetooth*/
/* Devices. This function requires that a valid Bluetooth Stack ID */
/* exists before running. This function returns zero on successful */
/* execution and a negative value if an error occurred. */
static int SetDisc(void)
{
int ret_val = 0;
/* First, check that a valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* A semi-valid Bluetooth Stack ID exists, now attempt to set the */
/* attached Devices Discoverablity Mode to General. */
ret_val = GAP_Set_Discoverability_Mode(BluetoothStackID, dmGeneralDiscoverableMode, 0);
/* Next, check the return value of the GAP Set Discoverability */
/* Mode command for successful execution. */
if(!ret_val)
{
/* * NOTE * Discoverability is only applicable when we are */
/* advertising so save the default Discoverability */
/* Mode for later. */
LE_Parameters.DiscoverabilityMode = dmGeneralDiscoverableMode;
}
else
{
/* An error occurred while trying to set the Discoverability */
/* Mode of the Device. */
DisplayFunctionError("Set Discoverable Mode", ret_val);
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for placing the Local */
/* Bluetooth Device into Connectable Mode. Once in this mode the */
/* Device will respond to Page Scans from other Bluetooth Devices. */
/* This function requires that a valid Bluetooth Stack ID exists */
/* before running. This function returns zero on success and a */
/* negative value if an error occurred. */
static int SetConnect(void)
{
int ret_val = 0;
/* First, check that a valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Attempt to set the attached Device to be Connectable. */
ret_val = GAP_Set_Connectability_Mode(BluetoothStackID, cmConnectableMode);
/* Next, check the return value of the */
/* GAP_Set_Connectability_Mode() function for successful */
/* execution. */
if(!ret_val)
{
/* * NOTE * Connectability is only an applicable when */
/* advertising so we will just save the default */
/* connectability for the next time we enable */
/* advertising. */
LE_Parameters.ConnectableMode = lcmConnectable;
}
else
{
/* An error occurred while trying to make the Device */
/* Connectable. */
DisplayFunctionError("Set Connectability Mode", ret_val);
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for placing the local */
/* Bluetooth device into Pairable mode. Once in this mode the device*/
/* will response to pairing requests from other Bluetooth devices. */
/* This function returns zero on successful execution and a negative */
/* value on all errors. */
static int SetPairable(void)
{
int Result;
int ret_val = 0;
/* First, check that a valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Attempt to set the attached device to be pairable. */
Result = GAP_Set_Pairability_Mode(BluetoothStackID, pmPairableMode);
/* Next, check the return value of the GAP Set Pairability mode */
/* command for successful execution. */
if(!Result)
{
/* The device has been set to pairable mode, now register an */
/* Authentication Callback to handle the Authentication events */
/* if required. */
Result = GAP_Register_Remote_Authentication(BluetoothStackID, GAP_Event_Callback, (unsigned long)0);
/* Next, check the return value of the GAP Register Remote */
/* Authentication command for successful execution. */
if(!Result)
{
/* Now Set the LE Pairability. */
/* Attempt to set the attached device to be pairable. */
Result = GAP_LE_Set_Pairability_Mode(BluetoothStackID, lpmPairableMode);
/* Next, check the return value of the GAP Set Pairability */
/* mode command for successful execution. */
if(!Result)
{
/* The device has been set to pairable mode, now register*/
/* an Authentication Callback to handle the */
/* Authentication events if required. */
Result = GAP_LE_Register_Remote_Authentication(BluetoothStackID, GAP_LE_Event_Callback, (unsigned long)0);
/* Next, check the return value of the GAP Register */
/* Remote Authentication command for successful */
/* execution. */
if(Result)
{
/* An error occurred while trying to execute this */
/* function. */
DisplayFunctionError("GAP_LE_Register_Remote_Authentication", Result);
ret_val = Result;
}
}
else
{
/* An error occurred while trying to make the device */
/* pairable. */
DisplayFunctionError("GAP_LE_Set_Pairability_Mode", Result);
ret_val = Result;
}
}
else
{
/* An error occurred while trying to execute this function. */
DisplayFunctionError("GAP_Register_Remote_Authentication", Result);
ret_val = Result;
}
}
else
{
/* An error occurred while trying to make the device pairable. */
DisplayFunctionError("GAP_Set_Pairability_Mode", Result);
ret_val = Result;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is a utility function that is used to dump */
/* the Appearance to String Mapping Table. */
static void DumpAppearanceMappings(void)
{
unsigned int Index;
for(Index=0;Index<NUMBER_OF_APPEARANCE_MAPPINGS;++Index)
Display((" %u = %s.\r\n", Index, AppearanceMappings[Index].String));
}
/* The following function is used to map a Appearance Value to it's */
/* string representation. This function returns TRUE on success or */
/* FALSE otherwise. */
static Boolean_t AppearanceToString(Word_t Appearance, char **String)
{
Boolean_t ret_val;
unsigned int Index;
/* Verify that the input parameters are semi-valid. */
if(String)
{
for(Index=0,ret_val=FALSE;Index<NUMBER_OF_APPEARANCE_MAPPINGS;++Index)
{
if(AppearanceMappings[Index].Appearance == Appearance)
{
*String = AppearanceMappings[Index].String;
ret_val = TRUE;
break;
}
}
}
else
ret_val = FALSE;
return(ret_val);
}
/* The following function is used to map an Index into the Appearance*/
/* Mapping table to it's Appearance Value. This function returns */
/* TRUE on success or FALSE otherwise. */
static Boolean_t AppearanceIndexToAppearance(unsigned int Index, Word_t *Appearance)
{
Boolean_t ret_val;
if((Index < NUMBER_OF_APPEARANCE_MAPPINGS) && (Appearance))
{
*Appearance = AppearanceMappings[Index].Appearance;
ret_val = TRUE;
}
else
ret_val = FALSE;
return(ret_val);
}
/* The following function is a utility function that provides a */
/* mechanism of populating discovered GAP Service Handles. */
static void GAPSPopulateHandles(GAPS_Client_Info_t *ClientInfo, GATT_Service_Discovery_Indication_Data_t *ServiceInfo)
{
unsigned int Index1;
GATT_Characteristic_Information_t *CurrentCharacteristic;
/* Verify that the input parameters are semi-valid. */
if((ClientInfo) && (ServiceInfo) && (ServiceInfo->ServiceInformation.UUID.UUID_Type == guUUID_16) && (GAP_COMPARE_GAP_SERVICE_UUID_TO_UUID_16(ServiceInfo->ServiceInformation.UUID.UUID.UUID_16)))
{
/* Loop through all characteristics discovered in the service */
/* and populate the correct entry. */
CurrentCharacteristic = ServiceInfo->CharacteristicInformationList;
if(CurrentCharacteristic)
{
for(Index1=0;Index1<ServiceInfo->NumberOfCharacteristics;Index1++,CurrentCharacteristic++)
{
/* All GAP Service UUIDs are defined to be 16 bit UUIDs. */
if(CurrentCharacteristic->Characteristic_UUID.UUID_Type == guUUID_16)
{
/* Determine which characteristic this is. */
if(!GAP_COMPARE_GAP_DEVICE_NAME_UUID_TO_UUID_16(CurrentCharacteristic->Characteristic_UUID.UUID.UUID_16))
{
if(!GAP_COMPARE_GAP_DEVICE_APPEARANCE_UUID_TO_UUID_16(CurrentCharacteristic->Characteristic_UUID.UUID.UUID_16))
continue;
else
{
ClientInfo->DeviceAppearanceHandle = CurrentCharacteristic->Characteristic_Handle;
continue;
}
}
else
{
ClientInfo->DeviceNameHandle = CurrentCharacteristic->Characteristic_Handle;
continue;
}
}
}
}
}
}
/* The following function is a utility function that provides a */
/* mechanism of populating a BRSM Client Information structure with */
/* the information discovered from a GATT Service Discovery */
/* operation. */
static void SPPLEPopulateHandles(SPPLE_Client_Info_t *ClientInfo, GATT_Service_Discovery_Indication_Data_t *ServiceInfo)
{
Word_t *ClientConfigurationHandle;
unsigned int Index1;
unsigned int Index2;
GATT_Characteristic_Information_t *CurrentCharacteristic;
GATT_Characteristic_Descriptor_Information_t *CurrentDescriptor;
/* Verify that the input parameters are semi-valid. */
if((ClientInfo) && (ServiceInfo) && (ServiceInfo->ServiceInformation.UUID.UUID_Type == guUUID_128) && (SPPLE_COMPARE_SPPLE_SERVICE_UUID_TO_UUID_128(ServiceInfo->ServiceInformation.UUID.UUID.UUID_128)))
{
/* Loop through all characteristics discovered in the service */
/* and populate the correct entry. */
CurrentCharacteristic = ServiceInfo->CharacteristicInformationList;
if(CurrentCharacteristic)
{
for(Index1=0;Index1<ServiceInfo->NumberOfCharacteristics;Index1++,CurrentCharacteristic++)
{
/* All SPPLE UUIDs are defined to be 128 bit UUIDs. */
if(CurrentCharacteristic->Characteristic_UUID.UUID_Type == guUUID_128)
{
ClientConfigurationHandle = NULL;
/* Determine which characteristic this is. */
if(!SPPLE_COMPARE_SPPLE_TX_UUID_TO_UUID_128(CurrentCharacteristic->Characteristic_UUID.UUID.UUID_128))
{
if(!SPPLE_COMPARE_SPPLE_TX_CREDITS_UUID_TO_UUID_128(CurrentCharacteristic->Characteristic_UUID.UUID.UUID_128))
{
if(!SPPLE_COMPARE_SPPLE_RX_UUID_TO_UUID_128(CurrentCharacteristic->Characteristic_UUID.UUID.UUID_128))
{
if(!SPPLE_COMPARE_SPPLE_RX_CREDITS_UUID_TO_UUID_128(CurrentCharacteristic->Characteristic_UUID.UUID.UUID_128))
continue;
else
{
ClientInfo->Rx_Credit_Characteristic = CurrentCharacteristic->Characteristic_Handle;
ClientConfigurationHandle = &(ClientInfo->Rx_Credit_Client_Configuration_Descriptor);
}
}
else
{
ClientInfo->Rx_Characteristic = CurrentCharacteristic->Characteristic_Handle;
continue;
}
}
else
{
ClientInfo->Tx_Credit_Characteristic = CurrentCharacteristic->Characteristic_Handle;
continue;
}
}
else
{
ClientInfo->Tx_Characteristic = CurrentCharacteristic->Characteristic_Handle;
ClientConfigurationHandle = &(ClientInfo->Tx_Client_Configuration_Descriptor);
}
/* Loop through the Descriptor List. */
CurrentDescriptor = CurrentCharacteristic->DescriptorList;
if((CurrentDescriptor) && (ClientConfigurationHandle))
{
for(Index2=0;Index2<CurrentCharacteristic->NumberOfDescriptors;Index2++,CurrentDescriptor++)
{
if(CurrentDescriptor->Characteristic_Descriptor_UUID.UUID_Type == guUUID_16)
{
if(GATT_COMPARE_CLIENT_CHARACTERISTIC_CONFIGURATION_ATTRIBUTE_TYPE_TO_BLUETOOTH_UUID_16(CurrentDescriptor->Characteristic_Descriptor_UUID.UUID.UUID_16))
{
*ClientConfigurationHandle = CurrentDescriptor->Characteristic_Descriptor_Handle;
break;
}
}
}
}
}
}
}
}
}
/* The following function is a utility function that is used to add */
/* data (using InIndex as the buffer index) from the buffer specified*/
/* by the DataBuffer parameter. The second and third parameters */
/* specified the length of the data to add and the pointer to the */
/* data to add to the buffer. This function returns the actual */
/* number of bytes that were added to the buffer (or 0 if none were */
/* added). */
static unsigned int AddDataToBuffer(SPPLE_Data_Buffer_t *DataBuffer, unsigned int DataLength, Byte_t *Data)
{
unsigned int BytesAdded = 0;
unsigned int Count;
/* Verify that the input parameters are valid. */
if((DataBuffer) && (DataLength) && (Data))
{
/* Loop while we have data AND space in the buffer. */
while(DataLength)
{
/* Get the number of bytes that can be placed in the buffer */
/* until it wraps. */
Count = DataBuffer->BufferSize - DataBuffer->InIndex;
/* Determine if the number of bytes free is less than the */
/* number of bytes till we wrap and choose the smaller of the */
/* numbers. */
Count = (DataBuffer->BytesFree < Count)?DataBuffer->BytesFree:Count;
/* Cap the Count that we add to buffer to the length of the */
/* data provided by the caller. */
Count = (Count > DataLength)?DataLength:Count;
if(Count)
{
/* Copy the data into the buffer. */
BTPS_MemCopy(&DataBuffer->Buffer[DataBuffer->InIndex], Data, Count);
/* Update the counts. */
DataBuffer->InIndex += Count;
DataBuffer->BytesFree -= Count;
DataLength -= Count;
BytesAdded += Count;
Data += Count;
/* Wrap the InIndex if necessary. */
if(DataBuffer->InIndex >= DataBuffer->BufferSize)
DataBuffer->InIndex = 0;
}
else
break;
}
}
return(BytesAdded);
}
/* The following function is a utility function that is used to */
/* removed data (using OutIndex as the buffer index) from the buffer */
/* specified by the DataBuffer parameter The second parameter */
/* specifies the length of the Buffer that is pointed to by the third*/
/* parameter. This function returns the actual number of bytes that */
/* were removed from the DataBuffer (or 0 if none were added). */
/* * NOTE * Buffer is optional and if not specified up to */
/* BufferLength bytes will be deleted from the Buffer. */
static unsigned int RemoveDataFromBuffer(SPPLE_Data_Buffer_t *DataBuffer, unsigned int BufferLength, Byte_t *Buffer)
{
unsigned int Count;
unsigned int BytesRemoved = 0;
unsigned int MaxRemove;
/* Verify that the input parameters are valid. */
if((DataBuffer) && (BufferLength))
{
/* Loop while we have data to remove and space in the buffer to */
/* place it. */
while(BufferLength)
{
/* Determine the number of bytes that are present in the */
/* buffer. */
Count = DataBuffer->BufferSize - DataBuffer->BytesFree;
if(Count)
{
/* Calculate the maximum number of bytes that I can remove */
/* from the buffer before it wraps. */
MaxRemove = DataBuffer->BufferSize - DataBuffer->OutIndex;
/* Cap max we can remove at the BufferLength of the caller's*/
/* buffer. */
MaxRemove = (MaxRemove > BufferLength)?BufferLength:MaxRemove;
/* Cap the number of bytes I will remove in this iteration */
/* at the maximum I can remove or the number of bytes that */
/* are in the buffer. */
Count = (Count > MaxRemove)?MaxRemove:Count;
/* Copy the data into the caller's buffer (If specified). */
if(Buffer)
{
BTPS_MemCopy(Buffer, &DataBuffer->Buffer[DataBuffer->OutIndex], Count);
Buffer += Count;
}
/* Update the counts. */
DataBuffer->OutIndex += Count;
DataBuffer->BytesFree += Count;
BytesRemoved += Count;
BufferLength -= Count;
/* Wrap the OutIndex if necessary. */
if(DataBuffer->OutIndex >= DataBuffer->BufferSize)
DataBuffer->OutIndex = 0;
}
else
break;
}
}
return(BytesRemoved);
}
/* The following function is used to initialize the specified buffer */
/* to the defaults. */
static void InitializeBuffer(SPPLE_Data_Buffer_t *DataBuffer)
{
/* Verify that the input parameters are valid. */
if(DataBuffer)
{
DataBuffer->BufferSize = SPPLE_DATA_CREDITS;
DataBuffer->BytesFree = SPPLE_DATA_CREDITS;
DataBuffer->InIndex = 0;
DataBuffer->OutIndex = 0;
}
}
/* The following function function is used to enable/disable */
/* notications on a specified handle. This function returns the */
/* positive non-zero Transaction ID of the Write Request or a */
/* negative error code. */
static int EnableDisableNotificationsIndications(unsigned int ConnectionID, Word_t ClientConfigurationHandle, Word_t ClientConfigurationValue, GATT_Client_Event_Callback_t ClientEventCallback)
{
int ret_val;
NonAlignedWord_t Buffer;
/* Verify the input parameters. */
if((BluetoothStackID) && (ConnectionID) && (ClientConfigurationHandle))
{
ASSIGN_HOST_WORD_TO_LITTLE_ENDIAN_UNALIGNED_WORD(&Buffer, ClientConfigurationValue);
ret_val = GATT_Write_Request(BluetoothStackID, ConnectionID, ClientConfigurationHandle, sizeof(Buffer), &Buffer, ClientEventCallback, 0);
}
else
ret_val = BTPS_ERROR_INVALID_PARAMETER;
return(ret_val);
}
/* The following funcition is a utility function that exists to fill */
/* the specified buffer with the DataStr that is used to send data. */
/* This function will fill from the CurrentBufferLength up to Max */
/* Length in Buffer. CurrentBufferLength is used to return the total*/
/* length of the buffer. The first parameter specifies the */
/* DeviceInfo which is used to fill any remainder of the string so */
/* that there are no breaks in the pattern. This function returns */
/* the number of bytes added to the transmit buffer of the specified */
/* device. */
static unsigned int FillBufferWithString(SPPLE_Data_Buffer_t *DataBuffer, unsigned *CurrentBufferLength, unsigned int MaxLength, Byte_t *Buffer)
{
unsigned int DataCount;
unsigned int Added2Buffer = 0;
/* Verify that the input parameter is semi-valid. */
if((DataBuffer) && (CurrentBufferLength) && (MaxLength) && (Buffer))
{
/* Copy as much of the DataStr into the Transmit buffer as is */
/* possible. */
while(*CurrentBufferLength < MaxLength)
{
/* Cap the data to copy at the maximum of the string length and*/
/* the remaining amount that can be placed in the buffer. */
DataCount = (DataStrLen > (MaxLength-*CurrentBufferLength))?(MaxLength-*CurrentBufferLength):DataStrLen;
/* Note we should only add full strings into the transmit */
/* buffer. */
if(DataCount == DataStrLen)
{
/* Build the data string into the SPPLEBuffer. */
BTPS_MemCopy(&Buffer[*CurrentBufferLength], DataStr, DataCount);
/* Increment the index. */
*CurrentBufferLength += DataCount;
}
else
break;
}
}
return(Added2Buffer);
}
/* The following function is responsible for handling a Send Process.*/
static void SPPLESendProcess(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo)
{
int Result;
Boolean_t Done = FALSE;
unsigned int TransmitIndex;
unsigned int MaxLength;
unsigned int SPPLEBufferLength;
unsigned int Added2Buffer;
/* Verify that the input parameter is semi-valid. */
if((LEContextInfo) && (DeviceInfo))
{
//xxx
//xxx Display(("Transmit Credits: %u.\r\n", DeviceInfo->TransmitCredits));
/* Loop while we have data to send and we have not used up all */
/* Transmit Credits. */
TransmitIndex = 0;
SPPLEBufferLength = 0;
Added2Buffer = 0;
while((LEContextInfo->SPPLEBufferInfo.SendInfo.BytesToSend) && (LEContextInfo->BufferFull == FALSE) && (LEContextInfo->SPPLEBufferInfo.TransmitCredits) && (!Done))
{
/* Get the maximum length of what we can send in this */
/* transaction. */
MaxLength = (LEContextInfo->SPPLEBufferInfo.SendInfo.BytesToSend > LEContextInfo->SPPLEBufferInfo.TransmitCredits)?LEContextInfo->SPPLEBufferInfo.TransmitCredits:LEContextInfo->SPPLEBufferInfo.SendInfo.BytesToSend;
MaxLength = (MaxLength > SPPLE_DATA_BUFFER_LENGTH)?SPPLE_DATA_BUFFER_LENGTH:MaxLength;
/* If we do not have any outstanding data get some more data. */
if(!SPPLEBufferLength)
{
/* Send any buffered data first. */
if(LEContextInfo->SPPLEBufferInfo.TransmitBuffer.BytesFree != LEContextInfo->SPPLEBufferInfo.TransmitBuffer.BufferSize)
{
/* Remove the queued data from the Transmit Buffer. */
SPPLEBufferLength = RemoveDataFromBuffer(&(LEContextInfo->SPPLEBufferInfo.TransmitBuffer), MaxLength, SPPLEBuffer);
/* If we added some data to the transmit buffer decrement*/
/* what we just removed. */
if(Added2Buffer>=SPPLEBufferLength)
Added2Buffer -= SPPLEBufferLength;
}
/* Fill up the rest of the buffer with the data string. */
Added2Buffer += FillBufferWithString(&(LEContextInfo->SPPLEBufferInfo.TransmitBuffer), &SPPLEBufferLength, MaxLength, SPPLEBuffer);
/* Reset the Transmit Index to 0. */
TransmitIndex = 0;
/* If we dont have any data to send (i.e. we didn't have */
/* enough credits to fill up a string) we should just exit */
/* the loop. */
if(SPPLEBufferLength == 0)
break;
}
/* Use the correct API based on device role for SPPLE. */
if(DeviceInfo->Flags & DEVICE_INFO_FLAGS_SPPLE_SERVER)
{
/* We are acting as SPPLE Server, so notify the Tx */
/* Characteristic. */
if(DeviceInfo->ServerInfo.Tx_Client_Configuration_Descriptor == GATT_CLIENT_CONFIGURATION_CHARACTERISTIC_NOTIFY_ENABLE)
Result = GATT_Handle_Value_Notification(BluetoothStackID, SPPLEServiceID, LEContextInfo->ConnectionID, SPPLE_TX_CHARACTERISTIC_ATTRIBUTE_OFFSET, (Word_t)SPPLEBufferLength, &SPPLEBuffer[TransmitIndex]);
else
{
/* Not configured for notifications so exit the loop. */
Done = TRUE;
}
}
else
{
/* We are acting as SPPLE Client, so write to the Rx */
/* Characteristic. */
if(DeviceInfo->ClientInfo.Tx_Characteristic)
Result = GATT_Write_Without_Response_Request(BluetoothStackID, LEContextInfo->ConnectionID, DeviceInfo->ClientInfo.Rx_Characteristic, (Word_t)SPPLEBufferLength, &SPPLEBuffer[TransmitIndex]);
else
{
/* We have not discovered the Tx Characteristic, so exit */
/* the loop. */
Done = TRUE;
}
}
/* Check to see if any data was written. */
if(!Done)
{
/* Check to see if the data was written successfully. */
if(Result >= 0)
{
//xxx Debug Statement
//xxx Display(("Actually sent %u of Maximum %u.\r\n", (unsigned int)Result, MaxLength));
/* Adjust the counters. */
LEContextInfo->SPPLEBufferInfo.SendInfo.BytesToSend -= (unsigned int)Result;
LEContextInfo->SPPLEBufferInfo.SendInfo.BytesSent += (unsigned int)Result;
TransmitIndex += (unsigned int)Result;
SPPLEBufferLength -= (unsigned int)Result;
LEContextInfo->SPPLEBufferInfo.TransmitCredits -= (unsigned int)Result;
/* If we have no more remaining Tx Credits AND we have */
/* data built up to send, we need to queue this in the Tx*/
/* Buffer. */
if((!(LEContextInfo->SPPLEBufferInfo.TransmitCredits)) && (SPPLEBufferLength))
{
/* Add the remaining data to the transmit buffer. */
AddDataToBuffer(&(LEContextInfo->SPPLEBufferInfo.TransmitBuffer), SPPLEBufferLength, &SPPLEBuffer[TransmitIndex]);
SPPLEBufferLength = 0;
}
}
else
{
/* Check to see what error has occurred. */
if(Result == BTPS_ERROR_INSUFFICIENT_BUFFER_SPACE)
{
/* Queue is full so add the data that we have into the*/
/* transmit buffer for this device and wait on the */
/* buffer to empty. */
AddDataToBuffer(&(LEContextInfo->SPPLEBufferInfo.TransmitBuffer), SPPLEBufferLength, &SPPLEBuffer[TransmitIndex]);
SPPLEBufferLength = 0;
/* Flag that the LE buffer is full */
LEContextInfo->BufferFull = TRUE;
//xxx
//xxx Display(("xxx Buffer Full for device %s.\r\n", __FUNCTION__));
}
else
{
Display(("SEND failed with error %d\r\n", Result));
LEContextInfo->SPPLEBufferInfo.SendInfo.BytesToSend = 0;
}
}
}
}
/* If we have added more bytes to the transmit buffer than we can */
/* send in this process remove the extra. */
if(Added2Buffer > LEContextInfo->SPPLEBufferInfo.SendInfo.BytesToSend)
RemoveDataFromBuffer(&(LEContextInfo->SPPLEBufferInfo.TransmitBuffer), Added2Buffer-LEContextInfo->SPPLEBufferInfo.SendInfo.BytesToSend, NULL);
/* Display a message if we have sent all required data. */
if((!(LEContextInfo->SPPLEBufferInfo.SendInfo.BytesToSend)) && (LEContextInfo->SPPLEBufferInfo.SendInfo.BytesSent))
{
Display(("\r\nSend Complete, Sent %u.\r\n", LEContextInfo->SPPLEBufferInfo.SendInfo.BytesSent));
DisplayPrompt();
LEContextInfo->SPPLEBufferInfo.SendInfo.BytesSent = 0;
}
}
}
/* The following function is responsible for transmitting the */
/* specified number of credits to the remote device. */
static void SPPLESendCredits(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo, unsigned int DataLength)
{
int Result;
unsigned int ActualCredits;
NonAlignedWord_t Credits;
/* Verify that the input parameters are semi-valid. */
if((LEContextInfo) && (DeviceInfo) && ((DataLength) || (LEContextInfo->SPPLEBufferInfo.QueuedCredits)))
{
//xxx Debug statement
//xxx Display(("\r\nSending %u Credits.\r\n", DataLength));
/* Only attempt to send the credits if the LE buffer is not full. */
if(LEContextInfo->BufferFull == FALSE)
{
/* Make sure that we don't credit more than can be filled in */
/* our receive buffer. */
ActualCredits = DataLength + LEContextInfo->SPPLEBufferInfo.QueuedCredits;
ActualCredits = (ActualCredits > LEContextInfo->SPPLEBufferInfo.ReceiveBuffer.BytesFree)?LEContextInfo->SPPLEBufferInfo.ReceiveBuffer.BytesFree:ActualCredits;
/* Format the credit packet. */
ASSIGN_HOST_WORD_TO_LITTLE_ENDIAN_UNALIGNED_WORD(&Credits, ActualCredits);
/* Determine how to send credits based on the role. */
if(DeviceInfo->Flags & DEVICE_INFO_FLAGS_SPPLE_SERVER)
{
/* We are acting as a server so notify the Rx Credits */
/* characteristic. */
if(DeviceInfo->ServerInfo.Rx_Credit_Client_Configuration_Descriptor == GATT_CLIENT_CONFIGURATION_CHARACTERISTIC_NOTIFY_ENABLE)
Result = GATT_Handle_Value_Notification(BluetoothStackID, SPPLEServiceID, LEContextInfo->ConnectionID, SPPLE_RX_CREDITS_CHARACTERISTIC_ATTRIBUTE_OFFSET, WORD_SIZE, (Byte_t *)&Credits);
else
Result = 0;
}
else
{
/* We are acting as a client so send a Write Without */
/* Response packet to the Tx Credit Characteristic. */
if(DeviceInfo->ClientInfo.Tx_Credit_Characteristic)
Result = GATT_Write_Without_Response_Request(BluetoothStackID, LEContextInfo->ConnectionID, DeviceInfo->ClientInfo.Tx_Credit_Characteristic, WORD_SIZE, &Credits);
else
Result = 0;
}
/* If an error occurred we need to queue the credits to try */
/* again. */
if(Result >= 0)
{
/* Clear the queued credit count as if there were any queued*/
/* credits they have now been sent. */
LEContextInfo->SPPLEBufferInfo.QueuedCredits = 0;
}
else
{
if(Result == BTPS_ERROR_INSUFFICIENT_BUFFER_SPACE)
{
/* Flag that the buffer is full. */
LEContextInfo->BufferFull = TRUE;
//xxx
//xxx Display(("xxx Buffer Full for device %s.\r\n", __FUNCTION__));
}
LEContextInfo->SPPLEBufferInfo.QueuedCredits += DataLength;
}
}
else
LEContextInfo->SPPLEBufferInfo.QueuedCredits += DataLength;
}
}
/* The following function is responsible for handling a received */
/* credit, event. */
static void SPPLEReceiveCreditEvent(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo, unsigned int Credits)
{
/* Verify that the input parameters are semi-valid. */
if((LEContextInfo) && (DeviceInfo))
{
//xxx Debug statement
//xxx Display(("\r\nReceived %u Credits, Credit Count %u.\r\n", Credits, Credits+LEContextInfo->SPPLEBufferInfo.TransmitCredits));
/* If this is a real credit event store the number of credits. */
LEContextInfo->SPPLEBufferInfo.TransmitCredits += Credits;
/* Handle any active send process. */
SPPLESendProcess(LEContextInfo, DeviceInfo);
/* Send all queued data. */
SPPLESendData(LEContextInfo, DeviceInfo, 0, NULL);
/* It is possible that we have received data queued, so call the */
/* Data Indication Event to handle this. */
SPPLEDataIndicationEvent(LEContextInfo, DeviceInfo, 0, NULL);
}
}
/* The following function sends the specified data to the specified */
/* data. This function will queue any of the data that does not go */
/* out. This function returns the number of bytes sent if all the */
/* data was sent, or 0. */
/* * NOTE * If DataLength is 0 and Data is NULL then all queued data */
/* will be sent. */
static unsigned int SPPLESendData(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo, unsigned int DataLength, Byte_t *Data)
{
int Result;
Boolean_t Done;
unsigned int DataCount;
unsigned int MaxLength;
unsigned int TransmitIndex;
unsigned int QueuedBytes;
unsigned int SPPLEBufferLength;
unsigned int TotalBytesTransmitted = 0;
/* Verify that the input parameters are semi-valid. */
if((LEContextInfo) && (DeviceInfo))
{
/* Loop while we have data to send and we can send it. */
Done = FALSE;
TransmitIndex = 0;
SPPLEBufferLength = 0;
while(!Done)
{
/* Check to see if we have credits to use to transmit the data */
/* (and that the buffer is not FULL). */
if((LEContextInfo->SPPLEBufferInfo.TransmitCredits) && (LEContextInfo->BufferFull == FALSE))
{
/* Get the maximum length of what we can send in this */
/* transaction. */
MaxLength = (SPPLE_DATA_BUFFER_LENGTH > LEContextInfo->SPPLEBufferInfo.TransmitCredits)?LEContextInfo->SPPLEBufferInfo.TransmitCredits:SPPLE_DATA_BUFFER_LENGTH;
/* If we do not have any outstanding data get some more */
/* data. */
if(!SPPLEBufferLength)
{
/* Send any buffered data first. */
if(LEContextInfo->SPPLEBufferInfo.TransmitBuffer.BytesFree != LEContextInfo->SPPLEBufferInfo.TransmitBuffer.BufferSize)
{
/* Remove the queued data from the Transmit Buffer. */
SPPLEBufferLength = RemoveDataFromBuffer(&(LEContextInfo->SPPLEBufferInfo.TransmitBuffer), MaxLength, SPPLEBuffer);
}
else
{
/* Check to see if we have data to send. */
if((DataLength) && (Data))
{
/* Copy the data to send into the SPPLEBuffer. */
SPPLEBufferLength = (DataLength > MaxLength)?MaxLength:DataLength;
BTPS_MemCopy(SPPLEBuffer, Data, SPPLEBufferLength);
DataLength -= SPPLEBufferLength;
Data += SPPLEBufferLength;
}
else
{
/* No data queued or data left to send so exit the */
/* loop. */
Done = TRUE;
}
}
/* Set the count of data that we can send. */
DataCount = SPPLEBufferLength;
/* Reset the Transmit Index to 0. */
TransmitIndex = 0;
}
else
{
/* We have data to send so cap it at the maximum that can*/
/* be transmitted. */
DataCount = (SPPLEBufferLength > MaxLength)?MaxLength:SPPLEBufferLength;
}
/* Try to write data if not exiting the loop. */
if(!Done)
{
//xxx Debug statement
//xxx Display(("\r\nTrying to send %u bytes.\r\n", DataCount));
/* Use the correct API based on device role for SPPLE. */
if(DeviceInfo->Flags & DEVICE_INFO_FLAGS_SPPLE_SERVER)
{
/* We are acting as SPPLE Server, so notify the Tx */
/* Characteristic. */
if(DeviceInfo->ServerInfo.Tx_Client_Configuration_Descriptor == GATT_CLIENT_CONFIGURATION_CHARACTERISTIC_NOTIFY_ENABLE)
Result = GATT_Handle_Value_Notification(BluetoothStackID, SPPLEServiceID, LEContextInfo->ConnectionID, SPPLE_TX_CHARACTERISTIC_ATTRIBUTE_OFFSET, (Word_t)DataCount, &SPPLEBuffer[TransmitIndex]);
else
{
/* Not configured for notifications so exit the */
/* loop. */
Done = TRUE;
}
}
else
{
/* We are acting as SPPLE Client, so write to the Rx */
/* Characteristic. */
if(DeviceInfo->ClientInfo.Tx_Characteristic)
Result = GATT_Write_Without_Response_Request(BluetoothStackID, LEContextInfo->ConnectionID, DeviceInfo->ClientInfo.Rx_Characteristic, (Word_t)DataCount, &SPPLEBuffer[TransmitIndex]);
else
{
/* We have not discovered the Tx Characteristic, so*/
/* exit the loop. */
Done = TRUE;
}
}
/* Check to see if any data was written. */
if(!Done)
{
/* Check to see if the data was written successfully. */
if(Result >= 0)
{
/* Adjust the counters. */
TransmitIndex += (unsigned int)Result;
SPPLEBufferLength -= (unsigned int)Result;
LEContextInfo->SPPLEBufferInfo.TransmitCredits -= (unsigned int)Result;
//xxx Debug statement
//xxx Display(("\r\nSent %u, Remaining Credits %u.\r\n", (unsigned int)Result, DeviceInfo->TransmitCredits));
/* Flag that data was sent. */
TotalBytesTransmitted += Result;
/* If we have no more remaining Tx Credits AND we */
/* have data built up to send, we need to queue */
/* this in the Tx Buffer. */
if((!(LEContextInfo->SPPLEBufferInfo.TransmitCredits)) && (SPPLEBufferLength))
{
/* Add the remaining data to the transmit */
/* buffer. */
QueuedBytes = AddDataToBuffer(&(LEContextInfo->SPPLEBufferInfo.TransmitBuffer), SPPLEBufferLength, &SPPLEBuffer[TransmitIndex]);
TotalBytesTransmitted += QueuedBytes;
SPPLEBufferLength = 0;
}
}
else
{
/* Failed to send data so add the data that we have*/
/* into the transmit buffer for this device and */
/* wait on the buffer to empty. */
QueuedBytes = AddDataToBuffer(&(LEContextInfo->SPPLEBufferInfo.TransmitBuffer), SPPLEBufferLength, &SPPLEBuffer[TransmitIndex]);
TotalBytesTransmitted += QueuedBytes;
SPPLEBufferLength = 0;
/* Flag that we should exit the loop. */
Done = TRUE;
/* Check to see what error has occurred. */
if(Result == BTPS_ERROR_INSUFFICIENT_BUFFER_SPACE)
{
/* Flag that the LE buffer is full. */
LEContextInfo->BufferFull = TRUE;
//xxx
//xxx Display(("xxx Buffer Full for device %s.\r\n", __FUNCTION__));
}
else
Display(("SEND failed with error %d\r\n", Result));
}
}
}
}
else
{
/* We have no transmit credits, so buffer the data. */
QueuedBytes = AddDataToBuffer(&(LEContextInfo->SPPLEBufferInfo.TransmitBuffer), DataLength, Data);
TotalBytesTransmitted += QueuedBytes;
/* Exit the loop. */
Done = TRUE;
}
}
}
return(TotalBytesTransmitted);
}
/* The following function is responsible for handling a data */
/* indication event. */
static void SPPLEDataIndicationEvent(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo, unsigned int DataLength, Byte_t *Data)
{
Boolean_t Done;
unsigned int ReadLength;
unsigned int Length;
unsigned int Transmitted;
/* Verify that the input parameters are semi-valid. */
if((LEContextInfo) && (DeviceInfo))
{
//xxx Debug statement
//xxx Display(("\r\nData Indication Event: %u bytes.\r\n", (unsigned int)DataLength));
/* If we are automatically reading the data, go ahead and credit */
/* what we just received, as well as reading everying in the */
/* buffer. */
if((AutomaticReadActive) || (LoopbackActive))
{
/* Loop until we read all of the data queued. */
Done = FALSE;
while(!Done)
{
/* If in loopback mode cap what we remove at the max of what*/
/* we can send or queue. If in loopback we will also not */
/* attempt to read more than can be filled in the transmit */
/* buffer. This is to guard against the case where we read */
/* data that we could not queue or transmit due to a buffer */
/* full condition. */
if(LoopbackActive)
ReadLength = (SPPLE_DATA_BUFFER_LENGTH > (LEContextInfo->SPPLEBufferInfo.TransmitBuffer.BytesFree))?(LEContextInfo->SPPLEBufferInfo.TransmitBuffer.BytesFree):SPPLE_DATA_BUFFER_LENGTH;
else
ReadLength = SPPLE_DATA_BUFFER_LENGTH;
/* Read all queued data. */
Length = SPPLEReadData(LEContextInfo, DeviceInfo, ReadLength, SPPLEBuffer);
if(((int)Length) > 0)
{
/* If loopback is active, loopback the data. */
if(LoopbackActive)
{
Transmitted = SPPLESendData(LEContextInfo, DeviceInfo, Length, SPPLEBuffer);
if((Transmitted != Length) || (LEContextInfo->BufferFull))
{
/* If we failed to send all that was read (or the */
/* LE buffer is now full) then we should exit the */
/* loop. */
Done = TRUE;
}
}
/* If we are displaying the data then do that here. */
if(DisplayRawData)
{
SPPLEBuffer[Length] = '\0';
Display(((char *)SPPLEBuffer));
}
}
else
Done = TRUE;
}
/* Only send/display data just received if any is specified in */
/* the call to this function. */
if((DataLength) && (Data))
{
/* If loopback is active, loopback the data just received. */
if((AutomaticReadActive) || (LoopbackActive))
{
/* If we are displaying the data then do that here. */
if(DisplayRawData)
{
BTPS_MemCopy(SPPLEBuffer, Data, DataLength);
SPPLEBuffer[DataLength] = '\0';
Display(((char *)SPPLEBuffer));
}
/* Check to see if Loopback is active, if it is we will */
/* loopback the data we just received. */
if(LoopbackActive)
{
/* Only queue the data in the receive buffer that we */
/* cannot send. If in loopback we will also not */
/* attempt to read more than can be filled in the */
/* transmit buffer. This is to guard against the case*/
/* where we read data that we could not queue or */
/* transmit due to a buffer full condition. */
ReadLength = (DataLength > (LEContextInfo->SPPLEBufferInfo.TransmitBuffer.BytesFree))?(LEContextInfo->SPPLEBufferInfo.TransmitBuffer.BytesFree):DataLength;
/* Send the data. */
if((Transmitted = SPPLESendData(LEContextInfo, DeviceInfo, ReadLength, Data)) > 0)
{
/* Credit the data we just sent. */
SPPLESendCredits(LEContextInfo, DeviceInfo, Transmitted);
/* Increment what was just sent. */
DataLength -= ReadLength;
Data += ReadLength;
}
}
else
{
/* Loopback is not active so just credit back the data*/
/* we just received. */
SPPLESendCredits(LEContextInfo, DeviceInfo, DataLength);
DataLength = 0;
}
/* If we have data left that cannot be sent, queue this */
/* in the receive buffer. */
if((DataLength) && (Data))
{
/* We are not in Loopback or Automatic Read Mode so */
/* just buffer all the data. */
Length = AddDataToBuffer(&(LEContextInfo->SPPLEBufferInfo.ReceiveBuffer), DataLength, Data);
// if(Length != DataLength)
// Display(("Receive Buffer Overflow of %u bytes", DataLength - Length));
}
}
/* If we are displaying the data then do that here. */
if(DisplayRawData)
{
BTPS_MemCopy(SPPLEBuffer, Data, DataLength);
SPPLEBuffer[DataLength] = '\0';
Display(((char *)SPPLEBuffer));
}
}
}
else
{
if((DataLength) && (Data))
{
/* Display a Data indication event. */
// Display(("\r\nData Indication Event, Connection ID %u, Received %u bytes.\r\n", LEContextInfo->ConnectionID, DataLength));
/* We are not in Loopback or Automatic Read Mode so just */
/* buffer all the data. */
Length = AddDataToBuffer(&(LEContextInfo->SPPLEBufferInfo.ReceiveBuffer), DataLength, Data);
//if(Length != DataLength)
// Display(("Receive Buffer Overflow of %u bytes.\r\n", DataLength - Length));
}
}
}
}
/* The following function is used to read data from the specified */
/* device. The final two parameters specify the BufferLength and the*/
/* Buffer to read the data into. On success this function returns */
/* the number of bytes read. If an error occurs this will return a */
/* negative error code. */
static int SPPLEReadData(LE_Context_Info_t *LEContextInfo, DeviceInfo_t *DeviceInfo, unsigned int BufferLength, Byte_t *Buffer)
{
int ret_val;
Boolean_t Done;
unsigned int Length;
unsigned int TotalLength;
/* Verify that the input parameters are semi-valid. */
if((LEContextInfo) && (DeviceInfo) && (BufferLength) && (Buffer))
{
Done = FALSE;
TotalLength = 0;
while(!Done)
{
Length = RemoveDataFromBuffer(&(LEContextInfo->SPPLEBufferInfo.ReceiveBuffer), BufferLength, Buffer);
if(Length > 0)
{
BufferLength -= Length;
Buffer += Length;
TotalLength += Length;
}
else
Done = TRUE;
}
/* Credit what we read. */
SPPLESendCredits(LEContextInfo, DeviceInfo, TotalLength);
/* Return the total number of bytes read. */
ret_val = (int)TotalLength;
}
else
ret_val = BTPS_ERROR_INVALID_PARAMETER;
return(ret_val);
}
/* The following function is responsible for starting a scan. */
static int StartScan(unsigned int BluetoothStackID)
{
int Result;
/* First, determine if the input parameters appear to be semi-valid. */
if(BluetoothStackID)
{
/* Not currently scanning, go ahead and attempt to perform the */
/* scan. */
Result = GAP_LE_Perform_Scan(BluetoothStackID, stActive, 10, 10, latPublic, fpNoFilter, TRUE, GAP_LE_Event_Callback, 0);
if(!Result)
{
Display(("Scan started successfully.\r\n"));
}
else
{
/* Unable to start the scan. */
Display(("Unable to perform scan: %d\r\n", Result));
}
}
else
Result = -1;
return(Result);
}
/* The following function is responsible for stopping on on-going */
/* scan. */
static int StopScan(unsigned int BluetoothStackID)
{
int Result;
/* First, determine if the input parameters appear to be semi-valid. */
if(BluetoothStackID)
{
Result = GAP_LE_Cancel_Scan(BluetoothStackID);
if(!Result)
{
Display(("Scan stopped successfully.\r\n"));
}
else
{
/* Error stopping scan. */
Display(("Unable to stop scan: %d\r\n", Result));
}
}
else
Result = -1;
return(Result);
}
/* The following function is responsible for creating an LE */
/* connection to the specified Remote Device. */
static int ConnectLEDevice(unsigned int BluetoothStackID, GAP_LE_Address_Type_t Address_Type, BD_ADDR_t BD_ADDR, Boolean_t UseWhiteList)
{
int Result;
int LEConnectionIndex;
unsigned int WhiteListChanged;
GAP_LE_White_List_Entry_t WhiteListEntry;
GAP_LE_Connection_Parameters_t ConnectionParameters;
/* First, determine if the input parameters appear to be semi-valid. */
if((BluetoothStackID) && (!COMPARE_NULL_BD_ADDR(BD_ADDR)))
{
/* Make sure that there are available connections */
if((LEConnectionIndex = FindFreeLEIndex()) >= 0)
{
/* Check to see if the device is already connected. */
if(FindLEIndexByAddress(BD_ADDR) == -1)
{
/* Remove any previous entries for this device from the */
/* White List. */
WhiteListEntry.Address_Type = Address_Type;
WhiteListEntry.Address = BD_ADDR;
GAP_LE_Remove_Device_From_White_List(BluetoothStackID, 1, &WhiteListEntry, &WhiteListChanged);
if(UseWhiteList)
Result = GAP_LE_Add_Device_To_White_List(BluetoothStackID, 1, &WhiteListEntry, &WhiteListChanged);
else
Result = 1;
/* If everything has been successful, up until this point, */
/* then go ahead and attempt the connection. */
if(Result >= 0)
{
/* Initialize the connection parameters. */
ConnectionParameters.Connection_Interval_Min = 50;
ConnectionParameters.Connection_Interval_Max = 200;
ConnectionParameters.Minimum_Connection_Length = 0;
ConnectionParameters.Maximum_Connection_Length = 10000;
ConnectionParameters.Slave_Latency = 0;
ConnectionParameters.Supervision_Timeout = 20000;
/* Everything appears correct, go ahead and attempt to */
/* make the connection. */
Result = GAP_LE_Create_Connection(BluetoothStackID, 100, 100, Result?fpNoFilter:fpWhiteList, Address_Type, Result?&BD_ADDR:NULL, latPublic, &ConnectionParameters, GAP_LE_Event_Callback, 0);
if(!Result)
{
Display(("Connection Request successful.\r\n"));
/* Add to an unused position in the connection info */
/* array. */
LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR = BD_ADDR;
}
else
{
/* Unable to create connection. */
Display(("Unable to create connection: %d.\r\n", Result));
}
}
else
{
/* Unable to add device to White List. */
Display(("Unable to add device to White List.\r\n"));
}
}
else
{
/* Device already connected. */
Display(("Device is already connected.\r\n"));
Result = -2;
}
}
else
{
/* MAX_LE_CONNECTIONS reached */
Display(("Connection limit reached. No connections available.\r\n"));
Result = -3;
}
}
else
Result = -1;
return(Result);
}
/* The following function is provided to allow a mechanism to */
/* disconnect a currently connected device. */
static int DisconnectLEDevice(unsigned int BluetoothStackID, BD_ADDR_t BD_ADDR)
{
int Result;
/* First, determine if the input parameters appear to be semi-valid. */
if((BluetoothStackID) && (!COMPARE_NULL_BD_ADDR(BD_ADDR)))
{
/* Make sure that a device with address BD_ADDR is connected */
if(FindLEIndexByAddress(BD_ADDR) >= 0)
{
Result = GAP_LE_Disconnect(BluetoothStackID, BD_ADDR);
if(!Result)
{
Display(("Disconnect Request successful.\r\n"));
}
else
{
/* Unable to disconnect device. */
Display(("Unable to disconnect device: %d.\r\n", Result));
}
}
else
{
/* Device not connected. */
Display(("Device is not connected.\r\n"));
Result = 0;
}
}
else
Result = -1;
return(Result);
}
/* The following function provides a mechanism to configure a */
/* Pairing Capabilities structure with the application's pairing */
/* parameters. */
static void ConfigureCapabilities(GAP_LE_Pairing_Capabilities_t *Capabilities)
{
/* Make sure the Capabilities pointer is semi-valid. */
if(Capabilities)
{
/* Configure the Pairing Cabilities structure. */
Capabilities->Bonding_Type = lbtBonding;
Capabilities->IO_Capability = LE_Parameters.IOCapability;
Capabilities->MITM = LE_Parameters.MITMProtection;
Capabilities->OOB_Present = LE_Parameters.OOBDataPresent;
/* ** NOTE ** This application always requests that we use the */
/* maximum encryption because this feature is not a */
/* very good one, if we set less than the maximum we */
/* will internally in GAP generate a key of the */
/* maximum size (we have to do it this way) and then */
/* we will zero out how ever many of the MSBs */
/* necessary to get the maximum size. Also as a slave */
/* we will have to use Non-Volatile Memory (per device */
/* we are paired to) to store the negotiated Key Size. */
/* By requesting the maximum (and by not storing the */
/* negotiated key size if less than the maximum) we */
/* allow the slave to power cycle and regenerate the */
/* LTK for each device it is paired to WITHOUT storing */
/* any information on the individual devices we are */
/* paired to. */
Capabilities->Maximum_Encryption_Key_Size = GAP_LE_MAXIMUM_ENCRYPTION_KEY_SIZE;
/* This application only demostrates using Long Term Key's (LTK) */
/* for encryption of a LE Link, however we could request and send */
/* all possible keys here if we wanted to. */
Capabilities->Receiving_Keys.Encryption_Key = TRUE;
Capabilities->Receiving_Keys.Identification_Key = FALSE;
Capabilities->Receiving_Keys.Signing_Key = FALSE;
Capabilities->Sending_Keys.Encryption_Key = TRUE;
Capabilities->Sending_Keys.Identification_Key = FALSE;
Capabilities->Sending_Keys.Signing_Key = FALSE;
}
}
/* The following function provides a mechanism for sending a pairing */
/* request to a device that is connected on an LE Link. */
static int SendPairingRequest(BD_ADDR_t BD_ADDR, Boolean_t ConnectionMaster)
{
int ret_val;
BoardStr_t BoardStr;
GAP_LE_Pairing_Capabilities_t Capabilities;
/* Make sure a Bluetooth Stack is open. */
if(BluetoothStackID)
{
/* Make sure the BD_ADDR is valid. */
if(!COMPARE_NULL_BD_ADDR(BD_ADDR))
{
/* Configure the application pairing parameters. */
ConfigureCapabilities(&Capabilities);
/* Set the BD_ADDR of the device that we are attempting to pair*/
/* with. */
CurrentLERemoteBD_ADDR = BD_ADDR;
BD_ADDRToStr(BD_ADDR, BoardStr);
Display(("Attempting to Pair to %s.\r\n", BoardStr));
Display(("Attempting to Pair to %d.\r\n", BD_ADDR));
/* Attempt to pair to the remote device. */
if(ConnectionMaster)
{
/* Start the pairing process. */
ret_val = GAP_LE_Pair_Remote_Device(BluetoothStackID, BD_ADDR, &Capabilities, GAP_LE_Event_Callback, 0);
Display((" GAP_LE_Pair_Remote_Device returned %d.\r\n", ret_val));
}
else
{
/* As a slave we can only request that the Master start */
/* the pairing process. */
ret_val = GAP_LE_Request_Security(BluetoothStackID, BD_ADDR, Capabilities.Bonding_Type, Capabilities.MITM, GAP_LE_Event_Callback, 0);
Display((" GAP_LE_Request_Security returned %d.\r\n", ret_val));
}
}
else
{
Display(("Invalid Parameters Pair.\r\n"));
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
Display(("Stack ID Invalid.\r\n"));
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function provides a mechanism of sending a Slave */
/* Pairing Response to a Master's Pairing Request. */
static int SlavePairingRequestResponse(BD_ADDR_t BD_ADDR)
{
int ret_val;
BoardStr_t BoardStr;
GAP_LE_Authentication_Response_Information_t AuthenticationResponseData;
/* Make sure a Bluetooth Stack is open. */
if(BluetoothStackID)
{
BD_ADDRToStr(BD_ADDR, BoardStr);
Display(("Sending Pairing Response to %s.\r\n", BoardStr));
/* We must be the slave if we have received a Pairing Request */
/* thus we will respond with our capabilities. */
AuthenticationResponseData.GAP_LE_Authentication_Type = larPairingCapabilities;
AuthenticationResponseData.Authentication_Data_Length = GAP_LE_PAIRING_CAPABILITIES_SIZE;
/* Configure the Application Pairing Parameters. */
ConfigureCapabilities(&(AuthenticationResponseData.Authentication_Data.Pairing_Capabilities));
/* Attempt to pair to the remote device. */
ret_val = GAP_LE_Authentication_Response(BluetoothStackID, BD_ADDR, &AuthenticationResponseData);
Display(("GAP_LE_Authentication_Response returned %d.\r\n", ret_val));
}
else
{
Display(("Stack ID Invalid.\r\n"));
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is provided to allow a mechanism of */
/* responding to a request for Encryption Information to send to a */
/* remote device. */
static int EncryptionInformationRequestResponse(BD_ADDR_t BD_ADDR, Byte_t KeySize, GAP_LE_Authentication_Response_Information_t *GAP_LE_Authentication_Response_Information)
{
int ret_val;
Word_t LocalDiv;
/* Make sure a Bluetooth Stack is open. */
if(BluetoothStackID)
{
/* Make sure the input parameters are semi-valid. */
if((!COMPARE_NULL_BD_ADDR(BD_ADDR)) && (GAP_LE_Authentication_Response_Information))
{
Display((" Calling GAP_LE_Generate_Long_Term_Key.\r\n"));
/* Generate a new LTK, EDIV and Rand tuple. */
ret_val = GAP_LE_Generate_Long_Term_Key(BluetoothStackID, (Encryption_Key_t *)(&DHK), (Encryption_Key_t *)(&ER), &(GAP_LE_Authentication_Response_Information->Authentication_Data.Encryption_Information.LTK), &LocalDiv, &(GAP_LE_Authentication_Response_Information->Authentication_Data.Encryption_Information.EDIV), &(GAP_LE_Authentication_Response_Information->Authentication_Data.Encryption_Information.Rand));
if(!ret_val)
{
Display((" Encryption Information Request Response.\r\n"));
/* Response to the request with the LTK, EDIV and Rand */
/* values. */
GAP_LE_Authentication_Response_Information->GAP_LE_Authentication_Type = larEncryptionInformation;
GAP_LE_Authentication_Response_Information->Authentication_Data_Length = GAP_LE_ENCRYPTION_INFORMATION_DATA_SIZE;
GAP_LE_Authentication_Response_Information->Authentication_Data.Encryption_Information.Encryption_Key_Size = KeySize;
ret_val = GAP_LE_Authentication_Response(BluetoothStackID, BD_ADDR, GAP_LE_Authentication_Response_Information);
if(!ret_val)
{
Display((" GAP_LE_Authentication_Response (larEncryptionInformation) success.\r\n", ret_val));
}
else
{
Display((" Error - SM_Generate_Long_Term_Key returned %d.\r\n", ret_val));
}
}
else
{
Display((" Error - SM_Generate_Long_Term_Key returned %d.\r\n", ret_val));
}
}
else
{
Display(("Invalid Parameters.\r\n"));
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
Display(("Stack ID Invalid.\r\n"));
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is a utility function that exists to delete*/
/* the specified Link Key from the Local Bluetooth Device. If a NULL*/
/* Bluetooth Device Address is specified, then all Link Keys will be */
/* deleted. */
static int DeleteLinkKey(BD_ADDR_t BD_ADDR)
{
int Result;
Byte_t Status_Result;
Word_t Num_Keys_Deleted = 0;
BD_ADDR_t NULL_BD_ADDR;
Result = HCI_Delete_Stored_Link_Key(BluetoothStackID, BD_ADDR, TRUE, &Status_Result, &Num_Keys_Deleted);
/* Any stored link keys for the specified address (or all) have been */
/* deleted from the chip. Now, let's make sure that our stored Link */
/* Key Array is in sync with these changes. */
/* First check to see all Link Keys were deleted. */
ASSIGN_BD_ADDR(NULL_BD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
if(COMPARE_BD_ADDR(BD_ADDR, NULL_BD_ADDR))
BTPS_MemInitialize(LinkKeyInfo, 0, sizeof(LinkKeyInfo));
else
{
/* Individual Link Key. Go ahead and see if know about the entry */
/* in the list. */
for(Result=0;(Result<sizeof(LinkKeyInfo)/sizeof(LinkKeyInfo_t));Result++)
{
if(COMPARE_BD_ADDR(BD_ADDR, LinkKeyInfo[Result].BD_ADDR))
{
LinkKeyInfo[Result].BD_ADDR = NULL_BD_ADDR;
break;
}
}
}
return(Result);
}
/* The following function is responsible for setting the application */
/* state to support loopback mode. This function will return zero on*/
/* successful execution and a negative value on errors. */
static int Loopback(ParameterList_t *TempParam)
{
int ret_val;
/* First check to see if the parameters required for the execution of*/
/* this function appear to be semi-valid. */
if(BluetoothStackID)
{
/* Next check to see if the parameters required for the execution */
/* of this function appear to be semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 0))
{
if(TempParam->Params->intParam)
LoopbackActive = TRUE;
else
LoopbackActive = FALSE;
}
else
LoopbackActive = (LoopbackActive?FALSE:TRUE);
/* Finally output the current Loopback state. */
Display(("Current Loopback Mode set to: %s.\r\n", LoopbackActive?"ACTIVE":"INACTIVE"));
#if MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE == 0
if(LoopbackActive)
Display(("SPP Loopback not supported with MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE = 0.\r\n"));
#endif
/* Flag success. */
ret_val = 0;
}
else
{
/* One or more of the necessary parameters are invalid. */
ret_val = INVALID_PARAMETERS_ERROR;
}
return(ret_val);
}
/* The following function is responsible for setting the application */
/* state to support displaying Raw Data. This function will return */
/* zero on successful execution and a negative value on errors. */
static int DisplayRawModeData(ParameterList_t *TempParam)
{
int ret_val;
/* First check to see if the parameters required for the execution of*/
/* this function appear to be semi-valid. */
if(BluetoothStackID)
{
/* Check to see if Loopback is active. If it is then we will not */
/* process this command (and we will inform the user). */
if(!LoopbackActive)
{
/* Next check to see if the parameters required for the */
/* execution of this function appear to be semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 0))
{
if(TempParam->Params->intParam)
DisplayRawData = TRUE;
else
DisplayRawData = FALSE;
}
else
DisplayRawData = (DisplayRawData?FALSE:TRUE);
/* Output the current Raw Data Display Mode state. */
Display(("Current Raw Data Display Mode set to: %s.\r\n", DisplayRawData?"ACTIVE":"INACTIVE"));
#if MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE == 0
if(DisplayRawData)
Display(("SPP Display Raw not supported with MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE = 0.\r\n"));
#endif
/* Flag that the function was successful. */
ret_val = 0;
}
else
{
Display(("Unable to process Raw Mode Display Request when operating in Loopback Mode.\r\n"));
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* One or more of the necessary parameters are invalid. */
ret_val = INVALID_PARAMETERS_ERROR;
}
return(ret_val);
}
/* The following function is responsible for setting the application */
/* state to support Automatically reading all data that is received */
/* through SPP. This function will return zero on successful */
/* execution and a negative value on errors. */
static int AutomaticReadMode(ParameterList_t *TempParam)
{
int ret_val;
/* First check to see if the parameters required for the execution of*/
/* this function appear to be semi-valid. */
if(BluetoothStackID)
{
/* Check to see if Loopback is active. If it is then we will not */
/* process this command (and we will inform the user). */
if(!LoopbackActive)
{
/* Next check to see if the parameters required for the */
/* execution of this function appear to be semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 0))
{
if(TempParam->Params->intParam)
AutomaticReadActive = TRUE;
else
AutomaticReadActive = FALSE;
}
else
AutomaticReadActive = (AutomaticReadActive?FALSE:TRUE);
/* Output the current Automatic Read Mode state. */
Display(("Current Automatic Read Mode set to: %s.\r\n", AutomaticReadActive?"ACTIVE":"INACTIVE"));
#if MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE == 0
if(AutomaticReadActive)
Display(("SPP Automatic Read Mode not supported with MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE = 0.\r\n"));
#endif
/* Flag that the function was successful. */
ret_val = 0;
}
else
{
Display(("Unable to process Automatic Read Mode Request when operating in Loopback Mode.\r\n"));
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* One or more of the necessary parameters are invalid. */
ret_val = INVALID_PARAMETERS_ERROR;
}
return(ret_val);
}
/* The following function is responsible for performing a General */
/* Inquiry for discovering Bluetooth Devices. This function requires*/
/* that a valid Bluetooth Stack ID exists before running. This */
/* function returns zero is successful or a negative value if there */
/* was an error. */
static int Inquiry(ParameterList_t *TempParam)
{
int Result;
int ret_val = 0;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Use the GAP_Perform_Inquiry() function to perform an Inquiry. */
/* The Inquiry will last 10 seconds or until 1 Bluetooth Device is*/
/* found. When the Inquiry Results become available the */
/* GAP_Event_Callback is called. */
Result = GAP_Perform_Inquiry(BluetoothStackID, itGeneralInquiry, 0, 0, 10, MAX_INQUIRY_RESULTS, GAP_Event_Callback, (unsigned long)NULL);
/* Next, check to see if the GAP_Perform_Inquiry() function was */
/* successful. */
if(!Result)
{
/* The Inquiry appears to have been sent successfully. */
/* Processing of the results returned from this command occurs */
/* within the GAP_Event_Callback() function. */
/* Flag that we have found NO Bluetooth Devices. */
NumberofValidResponses = 0;
ret_val = 0;
}
else
{
/* A error occurred while performing the Inquiry. */
DisplayFunctionError("Inquiry", Result);
ret_val = Result;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is a utility function that exists to */
/* display the current Inquiry List (with Indexes). This is useful */
/* in case the user has forgotten what Inquiry Index a particular */
/* Bluteooth Device was located in. This function returns zero on */
/* successful execution and a negative value on all errors. */
static int DisplayInquiryList(ParameterList_t *TempParam)
{
int ret_val = 0;
BoardStr_t Function_BoardStr;
unsigned int Index;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Simply display all of the items in the Inquiry List. */
Display(("Inquiry List: %d Devices%s\r\n\r\n", NumberofValidResponses, NumberofValidResponses?":":"."));
for(Index=0;Index<NumberofValidResponses;Index++)
{
BD_ADDRToStr(InquiryResultList[Index], Function_BoardStr);
Display((" Inquiry Result: %d, %s.\r\n", (Index+1), Function_BoardStr));
}
if(NumberofValidResponses)
Display(("\r\n"));
/* All finished, flag success to the caller. */
ret_val = 0;
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for setting the */
/* Discoverability Mode of the local device. This function returns */
/* zero on successful execution and a negative value on all errors. */
static int SetCBDiscoverabilityMode(ParameterList_t *TempParam)
{
int Result;
int ret_val;
GAP_Discoverability_Mode_t DiscoverabilityMode;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Make sure that all of the parameters required for this function*/
/* appear to be at least semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam >= 0) && (TempParam->Params[0].intParam <= 2))
{
/* Parameters appear to be valid, map the specified parameters */
/* into the API specific parameters. */
if(TempParam->Params[0].intParam == 1)
DiscoverabilityMode = dmLimitedDiscoverableMode;
else
{
if(TempParam->Params[0].intParam == 2)
DiscoverabilityMode = dmGeneralDiscoverableMode;
else
DiscoverabilityMode = dmNonDiscoverableMode;
}
/* Parameters mapped, now set the Discoverability Mode. */
Result = GAP_Set_Discoverability_Mode(BluetoothStackID, DiscoverabilityMode, (DiscoverabilityMode == dmLimitedDiscoverableMode)?60:0);
/* Next, check the return value to see if the command was */
/* issued successfully. */
if(Result >= 0)
{
/* The Mode was changed successfully. */
Display(("Discoverability: %s.\r\n", (DiscoverabilityMode == dmNonDiscoverableMode)?"Non":((DiscoverabilityMode == dmGeneralDiscoverableMode)?"General":"Limited")));
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* There was an error setting the Mode. */
DisplayFunctionError("GAP_Set_Discoverability_Mode", Result);
/* Flag that an error occurred while submitting the command.*/
ret_val = FUNCTION_ERROR;
}
}
else
{
/* One or more of the necessary parameters is/are invalid. */
DisplayUsage("SetDiscoverabilityMode [Mode(0 = Non Discoverable, 1 = Limited Discoverable, 2 = General Discoverable)]");
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for setting the */
/* Connectability Mode of the local device. This function returns */
/* zero on successful execution and a negative value on all errors. */
static int SetCBConnectabilityMode(ParameterList_t *TempParam)
{
int Result;
int ret_val;
GAP_Connectability_Mode_t ConnectableMode;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Make sure that all of the parameters required for this function*/
/* appear to be at least semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam >= 0) && (TempParam->Params[0].intParam <= 1))
{
/* Parameters appear to be valid, map the specified parameters */
/* into the API specific parameters. */
if(TempParam->Params[0].intParam == 0)
ConnectableMode = cmNonConnectableMode;
else
ConnectableMode = cmConnectableMode;
/* Parameters mapped, now set the Connectabilty Mode. */
Result = GAP_Set_Connectability_Mode(BluetoothStackID, ConnectableMode);
/* Next, check the return value to see if the command was */
/* issued successfully. */
if(Result >= 0)
{
/* The Mode was changed successfully. */
Display(("Connectability Mode: %s.\r\n", (ConnectableMode == cmNonConnectableMode)?"Non Connectable":"Connectable"));
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* There was an error setting the Mode. */
DisplayFunctionError("GAP_Set_Connectability_Mode", Result);
/* Flag that an error occurred while submitting the command.*/
ret_val = FUNCTION_ERROR;
}
}
else
{
/* One or more of the necessary parameters is/are invalid. */
DisplayUsage("SetConnectabilityMode [(0 = NonConectable, 1 = Connectable)]");
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for setting the Pairability */
/* Mode of the local device. This function returns zero on */
/* successful execution and a negative value on all errors. */
static int SetCBPairabilityMode(ParameterList_t *TempParam)
{
int Result;
int ret_val;
char *Mode;
GAP_Pairability_Mode_t PairabilityMode;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Make sure that all of the parameters required for this function*/
/* appear to be at least semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam >= 0) && (TempParam->Params[0].intParam <= 2))
{
/* Parameters appear to be valid, map the specified parameters */
/* into the API specific parameters. */
if(TempParam->Params[0].intParam == 0)
{
PairabilityMode = pmNonPairableMode;
Mode = "pmNonPairableMode";
}
else
{
if(TempParam->Params[0].intParam == 1)
{
PairabilityMode = pmPairableMode;
Mode = "pmPairableMode";
}
else
{
PairabilityMode = pmPairableMode_EnableSecureSimplePairing;
Mode = "pmPairableMode_EnableSecureSimplePairing";
}
}
/* Parameters mapped, now set the Pairability Mode. */
Result = GAP_Set_Pairability_Mode(BluetoothStackID, PairabilityMode);
/* Next, check the return value to see if the command was */
/* issued successfully. */
if(Result >= 0)
{
/* The Mode was changed successfully. */
Display(("Pairability Mode Changed to %s.\r\n", Mode));
/* If Secure Simple Pairing has been enabled, inform the */
/* user of the current Secure Simple Pairing parameters. */
if(PairabilityMode == pmPairableMode_EnableSecureSimplePairing)
DisplayIOCapabilities();
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* There was an error setting the Mode. */
DisplayFunctionError("GAP_Set_Pairability_Mode", Result);
/* Flag that an error occurred while submitting the command.*/
ret_val = FUNCTION_ERROR;
}
}
else
{
/* One or more of the necessary parameters is/are invalid. */
DisplayUsage("SetPairabilityMode [Mode (0 = Non Pairable, 1 = Pairable, 2 = Pairable (Secure Simple Pairing)]");
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for changing the Secure */
/* Simple Pairing Parameters that are exchanged during the Pairing */
/* procedure when Secure Simple Pairing (Security Level 4) is used. */
/* This function returns zero on successful execution and a negative */
/* value on all errors. */
static int ChangeSimplePairingParameters(ParameterList_t *TempParam)
{
int ret_val = 0;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Make sure that all of the parameters required for this function*/
/* appear to be at least semi-valid. */
if((TempParam) && (TempParam->NumberofParameters >= 2) && (TempParam->Params[0].intParam >= 0) && (TempParam->Params[0].intParam <= 3))
{
/* Parameters appear to be valid, map the specified parameters */
/* into the API specific parameters. */
if(TempParam->Params[0].intParam == 0)
IOCapability = icDisplayOnly;
else
{
if(TempParam->Params[0].intParam == 1)
IOCapability = icDisplayYesNo;
else
{
if(TempParam->Params[0].intParam == 2)
IOCapability = icKeyboardOnly;
else
IOCapability = icNoInputNoOutput;
}
}
/* Finally map the Man in the Middle (MITM) Protection valud. */
MITMProtection = (Boolean_t)(TempParam->Params[1].intParam?TRUE:FALSE);
/* Inform the user of the New I/O Capablities. */
DisplayIOCapabilities();
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* One or more of the necessary parameters is/are invalid. */
DisplayUsage("ChangeSimplePairingParameters [I/O Capability (0 = Display Only, 1 = Display Yes/No, 2 = Keyboard Only, 3 = No Input/Output)] [MITM Requirement (0 = No, 1 = Yes)]");
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for initiating bonding with */
/* a remote device. This function returns zero on successful */
/* execution and a negative value on all errors. */
static int Pair(ParameterList_t *TempParam)
{
int Result;
int ret_val;
GAP_Bonding_Type_t BondingType;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* There are currently no active connections, make sure that all */
/* of the parameters required for this function appear to be at */
/* least semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam) && (NumberofValidResponses) && (TempParam->Params[0].intParam <= NumberofValidResponses) && (!COMPARE_NULL_BD_ADDR(InquiryResultList[(TempParam->Params[0].intParam - 1)])))
{
/* Check to see if General Bonding was specified. */
if(TempParam->NumberofParameters > 1)
BondingType = TempParam->Params[1].intParam?btGeneral:btDedicated;
else
BondingType = btDedicated;
/* Verify that we are not connected to device already. */
if(FindSPPPortIndexByAddress(InquiryResultList[(TempParam->Params[0].intParam - 1)]) < 0)
{
/* Before we submit the command to the stack, we need to */
/* make sure that we clear out any Link Key we have stored */
/* for the specified device. */
DeleteLinkKey(InquiryResultList[(TempParam->Params[0].intParam - 1)]);
/* Attempt to submit the command. */
Result = GAP_Initiate_Bonding(BluetoothStackID, InquiryResultList[(TempParam->Params[0].intParam - 1)], BondingType, GAP_Event_Callback, (unsigned long)0);
/* Check the return value of the submitted command for */
/* success. */
if(!Result)
{
/* Display a messsage indicating that Bonding was */
/* initiated successfully. */
Display(("GAP_Initiate_Bonding(%s): Success.\r\n", (BondingType == btDedicated)?"Dedicated":"General"));
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* Display a message indicating that an error occured */
/* while initiating bonding. */
DisplayFunctionError("GAP_Initiate_Bonding", Result);
ret_val = FUNCTION_ERROR;
}
}
else
{
/* Display an error to the user describing that Pairing can */
/* only occur when we are not connected. */
Display(("Only valid when not connected.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* One or more of the necessary parameters is/are invalid. */
DisplayUsage("Pair [Inquiry Index] [0 = Dedicated, 1 = General (optional)]");
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for ending a previously */
/* initiated bonding session with a remote device. This function */
/* returns zero on successful execution and a negative value on all */
/* errors. */
static int EndPairing(ParameterList_t *TempParam)
{
int Result;
int ret_val;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Make sure that all of the parameters required for this function*/
/* appear to be at least semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam) && (NumberofValidResponses) && (TempParam->Params[0].intParam <= NumberofValidResponses) && (!COMPARE_NULL_BD_ADDR(InquiryResultList[(TempParam->Params[0].intParam - 1)])))
{
/* Attempt to submit the command. */
Result = GAP_End_Bonding(BluetoothStackID, InquiryResultList[(TempParam->Params[0].intParam - 1)]);
/* Check the return value of the submitted command for success.*/
if(!Result)
{
/* Display a messsage indicating that the End bonding was */
/* successfully submitted. */
DisplayFunctionSuccess("GAP_End_Bonding");
/* Flag success to the caller. */
ret_val = 0;
/* Flag that there is no longer a current Authentication */
/* procedure in progress. */
ASSIGN_BD_ADDR(CurrentCBRemoteBD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
}
else
{
/* Display a message indicating that an error occured while */
/* ending bonding. */
DisplayFunctionError("GAP_End_Bonding", Result);
ret_val = FUNCTION_ERROR;
}
}
else
{
/* One or more of the necessary parameters is/are invalid. */
DisplayUsage("EndPairing [Inquiry Index]");
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for issuing a GAP */
/* Authentication Response with a PIN Code value specified via the */
/* input parameter. This function returns zero on successful */
/* execution and a negative value on all errors. */
static int PINCodeResponse(ParameterList_t *TempParam)
{
int Result;
int ret_val;
PIN_Code_t PINCode;
GAP_Authentication_Information_t GAP_Authentication_Information;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* First, check to see if there is an on-going Pairing operation */
/* active. */
if(!COMPARE_NULL_BD_ADDR(CurrentCBRemoteBD_ADDR))
{
/* Make sure that all of the parameters required for this */
/* function appear to be at least semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) > 0) && (BTPS_StringLength(TempParam->Params[0].strParam) <= sizeof(PIN_Code_t)))
{
/* Parameters appear to be valid, go ahead and convert the */
/* input parameter into a PIN Code. */
/* Initialize the PIN code. */
ASSIGN_PIN_CODE(PINCode, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0);
BTPS_MemCopy(&PINCode, TempParam->Params[0].strParam, BTPS_StringLength(TempParam->Params[0].strParam));
/* Populate the response structure. */
GAP_Authentication_Information.GAP_Authentication_Type = atPINCode;
GAP_Authentication_Information.Authentication_Data_Length = (Byte_t)(BTPS_StringLength(TempParam->Params[0].strParam));
GAP_Authentication_Information.Authentication_Data.PIN_Code = PINCode;
/* Submit the Authentication Response. */
Result = GAP_Authentication_Response(BluetoothStackID, CurrentCBRemoteBD_ADDR, &GAP_Authentication_Information);
/* Check the return value for the submitted command for */
/* success. */
if(!Result)
{
/* Operation was successful, inform the user. */
Display(("GAP_Authentication_Response(), Pin Code Response Success.\r\n"));
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* Inform the user that the Authentication Response was */
/* not successful. */
Display(("GAP_Authentication_Response() Failure: %d.\r\n", Result));
ret_val = FUNCTION_ERROR;
}
/* Flag that there is no longer a current Authentication */
/* procedure in progress. */
ASSIGN_BD_ADDR(CurrentCBRemoteBD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
}
else
{
/* One or more of the necessary parameters is/are invalid. */
DisplayUsage("PINCodeResponse [PIN Code]");
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* There is not currently an on-going authentication operation,*/
/* inform the user of this error condition. */
Display(("PIN Code Authentication Response: Authentication not in progress.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for issuing a GAP */
/* Authentication Response with a Pass Key value specified via the */
/* input parameter. This function returns zero on successful */
/* execution and a negative value on all errors. */
static int PassKeyResponse(ParameterList_t *TempParam)
{
int Result;
int ret_val;
GAP_Authentication_Information_t GAP_Authentication_Information;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* First, check to see if there is an on-going Pairing operation */
/* active. */
if(!COMPARE_NULL_BD_ADDR(CurrentCBRemoteBD_ADDR))
{
/* Make sure that all of the parameters required for this */
/* function appear to be at least semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 0) && (BTPS_StringLength(TempParam->Params[0].strParam) <= GAP_PASSKEY_MAXIMUM_NUMBER_OF_DIGITS))
{
/* Parameters appear to be valid, go ahead and populate the */
/* response structure. */
GAP_Authentication_Information.GAP_Authentication_Type = atPassKey;
GAP_Authentication_Information.Authentication_Data_Length = (Byte_t)(sizeof(DWord_t));
GAP_Authentication_Information.Authentication_Data.Passkey = (DWord_t)(TempParam->Params[0].intParam);
/* Submit the Authentication Response. */
Result = GAP_Authentication_Response(BluetoothStackID, CurrentCBRemoteBD_ADDR, &GAP_Authentication_Information);
/* Check the return value for the submitted command for */
/* success. */
if(!Result)
{
/* Operation was successful, inform the user. */
DisplayFunctionSuccess("Passkey Response Success");
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* Inform the user that the Authentication Response was */
/* not successful. */
DisplayFunctionError("GAP_Authentication_Response", Result);
ret_val = FUNCTION_ERROR;
}
/* Flag that there is no longer a current Authentication */
/* procedure in progress. */
ASSIGN_BD_ADDR(CurrentCBRemoteBD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
}
else
{
/* One or more of the necessary parameters is/are invalid. */
Display(("PassKeyResponse[Numeric Passkey(0 - 999999)].\r\n"));
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* There is not currently an on-going authentication operation,*/
/* inform the user of this error condition. */
Display(("Pass Key Authentication Response: Authentication not in progress.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for issuing a GAP */
/* Authentication Response with a User Confirmation value specified */
/* via the input parameter. This function returns zero on successful*/
/* execution and a negative value on all errors. */
static int UserConfirmationResponse(ParameterList_t *TempParam)
{
int Result;
int ret_val;
GAP_Authentication_Information_t GAP_Authentication_Information;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* First, check to see if there is an on-going Pairing operation */
/* active. */
if(!COMPARE_NULL_BD_ADDR(CurrentCBRemoteBD_ADDR))
{
/* Make sure that all of the parameters required for this */
/* function appear to be at least semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 0))
{
/* Parameters appear to be valid, go ahead and populate the */
/* response structure. */
GAP_Authentication_Information.GAP_Authentication_Type = atUserConfirmation;
GAP_Authentication_Information.Authentication_Data_Length = (Byte_t)(sizeof(Byte_t));
GAP_Authentication_Information.Authentication_Data.Confirmation = (Boolean_t)(TempParam->Params[0].intParam?TRUE:FALSE);
/* Submit the Authentication Response. */
Result = GAP_Authentication_Response(BluetoothStackID, CurrentCBRemoteBD_ADDR, &GAP_Authentication_Information);
/* Check the return value for the submitted command for */
/* success. */
if(!Result)
{
/* Operation was successful, inform the user. */
DisplayFunctionSuccess("User Confirmation Response");
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* Inform the user that the Authentication Response was */
/* not successful. */
DisplayFunctionError("GAP_Authentication_Response", Result);
ret_val = FUNCTION_ERROR;
}
/* Flag that there is no longer a current Authentication */
/* procedure in progress. */
ASSIGN_BD_ADDR(CurrentCBRemoteBD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
}
else
{
/* One or more of the necessary parameters is/are invalid. */
DisplayUsage("UserConfirmationResponse [Confirmation(0 = No, 1 = Yes)]");
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* There is not currently an on-going authentication operation,*/
/* inform the user of this error condition. */
Display(("User Confirmation Authentication Response: Authentication is not currently in progress.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for querying the Bluetooth */
/* Device Address of the local Bluetooth Device. This function */
/* returns zero on successful execution and a negative value on all */
/* errors. */
static int GetLocalAddress(ParameterList_t *TempParam)
{
int Result;
int ret_val;
BD_ADDR_t BD_ADDR;
BoardStr_t Function_BoardStr;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Attempt to submit the command. */
Result = GAP_Query_Local_BD_ADDR(BluetoothStackID, &BD_ADDR);
/* Check the return value of the submitted command for success. */
if(!Result)
{
BD_ADDRToStr(BD_ADDR, Function_BoardStr);
Display(("BD_ADDR of Local Device is: %s.\r\n", Function_BoardStr));
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* Display a message indicating that an error occured while */
/* attempting to query the Local Device Address. */
Display(("GAP_Query_Local_BD_ADDR() Failure: %d.\r\n", Result));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for querying the Bluetooth */
/* Device Name of the local Bluetooth Device. This function returns */
/* zero on successful execution and a negative value on all errors. */
static int GetLocalName(ParameterList_t *TempParam)
{
int Result;
int ret_val;
char *LocalName;
// char RT_address[12] = "V";
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Allocate a Buffer to hold the Local Name. */
if((LocalName = BTPS_AllocateMemory(257)) != NULL)
{
/* Attempt to submit the command. */
Result = GAP_Query_Local_Device_Name(BluetoothStackID, 257, (char *)LocalName);
/* Check the return value of the submitted command for success.*/
if(!Result)
{
Display(("Name of Local Device is: %s.\r\n", LocalName));
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* Display a message indicating that an error occured while */
/* attempting to query the Local Device Name. */
Display(("GAP_Query_Local_Device_Name() Failure: %d.\r\n", Result));
ret_val = FUNCTION_ERROR;
}
BTPS_FreeMemory(LocalName);
}
else
{
Display(("Failed to allocate buffer to hold Local Name.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for setting the Class of */
/* Device of the local Bluetooth Device to a Class Of Device value. */
/* This function returns zero on successful execution and a negative */
/* value on all errors. */
static int SetClassOfDevice(ParameterList_t *TempParam)
{
int Result;
int ret_val;
Class_of_Device_t Class_of_Device;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Make sure that all of the parameters required for this function*/
/* appear to be at least semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 0))
{
/* Attempt to submit the command. */
ASSIGN_CLASS_OF_DEVICE(Class_of_Device, (Byte_t)((TempParam->Params[0].intParam) & 0xFF), (Byte_t)(((TempParam->Params[0].intParam) >> 8) & 0xFF), (Byte_t)(((TempParam->Params[0].intParam) >> 16) & 0xFF));
Result = GAP_Set_Class_Of_Device(BluetoothStackID, Class_of_Device);
/* Check the return value of the submitted command for success.*/
if(!Result)
{
/* Display a messsage indicating that the Class of Device */
/* was successfully submitted. */
DisplayClassOfDevice(Class_of_Device);
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* Display a message indicating that an error occured while */
/* attempting to set the local Class of Device. */
DisplayFunctionError("GAP_Set_Class_Of_Device", Result);
ret_val = FUNCTION_ERROR;
}
}
else
{
/* One or more of the necessary parameters is/are invalid. */
DisplayUsage("SetClassOfDevice [Class of Device]");
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for querying the Bluetooth */
/* Class of Device of the local Bluetooth Device. This function */
/* returns zero on successful execution and a negative value on all */
/* errors. */
static int GetClassOfDevice(ParameterList_t *TempParam)
{
int Result;
int ret_val;
Class_of_Device_t Class_of_Device;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Attempt to submit the command. */
Result = GAP_Query_Class_Of_Device(BluetoothStackID, &Class_of_Device);
/* Check the return value of the submitted command for success. */
if(!Result)
{
Display(("Local Class of Device is: 0x%02X%02X%02X.\r\n", Class_of_Device.Class_of_Device0, Class_of_Device.Class_of_Device1, Class_of_Device.Class_of_Device2));
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* Display a message indicating that an error occured while */
/* attempting to query the Local Class of Device. */
Display(("GAP_Query_Class_Of_Device() Failure: %d.\r\n", Result));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for querying the Bluetooth */
/* Device Name of the specified remote Bluetooth Device. This */
/* function returns zero on successful execution and a negative value*/
/* on all errors. */
static int GetRemoteName(ParameterList_t *TempParam)
{
int Result;
int ret_val;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Make sure that all of the parameters required for this function*/
/* appear to be at least semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam) && (NumberofValidResponses) && (TempParam->Params[0].intParam <= NumberofValidResponses) && (!COMPARE_NULL_BD_ADDR(InquiryResultList[(TempParam->Params[0].intParam - 1)])))
{
/* Attempt to submit the command. */
Result = GAP_Query_Remote_Device_Name(BluetoothStackID, InquiryResultList[(TempParam->Params[0].intParam - 1)], GAP_Event_Callback, (unsigned long)0);
/* Check the return value of the submitted command for success.*/
if(!Result)
{
/* Display a messsage indicating that Remote Name request */
/* was initiated successfully. */
DisplayFunctionSuccess("GAP_Query_Remote_Device_Name");
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* Display a message indicating that an error occured while */
/* initiating the Remote Name request. */
DisplayFunctionError("GAP_Query_Remote_Device_Name", Result);
ret_val = FUNCTION_ERROR;
}
}
else
{
/* One or more of the necessary parameters is/are invalid. */
DisplayUsage("GetRemoteName [Inquiry Index]");
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for putting a specified */
/* connection into HCI Sniff Mode with passed in parameters. */
static int SniffMode(ParameterList_t *TempParam)
{
int Result;
int ret_val;
int SerialPortIndex;
Byte_t Status;
Word_t Sniff_Max_Interval;
Word_t Sniff_Min_Interval;
Word_t Sniff_Attempt;
Word_t Sniff_Timeout;
unsigned int LocalSerialPortID;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Make sure that all of the parameters required for this function*/
/* appear to be at least semi-valid. */
if((TempParam) && (TempParam->NumberofParameters >= 5) && (TempParam->Params[0].intParam))
{
LocalSerialPortID = (unsigned int)TempParam->Params[0].intParam;
Sniff_Max_Interval = (Word_t)MILLISECONDS_TO_BASEBAND_SLOTS(TempParam->Params[1].intParam);
Sniff_Min_Interval = (Word_t)MILLISECONDS_TO_BASEBAND_SLOTS(TempParam->Params[2].intParam);
Sniff_Attempt = TempParam->Params[3].intParam;
Sniff_Timeout = TempParam->Params[4].intParam;
/* Make sure the Sniff Mode parameters seem semi valid. */
if((Sniff_Attempt) && (Sniff_Max_Interval) && (Sniff_Min_Interval) && (Sniff_Min_Interval < Sniff_Max_Interval))
{
/* Make sure the connection handle is valid. */
if(((SerialPortIndex = FindSPPPortIndex(LocalSerialPortID)) >= 0) && (SPPContextInfo[SerialPortIndex].Connection_Handle))
{
/* Now that we have the connection try and go to Sniff. */
Result = HCI_Sniff_Mode(BluetoothStackID, SPPContextInfo[SerialPortIndex].Connection_Handle, Sniff_Max_Interval, Sniff_Min_Interval, Sniff_Attempt, Sniff_Timeout, &Status);
if((!Result) && (Status == HCI_ERROR_CODE_NO_ERROR))
{
DisplayFunctionSuccess("HCI_Sniff_Mode()");
/* Return success to the caller. */
ret_val = 0;
}
else
{
Display(("Error - HCI_Sniff_Mode() %d: 0x%02X", Result, Status));
ret_val = FUNCTION_ERROR;
}
}
else
{
Display(("Invalid Serial Port ID.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* One or more of the necessary parameters is/are invalid. */
DisplayUsage("SniffMode [SerialPortID] [MaxInterval] [MinInterval] [Attempt] [Timeout]");
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* One or more of the necessary parameters is/are invalid. */
DisplayUsage("SniffMode [SerialPortID] [MaxInterval] [MinInterval] [Attempt] [Timeout]");
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for attempting to Exit */
/* Sniff Mode for a specified connection. */
static int ExitSniffMode(ParameterList_t *TempParam)
{
int Result;
int ret_val;
int SerialPortIndex;
Byte_t Status;
unsigned int LocalSerialPortID;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Make sure that all of the parameters required for this function*/
/* appear to be at least semi-valid. */
if((TempParam) && (TempParam->NumberofParameters >= 1) && (TempParam->Params[0].intParam))
{
/* Save the specified Serial Port ID. */
LocalSerialPortID = (unsigned int)TempParam->Params[0].intParam;
/* Make sure the connection handle is valid. */
if(((SerialPortIndex = FindSPPPortIndex(LocalSerialPortID)) >= 0) && (SPPContextInfo[SerialPortIndex].Connection_Handle))
{
/* Attempt to Exit Sniff Mode for the Specified Device. */
Result = HCI_Exit_Sniff_Mode(BluetoothStackID, SPPContextInfo[SerialPortIndex].Connection_Handle, &Status);
if((!Result) && (Status == HCI_ERROR_CODE_NO_ERROR))
{
/* Flag that HCI_Exit_Sniff_Mode was successfull. */
DisplayFunctionSuccess("HCI_Exit_Sniff_Mode()");
ret_val = 0;
}
else
{
/* Failed to get exit sniff mode. */
Display(("Error - HCI_Exit_Sniff_Mode() %d: 0x%02X", Result, Status));
/* Return function error to the caller. */
ret_val = FUNCTION_ERROR;
}
}
else
{
Display(("Invalid Serial Port ID.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* One or more of the necessary parameters is/are invalid. */
DisplayUsage("ExitSniffMode [SerialPortID] ");
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for opening a Serial Port */
/* Server on the Local Device. This function opens the Serial Port */
/* Server on the specified RFCOMM Channel. This function returns */
/* zero if successful, or a negative return value if an error */
/* occurred. */
static int OpenServer(ParameterList_t *TempParam)
{
int SerialPortIndex;
int ret_val;
char *ServiceName;
DWord_t SPPServerSDPHandle;
unsigned int ServerPortID;
unsigned int ServerPortNumber;
/* First check to see if a valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Next, check to see if the parameters specified are valid. */
// if((TempParam) && (TempParam->NumberofParameters >= 1) && (TempParam->Params[0].intParam))
// {
// /* Find an empty slot. */
if((SerialPortIndex = FindFreeSPPPortIndex()) >= 0)
{
/* Save the server port number. */
// ServerPortNumber = TempParam->Params[0].intParam;
ServerPortNumber = 1;
/* Simply attempt to open an Serial Server, on RFCOMM Server*/
/* Port 1. */
ret_val = SPP_Open_Server_Port(BluetoothStackID, ServerPortNumber, SPP_Event_Callback, (unsigned long)0);
/* If the Open was successful, then note the Serial Port */
/* Server ID. */
if(ret_val > 0)
{
/* Note the Serial Port Server ID of the opened Serial */
/* Port Server. */
ServerPortID = (unsigned int)ret_val;
/* Create a Buffer to hold the Service Name. */
if((ServiceName = BTPS_AllocateMemory(64)) != NULL)
{
/* The Server was opened successfully, now register a */
/* SDP Record indicating that an Serial Port Server */
/* exists. Do this by first creating a Service Name. */
BTPS_SprintF(ServiceName, "Serial Port Server Port %d", ServerPortNumber);
/* Only register an SDP record if we have not already */
/* opened a server on this port number. */
if(FindSPPPortIndexByServerPortNumber(ServerPortNumber) < 0)
{
/* Now that a Service Name has been created try to */
/* Register the SDP Record. */
ret_val = SPP_Register_Generic_SDP_Record(BluetoothStackID, ServerPortID, ServiceName, &SPPServerSDPHandle);
}
else
{
/* We already have opened another SPP Port on that */
/* RFCOMM Port Number so there is no need to */
/* register a duplicate SDP Record. */
SPPServerSDPHandle = 0;
ret_val = 0;
}
/* If there was an error creating the Serial Port */
/* Server's SDP Service Record then go ahead an close */
/* down the server an flag an error. */
if(ret_val < 0)
{
Display(("Unable to Register Server SDP Record, Error = %d.\r\n", ret_val));
SPP_Close_Server_Port(BluetoothStackID, ServerPortID);
/* Flag that there is no longer an Serial Port */
/* Server Open. */
ServerPortID = 0;
ret_val = UNABLE_TO_REGISTER_SERVER;
}
else
{
/* Simply flag to the user that everything */
/* initialized correctly. */
Display(("Server Opened: Server Port %u, Serial Port ID %u.\r\n", (unsigned int)TempParam->Params[0].intParam, ServerPortID));
/* We found an empty slot to store the context */
SPPContextInfo[SerialPortIndex].LocalSerialPortID = ServerPortID;
SPPContextInfo[SerialPortIndex].ServerPortNumber = ServerPortNumber;
SPPContextInfo[SerialPortIndex].SPPServerSDPHandle = SPPServerSDPHandle;
SPPContextInfo[SerialPortIndex].Connected = FALSE;
/* If this message is not seen in the terminal log */
/* after opening a server, then something went */
/* wrong */
Display(("Server Port Context Stored.\r\n"));
/* Flag success to the caller. */
ret_val = 0;
}
/* Free the Service Name buffer. */
BTPS_FreeMemory(ServiceName);
}
else
{
Display(("Failed to allocate buffer to hold Service Name in SDP Record.\r\n"));
}
}
else
{
Display(("Unable to Open Server on: %d, Error = %d.\r\n", TempParam->Params[0].intParam, ret_val));
ret_val = UNABLE_TO_REGISTER_SERVER;
}
}
else
{
/* Maximum number of ports reached. */
Display(("Maximum allowed server ports open.\r\n"));
ret_val = FUNCTION_ERROR;
}
// }
// else
// {
// DisplayUsage("Open [Port Number]");
// ret_val = INVALID_PARAMETERS_ERROR;
// }
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for closing a Serial Port */
/* Server that was previously opened via a successful call to the */
/* OpenServer() function. This function returns zero if successful */
/* or a negative return error code if there was an error. */
static int CloseServer(ParameterList_t *TempParam)
{
int i;
int ret_val = 0;
int LocalSerialPortID;
/* First check to see if a valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Figure out the server port that corresponds to the portID */
/* requested by the user. */
if((TempParam) && (TempParam->NumberofParameters) && (TempParam->Params[0].intParam))
{
LocalSerialPortID = TempParam->Params[0].intParam;
ClosePortByNumber(LocalSerialPortID);
}
else
{
/* If no port is specified to close then we should close them */
/* all. */
if((!TempParam) || ((TempParam) && (TempParam->NumberofParameters == 0)))
{
for(i=0; i < sizeof(SPPContextInfo)/sizeof(SPP_Context_Info_t); i++)
{
/* If a server is register then close the port. */
if((SPPContextInfo[i].LocalSerialPortID) && (SPPContextInfo[i].ServerPortNumber))
ClosePortByNumber(SPPContextInfo[i].LocalSerialPortID);
}
}
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for initiating a connection */
/* with a Remote Serial Port Server. This function returns zero if */
/* successful and a negative value if an error occurred. */
static int OpenRemoteServer(ParameterList_t *TempParam)
{
int ret_val;
int Result;
int SerialPortIndex;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Next, check that we are in client mode. */
if(UI_Mode == UI_MODE_IS_CLIENT)
{
/* Next, let's make sure that the user has specified a Remote */
/* Bluetooth Device to open. */
if((TempParam) && (TempParam->NumberofParameters > 1) && (TempParam->Params[0].intParam) && (NumberofValidResponses) && (TempParam->Params[0].intParam <= NumberofValidResponses) && (!COMPARE_NULL_BD_ADDR(InquiryResultList[(TempParam->Params[0].intParam - 1)])) && (TempParam->Params[1].intParam))
{
/* Find a free serial port entry. */
if((SerialPortIndex = FindFreeSPPPortIndex()) >= 0)
{
/* Now let's attempt to open the Remote Serial Port */
/* Server. */
Result = SPP_Open_Remote_Port(BluetoothStackID, InquiryResultList[(TempParam->Params[0].intParam - 1)], TempParam->Params[1].intParam, SPP_Event_Callback, (unsigned long)0);
if(Result > 0)
{
/* Inform the user that the call to open the Remote */
/* Serial Port Server was successful. */
Display(("SPP_Open_Remote_Port success, Serial Port ID = %u.\r\n", (unsigned int)Result));
/* Note the Serial Port Client ID and Bluetooth */
/* Address. */
SPPContextInfo[SerialPortIndex].LocalSerialPortID = (unsigned int)Result;
SPPContextInfo[SerialPortIndex].BD_ADDR = InquiryResultList[(TempParam->Params[0].intParam - 1)];
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* Inform the user that the call to Open the Remote */
/* Serial Port Server failed. */
DisplayFunctionError("SPP_Open_Remote_Port", Result);
/* One or more of the necessary parameters is/are */
/* invalid. */
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* Maximum client ports reached. */
Display(("Maximum allowed client ports open.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
DisplayUsage("Open [Inquiry Index] [RFCOMM Server Port].\r\n");
/* One or more of the necessary parameters is/are invalid. */
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* One or more of the necessary parameters is/are invalid. */
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for terminating a connection*/
/* with a Remote Serial Port Server. This function returns zero if */
/* successful and a negative value if an error occurred. */
static int CloseRemoteServer(ParameterList_t *TempParam)
{
int i;
int ret_val = 0;
unsigned int LocalSerialPortID;
/* First check to see if a valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Figure out the server port that corresponds to the portID */
/* requested by the user. */
if((TempParam) && (TempParam->NumberofParameters) && (TempParam->Params[0].intParam))
{
LocalSerialPortID = TempParam->Params[0].intParam;
ClosePortByNumber(LocalSerialPortID);
}
else
{
/* If no port is specified to close then we should close them */
/* all. */
if((!TempParam) || ((TempParam) && (TempParam->NumberofParameters == 0)))
{
for(i=0; i < sizeof(SPPContextInfo)/sizeof(SPP_Context_Info_t); i++)
{
/* Attempt to close this port. */
if(SPPContextInfo[i].LocalSerialPortID)
ClosePortByNumber(SPPContextInfo[i].LocalSerialPortID);
}
}
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for reading data that was */
/* received via an Open SPP port. The function reads a fixed number */
/* of bytes at a time from the SPP Port and displays it. If the call */
/* to the SPP_Data_Read() function is successful but no data is */
/* available to read the function displays "No data to read.". This */
/* function requires that a valid Bluetooth Stack ID and Serial Port */
/* ID exist before running. This function returns zero if successful*/
/* and a negative value if an error occurred. */
static int Read(ParameterList_t *TempParam)
{
int ret_val;
int Result;
int SerialPortIndex;
unsigned int LocalSerialPortID;
char Buffer_1[17];
/* First check to see if the parameters required for the execution of*/
/* this function appear to be semi-valid. */
if(BluetoothStackID)
{
/* Only allow the Read Command if we are not in Loopback or */
/* Display Raw Data Mode. */
if((!LoopbackActive) && (!DisplayRawData))
{
/* Verify that the parameters to this function are valid. */
// if((TempParam) && (TempParam->NumberofParameters) && (TempParam->Params[0].intParam))
// {
/* Save the selected Serial Port ID. */
// LocalSerialPortID = (unsigned int)TempParam->Params[0].intParam;
LocalSerialPortID = 1;
/* Find the serial port entry for this port. */
if(((SerialPortIndex = FindSPPPortIndex(LocalSerialPortID)) >= 0) && (SPPContextInfo[SerialPortIndex].Connected == TRUE))
{
/* The required parameters appear to be semi-valid, send */
/* the command to Read Data from SPP. */
do
{
/* Attempt to read data from the buffer. */
Result = SPP_Data_Read(BluetoothStackID, SPPContextInfo[SerialPortIndex].LocalSerialPortID, sizeof(Buffer_1), Buffer_1);
//
/* Next, check the return value to see if the command */
/* was successfully. */
if(Result >= 0)
{
/* Null terminate the read data. */
//Buffer[Result] = 0;
/* Data was read successfully, the result indicates*/
/* the of bytes that were successfully Read. */
Display(("Read: %d.\r\n", Result));
if(Result > 0)
{
variable=1;
Display(("Message1: %c\r\n", Buffer_1[0]));
Display(("Message2: %c\r\n", Buffer_1[1]));
Display(("Message3: %c\r\n", Buffer_1[2]));
Display(("Message4: %c\r\n", Buffer_1[3]));
Display(("Message5: %c\r\n", Buffer_1[4]));
Display(("Message6: %c\r\n", Buffer_1[5]));
Display(("Message7: %c\r\n", Buffer_1[6]));
Display(("Message8: %c\r\n", Buffer_1[7]));
Display(("Message9: %c\r\n", Buffer_1[8]));
Display(("Message10: %c\r\n", Buffer_1[9]));
Display(("Message11: %c\r\n", Buffer_1[10]));
Display(("Message12: %c\r\n", Buffer_1[11]));
Display(("Message13: %c\r\n", Buffer_1[12]));
Display(("Message14: %c\r\n", Buffer_1[13]));
Display(("Message15: %c\r\n", Buffer_1[14]));
Display(("Message16: %c\r\n", Buffer_1[15]));
Display(("Message17: %c\r\n", Buffer_1[16]));
Don_Address[0]=Buffer_1[0];
Don_Address[1]=Buffer_1[1];
Don_Address[2]=Buffer_1[3];
Don_Address[3]=Buffer_1[4];
Don_Address[4]=Buffer_1[6];
Don_Address[5]=Buffer_1[7];
Don_Address[6]=Buffer_1[9];
Don_Address[7]=Buffer_1[10];
Don_Address[8]=Buffer_1[12];
Don_Address[9]=Buffer_1[13];
Don_Address[10]=Buffer_1[15];
Don_Address[11]=Buffer_1[16];
Display(("Message1: %c\r\n", Don_Address[0]));
Display(("Message2: %c\r\n", Don_Address[1]));
Display(("Message3: %c\r\n", Don_Address[2]));
Display(("Message4: %c\r\n", Don_Address[3]));
Display(("Message5: %c\r\n", Don_Address[4]));
Display(("Message6: %c\r\n", Don_Address[5]));
Display(("Message7: %c\r\n", Don_Address[6]));
Display(("Message8: %c\r\n", Don_Address[7]));
Display(("Message9: %c\r\n", Don_Address[8]));
Display(("Message10: %c\r\n", Don_Address[9]));
Display(("Message11: %c\r\n", Don_Address[10]));
Display(("Message12: %c\r\n", Don_Address[11]));
}
ret_val = 0;
}
else
{
/* An error occurred while reading from SPP. */
DisplayFunctionError("SPP_Data_Read Failure", Result);
ret_val = Result;
}
} while(Result > 0);
}
else
{
/* Maximum client ports reached. */
Display(("Port is invalid or not connected.\r\n"));
ret_val = FUNCTION_ERROR;
}
//}
// else
//{
// DisplayUsage("Read [SerialPortID].\r\n");
/* One or more of the necessary parameters is/are invalid. */
ret_val = INVALID_PARAMETERS_ERROR;
// }
}
else
{
/* Simply inform the user that this command is not available in*/
/* this mode. */
Display(("This operation cannot be performed while in Loopback Mode or while Displaying Raw Data.\r\n"));
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* One or more of the necessary parameters are invalid. */
ret_val = INVALID_PARAMETERS_ERROR;
}
return(ret_val);
}
/* The following function is responsible for Writing Data to an Open */
/* SPP Port. The string that is written is defined by the constant */
/* TEST_DATA (at the top of this file). This function requires that */
/* a valid Bluetooth Stack ID and Serial Port ID exist before */
/* running. This function returns zero is successful or a negative */
/* return value if there was an error. */
static int Write(ParameterList_t *TempParam)
{
int ret_val;
int Result;
int SerialPortIndex;
unsigned int LocalSerialPortID;
/* First check to see if the parameters required for the execution of*/
/* this function appear to be semi-valid. */
if(BluetoothStackID)
{
/* Verify that the parameters to this function are valid. */
// if((TempParam) && (TempParam->NumberofParameters) && (TempParam->Params[0].intParam) )
//{
/* Save the selected Serial Port ID. */
LocalSerialPortID = 1;
/* Find the serial port entry for this port. */
if(((SerialPortIndex = FindSPPPortIndex(LocalSerialPortID)) >= 0) && (SPPContextInfo[SerialPortIndex].Connected == TRUE))
{
/* Simply write out the default string value. */
// Result = SPP_Data_Write(BluetoothStackID, SPPContextInfo[SerialPortIndex].LocalSerialPortID, (Word_t)DataStrLen, (Byte_t *)DataStr);
Result = SPP_Data_Write(BluetoothStackID, SPPContextInfo[SerialPortIndex].LocalSerialPortID, 8,SPPLEBuffer );
//
/* Next, check the return value to see if the command was */
/* issued successfully. */
if(Result >= 0)
{
/* The Data was written successfully, Result indicates the*/
/* number of bytes successfully written. */
// Display(("Wrote: %d.\r\n", Result));
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* There was an error writing the Data to the SPP Port. */
Display(("Failed: %d.\r\n", Result));
/* Flag that an error occurred while submitting the */
/* command. */
ret_val = FUNCTION_ERROR;
}
}
else
{
/* Maximum client ports reached. */
// Display(("Port is invalid or not connected.\r\n"));
ret_val = FUNCTION_ERROR;
}
// }
//else
//{
// DisplayUsage("Write [SerialPortID].\r\n");
/* One or more of the necessary parameters is/are invalid. */
//ret_val = INVALID_PARAMETERS_ERROR;
//}
}
else
{
/* One or more of the necessary parameters are invalid. */
ret_val = INVALID_PARAMETERS_ERROR;
}
return(ret_val);
}
/* The following function is responsible for querying the current */
/* configuration parameters that are used by SPP. This function will*/
/* return zero on successful execution and a negative value on */
/* errors. */
static int GetConfigParams(ParameterList_t *TempParam)
{
int ret_val;
SPP_Configuration_Params_t SPPConfigurationParams;
/* First check to see if the parameters required for the execution of*/
/* this function appear to be semi-valid. */
if(BluetoothStackID)
{
/* Simply query the configuration parameters. */
ret_val = SPP_Get_Configuration_Parameters(BluetoothStackID, &SPPConfigurationParams);
if(ret_val >= 0)
{
/* Parameters have been queried successfully, go ahead and */
/* notify the user. */
Display(("SPP_Get_Configuration_Parameters(): Success\r\n", ret_val));
Display((" MaximumFrameSize : %d (0x%X)\r\n", SPPConfigurationParams.MaximumFrameSize, SPPConfigurationParams.MaximumFrameSize));
Display((" TransmitBufferSize : %d (0x%X)\r\n", SPPConfigurationParams.TransmitBufferSize, SPPConfigurationParams.TransmitBufferSize));
Display((" ReceiveBufferSize : %d (0x%X)\r\n", SPPConfigurationParams.ReceiveBufferSize, SPPConfigurationParams.ReceiveBufferSize));
/* Flag success. */
ret_val = 0;
}
else
{
/* Error querying the current parameters. */
Display(("SPP_Get_Configuration_Parameters(): Error %d.\r\n", ret_val));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* One or more of the necessary parameters are invalid. */
ret_val = INVALID_PARAMETERS_ERROR;
}
return(ret_val);
}
/* The following function is responsible for setting the current */
/* configuration parameters that are used by SPP. This function will*/
/* return zero on successful execution and a negative value on */
/* errors. */
static int SetConfigParams(ParameterList_t *TempParam)
{
int ret_val;
SPP_Configuration_Params_t SPPConfigurationParams;
/* First check to see if the parameters required for the execution of*/
/* this function appear to be semi-valid. */
if(BluetoothStackID)
{
/* Next check to see if the parameters required for the execution */
/* of this function appear to be semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 2))
{
/* Parameters have been specified, go ahead and write them to */
/* the stack. */
SPPConfigurationParams.MaximumFrameSize = (unsigned int)(TempParam->Params[0].intParam);
SPPConfigurationParams.TransmitBufferSize = (unsigned int)(TempParam->Params[1].intParam);
SPPConfigurationParams.ReceiveBufferSize = (unsigned int)(TempParam->Params[2].intParam);
ret_val = SPP_Set_Configuration_Parameters(BluetoothStackID, &SPPConfigurationParams);
if(ret_val >= 0)
{
Display(("SPP_Set_Configuration_Parameters(): Success\r\n", ret_val));
Display((" MaximumFrameSize : %d (0x%X)\r\n", SPPConfigurationParams.MaximumFrameSize, SPPConfigurationParams.MaximumFrameSize));
Display((" TransmitBufferSize : %d (0x%X)\r\n", SPPConfigurationParams.TransmitBufferSize, SPPConfigurationParams.TransmitBufferSize));
Display((" ReceiveBufferSize : %d (0x%X)\r\n", SPPConfigurationParams.ReceiveBufferSize, SPPConfigurationParams.ReceiveBufferSize));
/* Flag success. */
ret_val = 0;
}
else
{
/* Error setting the current parameters. */
Display(("SPP_Set_Configuration_Parameters(): Error %d.\r\n", ret_val));
ret_val = FUNCTION_ERROR;
}
}
else
{
DisplayUsage("SetConfigParams [MaximumFrameSize] [TransmitBufferSize (0: don't change)] [ReceiveBufferSize (0: don't change)]");
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* One or more of the necessary parameters are invalid. */
ret_val = INVALID_PARAMETERS_ERROR;
}
return(ret_val);
}
/* The following function is responsible for querying the current */
/* queuing parameters that are used by SPP/RFCOMM (into L2CAP). This*/
/* function will return zero on successful execution and a negative */
/* value on errors. */
static int GetQueueParams(ParameterList_t *TempParam)
{
int ret_val;
unsigned int MaximumNumberDataPackets;
unsigned int QueuedDataPacketsThreshold;
/* First check to see if the parameters required for the execution of*/
/* this function appear to be semi-valid. */
if(BluetoothStackID)
{
/* Simply query the queuing parameters. */
ret_val = SPP_Get_Queuing_Parameters(BluetoothStackID, &MaximumNumberDataPackets, &QueuedDataPacketsThreshold);
if(ret_val >= 0)
{
/* Parameters have been queried successfully, go ahead and */
/* notify the user. */
Display(("SPP_Get_Queuing_Parameters(): Success.\r\n"));
Display((" MaximumNumberDataPackets : %d (0x%X)\r\n", MaximumNumberDataPackets, MaximumNumberDataPackets));
Display((" QueuedDataPacketsThreshold : %d (0x%X)\r\n", QueuedDataPacketsThreshold, QueuedDataPacketsThreshold));
/* Flag success. */
ret_val = 0;
}
else
{
/* Error querying the current parameters. */
Display(("SPP_Get_Queuing_Parameters(): Error %d.\r\n", ret_val));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* One or more of the necessary parameters are invalid. */
ret_val = INVALID_PARAMETERS_ERROR;
}
return(ret_val);
}
/* The following function is responsible for setting the current */
/* queuing parameters that are used by SPP/RFCOMM (into L2CAP). This*/
/* function will return zero on successful execution and a negative */
/* value on errors. */
static int SetQueueParams(ParameterList_t *TempParam)
{
int ret_val;
/* First check to see if the parameters required for the execution of*/
/* this function appear to be semi-valid. */
if(BluetoothStackID)
{
/* Next check to see if the parameters required for the execution */
/* of this function appear to be semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 1))
{
/* Parameters have been specified, go ahead and write them to */
/* the stack. */
ret_val = SPP_Set_Queuing_Parameters(BluetoothStackID, (unsigned int)(TempParam->Params[0].intParam), (unsigned int)(TempParam->Params[1].intParam));
if(ret_val >= 0)
{
Display(("SPP_Set_Queuing_Parameters(): Success.\r\n"));
Display((" MaximumNumberDataPackets : %d (0x%X)\r\n", (unsigned int)(TempParam->Params[0].intParam), (unsigned int)(TempParam->Params[0].intParam)));
Display((" QueuedDataPacketsThreshold : %d (0x%X)\r\n", (unsigned int)(TempParam->Params[1].intParam), (unsigned int)(TempParam->Params[1].intParam)));
/* Flag success. */
ret_val = 0;
}
else
{
/* Error setting the current parameters. */
Display(("SPP_Set_Queuing_Parameters(): Error %d.\r\n", ret_val));
ret_val = FUNCTION_ERROR;
}
}
else
{
DisplayUsage("SetQueueParams [MaximumNumberDataPackets] [QueuedDataPacketsThreshold]");
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* One or more of the necessary parameters are invalid. */
ret_val = INVALID_PARAMETERS_ERROR;
}
return(ret_val);
}
/* The following thread is responsible for checking changing the */
/* current Baud Rate used to talk to the Radio. */
/* * NOTE * This function ONLY configures the Baud Rate for a TI */
/* Bluetooth chipset. */
static int SetBaudRate(ParameterList_t *TempParam)
{
int ret_val;
/* First check to see if the parameters required for the execution of*/
/* this function appear to be semi-valid. */
if(BluetoothStackID)
{
/* Next check to see if the parameters required for the execution */
/* of this function appear to be semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam))
{
/* Next, write the command to the device. */
ret_val = VS_Update_UART_Baud_Rate(BluetoothStackID, (DWord_t)TempParam->Params[0].intParam);
if(!ret_val)
{
Display(("VS_Update_UART_Baud_Rate(%u): Success.\r\n", TempParam->Params[0].intParam));
}
else
{
/* Unable to write vendor specific command to chipset. */
Display(("VS_Update_UART_Baud_Rate(%u): Failure %d, %d.\r\n", TempParam->Params[0].intParam, ret_val));
ret_val = FUNCTION_ERROR;
}
}
else
{
DisplayUsage("SetBaudRate [BaudRate]");
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* One or more of the necessary parameters are invalid. */
ret_val = INVALID_PARAMETERS_ERROR;
}
return(ret_val);
}
/* The following function is responsible for sending a number of */
/* characters to a remote device to which a connection exists. The */
/* function receives a parameter that indicates the number of byte to*/
/* be transferred. This function will return zero on successful */
/* execution and a negative value on errors. */
static int SendData(ParameterList_t *TempParam)
{
int SerialPortIndex;
int Ndx;
Word_t DataCount;
Boolean_t Done;
unsigned int LocalSerialPortID;
/* Make sure that all of the parameters required for this function */
/* appear to be at least semi-valid. */
if((TempParam) && (TempParam->NumberofParameters >= 2) && (TempParam->Params[0].intParam > 0) && (TempParam->Params[1].intParam))
{
/* Store the Serial Port ID in a local variable. */
LocalSerialPortID = TempParam->Params[1].intParam;
/* Verify that there is a connection that is established. */
if((SerialPortIndex = FindSPPPortIndex(LocalSerialPortID)) >= 0)
{
/* Chcek to see if we are sending to another port. */
if(!SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend)
{
/* Get the count of the number of bytes to send. */
SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend = (DWord_t)TempParam->Params[0].intParam;
SPPContextInfo[SerialPortIndex].SendInfo.BytesSent = 0;
Done = FALSE;
while((SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend) && (!Done))
{
/* Set the Number of bytes to send in the first packet. */
if(SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend > DataStrLen)
DataCount = DataStrLen;
else
DataCount = SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend;
Ndx = SPP_Data_Write(BluetoothStackID, LocalSerialPortID, DataCount, (unsigned char *)DataStr);
if(Ndx >= 0)
{
/* Adjust the counters. */
SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend -= Ndx;
if(Ndx < DataCount)
{
SPPContextInfo[SerialPortIndex].SendInfo.BytesSent = Ndx;
SPPContextInfo[SerialPortIndex].SendInfo.BufferFull = TRUE;
Done = TRUE;
}
}
else
{
Display(("SEND failed with error %d\r\n", Ndx));
SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend = 0;
}
}
}
else
Display(("Send Currently in progress.\r\n"));
}
else
Display(("Context not found\r\n"));
}
else
DisplayUsage("SEND [Number of Bytes to send] [Serial Port ID]\r\n");
return(0);
}
/* The following function is responsible for changing the User */
/* Interface Mode to Server. */
static int ServerMode(ParameterList_t *TempParam)
{
UI_Mode = UI_MODE_IS_SERVER;
UserInterface_Server();
return(0);
}
/* The following function is responsible for changing the User */
/* Interface Mode to Client. */
static int ClientMode(ParameterList_t *TempParam)
{
UI_Mode = UI_MODE_IS_CLIENT;
UserInterface_Client();
return(0);
}
/* The following function is responsible for displaying the current */
/* Command Options for either Serial Port Client or Serial Port */
/* Server. The input parameter to this function is completely */
/* ignored, and only needs to be passed in because all Commands that */
/* can be entered at the Prompt pass in the parsed information. This*/
/* function displays the current Command Options that are available */
/* and always returns zero. */
static int DisplayHelp(ParameterList_t *TempParam)
{
if(UI_Mode == UI_MODE_IS_CLIENT)
{
Display(("\r\n"));
Display(("******************************************************************\r\n"));
Display(("* Command Options General: Help, GetLocalAddress, SetBaudRate *\r\n"));
Display(("* Quit, *\r\n"));
Display(("* Command Options BR/EDR: Inquiry, DisplayInquiryList, Pair, *\r\n"));
Display(("* EndPairing, PINCodeResponse, *\r\n"));
Display(("* PassKeyResponse, *\r\n"));
Display(("* UserConfirmationResponse, *\r\n"));
Display(("* SetDiscoverabilityMode, *\r\n"));
Display(("* SetConnectabilityMode, *\r\n"));
Display(("* SetPairabilityMode, *\r\n"));
Display(("* ChangeSimplePairingParameters, *\r\n"));
Display(("* GetLocalName, SetLocalName, *\r\n"));
Display(("* GetClassOfDevice, SetClassOfDevice, *\r\n"));
Display(("* GetRemoteName, SniffMode, *\r\n"));
Display(("* ExitSniffMode, Open, Close, Read, *\r\n"));
Display(("* Write, GetConfigParams, *\r\n"));
Display(("* SetConfigParams, GetQueueParams, *\r\n"));
Display(("* DisplayRawModeData, AutomaticReadMode,*\r\n"));
Display(("* SetQueueParams, Loopback, *\r\n"));
Display(("* CBSend. *\r\n"));
}
else
{
if(UI_Mode == UI_MODE_IS_SERVER)
{
Display(("\r\n"));
Display(("******************************************************************\r\n"));
Display(("* Command Options General: Help, GetLocalAddress, SetBaudRate *\r\n"));
Display(("* Quit, *\r\n"));
Display(("* Command Options BR/EDR: Inquiry, DisplayInquiryList, Pair, *\r\n"));
Display(("* EndPairing, PINCodeResponse, *\r\n"));
Display(("* PassKeyResponse, *\r\n"));
Display(("* UserConfirmationResponse, *\r\n"));
Display(("* SetDiscoverabilityMode, *\r\n"));
Display(("* SetConnectabilityMode, *\r\n"));
Display(("* SetPairabilityMode, *\r\n"));
Display(("* ChangeSimplePairingParameters, *\r\n"));
Display(("* GetLocalName, SetLocalName, *\r\n"));
Display(("* GetClassOfDevice, SetClassOfDevice, *\r\n"));
Display(("* GetRemoteName, SniffMode, *\r\n"));
Display(("* ExitSniffMode, Open, Close, Read, *\r\n"));
Display(("* Write, GetConfigParams, *\r\n"));
Display(("* SetConfigParams, GetQueueParams, *\r\n"));
Display(("* SetQueueParams, Loopback, *\r\n"));
Display(("* DisplayRawModeData, AutomaticReadMode,*\r\n"));
Display(("* CBSend. *\r\n"));
}
else
{
Display(("\r\n"));
Display(("******************************************************************\r\n"));
Display(("* Command Options: Server, Client, Help *\r\n"));
Display(("******************************************************************\r\n"));
}
}
if(UI_Mode != UI_MODE_SELECT)
{
Display(("* Command Options GAPLE: SetDiscoverabilityMode, *\r\n"));
Display(("* SetConnectabilityMode, *\r\n"));
Display(("* SetPairabilityMode, *\r\n"));
Display(("* ChangePairingParameters, *\r\n"));
Display(("* AdvertiseLE, StartScanning, *\r\n"));
Display(("* StopScanning, ConnectLE, *\r\n"));
Display(("* DisconnectLE, PairLE, *\r\n"));
Display(("* LEPasskeyResponse, *\r\n"));
Display(("* QueryEncryptionMode, SetPasskey, *\r\n"));
Display(("* DiscoverGAPS, GetLocalName, *\r\n"));
Display(("* SetLocalName, GetLERemoteName, *\r\n"));
Display(("* SetLocalAppearance, *\r\n"));
Display(("* GetLocalAppearance, *\r\n"));
Display(("* GetRemoteAppearance, *\r\n"));
Display(("* Command Options SPPLE: DiscoverSPPLE, RegisterSPPLE, LESend, *\r\n"));
Display(("* ConfigureSPPLE, LERead, Loopback, *\r\n"));
Display(("* DisplayRawModeData, AutomaticReadMode *\r\n"));
Display(("******************************************************************\r\n"));
}
return(0);
}
/* The following function is responsible for setting the */
/* Discoverability Mode of the local device. This function returns */
/* zero on successful execution and a negative value on all errors. */
static int SetLEDiscoverabilityMode(ParameterList_t *TempParam)
{
int ret_val;
GAP_Discoverability_Mode_t DiscoverabilityMode;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Make sure that all of the parameters required for this function*/
/* appear to be at least semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam >= 0) && (TempParam->Params[0].intParam <= 2))
{
/* Parameters appear to be valid, map the specified parameters */
/* into the API specific parameters. */
if(TempParam->Params[0].intParam == 1)
DiscoverabilityMode = dmLimitedDiscoverableMode;
else
{
if(TempParam->Params[0].intParam == 2)
DiscoverabilityMode = dmGeneralDiscoverableMode;
else
DiscoverabilityMode = dmNonDiscoverableMode;
}
/* Set the LE Discoveryability Mode. */
LE_Parameters.DiscoverabilityMode = DiscoverabilityMode;
/* The Mode was changed successfully. */
Display(("Discoverability: %s.\r\n", (DiscoverabilityMode == dmNonDiscoverableMode)?"Non":((DiscoverabilityMode == dmGeneralDiscoverableMode)?"General":"Limited")));
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* One or more of the necessary parameters is/are invalid. */
DisplayUsage("SetDiscoverabilityMode [Mode(0 = Non Discoverable, 1 = Limited Discoverable, 2 = General Discoverable)]");
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for setting the */
/* Connectability Mode of the local device. This function returns */
/* zero on successful execution and a negative value on all errors. */
static int SetLEConnectabilityMode(ParameterList_t *TempParam)
{
int ret_val;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Make sure that all of the parameters required for this function*/
/* appear to be at least semi-valid. */
if((TempParam) && (TempParam->NumberofParameters >= 1) && (TempParam->Params[0].intParam >= 0) && (TempParam->Params[0].intParam <= 1))
{
/* Parameters appear to be valid, map the specified parameters */
/* into the API specific parameters. */
/* * NOTE * The Connectability Mode in LE is only applicable */
/* when advertising, if a device is not advertising */
/* it is not connectable. */
if(TempParam->Params[0].intParam == 0)
LE_Parameters.ConnectableMode = lcmNonConnectable;
else
LE_Parameters.ConnectableMode = lcmConnectable;
/* The Mode was changed successfully. */
Display(("Connectability Mode: %s.\r\n", (LE_Parameters.ConnectableMode == lcmNonConnectable)?"Non Connectable":"Connectable"));
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* One or more of the necessary parameters is/are invalid. */
DisplayUsage("SetConnectabilityMode [(0 = NonConectable, 1 = Connectable)]");
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for setting the Pairability */
/* Mode of the local device. This function returns zero on */
/* successful execution and a negative value on all errors. */
static int SetLEPairabilityMode(ParameterList_t *TempParam)
{
int Result;
int ret_val;
char *Mode;
GAP_LE_Pairability_Mode_t PairabilityMode;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Make sure that all of the parameters required for this function*/
/* appear to be at least semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam >= 0) && (TempParam->Params[0].intParam <= 1))
{
/* Parameters appear to be valid, map the specified parameters */
/* into the API specific parameters. */
if(TempParam->Params[0].intParam == 0)
{
PairabilityMode = lpmNonPairableMode;
Mode = "lpmNonPairableMode";
}
else
{
PairabilityMode = lpmPairableMode;
Mode = "lpmPairableMode";
}
/* Parameters mapped, now set the Pairability Mode. */
Result = GAP_LE_Set_Pairability_Mode(BluetoothStackID, PairabilityMode);
/* Next, check the return value to see if the command was */
/* issued successfully. */
if(Result >= 0)
{
/* The Mode was changed successfully. */
Display(("Pairability Mode Changed to %s.\r\n", Mode));
/* If Secure Simple Pairing has been enabled, inform the */
/* user of the current Secure Simple Pairing parameters. */
if(PairabilityMode == lpmPairableMode)
DisplayIOCapabilities();
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* There was an error setting the Mode. */
DisplayFunctionError("GAP_Set_Pairability_Mode", Result);
/* Flag that an error occurred while submitting the command.*/
ret_val = FUNCTION_ERROR;
}
}
else
{
/* One or more of the necessary parameters is/are invalid. */
DisplayUsage("SetPairabilityMode [Mode (0 = Non Pairable, 1 = Pairable]");
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
Display(("Invalid Stack ID.\r\n"));
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for changing the Secure */
/* Simple Pairing Parameters that are exchanged during the Pairing */
/* procedure when Secure Simple Pairing (Security Level 4) is used. */
/* This function returns zero on successful execution and a negative */
/* value on all errors. */
static int ChangeLEPairingParameters(ParameterList_t *TempParam)
{
int ret_val;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Make sure that all of the parameters required for this function*/
/* appear to be at least semi-valid. */
if((TempParam) && (TempParam->Params[0].intParam >= 0) && (TempParam->Params[0].intParam <= 4))
{
/* Parameters appear to be valid, map the specified parameters */
/* into the API specific parameters. */
if(TempParam->Params[0].intParam == 0)
LE_Parameters.IOCapability = licDisplayOnly;
else
{
if(TempParam->Params[0].intParam == 1)
LE_Parameters.IOCapability = licDisplayYesNo;
else
{
if(TempParam->Params[0].intParam == 2)
LE_Parameters.IOCapability = licKeyboardOnly;
else
{
if(TempParam->Params[0].intParam == 3)
LE_Parameters.IOCapability = licNoInputNoOutput;
else
LE_Parameters.IOCapability = licKeyboardDisplay;
}
}
}
/* Finally map the Man in the Middle (MITM) Protection valud. */
LE_Parameters.MITMProtection = (Boolean_t)(TempParam->Params[1].intParam?TRUE:FALSE);
/* Inform the user of the New I/O Capablities. */
DisplayIOCapabilities();
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* One or more of the necessary parameters is/are invalid. */
Display(("Usage: ChangePairingParameters [I/O Capability (0 = Display Only, 1 = Display Yes/No, 2 = Keyboard Only, 3 = No Input/Output, 4 = Keyboard/Display)] [MITM Requirement (0 = No, 1 = Yes)].\r\n"));
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for issuing a GAP */
/* Authentication Response with a Pass Key value specified via the */
/* input parameter. This function returns zero on successful */
/* execution and a negative value on all errors. */
static int LEPassKeyResponse(ParameterList_t *TempParam)
{
int Result;
int ret_val;
GAP_LE_Authentication_Response_Information_t GAP_LE_Authentication_Response_Information;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* First, check to see if there is an on-going Pairing operation */
/* active. */
if(!COMPARE_NULL_BD_ADDR(CurrentLERemoteBD_ADDR))
{
/* Make sure that all of the parameters required for this */
/* function appear to be at least semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 0) && (BTPS_StringLength(TempParam->Params[0].strParam) <= GAP_LE_PASSKEY_MAXIMUM_NUMBER_OF_DIGITS))
{
/* Parameters appear to be valid, go ahead and populate the */
/* response structure. */
GAP_LE_Authentication_Response_Information.GAP_LE_Authentication_Type = larPasskey;
GAP_LE_Authentication_Response_Information.Authentication_Data_Length = (Byte_t)(sizeof(DWord_t));
GAP_LE_Authentication_Response_Information.Authentication_Data.Passkey = (DWord_t)(TempParam->Params[0].intParam);
/* Submit the Authentication Response. */
Result = GAP_LE_Authentication_Response(BluetoothStackID, CurrentLERemoteBD_ADDR, &GAP_LE_Authentication_Response_Information);
/* Check the return value for the submitted command for */
/* success. */
if(!Result)
{
/* Operation was successful, inform the user. */
DisplayFunctionSuccess("Passkey Response");
/* Flag success to the caller. */
ret_val = 0;
}
else
{
/* Inform the user that the Authentication Response was */
/* not successful. */
DisplayFunctionError("GAP_LE_Authentication_Response", Result);
ret_val = FUNCTION_ERROR;
}
/* Flag that there is no longer a current Authentication */
/* procedure in progress. */
ASSIGN_BD_ADDR(CurrentLERemoteBD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
}
else
{
/* One or more of the necessary parameters is/are invalid. */
Display(("PassKeyResponse [Numeric Passkey(0 - 999999)].\r\n"));
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* There is not currently an on-going authentication operation,*/
/* inform the user of this error condition. */
Display(("Pass Key Authentication Response: Authentication not in progress.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for quering the Encryption */
/* Mode for an LE Connection. This function returns zero on */
/* successful execution and a negative value on all errors. */
static int LEQueryEncryption(ParameterList_t *TempParam)
{
int ret_val;
int LEConnectionIndex;
BD_ADDR_t BD_ADDR;
GAP_Encryption_Mode_t GAP_Encryption_Mode;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/*Next, make sure that a valid device address exists. */
if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
{
/* Convert the parameter to a Bluetooth Device Address. */
StrToBD_ADDR(TempParam->Params[0].strParam, &BD_ADDR);
/* Find the LE Connection Index for this connection. */
if((LEConnectionIndex = FindLEIndexByAddress(BD_ADDR)) >= 0)
{
/* Query the current Encryption Mode for this Connection. */
ret_val = GAP_LE_Query_Encryption_Mode(BluetoothStackID, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR, &GAP_Encryption_Mode);
if(!ret_val)
Display(("Current Encryption Mode: %s.\r\n", (GAP_Encryption_Mode == emEnabled)?"Enabled":"Disabled"));
else
{
Display(("Error - GAP_LE_Query_Encryption_Mode returned %d.\r\n", ret_val));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* There is not currently an on-going authentication */
/* operation, inform the user of this error condition. */
Display(("No connections established.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* Invalid parameters specified so flag an error to the user. */
Display(("Usage: QueryEncryptionMode [BD_ADDR].\r\n"));
/* Flag that an error occurred while submitting the command. */
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for quering the Encryption */
/* Mode for an LE Connection. This function returns zero on */
/* successful execution and a negative value on all errors. */
static int LESetPasskey(ParameterList_t *TempParam)
{
int ret_val;
DWord_t Passkey;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Make sure that all of the parameters required for this */
/* function appear to be at least semi-valid. */
if((TempParam) && (TempParam->NumberofParameters >= 1) && ((TempParam->Params[0].intParam == 0) || (TempParam->Params[0].intParam == 1)))
{
if(TempParam->Params[0].intParam == 1)
{
/* We are setting the passkey so make sure it is valid. */
if(BTPS_StringLength(TempParam->Params[1].strParam) <= GAP_LE_PASSKEY_MAXIMUM_NUMBER_OF_DIGITS)
{
Passkey = (DWord_t)(TempParam->Params[1].intParam);
ret_val = GAP_LE_Set_Fixed_Passkey(BluetoothStackID, &Passkey);
if(!ret_val)
Display(("Fixed Passkey set to %06l.\r\n", Passkey));
}
else
{
Display(("Error - Invalid Passkey.\r\n"));
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* Un-set the fixed passkey that we previously configured. */
ret_val = GAP_LE_Set_Fixed_Passkey(BluetoothStackID, NULL);
if(!ret_val)
Display(("Fixed Passkey no longer configured.\r\n"));
}
/* If GAP_LE_Set_Fixed_Passkey returned an error display this. */
if((ret_val) && (ret_val != INVALID_PARAMETERS_ERROR))
{
Display(("Error - GAP_LE_Set_Fixed_Passkey returned %d.\r\n", ret_val));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* One or more of the necessary parameters is/are invalid. */
Display(("SetPasskey [(0 = UnSet Passkey, 1 = Set Fixed Passkey)] [6 Digit Passkey (optional)].\r\n"));
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for enabling LE */
/* Advertisements. This function returns zero on successful */
/* execution and a negative value on all errors. */
static int AdvertiseLE(ParameterList_t *TempParam)
{
int ret_val;
int Length;
GAP_LE_Advertising_Parameters_t AdvertisingParameters;
GAP_LE_Connectability_Parameters_t ConnectabilityParameters;
union
{
Advertising_Data_t AdvertisingData;
Scan_Response_Data_t ScanResponseData;
} Advertisement_Data_Buffer;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Make sure that all of the parameters required for this function*/
/* appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam >= 0) && (TempParam->Params[0].intParam <= 1))
//{
/* Determine whether to enable or disable Advertising. */
// if(TempParam->Params[0].intParam == 0)
// {
/* Disable Advertising. */
// ret_val = GAP_LE_Advertising_Disable(BluetoothStackID);
//if(!ret_val)
// Display((" GAP_LE_Advertising_Disable success.\r\n"));
//else
//{
// Display((" GAP_LE_Advertising_Disable returned %d.\r\n", ret_val));
//ret_val = FUNCTION_ERROR;
//}
// }
// else
// {
/* Enable Advertising. */
/* Set the Advertising Data. */
BTPS_MemInitialize(&(Advertisement_Data_Buffer.AdvertisingData), 0, sizeof(Advertising_Data_t));
/* Set the Flags A/D Field (1 byte type and 1 byte Flags. */
Advertisement_Data_Buffer.AdvertisingData.Advertising_Data[0] = 2;
Advertisement_Data_Buffer.AdvertisingData.Advertising_Data[1] = HCI_LE_ADVERTISING_REPORT_DATA_TYPE_FLAGS;
Advertisement_Data_Buffer.AdvertisingData.Advertising_Data[2] = 0;
/* Configure the flags field based on the Discoverability */
/* Mode. */
if(LE_Parameters.DiscoverabilityMode == dmGeneralDiscoverableMode)
Advertisement_Data_Buffer.AdvertisingData.Advertising_Data[2] = HCI_LE_ADVERTISING_FLAGS_GENERAL_DISCOVERABLE_MODE_FLAGS_BIT_MASK;
else
{
if(LE_Parameters.DiscoverabilityMode == dmLimitedDiscoverableMode)
Advertisement_Data_Buffer.AdvertisingData.Advertising_Data[2] = HCI_LE_ADVERTISING_FLAGS_LIMITED_DISCOVERABLE_MODE_FLAGS_BIT_MASK;
}
/* Write thee advertising data to the chip. */
ret_val = GAP_LE_Set_Advertising_Data(BluetoothStackID, (Advertisement_Data_Buffer.AdvertisingData.Advertising_Data[0] + 1), &(Advertisement_Data_Buffer.AdvertisingData));
if(!ret_val)
{
BTPS_MemInitialize(&(Advertisement_Data_Buffer.ScanResponseData), 0, sizeof(Scan_Response_Data_t));
/* Set the Scan Response Data. */
Length = BTPS_StringLength(LE_DEMO_DEVICE_NAME);
if(Length < (ADVERTISING_DATA_MAXIMUM_SIZE - 2))
{
Advertisement_Data_Buffer.ScanResponseData.Scan_Response_Data[1] = HCI_LE_ADVERTISING_REPORT_DATA_TYPE_LOCAL_NAME_COMPLETE;
}
else
{
Advertisement_Data_Buffer.ScanResponseData.Scan_Response_Data[1] = HCI_LE_ADVERTISING_REPORT_DATA_TYPE_LOCAL_NAME_SHORTENED;
Length = (ADVERTISING_DATA_MAXIMUM_SIZE - 2);
}
Advertisement_Data_Buffer.ScanResponseData.Scan_Response_Data[0] = (Byte_t)(1 + Length);
BTPS_MemCopy(&(Advertisement_Data_Buffer.ScanResponseData.Scan_Response_Data[2]),LE_DEMO_DEVICE_NAME,Length);
ret_val = GAP_LE_Set_Scan_Response_Data(BluetoothStackID, (Advertisement_Data_Buffer.ScanResponseData.Scan_Response_Data[0] + 1), &(Advertisement_Data_Buffer.ScanResponseData));
if(!ret_val)
{
/* Set up the advertising parameters. */
AdvertisingParameters.Advertising_Channel_Map = HCI_LE_ADVERTISING_CHANNEL_MAP_DEFAULT;
AdvertisingParameters.Scan_Request_Filter = fpNoFilter;
AdvertisingParameters.Connect_Request_Filter = fpNoFilter;
AdvertisingParameters.Advertising_Interval_Min = 100;
AdvertisingParameters.Advertising_Interval_Max = 200;
/* Configure the Connectability Parameters. */
/* * NOTE * Since we do not ever put ourselves to be */
/* direct connectable then we will set the */
/* DirectAddress to all 0s. */
ConnectabilityParameters.Connectability_Mode = LE_Parameters.ConnectableMode;
ConnectabilityParameters.Own_Address_Type = latPublic;
ConnectabilityParameters.Direct_Address_Type = latPublic;
ASSIGN_BD_ADDR(ConnectabilityParameters.Direct_Address, 0, 0, 0, 0, 0, 0);
/* Now enable advertising. */
ret_val = GAP_LE_Advertising_Enable(BluetoothStackID, TRUE, &AdvertisingParameters, &ConnectabilityParameters, GAP_LE_Event_Callback, 0);
if(!ret_val)
{
Display((" GAP_LE_Advertising_Enable success.\r\n"));
}
else
{
Display((" GAP_LE_Advertising_Enable returned %d.\r\n", ret_val));
ret_val = FUNCTION_ERROR;
}
}
else
{
Display((" GAP_LE_Set_Advertising_Data(dtScanResponse) returned %d.\r\n", ret_val));
ret_val = FUNCTION_ERROR;
}
}
else
{
Display((" GAP_LE_Set_Advertising_Data(dtAdvertising) returned %d.\r\n", ret_val));
ret_val = FUNCTION_ERROR;
}
// }
// }
// else
//{
// DisplayUsage("Advertise [(0 = Disable, 1 = Enable)].");
//ret_val = INVALID_PARAMETERS_ERROR;
//}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(0);
}
/* The following function is responsible for starting an LE scan */
/* procedure. This function returns zero if successful and a */
/* negative value if an error occurred. */
static int StartScanning(ParameterList_t *TempParam)
{
int ret_val;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Simply start scanning. */
if(!StartScan(BluetoothStackID))
ret_val = 0;
else
ret_val = FUNCTION_ERROR;
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for stopping an LE scan */
/* procedure. This function returns zero if successful and a */
/* negative value if an error occurred. */
static int StopScanning(ParameterList_t *TempParam)
{
int ret_val;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Simply stop scanning. */
if(!StopScan(BluetoothStackID))
ret_val = 0;
else
ret_val = FUNCTION_ERROR;
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for connecting to an LE */
/* device. This function returns zero if successful and a negative */
/* value if an error occurred. */
static int ConnectLE(ParameterList_t *TempParam)
{
int ret_val;
BD_ADDR_t BD_ADDR;
GAP_LE_Address_Type_t Address_Type;
// char BT_address[12] = "f43538fe9c18";
// char BT_address[12] = "d78206cba936";
char RT_address[12] = "30ae7bc71efc";
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/* Next, make sure that a valid device address exists. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
// {
/* Check to see if the address type is specified. */
// if(TempParam->NumberofParameters >= 2)
// {
// if(TempParam->Params[1].intParam)
// Address_Type = latRandom;
// else
// Address_Type = latPublic;
// }
// else
// Address_Type = latRandom; // for nordic bluetooth
Address_Type = latPublic; //need to change for remote bluetooth
/* Convert the parameter to a Bluetooth Device Address. */
StrToBD_ADDR(RT_address, &BD_ADDR);
// StrToBD_ADDR(Don_Address, &BD_ADDR);
if(!ConnectLEDevice(BluetoothStackID, Address_Type, BD_ADDR, FALSE))
ret_val = 0;
else
ret_val = FUNCTION_ERROR;
// }
// else
// {
/* Invalid parameters specified so flag an error to the user. */
// DisplayUsage("ConnectLE [BD_ADDR] [Address Type (0 = Public/Default, 1 = Random) Optional]");
/* Flag that an error occurred while submitting the command. */
// ret_val = INVALID_PARAMETERS_ERROR;
// }
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for disconnecting to an LE */
/* device. This function returns zero if successful and a negative */
/* value if an error occurred. */
static int DisconnectLE(ParameterList_t *TempParam)
{
int ret_val;
int LEConnectionIndex;
BD_ADDR_t BD_ADDR;
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/*Next, make sure that a valid device address exists. */
if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
{
/* Convert the parameter to a Bluetooth Device Address. */
StrToBD_ADDR(TempParam->Params[0].strParam, &BD_ADDR);
/* Find the LE Connection Index for this connection. */
if((LEConnectionIndex = FindLEIndexByAddress(BD_ADDR)) >= 0)
{
/* Attempt to disconnect the device. */
if(!DisconnectLEDevice(BluetoothStackID, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR))
ret_val = 0;
else
ret_val = FUNCTION_ERROR;
}
else
{
/* No matching ConnectionBD_ADDR. */
Display(("No connection with BD_ADDR %s exists.\r\n", TempParam->Params[0].strParam));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* Invalid parameters specified so flag an error to the user. */
Display(("Usage: DisconnectLE [BD_ADDR].\r\n"));
/* Flag that an error occurred while submitting the command. */
ret_val = INVALID_PARAMETERS_ERROR;
}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is provided to allow a mechanism of */
/* Pairing (or requesting security if a slave) to the connected */
/* device. */
static int PairLE(ParameterList_t *TempParam)
{
int ret_val;
int LEConnectionIndex;
BD_ADDR_t BD_ADDR;
// char RT_address[6] = "VASMED";
char RT_address[12] = "30ae7bc71efc";
/* First, check that valid Bluetooth Stack ID exists. */
if(BluetoothStackID)
{
/*Next, make sure that a valid device address exists. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
// {
/* Convert the parameter to a Bluetooth Device Address. */
// StrToBD_ADDR(TempParam->Params[0].strParam, &BD_ADDR);
StrToBD_ADDR(RT_address, &BD_ADDR);
/* Find the LE Connection Index for this connection. */
if((LEConnectionIndex = FindLEIndexByAddress(BD_ADDR)) >= 0)
{
/* Attempt to send a pairing request to the specified */
/* device. */
if(!SendPairingRequest(LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR, LocalDeviceIsMaster))
ret_val = 0;
else
ret_val = FUNCTION_ERROR;
}
else
{
/* No matching ConnectionBD_ADDR. */
Display(("No connection with BD_ADDR %s exists.\r\n", RT_address));
ret_val = FUNCTION_ERROR;
}
// }
//else
//{
/* Invalid parameters specified so flag an error to the user. */
// Display(("Usage: PairLE [BD_ADDR].\r\n"));
/* Flag that an error occurred while submitting the command. */
//ret_val = INVALID_PARAMETERS_ERROR;
//}
}
else
{
/* No valid Bluetooth Stack ID exists. */
ret_val = INVALID_STACK_ID_ERROR;
}
return(ret_val);
}
/* The following function is responsible for performing a GAP Service*/
/* Service Discovery Operation. This function will return zero on */
/* successful execution and a negative value on errors. */
static int DiscoverGAPS(ParameterList_t *TempParam)
{
int ret_val;
int LEConnectionIndex;
BD_ADDR_t BD_ADDR;
GATT_UUID_t UUID[1];
DeviceInfo_t *DeviceInfo;
/* Next, make sure that a valid device address exists. */
if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
{
/* Convert the parameter to a Bluetooth Device Address. */
StrToBD_ADDR(TempParam->Params[0].strParam, &BD_ADDR);
/* Find the LE Connection Index for this connection. */
if((LEConnectionIndex = FindLEIndexByAddress(BD_ADDR)) >= 0)
{
/* Get the device info for the connection device. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
{
/* Verify that no service discovery is outstanding for this */
/* device. */
if(!(DeviceInfo->Flags & DEVICE_INFO_FLAGS_SERVICE_DISCOVERY_OUTSTANDING))
{
/* Configure the filter so that only the SPP LE Service */
/* is discovered. */
UUID[0].UUID_Type = guUUID_16;
GAP_ASSIGN_GAP_SERVICE_UUID_16(UUID[0].UUID.UUID_16);
/* Start the service discovery process. */
ret_val = GATT_Start_Service_Discovery(BluetoothStackID, LEContextInfo[LEConnectionIndex].ConnectionID, (sizeof(UUID)/sizeof(GATT_UUID_t)), UUID, GATT_Service_Discovery_Event_Callback, 0);
if(!ret_val)
{
/* Display success message. */
Display(("GATT_Start_Service_Discovery success.\r\n"));
/* Flag that a Service Discovery Operation is */
/* outstanding. */
DeviceInfo->Flags |= DEVICE_INFO_FLAGS_SERVICE_DISCOVERY_OUTSTANDING;
}
else
{
/* An error occur so just clean-up. */
Display(("Error - GATT_Start_Service_Discovery returned %d.\r\n", ret_val));
ret_val = FUNCTION_ERROR;
}
}
else
{
Display(("Service Discovery Operation Outsanding for Device.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
Display(("No Device Info.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* No matching ConnectionBD_ADDR. */
Display(("No connection with BD_ADDR %s exists.\r\n", TempParam->Params[0].strParam));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* Invalid parameters specified so flag an error to the user. */
Display(("Usage: DiscoverGAPS [BD_ADDR].\r\n"));
/* Flag that an error occurred while submitting the command. */
ret_val = INVALID_PARAMETERS_ERROR;
}
return(ret_val);
}
/* The following function is responsible for reading the current */
/* Local Device Name. This function will return zero on successful */
/* execution and a negative value on errors. */
static int ReadLocalName(ParameterList_t *TempParam)
{
int ret_val;
char NameBuffer[BTPS_CONFIGURATION_GAPS_MAXIMUM_SUPPORTED_DEVICE_NAME+1];
/* Verify that the GAP Service is registered. */
if(GAPSInstanceID)
{
/* Initialize the Name Buffer to all ZEROs. */
BTPS_MemInitialize(NameBuffer, 0, sizeof(NameBuffer));
/* Query the Local Name. */
ret_val = GAPS_Query_Device_Name(BluetoothStackID, GAPSInstanceID, NameBuffer);
if(!ret_val)
Display(("Device Name: %s.\r\n", NameBuffer));
else
{
Display(("Error - GAPS_Query_Device_Name returned %d.\r\n", ret_val));
ret_val = FUNCTION_ERROR;
}
}
else
{
Display(("GAP Service not registered.\r\n"));
ret_val = FUNCTION_ERROR;
}
return(ret_val);
}
/* The following function is responsible for setting the current */
/* Local Device Name. This function will return zero on successful */
/* execution and a negative value on errors. */
static int SetLocalName(ParameterList_t *TempParam)
{
int ret_val;
/* Verify that the input parameters are semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 0) && (BTPS_StringLength(TempParam->Params[0].strParam) > 0) && (BTPS_StringLength(TempParam->Params[0].strParam) <= BTPS_CONFIGURATION_GAPS_MAXIMUM_SUPPORTED_DEVICE_NAME))
{
/* Verify that the GAP Service is registered. */
if(GAPSInstanceID)
{
/* Attempt to submit the command. */
ret_val = GAP_Set_Local_Device_Name(BluetoothStackID, TempParam->Params[0].strParam);
if(!ret_val)
{
/* Query the Local Name. */
ret_val = GAPS_Set_Device_Name(BluetoothStackID, GAPSInstanceID, TempParam->Params[0].strParam);
if(!ret_val)
Display(("Local Devce Name set to %s.\r\n", TempParam->Params[0].strParam));
else
{
Display(("Error - GAPS_Query_Device_Name returned %d.\r\n", ret_val));
ret_val = FUNCTION_ERROR;
}
}
else
{
Display(("Error - GAP_Set_Local_Device_Name returned %d.\r\n", ret_val));
ret_val = FUNCTION_ERROR;
}
}
else
{
Display(("GAP Service not registered.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
Display(("Usage: SetLocalName [NameString].\r\n"));
ret_val = FUNCTION_ERROR;
}
return(ret_val);
}
/* The following function is responsible for reading the Device Name */
/* for the currently connected remote device. This function will */
/* return zero on successful execution and a negative value on */
/* errors. */
static int ReadRemoteName(ParameterList_t *TempParam)
{
int ret_val;
int LEConnectionIndex;
BD_ADDR_t BD_ADDR;
DeviceInfo_t *DeviceInfo;
char RT_address[6] = "VASMED";
/* Next, make sure that a valid device address exists. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
//{
/* Convert the parameter to a Bluetooth Device Address. */
// StrToBD_ADDR(TempParam->Params[0].strParam, &BD_ADDR);
StrToBD_ADDR(RT_address, &BD_ADDR);
/* Find the LE Connection Index for this connection. */
if((LEConnectionIndex = FindLEIndexByAddress(BD_ADDR)) >= 0)
{
/* Get the device info for the connection device. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
{
/* Verify that we discovered the Device Name Handle. */
if(DeviceInfo->GAPSClientInfo.DeviceNameHandle)
{
/* Attempt to read the remote device name. */
ret_val = GATT_Read_Value_Request(BluetoothStackID, LEContextInfo[LEConnectionIndex].ConnectionID, DeviceInfo->GAPSClientInfo.DeviceNameHandle, GATT_ClientEventCallback_GAPS, (unsigned long)DeviceInfo->GAPSClientInfo.DeviceNameHandle);
if(ret_val > 0)
{
Display(("Attempting to read Remote Device Name.\r\n"));
ret_val = 0;
}
else
{
Display(("Error - GATT_Read_Value_Request returned %d.\r\n", ret_val));
ret_val = FUNCTION_ERROR;
}
}
else
{
Display(("GAP Service Device Name Handle not discovered.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
Display(("No Device Info.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* No matching ConnectionBD_ADDR. */
Display(("No connection with BD_ADDR %s exists.\r\n", RT_address));
ret_val = FUNCTION_ERROR;
}
// }
//else
//{
/* Invalid parameters specified so flag an error to the user. */
// Display(("Usage: GetLERemoteName [BD_ADDR].\r\n"));
/* Flag that an error occurred while submitting the command. */
//ret_val = INVALID_PARAMETERS_ERROR;
//}
return(ret_val);
}
/* The following function is responsible for reading the Local Device*/
/* Appearance value. This function will return zero on successful */
/* execution and a negative value on errors. */
static int ReadLocalAppearance(ParameterList_t *TempParam)
{
int ret_val;
char *AppearanceString;
Word_t Appearance;
/* Verify that the GAP Service is registered. */
if(GAPSInstanceID)
{
/* Query the Local Name. */
ret_val = GAPS_Query_Device_Appearance(BluetoothStackID, GAPSInstanceID, &Appearance);
if(!ret_val)
{
/* Map the Appearance to a String. */
if(AppearanceToString(Appearance, &AppearanceString))
Display(("Device Appearance: %s(%u).\r\n", AppearanceString, Appearance));
else
Display(("Device Appearance: Unknown(%u).\r\n", Appearance));
}
else
{
Display(("Error - GAPS_Query_Device_Appearance returned %d.\r\n", ret_val));
ret_val = FUNCTION_ERROR;
}
}
else
{
Display(("GAP Service not registered.\r\n"));
ret_val = FUNCTION_ERROR;
}
return(ret_val);
}
/* The following function is responsible for setting the Local Device*/
/* Appearance value. This function will return zero on successful */
/* execution and a negative value on errors. */
static int SetLocalAppearance(ParameterList_t *TempParam)
{
int ret_val;
Word_t Appearance;
/* Verify that the input parameters are semi-valid. */
if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].intParam >= 0) && (TempParam->Params[0].intParam < NUMBER_OF_APPEARANCE_MAPPINGS))
{
/* Verify that the GAP Service is registered. */
if(GAPSInstanceID)
{
/* Map the Appearance Index to the GAP Appearance Value. */
if(AppearanceIndexToAppearance(TempParam->Params[0].intParam, &Appearance))
{
/* Set the Local Appearance. */
ret_val = GAPS_Set_Device_Appearance(BluetoothStackID, GAPSInstanceID, Appearance);
if(!ret_val)
Display(("GAPS_Set_Device_Appearance success.\r\n"));
else
{
Display(("Error - GAPS_Set_Device_Appearance returned %d.\r\n", ret_val));
ret_val = FUNCTION_ERROR;
}
}
else
{
Display(("Invalid Appearance Index.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
Display(("GAP Service not registered.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
Display(("Usage: SetLocalAppearance [Index].\r\n"));
Display(("Where Index = \r\n"));
DumpAppearanceMappings();
ret_val = FUNCTION_ERROR;
}
return(ret_val);
}
/* The following function is responsible for reading the Device Name */
/* for the currently connected remote device. This function will */
/* return zero on successful execution and a negative value on */
/* errors. */
static int ReadRemoteAppearance(ParameterList_t *TempParam)
{
int ret_val;
int LEConnectionIndex;
BD_ADDR_t BD_ADDR;
DeviceInfo_t *DeviceInfo;
/* Next, make sure that a valid device address exists. */
if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
{
/* Convert the parameter to a Bluetooth Device Address. */
StrToBD_ADDR(TempParam->Params[0].strParam, &BD_ADDR);
/* Find the LE Connection Index for this connection. */
if((LEConnectionIndex = FindLEIndexByAddress(BD_ADDR)) >= 0)
{
/* Get the device info for the connection device. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
{
/* Verify that we discovered the Device Name Handle. */
if(DeviceInfo->GAPSClientInfo.DeviceAppearanceHandle)
{
/* Attempt to read the remote device name. */
ret_val = GATT_Read_Value_Request(BluetoothStackID, LEContextInfo[LEConnectionIndex].ConnectionID, DeviceInfo->GAPSClientInfo.DeviceAppearanceHandle, GATT_ClientEventCallback_GAPS, (unsigned long)DeviceInfo->GAPSClientInfo.DeviceAppearanceHandle);
if(ret_val > 0)
{
Display(("Attempting to read Remote Device Appearance.\r\n"));
ret_val = 0;
}
else
{
Display(("Error - GATT_Read_Value_Request returned %d.\r\n", ret_val));
ret_val = FUNCTION_ERROR;
}
}
else
{
Display(("GAP Service Device Appearance Handle not discovered.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
Display(("No Device Info.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* No matching ConnectionBD_ADDR. */
Display(("No connection with BD_ADDR %s exists.\r\n", TempParam->Params[0].strParam));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* Invalid parameters specified so flag an error to the user. */
Display(("Usage: GetRemoteAppearance [BD_ADDR].\r\n"));
/* Flag that an error occurred while submitting the command. */
ret_val = INVALID_PARAMETERS_ERROR;
}
return(ret_val);
}
/* The following function is responsible for performing a SPPLE */
/* Service Discovery Operation. This function will return zero on */
/* successful execution and a negative value on errors. */
static int DiscoverSPPLE(ParameterList_t *TempParam)
{
int ret_val;
int LEConnectionIndex;
BD_ADDR_t BD_ADDR;
GATT_UUID_t UUID[1];
DeviceInfo_t *DeviceInfo;
//char BT_address[12] = "f43538fe9c18";
// char BT_address[12] = "d78206cba936";
char RT_address[12] = "30ae7bc71efc";
/* Next, make sure that a valid device address exists. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
// {
/* Convert the parameter to a Bluetooth Device Address. */
StrToBD_ADDR(RT_address, &BD_ADDR);
/* Find the LE Connection Index for this connection. */
if((LEConnectionIndex = FindLEIndexByAddress(BD_ADDR)) >= 0)
{
/* Get the device info for the connection device. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
{
/* Verify that no service discovery is outstanding for this */
/* device. */
if(!(DeviceInfo->Flags & DEVICE_INFO_FLAGS_SERVICE_DISCOVERY_OUTSTANDING))
{
/* Configure the filter so that only the SPP LE Service */
/* is discovered. */
UUID[0].UUID_Type = guUUID_128;
SPPLE_ASSIGN_SPPLE_SERVICE_UUID_128(&(UUID[0].UUID.UUID_128));
/* Start the service discovery process. */
ret_val = GATT_Start_Service_Discovery(BluetoothStackID, LEContextInfo[LEConnectionIndex].ConnectionID, (sizeof(UUID)/sizeof(GATT_UUID_t)), UUID, GATT_Service_Discovery_Event_Callback, 0);
if(!ret_val)
{
/* Display success message. */
Display(("GATT_Start_Service_Discovery success.\r\n"));
/* Flag that a Service Discovery Operation is */
/* outstanding. */
DeviceInfo->Flags |= DEVICE_INFO_FLAGS_SERVICE_DISCOVERY_OUTSTANDING;
}
else
{
/* An error occur so just clean-up. */
Display(("Error - GATT_Start_Service_Discovery returned %d.\r\n", ret_val));
ret_val = FUNCTION_ERROR;
}
}
else
{
Display(("Service Discovery Operation Outsanding for Device.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
Display(("No Device Info in discoverspple.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* No matching ConnectionBD_ADDR. */
Display((" connection with BD_ADDR %s exists.\r\n", RT_address));
ret_val = FUNCTION_ERROR;
}
// }
// else
//{
/* Invalid parameters specified so flag an error to the user. */
// Display(("Usage: DiscoverSPPLE [BD_ADDR].\r\n"));
/* Flag that an error occurred while submitting the command. */
// ret_val = INVALID_PARAMETERS_ERROR;
//}
return(ret_val);
}
/* The following function is responsible for registering a SPPLE */
/* Service. This function will return zero on successful execution */
/* and a negative value on errors. */
static int RegisterSPPLE(ParameterList_t *TempParam)
{
int ret_val;
GATT_Attribute_Handle_Group_t ServiceHandleGroup;
/* Verify that there is no active connection. */
if(FindFreeLEIndex() != -1)
{
/* Verify that the Service is not already registered. */
if(!SPPLEServiceID)
{
/* Initialize the handle group to 0 . */
ServiceHandleGroup.Starting_Handle = 0;
ServiceHandleGroup.Ending_Handle = 0;
/* Register the SPPLE Service. */
ret_val = GATT_Register_Service(BluetoothStackID, SPPLE_SERVICE_FLAGS, SPPLE_SERVICE_ATTRIBUTE_COUNT, (GATT_Service_Attribute_Entry_t *)SPPLE_Service, &ServiceHandleGroup, GATT_ServerEventCallback, 0);
if(ret_val > 0)
{
/* Display success message. */
Display(("Sucessfully registered SPPLE Service.\r\n"));
/* Save the ServiceID of the registered service. */
SPPLEServiceID = (unsigned int)ret_val;
/* Return success to the caller. */
ret_val = 0;
}
}
else
{
Display(("SPPLE Service already registered.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
Display(("Connection currently active.\r\n"));
ret_val = FUNCTION_ERROR;
}
return(ret_val);
}
/* The following function is responsible for configure a SPPLE */
/* Service on a remote device. This function will return zero on */
/* successful execution and a negative value on errors. */
static int ConfigureSPPLE(ParameterList_t *TempParam)
{
int ret_val;
int LEConnectionIndex;
BD_ADDR_t BD_ADDR;
DeviceInfo_t *DeviceInfo;
// char BT_address[12] = "f43538fe9c18";
// char BT_address[12] = "d78206cba936";
char RT_address[12] = "30ae7bc71efc";
/* Next, make sure that a valid device address exists. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
// {
/* Convert the parameter to a Bluetooth Device Address. */
StrToBD_ADDR(RT_address, &BD_ADDR);
/* Find the LE Connection Index for this connection. */
if((LEConnectionIndex = FindLEIndexByAddress(BD_ADDR)) >= 0)
{
/* Get the device info for the connection device. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
{
/* Determine if a service discovery operation has been */
/* previously done. */
//if(SPPLE_CLIENT_INFORMATION_VALID(DeviceInfo->ClientInfo))
//{
Display(("SPPLE Service found on remote device, attempting to read Transmit Credits, and configured CCCDs.\r\n"));
/* Send the Initial Credits to the remote device. */
SPPLESendCredits(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.ReceiveBuffer.BytesFree);
/* Enable Notifications on the proper characteristics. */
EnableDisableNotificationsIndications(LEContextInfo[LEConnectionIndex].ConnectionID, DeviceInfo->ClientInfo.Rx_Credit_Client_Configuration_Descriptor, GATT_CLIENT_CONFIGURATION_CHARACTERISTIC_NOTIFY_ENABLE, GATT_ClientEventCallback_SPPLE);
EnableDisableNotificationsIndications(LEContextInfo[LEConnectionIndex].ConnectionID, DeviceInfo->ClientInfo.Tx_Client_Configuration_Descriptor, GATT_CLIENT_CONFIGURATION_CHARACTERISTIC_NOTIFY_ENABLE, GATT_ClientEventCallback_SPPLE);
ret_val = 0;
// }
//else
//{
// Display(("No SPPLE Service discovered on device.\r\n"));
//ret_val = FUNCTION_ERROR;
//}
}
else
{
Display(("No Device Info in config.\r\n"));
ret_val = FUNCTION_ERROR;
}
}
else
{
/* No matching ConnectionBD_ADDR. */
Display((" connection with BD_ADDR %s exists.\r\n", RT_address));
ret_val = FUNCTION_ERROR;
}
//}
// else
// {
/* Invalid parameters specified so flag an error to the user. */
// Display(("Usage: ConfigureSPPLE [BD_ADDR].\r\n"));
/* Flag that an error occurred while submitting the command. */
//ret_val = INVALID_PARAMETERS_ERROR;
//}
return(ret_val);
}
/* The following function is responsible for sending a number of */
/* characters to a remote device to which a connection exists. The */
/* function receives a parameter that indicates the number of byte to*/
/* be transferred. This function will return zero on successful */
/* execution and a negative value on errors. */
static int SendDataCommand(ParameterList_t *TempParam)
{
int LEConnectionIndex;
BD_ADDR_t BD_ADDR;
DeviceInfo_t *DeviceInfo;
char RT_address[12] = "30ae7bc71efc";
/* Make sure that all of the parameters required for this function */
/* appear to be at least semi-valid. */
// if((TempParam) && (TempParam->NumberofParameters >= 2) && (TempParam->Params[1].intParam > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
// {
/* Convert the parameter to a Bluetooth Device Address. */
StrToBD_ADDR(RT_address, &BD_ADDR);
/* Find the LE Connection Index for this connection. */
if((LEConnectionIndex = FindLEIndexByAddress(BD_ADDR)) >= 0)
{
/* Check to see if we are sending to another port. */
if(!(LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.SendInfo.BytesToSend))
{
/* Get the device info for the connection device. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
{
/* Get the count of the number of bytes to send. */
LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.SendInfo.BytesToSend = 2; // (DWord_t)TempParam->Params[1].intParam;
LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.SendInfo.BytesSent = 0;
/* Kick start the send process. */
SPPLESendProcess(&(LEContextInfo[LEConnectionIndex]), DeviceInfo);
}
else
Display(("No Device Info.\r\n"));
}
else
Display(("Send Currently in progress.\r\n"));
}
else
{
/* No matching ConnectionBD_ADDR. */
Display(("No connection with BD_ADDR %s exists.\r\n", TempParam->Params[0].strParam));
}
//}
// else
//DisplayUsage("LESEND [BD_ADDR] [Number of Bytes to send]\r\n");
return(0);
}
uint32_t temp=0;
//int count = 0;
uint32_t i=0;
//
/* The following function is responsible for reading data sent by a */
/* remote device to which a connection exists. This function will */
/* return zero on successful execution and a negative value on */
/* errors. */
static int ReadDataCommand(ParameterList_t *TempParam)
{
int LEConnectionIndex;
Boolean_t Done;
BD_ADDR_t BD_ADDR;
unsigned int Temp;
DeviceInfo_t *DeviceInfo;
// char BT_address[12] = "f43538fe9c18";
// char BT_address[12] = "d78206cba936";
char RT_address[12] = "30ae7bc71efc";
/* Next, make sure that a valid device address exists. */
// if((TempParam) && (TempParam->NumberofParameters > 0) && (TempParam->Params[0].strParam) && (BTPS_StringLength(TempParam->Params[0].strParam) >= (sizeof(BD_ADDR_t)*2)))
// {
/* Convert the parameter to a Bluetooth Device Address. */
StrToBD_ADDR(RT_address, &BD_ADDR);
/* Find the LE Connection Index for this connection. */
if((LEConnectionIndex = FindLEIndexByAddress(BD_ADDR)) >= 0)
{
Display(("LEConnectionIndex: %d.\r\n", LEConnectionIndex));
/* Get the device info for the connection device. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
{
/* Determine the number of bytes we are going to read. */
Temp = LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.ReceiveBuffer.BufferSize - LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.ReceiveBuffer.BytesFree;
Display(("Read: %d.\r\n", Temp));
/* Loop and read all of the data. */
Done = FALSE;
while(!Done)
{
/* Read the data. */
Temp = SPPLEReadData(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, 3, SPPLEBuffer);
Display(("Read21: %d.\r\n", Temp));
Display(("SPPLEBufferNew 0=========%d\n",SPPLEBufferNew[0]));
if(Temp > 0)
{
Display(("Read2: %d.\r\n", Temp));
/* Display(("SPPLEBufferNew 0=========%d\n",SPPLEBufferNew[0]));
Display(("SPPLEBufferNew 1=========%d\n",SPPLEBufferNew[1]));
Display(("SPPLEBufferNew 2=========%d\n",SPPLEBufferNew[2]));
Display(("SPPLEBufferNew 3=========%d\n",SPPLEBufferNew[3]));
Display(("SPPLEBufferNew 4=========%d\n",SPPLEBufferNew[4]));
Display(("SPPLEBufferNew 5=========%d\n",SPPLEBufferNew[5]));
Display(("SPPLEBufferNew 6=========%d\n",SPPLEBufferNew[6]));
Display(("SPPLEBufferNew 7=========%d\n",SPPLEBufferNew[7]));*/
// SPPLEBufferNew = SPPLEBuffer;
Display(("SPPLEBufferNew before=========%x\n",SPPLEBuffer[0]));
Display(("SPPLEBufferNew before=========%x\n",SPPLEBuffer[1]));
Display(("SPPLEBufferNew before=========%d\n",SPPLEBuffer[2]));
temp=temp + SPPLEBuffer[7];
// Display(("temp=========%d\n",temp));
if( SPPLEBuffer[7]==124)
{
if(!(temp==7750))
Display((" data loss %d\n",i++));
err=0x62;
//Display(("%x\n",err));
temp=0;
}
SPPLEBuffer[Temp] = '\0';
}
else
Done = TRUE;
}
Display(("\r\n"));
}
else
Display(("No Device Info.\r\n"));
}
else
{
/* No matching ConnectionBD_ADDR. */
Display(("No connection with bluetooth %s exists.\r\n", RT_address));
}
// }
// else
// {
/* Invalid parameters specified so flag an error to the user. */
// Display(("Usage: LEREAD [BD_ADDR].\r\n"));
// }
return(0);
}
/* The following function is a utility function that is used to find */
/* the SPP Port Index by the specified Serial Port ID. This function*/
/* returns the index of the Serial Port or -1 on failure. */
static int FindSPPPortIndex(unsigned int SerialPortID)
{
int ret_val = -1;
unsigned int i;
/* Search the list for the Serial Port Info. */
for(i=0; i < sizeof(SPPContextInfo)/sizeof(SPP_Context_Info_t); i++)
{
/* Check to see if this entry matches the entry we are to search */
/* for. */
if(SPPContextInfo[i].LocalSerialPortID == SerialPortID)
{
ret_val = (int)i;
break;
}
}
return(ret_val);
}
/* The following function is a utility function that is used to find */
/* the SPP Port Index by the specified Server Port Number. This */
/* function returns the index of the Serial Port or -1 on failure. */
static int FindSPPPortIndexByServerPortNumber(unsigned int ServerPortNumber)
{
int ret_val = -1;
unsigned int i;
/* Search the list for the Serial Port Info. */
for(i=0; i < sizeof(SPPContextInfo)/sizeof(SPP_Context_Info_t); i++)
{
/* Check to see if this entry matches the entry we are to search */
/* for. */
if(SPPContextInfo[i].ServerPortNumber == ServerPortNumber)
{
ret_val = (int)i;
break;
}
}
return(ret_val);
}
/* The following function is a utility function that is used to find */
/* the SPP Port Index by the specified BD_ADDR. This function */
/* returns the index of the Serial Port or -1 on failure. */
static int FindSPPPortIndexByAddress(BD_ADDR_t BD_ADDR)
{
int ret_val = -1;
unsigned int i;
/* Search the list for the Serial Port Info. */
for(i=0; i < sizeof(SPPContextInfo)/sizeof(SPP_Context_Info_t); i++)
{
/* Check to see if this entry matches the entry we are to search */
/* for. */
if(COMPARE_BD_ADDR(SPPContextInfo[i].BD_ADDR, BD_ADDR))
{
ret_val = (int)i;
break;
}
}
return(ret_val);
}
/* The following function is a utility function that is used to find */
/* a SPP Port Index that is not currently in use. This function */
/* returns the index of the Serial Port or -1 on failure. */
static int FindFreeSPPPortIndex(void)
{
return(FindSPPPortIndex(0));
}
/* The following function is a utility function which is used to */
/* close the specified port by the specified Serial Port ID. */
static int ClosePortByNumber(unsigned int LocalSerialPortID)
{
int i;
int ret_val;
Boolean_t ServerPort;
/* Find an empty slot. */
if((i = FindSPPPortIndex(LocalSerialPortID)) >= 0)
{
/* Un-register the SDP Record registered for this server port. */
if(SPPContextInfo[i].ServerPortNumber)
{
if(SPPContextInfo[i].SPPServerSDPHandle)
SPP_Un_Register_SDP_Record(BluetoothStackID, SPPContextInfo[i].LocalSerialPortID, SPPContextInfo[i].SPPServerSDPHandle);
ServerPort = TRUE;
}
else
ServerPort = FALSE;
/* Close the specified server port. */
if(ServerPort)
ret_val = SPP_Close_Server_Port(BluetoothStackID, SPPContextInfo[i].LocalSerialPortID);
else
ret_val = SPP_Close_Port(BluetoothStackID, SPPContextInfo[i].LocalSerialPortID);
if(ret_val < 0)
{
if(ServerPort)
DisplayFunctionError("SPP_Close_Server_Port", ret_val);
else
DisplayFunctionError("SPP_Close_Port", ret_val);
ret_val = FUNCTION_ERROR;
}
else
ret_val = 0;
/* Clear SPP Server info for that port. */
BTPS_MemInitialize(&SPPContextInfo[i], 0, sizeof(SPPContextInfo[i]));
Display(("Port Context Cleared.\r\n"));
}
return(ret_val);
}
/* The following function is responsible for iterating through the */
/* array BDInfoArray[MAX_LE_CONNECTIONS], which contains the */
/* connection information for connected LE devices. It returns -1 if*/
/* the a free connection index is not found. If a free index is */
/* found, it returns the free index which can be used for another */
/* connection. */
static int FindFreeLEIndex(void)
{
BD_ADDR_t NullBD_ADDR;
ASSIGN_BD_ADDR(NullBD_ADDR, 0, 0, 0, 0, 0, 0);
return(FindLEIndexByAddress(NullBD_ADDR));
}
/* The following function is responsible for iterating through the */
/* array BDInfoArray[MAX_LE_CONNECTIONS], which contains the */
/* connection information for connected LE devices. It returns -1 if*/
/* the BD_ADDR is not found. If the BD_ADDR is found, it returns the*/
/* index at which the BD_ADDR was found in the array. */
static int FindLEIndexByAddress(BD_ADDR_t BD_ADDR)
{
int i;
int ret_val = -1;
for(i=0; i<MAX_LE_CONNECTIONS; i++)
{
if(COMPARE_BD_ADDR(BD_ADDR, LEContextInfo[i].ConnectionBD_ADDR))
{
ret_val = i;
break;
}
}
return(ret_val);
}
/* The following function is responsible for iterating through the */
/* array BDInfoArray[MAX_LE_CONNECTIONS], which contains the */
/* connection information for connected LE devices. It returns -1 if*/
/* the Connection ID is not found. If the Connection ID is found, it*/
/* returns the index at which the Connection ID was found in the */
/* array. */
static int FindLEIndexByConnectionID(unsigned int ConnectionID)
{
int i;
int ret_val = -1;
for(i=0; i<MAX_LE_CONNECTIONS; i++)
{
if(LEContextInfo[i].ConnectionID == ConnectionID)
{
ret_val = i;
break;
}
}
return(ret_val);
}
/* The following function is responsible for updating the connection */
/* identifier for a given BD_ADDR. If an entry in the array */
/* BDInfoArray[MAX_LE_CONNECTIONS] has a matching BD_ADDR, then its */
/* ConnectionID is set to the passed value of ConnectionID and the */
/* function returns its index in the array. If no matching BD_ADDR */
/* is found, the function returns -1. */
static int UpdateConnectionID(unsigned int ConnectionID, BD_ADDR_t BD_ADDR)
{
int LEConnectionIndex;
/* Check for the index of the entry for this connection. */
LEConnectionIndex = FindLEIndexByAddress(BD_ADDR);
if(LEConnectionIndex >= 0)
LEContextInfo[LEConnectionIndex].ConnectionID = ConnectionID;
else
{
Display(("Error in updating ConnectionID.\r\n"));
}
return(LEConnectionIndex);
}
/* The following function is responsible for clearing the values of */
/* an entry in BDInfoArray if its ConnectionBD_ADDR matches BD_ADDR. */
static void RemoveConnectionInfo(BD_ADDR_t BD_ADDR)
{
int LEConnectionIndex;
/* If an index is returned (any but -1), then found */
LEConnectionIndex = FindLEIndexByAddress(BD_ADDR);
if(LEConnectionIndex >= 0)
{
ASSIGN_BD_ADDR(LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
LEContextInfo[LEConnectionIndex].ConnectionID = 0;
/* Re-initialize the Transmit and Receive Buffers, as well as the */
/* transmit credits. */
InitializeBuffer(&(LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.TransmitBuffer));
InitializeBuffer(&(LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.ReceiveBuffer));
/* Clear the Transmit Credits count. */
LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.TransmitCredits = 0;
/* Flag that no credits are queued. */
LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.QueuedCredits = 0;
/* Clear the SPPLE Send Information. */
LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.SendInfo.BytesToSend = 0;
LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.SendInfo.BytesSent = 0;
LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.SendInfo.BufferFull = FALSE;
}
}
/* ***************************************************************** */
/* Event Callbacks */
/* ***************************************************************** */
/* The following function is for the GAP LE Event Receive Data */
/* Callback. This function will be called whenever a Callback has */
/* been registered for the specified GAP LE Action that is associated*/
/* with the Bluetooth Stack. This function passes to the caller the */
/* GAP LE Event Data of the specified Event and the GAP LE Event */
/* Callback Parameter that was specified when this Callback was */
/* installed. The caller is free to use the contents of the GAP LE */
/* Event Data ONLY in the context of this callback. If the caller */
/* requires the Data for a longer period of time, then the callback */
/* function MUST copy the data into another Data Buffer. This */
/* function is guaranteed NOT to be invoked more than once */
/* simultaneously for the specified installed callback (i.e. this */
/* function DOES NOT have be reentrant). It Needs to be noted */
/* however, that if the same Callback is installed more than once, */
/* then the callbacks will be called serially. Because of this, the */
/* processing in this function should be as efficient as possible. */
/* It should also be noted that this function is called in the Thread*/
/* Context of a Thread that the User does NOT own. Therefore, */
/* processing in this function should be as efficient as possible */
/* (this argument holds anyway because other GAP Events will not be */
/* processed while this function call is outstanding). */
/* * NOTE * This function MUST NOT Block and wait for Events that can*/
/* only be satisfied by Receiving a Bluetooth Event */
/* Callback. A Deadlock WILL occur because NO Bluetooth */
/* Callbacks will be issued while this function is currently*/
/* outstanding. */
static void BTPSAPI GAP_LE_Event_Callback(unsigned int BluetoothStackID, GAP_LE_Event_Data_t *GAP_LE_Event_Data, unsigned long CallbackParameter)
{
int Result;
int LEConnectionInfo;
BoardStr_t BoardStr;
unsigned int Index;
DeviceInfo_t *DeviceInfo;
Long_Term_Key_t GeneratedLTK;
GAP_LE_Security_Information_t GAP_LE_Security_Information;
GAP_LE_Connection_Parameters_t ConnectionParameters;
GAP_LE_Advertising_Report_Data_t *DeviceEntryPtr;
GAP_LE_Authentication_Event_Data_t *Authentication_Event_Data;
GAP_LE_Authentication_Response_Information_t GAP_LE_Authentication_Response_Information;
/* Verify that all parameters to this callback are Semi-Valid. */
if((BluetoothStackID) && (GAP_LE_Event_Data))
{
switch(GAP_LE_Event_Data->Event_Data_Type)
{
case etLE_Advertising_Report:
Display(("\r\netLE_Advertising_Report with size %d.\r\n",(int)GAP_LE_Event_Data->Event_Data_Size));
Display((" %d Responses.\r\n",GAP_LE_Event_Data->Event_Data.GAP_LE_Advertising_Report_Event_Data->Number_Device_Entries));
for(Index = 0; Index < GAP_LE_Event_Data->Event_Data.GAP_LE_Advertising_Report_Event_Data->Number_Device_Entries; Index++)
{
DeviceEntryPtr = &(GAP_LE_Event_Data->Event_Data.GAP_LE_Advertising_Report_Event_Data->Advertising_Data[Index]);
/* Display the packet type for the device */
switch(DeviceEntryPtr->Advertising_Report_Type)
{
case rtConnectableUndirected:
Display((" Advertising Type: %s.\r\n", "rtConnectableUndirected"));
break;
case rtConnectableDirected:
Display((" Advertising Type: %s.\r\n", "rtConnectableDirected"));
break;
case rtScannableUndirected:
Display((" Advertising Type: %s.\r\n", "rtScannableUndirected"));
break;
case rtNonConnectableUndirected:
Display((" Advertising Type: %s.\r\n", "rtNonConnectableUndirected"));
break;
case rtScanResponse:
Display((" Advertising Type: %s.\r\n", "rtScanResponse"));
break;
}
/* Display the Address Type. */
if(DeviceEntryPtr->Address_Type == latPublic)
{
Display((" Address Type: %s.\r\n","atPublic"));
}
else
{
Display((" Address Type: %s.\r\n","atRandom"));
}
/* Display the Device Address. */
Display((" Address: 0x%02X%02X%02X%02X%02X%02X.\r\n", DeviceEntryPtr->BD_ADDR.BD_ADDR5, DeviceEntryPtr->BD_ADDR.BD_ADDR4, DeviceEntryPtr->BD_ADDR.BD_ADDR3, DeviceEntryPtr->BD_ADDR.BD_ADDR2, DeviceEntryPtr->BD_ADDR.BD_ADDR1, DeviceEntryPtr->BD_ADDR.BD_ADDR0));
Display((" RSSI: %d.\r\n", (int)DeviceEntryPtr->RSSI));
Display((" Data Length: %d.\r\n", DeviceEntryPtr->Raw_Report_Length));
DisplayAdvertisingData(&(DeviceEntryPtr->Advertising_Data));
}
break;
case etLE_Connection_Complete:
Display(("\r\netLE_Connection_Complete with size %d.\r\n",(int)GAP_LE_Event_Data->Event_Data_Size));
if(GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data)
{
BD_ADDRToStr(GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Peer_Address, BoardStr);
Display((" Status: 0x%02X.\r\n", GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Status));
Display((" Role: %s.\r\n", (GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Master)?"Master":"Slave"));
Display((" Address Type: %s.\r\n", (GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Peer_Address_Type == latPublic)?"Public":"Random"));
Display((" BD_ADDR: %s.\r\n", BoardStr));
if(GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Status == HCI_ERROR_CODE_NO_ERROR)
{
/* If not already in the connection info array, add */
/* it. */
if(FindLEIndexByAddress(GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Peer_Address) < 0)
{
/* Find an unused position in the connection info */
/* array. */
LEConnectionInfo = FindFreeLEIndex();
if(LEConnectionInfo >= 0)
LEContextInfo[LEConnectionInfo].ConnectionBD_ADDR = GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Peer_Address;
}
/* Set a global flag to indicate if we are the */
/* connection master. */
LocalDeviceIsMaster = GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Master;
/* Make sure that no entry already exists. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Peer_Address)) == NULL)
{
/* No entry exists so create one. */
if(!CreateNewDeviceInfoEntry(&DeviceInfoList, GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Peer_Address_Type, GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Peer_Address))
Display(("Failed to add device to Device Info List.\r\n"));
}
else
{
/* If we are the Master of the connection we will */
/* attempt to Re-Establish Security if a LTK for */
/* this device exists (i.e. we previously paired).*/
if(LocalDeviceIsMaster)
{
/* Re-Establish Security if there is a LTK that */
/* is stored for this device. */
if(DeviceInfo->Flags & DEVICE_INFO_FLAGS_LTK_VALID)
{
/* Re-Establish Security with this LTK. */
Display(("Attempting to Re-Establish Security.\r\n"));
/* Attempt to re-establish security to this */
/* device. */
GAP_LE_Security_Information.Local_Device_Is_Master = TRUE;
BTPS_MemCopy(&(GAP_LE_Security_Information.Security_Information.Master_Information.LTK), &(DeviceInfo->LTK), LONG_TERM_KEY_SIZE);
BTPS_MemCopy(&(GAP_LE_Security_Information.Security_Information.Master_Information.Rand), &(DeviceInfo->Rand), RANDOM_NUMBER_DATA_SIZE);
GAP_LE_Security_Information.Security_Information.Master_Information.EDIV = DeviceInfo->EDIV;
GAP_LE_Security_Information.Security_Information.Master_Information.Encryption_Key_Size = DeviceInfo->EncryptionKeySize;
Result = GAP_LE_Reestablish_Security(BluetoothStackID, DeviceInfo->ConnectionBD_ADDR, &GAP_LE_Security_Information, GAP_LE_Event_Callback, 0);
if(Result)
{
Display(("GAP_LE_Reestablish_Security returned %d.\r\n",Result));
}
}
}
}
}
else
{
/* Clear the Connection ID. */
RemoveConnectionInfo(GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Complete_Event_Data->Peer_Address);
}
}
break;
case etLE_Disconnection_Complete:
Display(("\r\netLE_Disconnection_Complete with size %d.\r\n", (int)GAP_LE_Event_Data->Event_Data_Size));
if(GAP_LE_Event_Data->Event_Data.GAP_LE_Disconnection_Complete_Event_Data)
{
Display((" Status: 0x%02X.\r\n", GAP_LE_Event_Data->Event_Data.GAP_LE_Disconnection_Complete_Event_Data->Status));
Display((" Reason: 0x%02X.\r\n", GAP_LE_Event_Data->Event_Data.GAP_LE_Disconnection_Complete_Event_Data->Reason));
BD_ADDRToStr(GAP_LE_Event_Data->Event_Data.GAP_LE_Disconnection_Complete_Event_Data->Peer_Address, BoardStr);
Display((" BD_ADDR: %s.\r\n", BoardStr));
/* Check to see if the device info is present in the */
/* list. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, GAP_LE_Event_Data->Event_Data.GAP_LE_Disconnection_Complete_Event_Data->Peer_Address)) != NULL)
{
/* Flag that no service discovery operation is */
/* outstanding for this device. */
DeviceInfo->Flags &= ~DEVICE_INFO_FLAGS_SERVICE_DISCOVERY_OUTSTANDING;
/* Clear the CCCDs stored for this device. */
DeviceInfo->ServerInfo.Rx_Credit_Client_Configuration_Descriptor = 0;
DeviceInfo->ServerInfo.Tx_Client_Configuration_Descriptor = 0;
/* If this device is not paired, then delete it. The */
/* link will be encrypted if the device is paired. */
if(!(DeviceInfo->Flags & DEVICE_INFO_FLAGS_LINK_ENCRYPTED))
{
if((DeviceInfo = DeleteDeviceInfoEntry(&DeviceInfoList, GAP_LE_Event_Data->Event_Data.GAP_LE_Disconnection_Complete_Event_Data->Peer_Address)) != NULL)
FreeDeviceInfoEntryMemory(DeviceInfo);
}
else
{
/* Flag that the Link is no longer encrypted since */
/* we have disconnected. */
DeviceInfo->Flags &= ~DEVICE_INFO_FLAGS_LINK_ENCRYPTED;
}
}
}
break;
case etLE_Connection_Parameter_Update_Request:
Display(("\r\netLE_Connection_Parameter_Update_Request with size %d.\r\n", (int)GAP_LE_Event_Data->Event_Data_Size));
if(GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data)
{
BD_ADDRToStr(GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data->BD_ADDR, BoardStr);
Display((" BD_ADDR: %s.\r\n", BoardStr));
Display((" Minimum Interval: %u.\r\n", (unsigned int)GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data->Conn_Interval_Min));
Display((" Maximum Interval: %u.\r\n", (unsigned int)GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data->Conn_Interval_Max));
Display((" Slave Latency: %u.\r\n", (unsigned int)GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data->Slave_Latency));
Display((" Supervision Timeout: %u.\r\n", (unsigned int)GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data->Conn_Supervision_Timeout));
/* Initialize the connection parameters. */
ConnectionParameters.Connection_Interval_Min = GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data->Conn_Interval_Min;
ConnectionParameters.Connection_Interval_Max = GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data->Conn_Interval_Max;
ConnectionParameters.Slave_Latency = GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data->Slave_Latency;
ConnectionParameters.Supervision_Timeout = GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data->Conn_Supervision_Timeout;
ConnectionParameters.Minimum_Connection_Length = 0;
ConnectionParameters.Maximum_Connection_Length = 10000;
Display(("\r\nAttempting to accept connection parameter update request.\r\n"));
/* Go ahead and accept whatever the slave has requested. */
Result = GAP_LE_Connection_Parameter_Update_Response(BluetoothStackID, GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Update_Request_Event_Data->BD_ADDR, TRUE, &ConnectionParameters);
if(!Result)
{
Display((" GAP_LE_Connection_Parameter_Update_Response() success.\r\n"));
}
else
{
Display((" GAP_LE_Connection_Parameter_Update_Response() error %d.\r\n", Result));
}
}
break;
case etLE_Connection_Parameter_Updated:
Display(("\r\netLE_Connection_Parameter_Updated with size %d.\r\n", (int)GAP_LE_Event_Data->Event_Data_Size));
if(GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Updated_Event_Data)
{
BD_ADDRToStr(GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Updated_Event_Data->BD_ADDR, BoardStr);
Display((" Status: 0x%02X.\r\n", GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Updated_Event_Data->Status));
Display((" BD_ADDR: %s.\r\n", BoardStr));
if(GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Updated_Event_Data->Status == HCI_ERROR_CODE_NO_ERROR)
{
Display((" Connection Interval: %u.\r\n", (unsigned int)GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Updated_Event_Data->Current_Connection_Parameters.Connection_Interval));
Display((" Slave Latency: %u.\r\n", (unsigned int)GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Updated_Event_Data->Current_Connection_Parameters.Slave_Latency));
Display((" Supervision Timeout: %u.\r\n", (unsigned int)GAP_LE_Event_Data->Event_Data.GAP_LE_Connection_Parameter_Updated_Event_Data->Current_Connection_Parameters.Supervision_Timeout));
}
}
break;
case etLE_Encryption_Change:
Display(("\r\netLE_Encryption_Change with size %d.\r\n",(int)GAP_LE_Event_Data->Event_Data_Size));
/* Search for the device entry to see flag if the link is */
/* encrypted. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, GAP_LE_Event_Data->Event_Data.GAP_LE_Encryption_Change_Event_Data->BD_ADDR)) != NULL)
{
/* Check to see if the encryption change was successful. */
if((GAP_LE_Event_Data->Event_Data.GAP_LE_Encryption_Change_Event_Data->Encryption_Change_Status == HCI_ERROR_CODE_NO_ERROR) && (GAP_LE_Event_Data->Event_Data.GAP_LE_Encryption_Change_Event_Data->Encryption_Mode == emEnabled))
DeviceInfo->Flags |= DEVICE_INFO_FLAGS_LINK_ENCRYPTED;
else
DeviceInfo->Flags &= ~DEVICE_INFO_FLAGS_LINK_ENCRYPTED;
}
break;
case etLE_Encryption_Refresh_Complete:
Display(("\r\netLE_Encryption_Refresh_Complete with size %d.\r\n", (int)GAP_LE_Event_Data->Event_Data_Size));
/* Search for the device entry to see flag if the link is */
/* encrypted. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, GAP_LE_Event_Data->Event_Data.GAP_LE_Encryption_Refresh_Complete_Event_Data->BD_ADDR)) != NULL)
{
/* Check to see if the refresh was successful. */
if(GAP_LE_Event_Data->Event_Data.GAP_LE_Encryption_Refresh_Complete_Event_Data->Status == HCI_ERROR_CODE_NO_ERROR)
DeviceInfo->Flags |= DEVICE_INFO_FLAGS_LINK_ENCRYPTED;
else
DeviceInfo->Flags &= ~DEVICE_INFO_FLAGS_LINK_ENCRYPTED;
}
break;
case etLE_Authentication:
Display(("\r\netLE_Authentication with size %d.\r\n", (int)GAP_LE_Event_Data->Event_Data_Size));
/* Make sure the authentication event data is valid before */
/* continueing. */
if((Authentication_Event_Data = GAP_LE_Event_Data->Event_Data.GAP_LE_Authentication_Event_Data) != NULL)
{
BD_ADDRToStr(Authentication_Event_Data->BD_ADDR, BoardStr);
switch(Authentication_Event_Data->GAP_LE_Authentication_Event_Type)
{
case latLongTermKeyRequest:
Display((" latKeyRequest: \r\n"));
Display((" BD_ADDR: %s.\r\n", BoardStr));
/* The other side of a connection is requesting */
/* that we start encryption. Thus we should */
/* regenerate LTK for this connection and send it */
/* to the chip. */
Result = GAP_LE_Regenerate_Long_Term_Key(BluetoothStackID, (Encryption_Key_t *)(&DHK), (Encryption_Key_t *)(&ER), Authentication_Event_Data->Authentication_Event_Data.Long_Term_Key_Request.EDIV, &(Authentication_Event_Data->Authentication_Event_Data.Long_Term_Key_Request.Rand), &GeneratedLTK);
if(!Result)
{
Display((" GAP_LE_Regenerate_Long_Term_Key Success.\r\n"));
/* Respond with the Re-Generated Long Term Key. */
GAP_LE_Authentication_Response_Information.GAP_LE_Authentication_Type = larLongTermKey;
GAP_LE_Authentication_Response_Information.Authentication_Data_Length = GAP_LE_LONG_TERM_KEY_INFORMATION_DATA_SIZE;
GAP_LE_Authentication_Response_Information.Authentication_Data.Long_Term_Key_Information.Encryption_Key_Size = GAP_LE_MAXIMUM_ENCRYPTION_KEY_SIZE;
BTPS_MemCopy(&(GAP_LE_Authentication_Response_Information.Authentication_Data.Long_Term_Key_Information.Long_Term_Key), &GeneratedLTK, LONG_TERM_KEY_SIZE);
}
else
{
Display((" GAP_LE_Regenerate_Long_Term_Key returned %d.\r\n",Result));
/* Since we failed to generate the requested key*/
/* we should respond with a negative response. */
GAP_LE_Authentication_Response_Information.GAP_LE_Authentication_Type = larLongTermKey;
GAP_LE_Authentication_Response_Information.Authentication_Data_Length = 0;
}
/* Send the Authentication Response. */
Result = GAP_LE_Authentication_Response(BluetoothStackID, Authentication_Event_Data->BD_ADDR, &GAP_LE_Authentication_Response_Information);
if(Result)
{
Display((" GAP_LE_Authentication_Response returned %d.\r\n",Result));
}
break;
case latSecurityRequest:
/* Display the data for this event. */
/* * NOTE * This is only sent from Slave to Master.*/
/* Thus we must be the Master in this */
/* connection. */
Display((" latSecurityRequest:.\r\n"));
Display((" BD_ADDR: %s.\r\n", BoardStr));
Display((" Bonding Type: %s.\r\n", ((Authentication_Event_Data->Authentication_Event_Data.Security_Request.Bonding_Type == lbtBonding)?"Bonding":"No Bonding")));
Display((" MITM: %s.\r\n", ((Authentication_Event_Data->Authentication_Event_Data.Security_Request.MITM == TRUE)?"YES":"NO")));
/* Determine if we have previously paired with the */
/* device. If we have paired we will attempt to */
/* re-establish security using a previously */
/* exchanged LTK. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, Authentication_Event_Data->BD_ADDR)) != NULL)
{
/* Determine if a Valid Long Term Key is stored */
/* for this device. */
if(DeviceInfo->Flags & DEVICE_INFO_FLAGS_LTK_VALID)
{
Display(("Attempting to Re-Establish Security.\r\n"));
/* Attempt to re-establish security to this */
/* device. */
GAP_LE_Security_Information.Local_Device_Is_Master = TRUE;
BTPS_MemCopy(&(GAP_LE_Security_Information.Security_Information.Master_Information.LTK), &(DeviceInfo->LTK), LONG_TERM_KEY_SIZE);
BTPS_MemCopy(&(GAP_LE_Security_Information.Security_Information.Master_Information.Rand), &(DeviceInfo->Rand), RANDOM_NUMBER_DATA_SIZE);
GAP_LE_Security_Information.Security_Information.Master_Information.EDIV = DeviceInfo->EDIV;
GAP_LE_Security_Information.Security_Information.Master_Information.Encryption_Key_Size = DeviceInfo->EncryptionKeySize;
Result = GAP_LE_Reestablish_Security(BluetoothStackID, Authentication_Event_Data->BD_ADDR, &GAP_LE_Security_Information, GAP_LE_Event_Callback, 0);
if(Result)
{
Display(("GAP_LE_Reestablish_Security returned %d.\r\n",Result));
}
}
else
{
CurrentLERemoteBD_ADDR = Authentication_Event_Data->BD_ADDR;
/* We do not have a stored Link Key for this */
/* device so go ahead and pair to this */
/* device. */
SendPairingRequest(Authentication_Event_Data->BD_ADDR, TRUE);
}
}
else
{
CurrentLERemoteBD_ADDR = Authentication_Event_Data->BD_ADDR;
/* There is no Key Info Entry for this device */
/* so we will just treat this as a slave */
/* request and initiate pairing. */
SendPairingRequest(Authentication_Event_Data->BD_ADDR, TRUE);
}
break;
case latPairingRequest:
CurrentLERemoteBD_ADDR = Authentication_Event_Data->BD_ADDR;
Display(("Pairing Request: %s.\r\n",BoardStr));
DisplayPairingInformation(Authentication_Event_Data->Authentication_Event_Data.Pairing_Request);
/* This is a pairing request. Respond with a */
/* Pairing Response. */
/* * NOTE * This is only sent from Master to Slave.*/
/* Thus we must be the Slave in this */
/* connection. */
/* Send the Pairing Response. */
SlavePairingRequestResponse(Authentication_Event_Data->BD_ADDR);
break;
case latConfirmationRequest:
Display(("latConfirmationRequest.\r\n"));
if(Authentication_Event_Data->Authentication_Event_Data.Confirmation_Request.Request_Type == crtNone)
{
Display(("Invoking Just Works.\r\n"));
/* Just Accept Just Works Pairing. */
GAP_LE_Authentication_Response_Information.GAP_LE_Authentication_Type = larConfirmation;
/* By setting the Authentication_Data_Length to */
/* any NON-ZERO value we are informing the GAP */
/* LE Layer that we are accepting Just Works */
/* Pairing. */
GAP_LE_Authentication_Response_Information.Authentication_Data_Length = DWORD_SIZE;
Result = GAP_LE_Authentication_Response(BluetoothStackID, Authentication_Event_Data->BD_ADDR, &GAP_LE_Authentication_Response_Information);
if(Result)
{
Display(("GAP_LE_Authentication_Response returned %d.\r\n",Result));
}
}
else
{
if(Authentication_Event_Data->Authentication_Event_Data.Confirmation_Request.Request_Type == crtPasskey)
{
Display(("Call LEPasskeyResponse [PASSCODE].\r\n"));
}
else
{
if(Authentication_Event_Data->Authentication_Event_Data.Confirmation_Request.Request_Type == crtDisplay)
{
Display(("Passkey: %06l.\r\n", Authentication_Event_Data->Authentication_Event_Data.Confirmation_Request.Display_Passkey));
}
}
}
break;
case latSecurityEstablishmentComplete:
Display(("Security Re-Establishment Complete: %s.\r\n", BoardStr));
Display((" Status: 0x%02X.\r\n", Authentication_Event_Data->Authentication_Event_Data.Security_Establishment_Complete.Status));
break;
case latPairingStatus:
ASSIGN_BD_ADDR(CurrentLERemoteBD_ADDR, 0, 0, 0, 0, 0, 0);
Display(("Pairing Status: %s.\r\n", BoardStr));
Display((" Status: 0x%02X.\r\n", Authentication_Event_Data->Authentication_Event_Data.Pairing_Status.Status));
if(Authentication_Event_Data->Authentication_Event_Data.Pairing_Status.Status == GAP_LE_PAIRING_STATUS_NO_ERROR)
{
Display((" Key Size: %d.\r\n", Authentication_Event_Data->Authentication_Event_Data.Pairing_Status.Negotiated_Encryption_Key_Size));
}
else
{
/* Failed to pair so delete the key entry for */
/* this device and disconnect the link. */
if((DeviceInfo = DeleteDeviceInfoEntry(&DeviceInfoList, Authentication_Event_Data->BD_ADDR)) != NULL)
FreeDeviceInfoEntryMemory(DeviceInfo);
/* Disconnect the Link. */
GAP_LE_Disconnect(BluetoothStackID, Authentication_Event_Data->BD_ADDR);
}
break;
case latEncryptionInformationRequest:
Display(("Encryption Information Request %s.\r\n", BoardStr));
/* Generate new LTK,EDIV and Rand and respond with */
/* them. */
EncryptionInformationRequestResponse(Authentication_Event_Data->BD_ADDR, Authentication_Event_Data->Authentication_Event_Data.Encryption_Request_Information.Encryption_Key_Size, &GAP_LE_Authentication_Response_Information);
break;
case latEncryptionInformation:
/* Display the information from the event. */
Display((" Encryption Information from RemoteDevice: %s.\r\n", BoardStr));
Display((" Key Size: %d.\r\n", Authentication_Event_Data->Authentication_Event_Data.Encryption_Information.Encryption_Key_Size));
/* ** NOTE ** If we are the Slave we will NOT */
/* store the LTK that is sent to us by */
/* the Master. However if it was ever */
/* desired that the Master and Slave */
/* switch roles in a later connection */
/* we could store that information at */
/* this point. */
if(LocalDeviceIsMaster)
{
/* Search for the entry for this slave to store */
/* the information into. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, Authentication_Event_Data->BD_ADDR)) != NULL)
{
BTPS_MemCopy(&(DeviceInfo->LTK), &(Authentication_Event_Data->Authentication_Event_Data.Encryption_Information.LTK), LONG_TERM_KEY_SIZE);
BTPS_MemCopy(&(DeviceInfo->Rand), &(Authentication_Event_Data->Authentication_Event_Data.Encryption_Information.Rand), RANDOM_NUMBER_DATA_SIZE);
DeviceInfo->EDIV = Authentication_Event_Data->Authentication_Event_Data.Encryption_Information.EDIV;
DeviceInfo->EncryptionKeySize = Authentication_Event_Data->Authentication_Event_Data.Encryption_Information.Encryption_Key_Size;
DeviceInfo->Flags |= DEVICE_INFO_FLAGS_LTK_VALID;
}
else
{
Display(("No Key Info Entry for this Slave.\r\n"));
}
}
break;
}
}
break;
}
/* Display the command prompt. */
DisplayPrompt();
}
}
/* The following function is for an GATT Server Event Callback. This*/
/* function will be called whenever a GATT Request is made to the */
/* server who registers this function that cannot be handled */
/* internally by GATT. This function passes to the caller the GATT */
/* Server Event Data that occurred and the GATT Server Event Callback*/
/* Parameter that was specified when this Callback was installed. */
/* The caller is free to use the contents of the GATT Server Event */
/* Data ONLY in the context of this callback. If the caller requires*/
/* the Data for a longer period of time, then the callback function */
/* MUST copy the data into another Data Buffer. This function is */
/* guaranteed NOT to be invoked more than once simultaneously for the*/
/* specified installed callback (i.e. this function DOES NOT have be*/
/* reentrant). It Needs to be noted however, that if the same */
/* Callback is installed more than once, then the callbacks will be */
/* called serially. Because of this, the processing in this function*/
/* should be as efficient as possible. It should also be noted that */
/* this function is called in the Thread Context of a Thread that the*/
/* User does NOT own. Therefore, processing in this function should */
/* be as efficient as possible (this argument holds anyway because */
/* another GATT Event (Server/Client or Connection) will not be */
/* processed while this function call is outstanding). */
/* * NOTE * This function MUST NOT Block and wait for Events that can*/
/* only be satisfied by Receiving a Bluetooth Event */
/* Callback. A Deadlock WILL occur because NO Bluetooth */
/* Callbacks will be issued while this function is currently*/
/* outstanding. */
static void BTPSAPI GATT_ServerEventCallback(unsigned int BluetoothStackID, GATT_Server_Event_Data_t *GATT_ServerEventData, unsigned long CallbackParameter)
{
int LEConnectionIndex;
Byte_t Temp[2];
Word_t Value;
Word_t PreviousValue;
Word_t AttributeOffset;
DeviceInfo_t *DeviceInfo;
/* Verify that all parameters to this callback are Semi-Valid. */
if((BluetoothStackID) && (GATT_ServerEventData))
{
switch(GATT_ServerEventData->Event_Data_Type)
{
case etGATT_Server_Read_Request:
/* Verify that the Event Data is valid. */
if(GATT_ServerEventData->Event_Data.GATT_Read_Request_Data)
{
/* Verify that the read isn't a read blob (no SPPLE */
/* readable characteristics are long). */
if(GATT_ServerEventData->Event_Data.GATT_Read_Request_Data->AttributeValueOffset == 0)
{
/* Find the LE Connection Index for this connection. */
if((LEConnectionIndex = FindLEIndexByAddress(GATT_ServerEventData->Event_Data.GATT_Read_Request_Data->RemoteDevice)) >= 0)
{
/* Grab the device info for the currently */
/* connected device. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
{
/* Determine which request this read is coming */
/* for. */
switch(GATT_ServerEventData->Event_Data.GATT_Read_Request_Data->AttributeOffset)
{
case SPPLE_TX_CHARACTERISTIC_CCD_ATTRIBUTE_OFFSET:
ASSIGN_HOST_WORD_TO_LITTLE_ENDIAN_UNALIGNED_WORD(Temp, DeviceInfo->ServerInfo.Tx_Client_Configuration_Descriptor);
break;
case SPPLE_TX_CREDITS_CHARACTERISTIC_ATTRIBUTE_OFFSET:
ASSIGN_HOST_WORD_TO_LITTLE_ENDIAN_UNALIGNED_WORD(Temp, LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.TransmitCredits);
break;
case SPPLE_RX_CREDITS_CHARACTERISTIC_ATTRIBUTE_OFFSET:
ASSIGN_HOST_WORD_TO_LITTLE_ENDIAN_UNALIGNED_WORD(Temp, LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.ReceiveBuffer.BytesFree);
break;
case SPPLE_RX_CREDITS_CHARACTERISTIC_CCD_ATTRIBUTE_OFFSET:
ASSIGN_HOST_WORD_TO_LITTLE_ENDIAN_UNALIGNED_WORD(Temp, DeviceInfo->ServerInfo.Rx_Credit_Client_Configuration_Descriptor);
break;
}
GATT_Read_Response(BluetoothStackID, GATT_ServerEventData->Event_Data.GATT_Read_Request_Data->TransactionID, WORD_SIZE, Temp);
}
else
{
Display(("Error - No device info entry for this device.\r\n"));
}
}
else
{
Display(("Error - No such device connected.\r\n"));
}
}
else
GATT_Error_Response(BluetoothStackID, GATT_ServerEventData->Event_Data.GATT_Read_Request_Data->TransactionID, GATT_ServerEventData->Event_Data.GATT_Read_Request_Data->AttributeOffset, ATT_PROTOCOL_ERROR_CODE_ATTRIBUTE_NOT_LONG);
}
else
Display(("Invalid Read Request Event Data.\r\n"));
break;
case etGATT_Server_Write_Request:
/* Verify that the Event Data is valid. */
if(GATT_ServerEventData->Event_Data.GATT_Write_Request_Data)
{
if(GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeValueOffset == 0)
{
/* Cache the Attribute Offset. */
AttributeOffset = GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeOffset;
/* Verify that the value is of the correct length. */
if((AttributeOffset == SPPLE_RX_CHARACTERISTIC_ATTRIBUTE_OFFSET) || ((GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeValueLength) && (GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeValueLength <= WORD_SIZE)))
{
/* Find the LE Connection Index for this */
/* connection. */
if((LEConnectionIndex = FindLEIndexByAddress(GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->RemoteDevice)) >= 0)
{
/* Grab the device info for the currently */
/* connected device. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
{
/* Since the value appears valid go ahead and*/
/* accept the write request. */
GATT_Write_Response(BluetoothStackID, GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->TransactionID);
/* If this is not a write to the Rx */
/* Characteristic we will read the data here.*/
if(AttributeOffset != SPPLE_RX_CHARACTERISTIC_ATTRIBUTE_OFFSET)
{
if(GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeValueLength == WORD_SIZE)
Value = READ_UNALIGNED_WORD_LITTLE_ENDIAN(GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeValue);
else
Value = READ_UNALIGNED_BYTE_LITTLE_ENDIAN(GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeValue);
}
/* Determine which attribute this write */
/* request is for. */
switch(AttributeOffset)
{
case SPPLE_TX_CHARACTERISTIC_CCD_ATTRIBUTE_OFFSET:
/* Client has updated the Tx CCCD. Now*/
/* we need to check if we have any data*/
/* to send. */
DeviceInfo->ServerInfo.Tx_Client_Configuration_Descriptor = Value;
/* If may be possible for transmit */
/* queued data now. So fake a Receive */
/* Credit event with 0 as the received */
/* credits. */
SPPLEReceiveCreditEvent(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, 0);
break;
case SPPLE_TX_CREDITS_CHARACTERISTIC_ATTRIBUTE_OFFSET:
/* Client has sent updated credits. */
SPPLEReceiveCreditEvent(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, Value);
break;
case SPPLE_RX_CHARACTERISTIC_ATTRIBUTE_OFFSET:
/* Client has sent data, so we should */
/* handle this as a data indication */
/* event. */
SPPLEDataIndicationEvent(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeValueLength, GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeValue);
if((!AutomaticReadActive) && (!LoopbackActive))
DisplayPrompt();
break;
case SPPLE_RX_CREDITS_CHARACTERISTIC_CCD_ATTRIBUTE_OFFSET:
/* Cache the previous CCD Value. */
PreviousValue = DeviceInfo->ServerInfo.Rx_Credit_Client_Configuration_Descriptor;
/* Note the updated Rx CCCD Value. */
DeviceInfo->ServerInfo.Rx_Credit_Client_Configuration_Descriptor = Value;
/* If we were not previously configured*/
/* for notifications send the initial */
/* credits to the device. */
if(PreviousValue != GATT_CLIENT_CONFIGURATION_CHARACTERISTIC_NOTIFY_ENABLE)
{
/* Send the initial credits to the */
/* device. */
SPPLESendCredits(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.ReceiveBuffer.BytesFree);
}
break;
}
}
else
{
Display(("Error - No device info entry for this device.\r\n"));
}
}
else
{
Display(("Error - No such device connected."));
}
}
else
GATT_Error_Response(BluetoothStackID, GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->TransactionID, GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeOffset, ATT_PROTOCOL_ERROR_CODE_INVALID_ATTRIBUTE_VALUE_LENGTH);
}
else
GATT_Error_Response(BluetoothStackID, GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->TransactionID, GATT_ServerEventData->Event_Data.GATT_Write_Request_Data->AttributeOffset, ATT_PROTOCOL_ERROR_CODE_ATTRIBUTE_NOT_LONG);
}
else
Display(("Invalid Write Request Event Data.\r\n"));
break;
}
}
else
{
/* There was an error with one or more of the input parameters. */
Display(("\r\n"));
Display(("GATT Callback Data: Event_Data = NULL.\r\n"));
DisplayPrompt();
}
}
/* The following function is for an GATT Client Event Callback. This*/
/* function will be called whenever a GATT Response is received for a*/
/* request that was made when this function was registered. This */
/* function passes to the caller the GATT Client Event Data that */
/* occurred and the GATT Client Event Callback Parameter that was */
/* specified when this Callback was installed. The caller is free to*/
/* use the contents of the GATT Client Event Data ONLY in the context*/
/* of this callback. If the caller requires the Data for a longer */
/* period of time, then the callback function MUST copy the data into*/
/* another Data Buffer. This function is guaranteed NOT to be */
/* invoked more than once simultaneously for the specified installed */
/* callback (i.e. this function DOES NOT have be reentrant). It */
/* Needs to be noted however, that if the same Callback is installed */
/* more than once, then the callbacks will be called serially. */
/* Because of this, the processing in this function should be as */
/* efficient as possible. It should also be noted that this function*/
/* is called in the Thread Context of a Thread that the User does NOT*/
/* own. Therefore, processing in this function should be as */
/* efficient as possible (this argument holds anyway because another */
/* GATT Event (Server/Client or Connection) will not be processed */
/* while this function call is outstanding). */
/* * NOTE * This function MUST NOT Block and wait for Events that can*/
/* only be satisfied by Receiving a Bluetooth Event */
/* Callback. A Deadlock WILL occur because NO Bluetooth */
/* Callbacks will be issued while this function is currently*/
/* outstanding. */
static void BTPSAPI GATT_ClientEventCallback_SPPLE(unsigned int BluetoothStackID, GATT_Client_Event_Data_t *GATT_Client_Event_Data, unsigned long CallbackParameter)
{
int LEConnectionIndex;
Word_t Credits;
BoardStr_t BoardStr;
DeviceInfo_t *DeviceInfo;
/* Verify that all parameters to this callback are Semi-Valid. */
if((BluetoothStackID) && (GATT_Client_Event_Data))
{
/* Determine the event that occurred. */
switch(GATT_Client_Event_Data->Event_Data_Type)
{
case etGATT_Client_Error_Response:
if(GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data)
{
Display(("\r\nError Response.\r\n"));
BD_ADDRToStr(GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->RemoteDevice, BoardStr);
Display(("Connection ID: %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ConnectionID));
Display(("Transaction ID: %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->TransactionID));
Display(("Connection Type: %s.\r\n", (GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ConnectionType == gctLE)?"LE":"BR/EDR"));
Display(("BD_ADDR: %s.\r\n", BoardStr));
Display(("Error Type: %s.\r\n", (GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorType == retErrorResponse)?"Response Error":"Response Timeout"));
/* Only print out the rest if it is valid. */
if(GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorType == retErrorResponse)
{
Display(("Request Opcode: 0x%02X.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->RequestOpCode));
Display(("Request Handle: 0x%04X.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->RequestHandle));
Display(("Error Code: 0x%02X.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorCode));
if(GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorCode < NUMBER_GATT_ERROR_CODES)
{
Display(("Error Mesg: %s.\r\n", ErrorCodeStr[GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorCode]));
}
else
{
Display(("Error Mesg: Unknown.\r\n", ErrorCodeStr[GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorCode]));
}
}
}
else
Display(("Error - Null Error Response Data.\r\n"));
break;
case etGATT_Client_Read_Response:
if(GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data)
{
/* Find the LE Connection Index for this connection. */
if((LEConnectionIndex = FindLEIndexByAddress(GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->RemoteDevice)) >= 0)
{
/* Grab the device info for the currently connected */
/* device. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
{
if((Word_t)CallbackParameter == DeviceInfo->ClientInfo.Rx_Credit_Characteristic)
{
/* Make sure this is the correct size for a Rx */
/* Credit Characteristic. */
if(GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->AttributeValueLength == WORD_SIZE)
{
/* Display the credits we just received. */
Credits = READ_UNALIGNED_WORD_LITTLE_ENDIAN(GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->AttributeValue);
Display(("\r\nReceived %u Initial Credits.\r\n", Credits));
/* We have received the initial credits from */
/* the device so go ahead and handle a */
/* Receive Credit Event. */
SPPLEReceiveCreditEvent(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, Credits);
}
}
}
}
}
else
Display(("\r\nError - Null Read Response Data.\r\n"));
break;
case etGATT_Client_Exchange_MTU_Response:
if(GATT_Client_Event_Data->Event_Data.GATT_Exchange_MTU_Response_Data)
{
Display(("\r\nExchange MTU Response.\r\n"));
BD_ADDRToStr(GATT_Client_Event_Data->Event_Data.GATT_Exchange_MTU_Response_Data->RemoteDevice, BoardStr);
Display(("Connection ID: %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Exchange_MTU_Response_Data->ConnectionID));
Display(("Transaction ID: %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Exchange_MTU_Response_Data->TransactionID));
Display(("Connection Type: %s.\r\n", (GATT_Client_Event_Data->Event_Data.GATT_Exchange_MTU_Response_Data->ConnectionType == gctLE)?"LE":"BR/EDR"));
Display(("BD_ADDR: %s.\r\n", BoardStr));
Display(("MTU: %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Exchange_MTU_Response_Data->ServerMTU));
}
else
Display(("\r\nError - Null Write Response Data.\r\n"));
break;
case etGATT_Client_Write_Response:
if(GATT_Client_Event_Data->Event_Data.GATT_Write_Response_Data)
{
Display(("\r\nWrite Response.\r\n"));
BD_ADDRToStr(GATT_Client_Event_Data->Event_Data.GATT_Write_Response_Data->RemoteDevice, BoardStr);
Display(("Connection ID: %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Write_Response_Data->ConnectionID));
Display(("Transaction ID: %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Write_Response_Data->TransactionID));
Display(("Connection Type: %s.\r\n", (GATT_Client_Event_Data->Event_Data.GATT_Write_Response_Data->ConnectionType == gctLE)?"LE":"BR/EDR"));
Display(("BD_ADDR: %s.\r\n", BoardStr));
Display(("Bytes Written: %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Write_Response_Data->BytesWritten));
}
else
Display(("\r\nError - Null Write Response Data.\r\n"));
break;
}
/* Print the command line prompt. */
DisplayPrompt();
}
else
{
/* There was an error with one or more of the input parameters. */
Display(("\r\n"));
Display(("GATT Callback Data: Event_Data = NULL.\r\n"));
DisplayPrompt();
}
}
/* The following function is for an GATT Client Event Callback. This*/
/* function will be called whenever a GATT Response is received for a*/
/* request that was made when this function was registered. This */
/* function passes to the caller the GATT Client Event Data that */
/* occurred and the GATT Client Event Callback Parameter that was */
/* specified when this Callback was installed. The caller is free to*/
/* use the contents of the GATT Client Event Data ONLY in the context*/
/* of this callback. If the caller requires the Data for a longer */
/* period of time, then the callback function MUST copy the data into*/
/* another Data Buffer. This function is guaranteed NOT to be */
/* invoked more than once simultaneously for the specified installed */
/* callback (i.e. this function DOES NOT have be reentrant). It */
/* Needs to be noted however, that if the same Callback is installed */
/* more than once, then the callbacks will be called serially. */
/* Because of this, the processing in this function should be as */
/* efficient as possible. It should also be noted that this function*/
/* is called in the Thread Context of a Thread that the User does NOT*/
/* own. Therefore, processing in this function should be as */
/* efficient as possible (this argument holds anyway because another */
/* GATT Event (Server/Client or Connection) will not be processed */
/* while this function call is outstanding). */
/* * NOTE * This function MUST NOT Block and wait for Events that can*/
/* only be satisfied by Receiving a Bluetooth Event */
/* Callback. A Deadlock WILL occur because NO Bluetooth */
/* Callbacks will be issued while this function is currently*/
/* outstanding. */
static void BTPSAPI GATT_ClientEventCallback_GAPS(unsigned int BluetoothStackID, GATT_Client_Event_Data_t *GATT_Client_Event_Data, unsigned long CallbackParameter)
{
char *NameBuffer;
Word_t Appearance;
BoardStr_t BoardStr;
DeviceInfo_t *DeviceInfo;
/* Verify that all parameters to this callback are Semi-Valid. */
if((BluetoothStackID) && (GATT_Client_Event_Data))
{
/* Determine the event that occurred. */
switch(GATT_Client_Event_Data->Event_Data_Type)
{
case etGATT_Client_Error_Response:
if(GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data)
{
Display(("\r\nError Response.\r\n"));
BD_ADDRToStr(GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->RemoteDevice, BoardStr);
Display(("Connection ID: %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ConnectionID));
Display(("Transaction ID: %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->TransactionID));
Display(("Connection Type: %s.\r\n", (GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ConnectionType == gctLE)?"LE":"BR/EDR"));
Display(("BD_ADDR: %s.\r\n", BoardStr));
Display(("Error Type: %s.\r\n", (GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorType == retErrorResponse)?"Response Error":"Response Timeout"));
/* Only print out the rest if it is valid. */
if(GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorType == retErrorResponse)
{
Display(("Request Opcode: 0x%02X.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->RequestOpCode));
Display(("Request Handle: 0x%04X.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->RequestHandle));
Display(("Error Code: 0x%02X.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorCode));
if(GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorCode < NUMBER_GATT_ERROR_CODES)
{
Display(("Error Mesg: %s.\r\n", ErrorCodeStr[GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorCode]));
}
else
{
Display(("Error Mesg: Unknown.\r\n", ErrorCodeStr[GATT_Client_Event_Data->Event_Data.GATT_Request_Error_Data->ErrorCode]));
}
}
}
else
Display(("Error - Null Error Response Data.\r\n"));
break;
case etGATT_Client_Read_Response:
if(GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data)
{
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->RemoteDevice)) != NULL)
{
if((Word_t)CallbackParameter == DeviceInfo->GAPSClientInfo.DeviceNameHandle)
{
/* Display the remote device name. */
if((NameBuffer = (char *)BTPS_AllocateMemory(GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->AttributeValueLength+1)) != NULL)
{
BTPS_MemInitialize(NameBuffer, 0, GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->AttributeValueLength+1);
BTPS_MemCopy(NameBuffer, GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->AttributeValue, GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->AttributeValueLength);
Display(("\r\nRemote Device Name: %s.\r\n", NameBuffer));
BTPS_FreeMemory(NameBuffer);
}
}
else
{
if((Word_t)CallbackParameter == DeviceInfo->GAPSClientInfo.DeviceAppearanceHandle)
{
if(GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->AttributeValueLength == GAP_DEVICE_APPEARENCE_VALUE_LENGTH)
{
Appearance = READ_UNALIGNED_WORD_LITTLE_ENDIAN(GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->AttributeValue);
if(AppearanceToString(Appearance, &NameBuffer))
Display(("\r\nRemote Device Appearance: %s(%u).\r\n", NameBuffer, Appearance));
else
Display(("\r\nRemote Device Appearance: Unknown(%u).\r\n", Appearance));
}
else
Display(("Invalid Remote Appearance Value Length %u.\r\n", GATT_Client_Event_Data->Event_Data.GATT_Read_Response_Data->AttributeValueLength));
}
}
}
}
else
Display(("\r\nError - Null Read Response Data.\r\n"));
break;
}
/* Print the command line prompt. */
DisplayPrompt();
}
else
{
/* There was an error with one or more of the input parameters. */
Display(("\r\n"));
Display(("GATT Callback Data: Event_Data = NULL.\r\n"));
DisplayPrompt();
}
}
/* The following function is for an GATT Connection Event Callback. */
/* This function is called for GATT Connection Events that occur on */
/* the specified Bluetooth Stack. This function passes to the caller*/
/* the GATT Connection Event Data that occurred and the GATT */
/* Connection Event Callback Parameter that was specified when this */
/* Callback was installed. The caller is free to use the contents of*/
/* the GATT Client Event Data ONLY in the context of this callback. */
/* If the caller requires the Data for a longer period of time, then */
/* the callback function MUST copy the data into another Data Buffer.*/
/* This function is guaranteed NOT to be invoked more than once */
/* simultaneously for the specified installed callback (i.e. this */
/* function DOES NOT have be reentrant). It Needs to be noted */
/* however, that if the same Callback is installed more than once, */
/* then the callbacks will be called serially. Because of this, the */
/* processing in this function should be as efficient as possible. */
/* It should also be noted that this function is called in the Thread*/
/* Context of a Thread that the User does NOT own. Therefore, */
/* processing in this function should be as efficient as possible */
/* (this argument holds anyway because another GATT Event */
/* (Server/Client or Connection) will not be processed while this */
/* function call is outstanding). */
/* * NOTE * This function MUST NOT Block and wait for Events that can*/
/* only be satisfied by Receiving a Bluetooth Event */
/* Callback. A Deadlock WILL occur because NO Bluetooth */
/* Callbacks will be issued while this function is currently*/
/* outstanding. */
static void BTPSAPI GATT_Connection_Event_Callback(unsigned int BluetoothStackID, GATT_Connection_Event_Data_t *GATT_Connection_Event_Data, unsigned long CallbackParameter)
{
int LEConnectionIndex;
Word_t Credits;
Boolean_t SuppressResponse = FALSE;
BoardStr_t BoardStr;
DeviceInfo_t *DeviceInfo;
/* Verify that all parameters to this callback are Semi-Valid. */
if((BluetoothStackID) && (GATT_Connection_Event_Data))
{
/* Determine the Connection Event that occurred. */
switch(GATT_Connection_Event_Data->Event_Data_Type)
{
case etGATT_Connection_Device_Connection:
if(GATT_Connection_Event_Data->Event_Data.GATT_Device_Connection_Data)
{
/* Update the ConnectionID associated with the BD_ADDR */
/* If UpdateConnectionID returns -1, then it failed. */
if(UpdateConnectionID(GATT_Connection_Event_Data->Event_Data.GATT_Device_Connection_Data->ConnectionID, GATT_Connection_Event_Data->Event_Data.GATT_Device_Connection_Data->RemoteDevice) < 0)
Display(("Error - No matching ConnectionBD_ADDR found."));
Display(("\r\netGATT_Connection_Device_Connection with size %u: \r\n", GATT_Connection_Event_Data->Event_Data_Size));
BD_ADDRToStr(GATT_Connection_Event_Data->Event_Data.GATT_Device_Connection_Data->RemoteDevice, BoardStr);
Display((" Connection ID: %u.\r\n", GATT_Connection_Event_Data->Event_Data.GATT_Device_Connection_Data->ConnectionID));
Display((" Connection Type: %s.\r\n", ((GATT_Connection_Event_Data->Event_Data.GATT_Device_Connection_Data->ConnectionType == gctLE)?"LE":"BR/EDR")));
Display((" Remote Device: %s.\r\n", BoardStr));
Display((" Connection MTU: %u.\r\n", GATT_Connection_Event_Data->Event_Data.GATT_Device_Connection_Data->MTU));
// BTPS_Delay(1000);
DiscoverSPPLE(NULL);
/* Find the LE Connection Index for this connection. */
if((LEConnectionIndex = FindLEIndexByAddress(GATT_Connection_Event_Data->Event_Data.GATT_Device_Connection_Data->RemoteDevice)) >= 0)
{
/* Search for the device info for the connection. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
{
/* Clear the SPPLE Role Flag. */
DeviceInfo->Flags &= ~DEVICE_INFO_FLAGS_SPPLE_SERVER;
/* Initialize the Transmit and Receive Buffers. */
InitializeBuffer(&(LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.ReceiveBuffer));
InitializeBuffer(&(LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.TransmitBuffer));
/* Flag that we do not have any transmit credits */
/* yet. */
LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.TransmitCredits = 0;
/* Flag that no credits are queued. */
LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.QueuedCredits = 0;
if(!LocalDeviceIsMaster)
{
/* Flag that we will act as the Server. */
DeviceInfo->Flags |= DEVICE_INFO_FLAGS_SPPLE_SERVER;
/* Send the Initial Credits if the Rx Credit CCD*/
/* is already configured (for a bonded device */
/* this could be the case). */
SPPLESendCredits(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, LEContextInfo[LEConnectionIndex].SPPLEBufferInfo.ReceiveBuffer.BytesFree);
}
else
{
/* Attempt to update the MTU to the maximum */
/* supported. */
GATT_Exchange_MTU_Request(BluetoothStackID, GATT_Connection_Event_Data->Event_Data.GATT_Device_Connection_Data->ConnectionID, BTPS_CONFIGURATION_GATT_MAXIMUM_SUPPORTED_MTU_SIZE, GATT_ClientEventCallback_SPPLE, 0);
}
}
}
}
else
Display(("Error - Null Connection Data.\r\n"));
break;
case etGATT_Connection_Device_Disconnection:
if(GATT_Connection_Event_Data->Event_Data.GATT_Device_Disconnection_Data)
{
/* Clear the Connection ID. */
RemoveConnectionInfo(GATT_Connection_Event_Data->Event_Data.GATT_Device_Disconnection_Data->RemoteDevice);
Display(("\r\netGATT_Connection_Device_Disconnection with size %u: \r\n", GATT_Connection_Event_Data->Event_Data_Size));
BD_ADDRToStr(GATT_Connection_Event_Data->Event_Data.GATT_Device_Disconnection_Data->RemoteDevice, BoardStr);
Display((" Connection ID: %u.\r\n", GATT_Connection_Event_Data->Event_Data.GATT_Device_Disconnection_Data->ConnectionID));
Display((" Connection Type: %s.\r\n", ((GATT_Connection_Event_Data->Event_Data.GATT_Device_Disconnection_Data->ConnectionType == gctLE)?"LE":"BR/EDR")));
Display((" Remote Device: %s.\r\n", BoardStr));
}
else
Display(("Error - Null Disconnection Data.\r\n"));
break;
case etGATT_Connection_Device_Buffer_Empty:
if(GATT_Connection_Event_Data->Event_Data.GATT_Device_Buffer_Empty_Data)
{
/* Find the LE Connection Index for this connection. */
if((LEConnectionIndex = FindLEIndexByAddress(GATT_Connection_Event_Data->Event_Data.GATT_Device_Buffer_Empty_Data->RemoteDevice)) >= 0)
{
/* Grab the device info for the currently connected */
/* device. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
{
//xxx
//xxx Display(("xxx Buffer Empty for device.\r\n"));
/* Flag that the buffer is no longer empty. */
LEContextInfo[LEConnectionIndex].BufferFull = FALSE;
/* Attempt to send any queued credits that we may */
/* have. */
SPPLESendCredits(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, 0);
/* If may be possible for transmit queued data now.*/
/* So fake a Receive Credit event with 0 as the */
/* received credits. */
SPPLEReceiveCreditEvent(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, 0);
/* Suppress the command prompt. */
SuppressResponse = TRUE;
}
}
}
break;
case etGATT_Connection_Server_Notification:
if(GATT_Connection_Event_Data->Event_Data.GATT_Server_Notification_Data)
{
/* Find the LE Connection Index for this connection. */
if((LEConnectionIndex = FindLEIndexByAddress(GATT_Connection_Event_Data->Event_Data.GATT_Server_Notification_Data->RemoteDevice)) >= 0)
{
/* Find the Device Info for the device that has sent */
/* us the notification. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
{
/* Determine the characteristic that is being */
/* notified. */
if(GATT_Connection_Event_Data->Event_Data.GATT_Server_Notification_Data->AttributeHandle == DeviceInfo->ClientInfo.Rx_Credit_Characteristic)
{
/* Verify that the length of the Rx Credit */
/* Notification is correct. */
if(GATT_Connection_Event_Data->Event_Data.GATT_Server_Notification_Data->AttributeValueLength == WORD_SIZE)
{
Credits = READ_UNALIGNED_WORD_LITTLE_ENDIAN(GATT_Connection_Event_Data->Event_Data.GATT_Server_Notification_Data->AttributeValue);
/* Handle the received credits event. */
SPPLEReceiveCreditEvent(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, Credits);
/* Suppress the command prompt. */
SuppressResponse = TRUE;
}
}
else
{
if(GATT_Connection_Event_Data->Event_Data.GATT_Server_Notification_Data->AttributeHandle == DeviceInfo->ClientInfo.Tx_Characteristic)
{
/* This is a Tx Characteristic Event. So */
/* call the function to handle the data */
/* indication event. */
SPPLEDataIndicationEvent(&(LEContextInfo[LEConnectionIndex]), DeviceInfo, GATT_Connection_Event_Data->Event_Data.GATT_Server_Notification_Data->AttributeValueLength, GATT_Connection_Event_Data->Event_Data.GATT_Server_Notification_Data->AttributeValue);
/* If we are not looping back or doing */
/* automatic reads we will display the */
/* prompt. */
if((!AutomaticReadActive) && (!LoopbackActive))
SuppressResponse = FALSE;
else
SuppressResponse = TRUE;
}
}
}
}
}
else
Display(("Error - Null Server Notification Data.\r\n"));
break;
}
/* Print the command line prompt. */
if(!SuppressResponse)
DisplayPrompt();
}
else
{
/* There was an error with one or more of the input parameters. */
Display(("\r\n"));
Display(("GATT Connection Callback Data: Event_Data = NULL.\r\n"));
DisplayPrompt();
}
}
/* The following function is for an GATT Discovery Event Callback. */
/* This function will be called whenever a GATT Service is discovered*/
/* or a previously started service discovery process is completed. */
/* This function passes to the caller the GATT Discovery Event Data */
/* that occurred and the GATT Client Event Callback Parameter that */
/* was specified when this Callback was installed. The caller is */
/* free to use the contents of the GATT Discovery Event Data ONLY in */
/* the context of this callback. If the caller requires the Data for*/
/* a longer period of time, then the callback function MUST copy the */
/* data into another Data Buffer. This function is guaranteed NOT to*/
/* be invoked more than once simultaneously for the specified */
/* installed callback (i.e. this function DOES NOT have be */
/* reentrant). It Needs to be noted however, that if the same */
/* Callback is installed more than once, then the callbacks will be */
/* called serially. Because of this, the processing in this function*/
/* should be as efficient as possible. It should also be noted that */
/* this function is called in the Thread Context of a Thread that the*/
/* User does NOT own. Therefore, processing in this function should */
/* be as efficient as possible (this argument holds anyway because */
/* another GATT Discovery Event will not be processed while this */
/* function call is outstanding). */
/* * NOTE * This function MUST NOT Block and wait for Events that can*/
/* only be satisfied by Receiving a Bluetooth Event */
/* Callback. A Deadlock WILL occur because NO Bluetooth */
/* Callbacks will be issued while this function is currently*/
/* outstanding. */
static void BTPSAPI GATT_Service_Discovery_Event_Callback(unsigned int BluetoothStackID, GATT_Service_Discovery_Event_Data_t *GATT_Service_Discovery_Event_Data, unsigned long CallbackParameter)
{
int LEConnectionIndex;
DeviceInfo_t *DeviceInfo;
/* Verify that the input parameters are semi-valid. */
if((BluetoothStackID) && (GATT_Service_Discovery_Event_Data))
{
switch(GATT_Service_Discovery_Event_Data->Event_Data_Type)
{
case etGATT_Service_Discovery_Indication:
/* Verify the event data. */
if(GATT_Service_Discovery_Event_Data->Event_Data.GATT_Service_Discovery_Indication_Data)
{
/* Find the LE Connection Index for this connection. */
if((LEConnectionIndex = FindLEIndexByConnectionID(GATT_Service_Discovery_Event_Data->Event_Data.GATT_Service_Discovery_Indication_Data->ConnectionID)) >= 0)
{
/* Find the device info for this connection. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
{
Display(("\r\n"));
Display(("Service 0x%04X - 0x%04X, UUID: ", GATT_Service_Discovery_Event_Data->Event_Data.GATT_Service_Discovery_Indication_Data->ServiceInformation.Service_Handle, GATT_Service_Discovery_Event_Data->Event_Data.GATT_Service_Discovery_Indication_Data->ServiceInformation.End_Group_Handle));
DisplayUUID(&(GATT_Service_Discovery_Event_Data->Event_Data.GATT_Service_Discovery_Indication_Data->ServiceInformation.UUID));
Display(("\r\n"));
/* Attempt to populate the handles for the GAP */
/* Service. */
GAPSPopulateHandles(&(DeviceInfo->GAPSClientInfo), GATT_Service_Discovery_Event_Data->Event_Data.GATT_Service_Discovery_Indication_Data);
/* Attempt to populate the handles for the SPPLE */
/* Service. */
SPPLEPopulateHandles(&(DeviceInfo->ClientInfo), GATT_Service_Discovery_Event_Data->Event_Data.GATT_Service_Discovery_Indication_Data);
}
}
}
break;
case etGATT_Service_Discovery_Complete:
/* Verify the event data. */
if(GATT_Service_Discovery_Event_Data->Event_Data.GATT_Service_Discovery_Complete_Data)
{
Display(("\r\n"));
Display(("Service Discovery Operation Complete, Status 0x%02X.\r\n", GATT_Service_Discovery_Event_Data->Event_Data.GATT_Service_Discovery_Complete_Data->Status));
ConfigureSPPLE(NULL);
/* Find the LE Connection Index for this connection. */
if((LEConnectionIndex = FindLEIndexByConnectionID(GATT_Service_Discovery_Event_Data->Event_Data.GATT_Service_Discovery_Complete_Data->ConnectionID)) >= 0)
{
/* Find the device info for this connection. */
if((DeviceInfo = SearchDeviceInfoEntryByBD_ADDR(&DeviceInfoList, LEContextInfo[LEConnectionIndex].ConnectionBD_ADDR)) != NULL)
{
/* Flag that no service discovery operation is */
/* outstanding for this device. */
DeviceInfo->Flags &= ~DEVICE_INFO_FLAGS_SERVICE_DISCOVERY_OUTSTANDING;
}
}
}
break;
}
DisplayPrompt();
}
else
{
/* There was an error with one or more of the input parameters. */
Display(("\r\n"));
Display(("GATT Callback Data: Event_Data = NULL.\r\n"));
DisplayPrompt();
}
}
/* The following function is for the GAP Event Receive Data Callback.*/
/* This function will be called whenever a Callback has been */
/* registered for the specified GAP Action that is associated with */
/* the Bluetooth Stack. This function passes to the caller the GAP */
/* Event Data of the specified Event and the GAP Event Callback */
/* Parameter that was specified when this Callback was installed. */
/* The caller is free to use the contents of the GAP Event Data ONLY */
/* in the context of this callback. If the caller requires the Data */
/* for a longer period of time, then the callback function MUST copy */
/* the data into another Data Buffer. This function is guaranteed */
/* NOT to be invoked more than once simultaneously for the specified */
/* installed callback (i.e. this function DOES NOT have be */
/* reentrant). It Needs to be noted however, that if the same */
/* Callback is installed more than once, then the callbacks will be */
/* called serially. Because of this, the processing in this function*/
/* should be as efficient as possible. It should also be noted that */
/* this function is called in the Thread Context of a Thread that the*/
/* User does NOT own. Therefore, processing in this function should */
/* be as efficient as possible (this argument holds anyway because */
/* other GAP Events will not be processed while this function call is*/
/* outstanding). */
/* * NOTE * This function MUST NOT Block and wait for events that */
/* can only be satisfied by Receiving other GAP Events. A */
/* Deadlock WILL occur because NO GAP Event Callbacks will */
/* be issued while this function is currently outstanding. */
static void BTPSAPI GAP_Event_Callback(unsigned int BluetoothStackID, GAP_Event_Data_t *GAP_Event_Data, unsigned long CallbackParameter)
{
int Result;
int Index;
BD_ADDR_t NULL_BD_ADDR;
Boolean_t OOB_Data;
Boolean_t MITM;
BoardStr_t Callback_BoardStr;
GAP_IO_Capability_t RemoteIOCapability;
GAP_Inquiry_Event_Data_t *GAP_Inquiry_Event_Data;
GAP_Remote_Name_Event_Data_t *GAP_Remote_Name_Event_Data;
GAP_Authentication_Information_t GAP_Authentication_Information;
/* First, check to see if the required parameters appear to be */
/* semi-valid. */
if((BluetoothStackID) && (GAP_Event_Data))
{
/* The parameters appear to be semi-valid, now check to see what */
/* type the incoming event is. */
switch(GAP_Event_Data->Event_Data_Type)
{
case etInquiry_Result:
/* The GAP event received was of type Inquiry_Result. */
GAP_Inquiry_Event_Data = GAP_Event_Data->Event_Data.GAP_Inquiry_Event_Data;
/* Next, Check to see if the inquiry event data received */
/* appears to be semi-valid. */
if(GAP_Inquiry_Event_Data)
{
/* Now, check to see if the gap inquiry event data's */
/* inquiry data appears to be semi-valid. */
if(GAP_Inquiry_Event_Data->GAP_Inquiry_Data)
{
Display(("\r\n"));
/* Display a list of all the devices found from */
/* performing the inquiry. */
for(Index=0;(Index<GAP_Inquiry_Event_Data->Number_Devices) && (Index<MAX_INQUIRY_RESULTS);Index++)
{
InquiryResultList[Index] = GAP_Inquiry_Event_Data->GAP_Inquiry_Data[Index].BD_ADDR;
BD_ADDRToStr(GAP_Inquiry_Event_Data->GAP_Inquiry_Data[Index].BD_ADDR, Callback_BoardStr);
Display(("Result: %d,%s.\r\n", (Index+1), Callback_BoardStr));
}
NumberofValidResponses = GAP_Inquiry_Event_Data->Number_Devices;
}
}
break;
case etInquiry_Entry_Result:
/* Next convert the BD_ADDR to a string. */
BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Inquiry_Entry_Event_Data->BD_ADDR, Callback_BoardStr);
/* Display this GAP Inquiry Entry Result. */
Display(("\r\n"));
Display(("Inquiry Entry: %s.\r\n", Callback_BoardStr));
break;
case etAuthentication:
/* An authentication event occurred, determine which type of*/
/* authentication event occurred. */
switch(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->GAP_Authentication_Event_Type)
{
case atLinkKeyRequest:
BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
Display(("\r\n"));
Display(("atLinkKeyRequest: %s\r\n", Callback_BoardStr));
/* Setup the authentication information response */
/* structure. */
GAP_Authentication_Information.GAP_Authentication_Type = atLinkKey;
GAP_Authentication_Information.Authentication_Data_Length = 0;
/* See if we have stored a Link Key for the specified */
/* device. */
for(Index=0;Index<(sizeof(LinkKeyInfo)/sizeof(LinkKeyInfo_t));Index++)
{
if(COMPARE_BD_ADDR(LinkKeyInfo[Index].BD_ADDR, GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device))
{
/* Link Key information stored, go ahead and */
/* respond with the stored Link Key. */
GAP_Authentication_Information.Authentication_Data_Length = sizeof(Link_Key_t);
GAP_Authentication_Information.Authentication_Data.Link_Key = LinkKeyInfo[Index].LinkKey;
break;
}
}
/* Submit the authentication response. */
Result = GAP_Authentication_Response(BluetoothStackID, GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, &GAP_Authentication_Information);
/* Check the result of the submitted command. */
if(!Result)
DisplayFunctionSuccess("GAP_Authentication_Response");
else
DisplayFunctionError("GAP_Authentication_Response", Result);
break;
case atPINCodeRequest:
/* A pin code request event occurred, first display */
/* the BD_ADD of the remote device requesting the pin.*/
BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
Display(("\r\n"));
Display(("atPINCodeRequest: %s\r\n", Callback_BoardStr));
/* Note the current Remote BD_ADDR that is requesting */
/* the PIN Code. */
CurrentCBRemoteBD_ADDR = GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device;
/* Inform the user that they will need to respond with*/
/* a PIN Code Response. */
Display(("Respond with: PINCodeResponse\r\n"));
PINCodeResponse(&codelist);
break;
case atAuthenticationStatus:
/* An authentication status event occurred, display */
/* all relevant information. */
BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
Display(("\r\n"));
Display(("atAuthenticationStatus: %d for %s\r\n", GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Authentication_Event_Data.Authentication_Status, Callback_BoardStr));
/* Flag that there is no longer a current */
/* Authentication procedure in progress. */
ASSIGN_BD_ADDR(CurrentCBRemoteBD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
break;
case atLinkKeyCreation:
/* A link key creation event occurred, first display */
/* the remote device that caused this event. */
BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
Display(("\r\n"));
Display(("atLinkKeyCreation: %s\r\n", Callback_BoardStr));
/* Now store the link Key in either a free location OR*/
/* over the old key location. */
ASSIGN_BD_ADDR(NULL_BD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
for(Index=0,Result=-1;Index<(sizeof(LinkKeyInfo)/sizeof(LinkKeyInfo_t));Index++)
{
if(COMPARE_BD_ADDR(LinkKeyInfo[Index].BD_ADDR, GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device))
break;
else
{
if((Result == (-1)) && (COMPARE_BD_ADDR(LinkKeyInfo[Index].BD_ADDR, NULL_BD_ADDR)))
Result = Index;
}
}
/* If we didn't find a match, see if we found an empty*/
/* location. */
if(Index == (sizeof(LinkKeyInfo)/sizeof(LinkKeyInfo_t)))
Index = Result;
/* Check to see if we found a location to store the */
/* Link Key information into. */
if(Index != (-1))
{
LinkKeyInfo[Index].BD_ADDR = GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device;
LinkKeyInfo[Index].LinkKey = GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Authentication_Event_Data.Link_Key_Info.Link_Key;
Display(("Link Key Stored.\r\n"));
}
else
Display(("Link Key array full.\r\n"));
break;
case atIOCapabilityRequest:
BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
Display(("\r\n"));
Display(("atIOCapabilityRequest: %s\r\n", Callback_BoardStr));
/* Setup the Authentication Information Response */
/* structure. */
GAP_Authentication_Information.GAP_Authentication_Type = atIOCapabilities;
GAP_Authentication_Information.Authentication_Data_Length = sizeof(GAP_IO_Capabilities_t);
GAP_Authentication_Information.Authentication_Data.IO_Capabilities.IO_Capability = (GAP_IO_Capability_t)IOCapability;
GAP_Authentication_Information.Authentication_Data.IO_Capabilities.MITM_Protection_Required = MITMProtection;
GAP_Authentication_Information.Authentication_Data.IO_Capabilities.OOB_Data_Present = OOBSupport;
/* Submit the Authentication Response. */
Result = GAP_Authentication_Response(BluetoothStackID, GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, &GAP_Authentication_Information);
/* Check the result of the submitted command. */
/* Check the result of the submitted command. */
if(!Result)
DisplayFunctionSuccess("Auth");
else
DisplayFunctionError("Auth", Result);
break;
case atIOCapabilityResponse:
BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
Display(("\r\n"));
Display(("atIOCapabilityResponse: %s\r\n", Callback_BoardStr));
RemoteIOCapability = GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Authentication_Event_Data.IO_Capabilities.IO_Capability;
MITM = (Boolean_t)GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Authentication_Event_Data.IO_Capabilities.MITM_Protection_Required;
OOB_Data = (Boolean_t)GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Authentication_Event_Data.IO_Capabilities.OOB_Data_Present;
Display(("Capabilities: %s%s%s\r\n", IOCapabilitiesStrings[RemoteIOCapability], ((MITM)?", MITM":""), ((OOB_Data)?", OOB Data":"")));
break;
case atUserConfirmationRequest:
BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
Display(("\r\n"));
Display(("atUserConfirmationRequest: %s\r\n", Callback_BoardStr));
CurrentCBRemoteBD_ADDR = GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device;
if(IOCapability != icDisplayYesNo)
{
/* Invoke JUST Works Process... */
GAP_Authentication_Information.GAP_Authentication_Type = atUserConfirmation;
GAP_Authentication_Information.Authentication_Data_Length = (Byte_t)sizeof(Byte_t);
GAP_Authentication_Information.Authentication_Data.Confirmation = TRUE;
/* Submit the Authentication Response. */
Display(("\r\nAuto Accepting: %l\r\n", GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Authentication_Event_Data.Numeric_Value));
Result = GAP_Authentication_Response(BluetoothStackID, GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, &GAP_Authentication_Information);
if(!Result)
DisplayFunctionSuccess("GAP_Authentication_Response");
else
DisplayFunctionError("GAP_Authentication_Response", Result);
/* Flag that there is no longer a current */
/* Authentication procedure in progress. */
ASSIGN_BD_ADDR(CurrentCBRemoteBD_ADDR, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00);
}
else
{
Display(("User Confirmation: %l\r\n", (unsigned long)GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Authentication_Event_Data.Numeric_Value));
/* Inform the user that they will need to respond */
/* with a PIN Code Response. */
Display(("Respond with: UserConfirmationResponse\r\n"));
}
break;
case atPasskeyRequest:
BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
Display(("\r\n"));
Display(("atPasskeyRequest: %s\r\n", Callback_BoardStr));
/* Note the current Remote BD_ADDR that is requesting */
/* the Passkey. */
CurrentCBRemoteBD_ADDR = GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device;
/* Inform the user that they will need to respond with*/
/* a Passkey Response. */
Display(("Respond with: PassKeyResponse\r\n"));
break;
case atRemoteOutOfBandDataRequest:
BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
Display(("\r\n"));
Display(("atRemoteOutOfBandDataRequest: %s\r\n", Callback_BoardStr));
/* This application does not support OOB data so */
/* respond with a data length of Zero to force a */
/* negative reply. */
GAP_Authentication_Information.GAP_Authentication_Type = atOutOfBandData;
GAP_Authentication_Information.Authentication_Data_Length = 0;
Result = GAP_Authentication_Response(BluetoothStackID, GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, &GAP_Authentication_Information);
if(!Result)
DisplayFunctionSuccess("GAP_Authentication_Response");
else
DisplayFunctionError("GAP_Authentication_Response", Result);
break;
case atPasskeyNotification:
BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
Display(("\r\n"));
Display(("atPasskeyNotification: %s\r\n", Callback_BoardStr));
Display(("Passkey Value: %u\r\n", GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Authentication_Event_Data.Numeric_Value));
break;
case atKeypressNotification:
BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Remote_Device, Callback_BoardStr);
Display(("\r\n"));
Display(("atKeypressNotification: %s\r\n", Callback_BoardStr));
Display(("Keypress: %d\r\n", (int)GAP_Event_Data->Event_Data.GAP_Authentication_Event_Data->Authentication_Event_Data.Keypress_Type));
break;
default:
Display(("Un-handled Auth. Event.\r\n"));
break;
}
break;
case etRemote_Name_Result:
/* Bluetooth Stack has responded to a previously issued */
/* Remote Name Request that was issued. */
GAP_Remote_Name_Event_Data = GAP_Event_Data->Event_Data.GAP_Remote_Name_Event_Data;
if(GAP_Remote_Name_Event_Data)
{
/* Inform the user of the Result. */
BD_ADDRToStr(GAP_Remote_Name_Event_Data->Remote_Device, Callback_BoardStr);
Display(("\r\n"));
Display(("BD_ADDR: %s.\r\n", Callback_BoardStr));
if(GAP_Remote_Name_Event_Data->Remote_Name)
Display(("Name: %s.\r\n", GAP_Remote_Name_Event_Data->Remote_Name));
else
Display(("Name: NULL.\r\n"));
}
break;
case etEncryption_Change_Result:
BD_ADDRToStr(GAP_Event_Data->Event_Data.GAP_Encryption_Mode_Event_Data->Remote_Device, Callback_BoardStr);
Display(("\r\netEncryption_Change_Result for %s, Status: 0x%02X, Mode: %s.\r\n", Callback_BoardStr,
GAP_Event_Data->Event_Data.GAP_Encryption_Mode_Event_Data->Encryption_Change_Status,
((GAP_Event_Data->Event_Data.GAP_Encryption_Mode_Event_Data->Encryption_Mode == emDisabled)?"Disabled": "Enabled")));
break;
default:
/* An unknown/unexpected GAP event was received. */
Display(("\r\nUnknown Event: %d.\r\n", GAP_Event_Data->Event_Data_Type));
break;
}
}
else
{
/* There was an error with one or more of the input parameters. */
Display(("\r\n"));
Display(("Null Event\r\n"));
}
DisplayPrompt();
}
/* The following function is for an SPP Event Callback. This */
/* function will be called whenever a SPP Event occurs that is */
/* associated with the Bluetooth Stack. This function passes to the */
/* caller the SPP Event Data that occurred and the SPP Event Callback*/
/* Parameter that was specified when this Callback was installed. */
/* The caller is free to use the contents of the SPP SPP Event Data */
/* ONLY in the context of this callback. If the caller requires the */
/* Data for a longer period of time, then the callback function MUST */
/* copy the data into another Data Buffer. This function is */
/* guaranteed NOT to be invoked more than once simultaneously for the*/
/* specified installed callback (i.e. this function DOES NOT have be*/
/* reentrant). It Needs to be noted however, that if the same */
/* Callback is installed more than once, then the callbacks will be */
/* called serially. Because of this, the processing in this function*/
/* should be as efficient as possible. It should also be noted that */
/* this function is called in the Thread Context of a Thread that the*/
/* User does NOT own. Therefore, processing in this function should */
/* be as efficient as possible (this argument holds anyway because */
/* another SPP Event will not be processed while this function call */
/* is outstanding). */
/* * NOTE * This function MUST NOT Block and wait for Events that */
/* can only be satisfied by Receiving SPP Event Packets. A */
/* Deadlock WILL occur because NO SPP Event Callbacks will */
/* be issued while this function is currently outstanding. */
static void BTPSAPI SPP_Event_Callback(unsigned int BluetoothStackID, SPP_Event_Data_t *SPP_Event_Data, unsigned long CallbackParameter)
{
int SerialPortIndex;
int ret_val = 0;
int Index;
int Index1;
int TempLength;
#if ((SPP_PERFORM_MASTER_ROLE_SWITCH) && (MAX_SIMULTANEOUS_SPP_PORTS > 1))
Byte_t StatusResult;
Word_t Connection_HandleResult;
Byte_t Current_Role;
#endif
Word_t ConnectionHandle;
Boolean_t _DisplayPrompt = TRUE;
Boolean_t Done;
BoardStr_t Callback_BoardStr;
unsigned int LocalSerialPortID;
/* **** SEE SPPAPI.H for a list of all possible event types. This */
/* program only services its required events. **** */
/* First, check to see if the required parameters appear to be */
/* semi-valid. */
if((SPP_Event_Data) && (BluetoothStackID))
{
/* The parameters appear to be semi-valid, now check to see what */
/* type the incoming event is. */
switch(SPP_Event_Data->Event_Data_Type)
{
case etPort_Open_Indication:
/* A remote port is requesting a connection. */
BD_ADDRToStr(SPP_Event_Data->Event_Data.SPP_Open_Port_Indication_Data->BD_ADDR, Callback_BoardStr);
Display(("\r\n"));
Display(("SPP Open Indication, ID: 0x%04X, Board: %s.\r\n", SPP_Event_Data->Event_Data.SPP_Open_Port_Indication_Data->SerialPortID, Callback_BoardStr));
/* Find the index of the SPP Port Information. */
if((SerialPortIndex = FindSPPPortIndex(SPP_Event_Data->Event_Data.SPP_Open_Port_Indication_Data->SerialPortID)) >= 0)
{
/* Flag that we are connected to the device. */
SPPContextInfo[SerialPortIndex].Connected = TRUE;
SPPContextInfo[SerialPortIndex].BD_ADDR = SPP_Event_Data->Event_Data.SPP_Open_Port_Indication_Data->BD_ADDR;
/* Query the connection handle. */
ret_val = GAP_Query_Connection_Handle(BluetoothStackID, SPPContextInfo[SerialPortIndex].BD_ADDR, &ConnectionHandle);
if(ret_val)
{
/* Failed to Query the Connection Handle. */
DisplayFunctionError("GAP_Query_Connection_Handle()",ret_val);
}
else
{
/* Save the connection handle of this connection. */
SPPContextInfo[SerialPortIndex].Connection_Handle = ConnectionHandle;
#if ((SPP_PERFORM_MASTER_ROLE_SWITCH) && (MAX_SIMULTANEOUS_SPP_PORTS > 1))
/* First determine the current role to determine if we*/
/* are already the master. */
StatusResult = 0;
ret_val = HCI_Role_Discovery(BluetoothStackID, SPPContextInfo[SerialPortIndex].Connection_Handle, &StatusResult, &Connection_HandleResult, &Current_Role);
if((ret_val == 0) && (StatusResult == HCI_ERROR_CODE_NO_ERROR))
{
/* Check to see if we aren't currently the master. */
if(Current_Role != HCI_CURRENT_ROLE_MASTER)
{
/* Attempt to switch to the master role. */
StatusResult = 0;
ret_val = HCI_Switch_Role(BluetoothStackID, SPPContextInfo[SerialPortIndex].BD_ADDR, HCI_ROLE_SWITCH_BECOME_MASTER, &StatusResult);
if((ret_val == 0) && (StatusResult == HCI_ERROR_CODE_NO_ERROR))
{
Display(("\r\nInitiating Role Switch.\r\n"));
}
else
{
Display(("HCI Switch Role failed. %d: 0x%02X", ret_val, StatusResult));
}
}
}
else
{
Display(("HCI Role Discovery failed. %d: 0x%02X", ret_val, StatusResult));
}
#endif
}
}
break;
case etPort_Open_Confirmation:
/* A Client Port was opened. The Status indicates the */
/* Status of the Open. */
Display(("\r\n"));
Display(("SPP Open Confirmation, ID: 0x%04X, Status 0x%04X.\r\n", SPP_Event_Data->Event_Data.SPP_Open_Port_Confirmation_Data->SerialPortID,
SPP_Event_Data->Event_Data.SPP_Open_Port_Confirmation_Data->PortOpenStatus));
/* Find the index of the SPP Port Information. */
if((SerialPortIndex = FindSPPPortIndex(SPP_Event_Data->Event_Data.SPP_Open_Port_Confirmation_Data->SerialPortID)) >= 0)
{
/* Check the Status to make sure that an error did not */
/* occur. */
if(SPP_Event_Data->Event_Data.SPP_Open_Port_Confirmation_Data->PortOpenStatus)
{
/* An error occurred while opening the Serial Port so */
/* invalidate the Serial Port ID. */
BTPS_MemInitialize(&SPPContextInfo[SerialPortIndex], 0, sizeof(SPPContextInfo[SerialPortIndex]));
}
else
{
/* Flag that we are connected to the device. */
SPPContextInfo[SerialPortIndex].Connected = TRUE;
/* Query the connection Handle. */
ret_val = GAP_Query_Connection_Handle(BluetoothStackID, SPPContextInfo[SerialPortIndex].BD_ADDR, &ConnectionHandle);
if(ret_val)
{
/* Failed to Query the Connection Handle. */
DisplayFunctionError("GAP_Query_Connection_Handle()",ret_val);
}
else
{
/* Save the connection handle of this connection. */
SPPContextInfo[SerialPortIndex].Connection_Handle = ConnectionHandle;
#if ((SPP_PERFORM_MASTER_ROLE_SWITCH) && (MAX_SIMULTANEOUS_SPP_PORTS > 1))
/* First determine the current role to determine if*/
/* we are already the master. */
StatusResult = 0;
ret_val = HCI_Role_Discovery(BluetoothStackID, SPPContextInfo[SerialPortIndex].Connection_Handle, &StatusResult, &Connection_HandleResult, &Current_Role);
if((ret_val == 0) && (StatusResult == HCI_ERROR_CODE_NO_ERROR))
{
/* Check to see if we aren't currently the */
/* master. */
if(Current_Role != HCI_CURRENT_ROLE_MASTER)
{
/* Attempt to switch to the master role. */
StatusResult = 0;
ret_val = HCI_Switch_Role(BluetoothStackID, SPPContextInfo[SerialPortIndex].BD_ADDR, HCI_ROLE_SWITCH_BECOME_MASTER, &StatusResult);
if((ret_val == 0) && (StatusResult == HCI_ERROR_CODE_NO_ERROR))
{
Display(("\r\nInitiating Role Switch.\r\n"));
}
else
{
Display(("HCI Switch Role failed. %d: 0x%02X", ret_val, StatusResult));
}
}
}
else
{
Display(("HCI Role Discovery failed. %d: 0x%02X", ret_val, StatusResult));
}
#endif
}
}
}
break;
case etPort_Close_Port_Indication:
/* The Remote Port was Disconnected. */
LocalSerialPortID = SPP_Event_Data->Event_Data.SPP_Close_Port_Indication_Data->SerialPortID;
Display(("\r\n"));
Display(("SPP Close Port, ID: 0x%04X\r\n", LocalSerialPortID));
/* Find the port index of the SPP Port that just closed. */
if((SerialPortIndex = FindSPPPortIndex(LocalSerialPortID)) >= 0)
{
ASSIGN_BD_ADDR(SPPContextInfo[SerialPortIndex].BD_ADDR, 0, 0, 0, 0, 0, 0);
SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend = 0;
SPPContextInfo[SerialPortIndex].Connected = FALSE;
/* If this is a client port we also need to clear the */
/* Serial Port ID since it is no longer in use. */
if(SPPContextInfo[SerialPortIndex].ServerPortNumber == 0)
SPPContextInfo[SerialPortIndex].LocalSerialPortID = 0;
}
break;
case etPort_Status_Indication:
/* Display Information about the new Port Status. */
Display(("\r\n"));
Display(("SPP Port Status Indication: 0x%04X, Status: 0x%04X, Break Status: 0x%04X, Length: 0x%04X.\r\n", SPP_Event_Data->Event_Data.SPP_Port_Status_Indication_Data->SerialPortID,
SPP_Event_Data->Event_Data.SPP_Port_Status_Indication_Data->PortStatus,
SPP_Event_Data->Event_Data.SPP_Port_Status_Indication_Data->BreakStatus,
SPP_Event_Data->Event_Data.SPP_Port_Status_Indication_Data->BreakTimeout));
break;
case etPort_Data_Indication:
/* Data was received. Process it differently based upon the*/
/* current state of the Loopback Mode. */
LocalSerialPortID = SPP_Event_Data->Event_Data.SPP_Data_Indication_Data->SerialPortID;
/* Find the port index of the correct SPP Port. */
if((SerialPortIndex = FindSPPPortIndex(LocalSerialPortID)) >= 0)
{
#if MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE > 0
/* Determine what data mode we are in. */
if(LoopbackActive)
{
/* Initialize Done to false. */
Done = FALSE;
/* Loop until the write buffer is full or there is not*/
/* more data to read. */
while((Done == FALSE) && (SPPContextInfo[SerialPortIndex].SendInfo.BufferFull == FALSE))
{
/* The application state is currently in the loop */
/* back state. Read as much data as we can read. */
if((TempLength = SPP_Data_Read(BluetoothStackID, LocalSerialPortID, (Word_t)sizeof(SPPContextInfo[SerialPortIndex].Buffer), (Byte_t *)SPPContextInfo[SerialPortIndex].Buffer)) > 0)
{
/* Adjust the Current Buffer Length by the */
/* number of bytes which were successfully read.*/
SPPContextInfo[SerialPortIndex].BufferLength = TempLength;
/* Next attempt to write all of the data which */
/* is currently in the buffer. */
if((TempLength = SPP_Data_Write(BluetoothStackID, LocalSerialPortID, (Word_t)SPPContextInfo[SerialPortIndex].BufferLength, (Byte_t *)SPPContextInfo[SerialPortIndex].Buffer)) < (int)SPPContextInfo[SerialPortIndex].BufferLength)
{
/* Not all of the data was successfully */
/* written or an error occurred, first check */
/* to see if an error occurred. */
if(TempLength >= 0)
{
/* An error did not occur therefore the */
/* Transmit Buffer must be full. Adjust */
/* the Buffer and Buffer Length by the */
/* amount which as successfully written. */
if(TempLength)
{
for(Index=0,Index1=TempLength;Index1<SPPContextInfo[SerialPortIndex].BufferLength;Index++,Index1++)
SPPContextInfo[SerialPortIndex].Buffer[Index] = SPPContextInfo[SerialPortIndex].Buffer[Index1];
SPPContextInfo[SerialPortIndex].BufferLength -= TempLength;
}
/* Set the flag indicating that the SPP */
/* Write Buffer is full. */
SPPContextInfo[SerialPortIndex].SendInfo.BufferFull = TRUE;
}
else
Done = TRUE;
}
}
else
Done = TRUE;
}
_DisplayPrompt = FALSE;
}
else
{
/* If we are operating in Raw Data Display Mode then */
/* simply display the data that was give to use. */
if((DisplayRawData) || (AutomaticReadActive))
{
/* Initialize Done to false. */
Done = FALSE;
/* Loop through and read all data that is present */
/* in the buffer. */
while(!Done)
{
/* Read as much data as possible. */
if((TempLength = SPP_Data_Read(BluetoothStackID, LocalSerialPortID, (Word_t)sizeof(SPPContextInfo[SerialPortIndex].Buffer)-1, (Byte_t *)SPPContextInfo[SerialPortIndex].Buffer)) > 0)
{
/* Now simply display each character that we */
/* have just read. */
if(DisplayRawData)
{
SPPContextInfo[SerialPortIndex].Buffer[TempLength] = '\0';
Display(((char *)SPPContextInfo[SerialPortIndex].Buffer));
}
}
else
{
/* Either an error occurred or there is no */
/* more data to be read. */
if(TempLength < 0)
{
/* Error occurred. */
Display(("SPP_Data_Read(): Error %d.\r\n", TempLength));
}
/* Regardless if an error occurred, we are */
/* finished with the current loop. */
Done = TRUE;
}
}
_DisplayPrompt = FALSE;
}
else
{
/* Simply inform the user that data has arrived. */
Display(("\r\n"));
Display(("SPP Data Indication, ID: 0x%04X, Length: 0x%04X.\r\n", SPP_Event_Data->Event_Data.SPP_Data_Indication_Data->SerialPortID,
SPP_Event_Data->Event_Data.SPP_Data_Indication_Data->DataLength));
}
}
#else
/* Simply inform the user that data has arrived. */
Display(("\r\n"));
Display(("SPP Data Indication, ID: 0x%04X, Length: 0x%04X.\r\n", SPP_Event_Data->Event_Data.SPP_Data_Indication_Data->SerialPortID,
SPP_Event_Data->Event_Data.SPP_Data_Indication_Data->DataLength));
#endif
}
break;
case etPort_Send_Port_Information_Indication:
/* Simply Respond with the information that was sent to us. */
ret_val = SPP_Respond_Port_Information(BluetoothStackID, SPP_Event_Data->Event_Data.SPP_Send_Port_Information_Indication_Data->SerialPortID, &SPP_Event_Data->Event_Data.SPP_Send_Port_Information_Indication_Data->SPPPortInformation);
break;
case etPort_Transmit_Buffer_Empty_Indication:
/* Locate the serial port for the SPP Port that now has a */
/* transmit buffer empty. */
LocalSerialPortID = SPP_Event_Data->Event_Data.SPP_Transmit_Buffer_Empty_Indication_Data->SerialPortID;
/* Attempt to find the index of the SPP Port entry. */
if((SerialPortIndex = FindSPPPortIndex(LocalSerialPortID)) >= 0)
{
/* Flag that this buffer is no longer full. */
SPPContextInfo[SerialPortIndex].SendInfo.BufferFull = FALSE;
/* The transmit buffer is now empty after being full. */
/* Next check the current application state. */
if(SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend)
{
/* Send the remainder of the last attempt. */
TempLength = (DataStrLen-SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend);
SPPContextInfo[SerialPortIndex].SendInfo.BytesSent = SPP_Data_Write(BluetoothStackID, LocalSerialPortID, TempLength, (unsigned char *)&(DataStr[SPPContextInfo[SerialPortIndex].SendInfo.BytesSent]));
if((int)(SPPContextInfo[SerialPortIndex].SendInfo.BytesSent) >= 0)
{
if(SPPContextInfo[SerialPortIndex].SendInfo.BytesSent <= SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend)
SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend -= SPPContextInfo[SerialPortIndex].SendInfo.BytesSent;
else
SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend = 0;
while(SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend)
{
/* Set the Number of bytes to send in the next */
/* packet. */
if(SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend > DataStrLen)
TempLength = DataStrLen;
else
TempLength = SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend;
SPPContextInfo[SerialPortIndex].SendInfo.BytesSent = SPP_Data_Write(BluetoothStackID, LocalSerialPortID, TempLength, (unsigned char *)DataStr);
if((int)(SPPContextInfo[SerialPortIndex].SendInfo.BytesSent) >= 0)
{
SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend -= SPPContextInfo[SerialPortIndex].SendInfo.BytesSent;
if(SPPContextInfo[SerialPortIndex].SendInfo.BytesSent < TempLength)
break;
}
else
{
Display(("SPP_Data_Write returned %d.\r\n", (int)SPPContextInfo[SerialPortIndex].SendInfo.BytesSent));
SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend = 0;
}
}
}
else
{
Display(("SPP_Data_Write returned %d.\r\n", (int)SPPContextInfo[SerialPortIndex].SendInfo.BytesSent));
SPPContextInfo[SerialPortIndex].SendInfo.BytesToSend = 0;
}
}
else
{
#if MAXIMUM_SPP_LOOPBACK_BUFFER_SIZE > 0
if(LoopbackActive)
{
/* Initialize Done to false. */
Done = FALSE;
/* Loop until the write buffer is full or there is */
/* not more data to read. */
while(Done == FALSE)
{
/* The application state is currently in the */
/* loop back state. Read as much data as we can*/
/* read. */
if(((TempLength = SPP_Data_Read(BluetoothStackID, LocalSerialPortID, (Word_t)(sizeof(SPPContextInfo[SerialPortIndex].Buffer)-SPPContextInfo[SerialPortIndex].BufferLength), (Byte_t *)&(SPPContextInfo[SerialPortIndex].Buffer[SPPContextInfo[SerialPortIndex].BufferLength]))) > 0) || (SPPContextInfo[SerialPortIndex].BufferLength > 0))
{
/* Adjust the Current Buffer Length by the */
/* number of bytes which were successfully */
/* read. */
if(TempLength > 0)
SPPContextInfo[SerialPortIndex].BufferLength += TempLength;
/* Next attempt to write all of the data */
/* which is currently in the buffer. */
if((TempLength = SPP_Data_Write(BluetoothStackID, LocalSerialPortID, (Word_t)SPPContextInfo[SerialPortIndex].BufferLength, (Byte_t *)SPPContextInfo[SerialPortIndex].Buffer)) < (int)SPPContextInfo[SerialPortIndex].BufferLength)
{
/* Not all of the data was successfully */
/* written or an error occurred, first */
/* check to see if an error occurred. */
if(TempLength >= 0)
{
/* An error did not occur therefore the*/
/* Transmit Buffer must be full. */
/* Adjust the Buffer and Buffer Length */
/* by the amount which was successfully*/
/* written. */
if(TempLength)
{
for(Index=0,Index1=TempLength;Index1<SPPContextInfo[SerialPortIndex].BufferLength;Index++,Index1++)
SPPContextInfo[SerialPortIndex].Buffer[Index] = SPPContextInfo[SerialPortIndex].Buffer[Index1];
SPPContextInfo[SerialPortIndex].BufferLength -= TempLength;
}
else
Done = TRUE;
/* Set the flag indicating that the SPP*/
/* Write Buffer is full. */
SPPContextInfo[SerialPortIndex].SendInfo.BufferFull = TRUE;
}
else
Done = TRUE;
}
else
{
SPPContextInfo[SerialPortIndex].BufferLength = 0;
SPPContextInfo[SerialPortIndex].SendInfo.BufferFull = FALSE;
}
}
else
Done = TRUE;
}
}
else
{
/* Only print the event indication to the user if */
/* we are NOT operating in Raw Data Display Mode. */
if(!DisplayRawData)
{
Display(("\r\nTransmit Buffer Empty Indication, ID: 0x%04X\r\n", SPP_Event_Data->Event_Data.SPP_Transmit_Buffer_Empty_Indication_Data->SerialPortID));
}
}
#else
Display(("\r\nTransmit Buffer Empty Indication, ID: 0x%04X\r\n", SPP_Event_Data->Event_Data.SPP_Transmit_Buffer_Empty_Indication_Data->SerialPortID));
#endif
}
}
else
{
Display(("Could not find SPP server Context after Buffer Empty Indication.\r\n"));
}
_DisplayPrompt = FALSE;
break;
default:
/* An unknown/unexpected SPP event was received. */
Display(("\r\n"));
Display(("Unknown Event.\r\n"));
break;
}
/* Check the return value of any function that might have been */
/* executed in the callback. */
if(ret_val)
{
/* An error occurred, so output an error message. */
Display(("\r\n"));
Display(("Error %d.\r\n", ret_val));
}
}
else
{
/* There was an error with one or more of the input parameters. */
Display(("Null Event\r\n"));
}
if(_DisplayPrompt)
DisplayPrompt();
}
/* The following function is responsible for processing HCI Mode */
/* change events. */
static void BTPSAPI HCI_Event_Callback(unsigned int BluetoothStackID, HCI_Event_Data_t *HCI_Event_Data, unsigned long CallbackParameter)
{
char *Mode;
#if ((SPP_PERFORM_MASTER_ROLE_SWITCH) && (MAX_SIMULTANEOUS_SPP_PORTS > 1))
int SerialPortIndex;
#endif
/* Make sure that the input parameters that were passed to us are */
/* semi-valid. */
if((BluetoothStackID) && (HCI_Event_Data))
{
/* Process the Event Data. */
switch(HCI_Event_Data->Event_Data_Type)
{
#if ((SPP_PERFORM_MASTER_ROLE_SWITCH) && (MAX_SIMULTANEOUS_SPP_PORTS > 1))
case etRole_Change_Event:
if(HCI_Event_Data->Event_Data.HCI_Role_Change_Event_Data)
{
/* Find the Serial Port entry for this event. */
if((SerialPortIndex = FindSPPPortIndexByAddress(HCI_Event_Data->Event_Data.HCI_Role_Change_Event_Data->BD_ADDR)) >= 0)
{
if((HCI_Event_Data->Event_Data.HCI_Role_Change_Event_Data->Status == HCI_ERROR_CODE_NO_ERROR) && (HCI_Event_Data->Event_Data.HCI_Role_Change_Event_Data->New_Role == HCI_CURRENT_ROLE_MASTER))
{
Display(("\r\nSPP Port %u: Role Change Success.\r\n", SPPContextInfo[SerialPortIndex].LocalSerialPortID));
}
else
{
Display(("\r\nSPP Port %u: Role Change Failure (Status 0x%02X, Role 0x%02X).\r\n", SPPContextInfo[SerialPortIndex].LocalSerialPortID, HCI_Event_Data->Event_Data.HCI_Role_Change_Event_Data->Status, HCI_Event_Data->Event_Data.HCI_Role_Change_Event_Data->New_Role));
}
DisplayPrompt();
}
}
break;
#endif
case etMode_Change_Event:
if(HCI_Event_Data->Event_Data.HCI_Mode_Change_Event_Data)
{
switch(HCI_Event_Data->Event_Data.HCI_Mode_Change_Event_Data->Current_Mode)
{
case HCI_CURRENT_MODE_HOLD_MODE:
Mode = "Hold";
break;
case HCI_CURRENT_MODE_SNIFF_MODE:
Mode = "Sniff";
break;
case HCI_CURRENT_MODE_PARK_MODE:
Mode = "Park";
break;
case HCI_CURRENT_MODE_ACTIVE_MODE:
default:
Mode = "Active";
break;
}
Display(("\r\n"));
Display(("HCI Mode Change Event, Status: 0x%02X, Connection Handle: %d, Mode: %s, Interval: %d\r\n", HCI_Event_Data->Event_Data.HCI_Mode_Change_Event_Data->Status,
HCI_Event_Data->Event_Data.HCI_Mode_Change_Event_Data->Connection_Handle,
Mode,
HCI_Event_Data->Event_Data.HCI_Mode_Change_Event_Data->Interval));
DisplayPrompt();
}
break;
}
}
}
/* ***************************************************************** */
/* End of Event Callbacks. */
/* ***************************************************************** */
/* The following function is used to initialize the application */
/* instance. This function should open the stack and prepare to */
/* execute commands based on user input. The first parameter passed */
/* to this function is the HCI Driver Information that will be used */
/* when opening the stack and the second parameter is used to pass */
/* parameters to BTPS_Init. This function returns the */
/* BluetoothStackID returned from BSC_Initialize on success or a */
/* negative error code (of the form APPLICATION_ERROR_XXX). */
int InitializeApplication(HCI_DriverInformation_t *HCI_DriverInformation, BTPS_Initialization_t *BTPS_Initialization)
{
int ret_val = APPLICATION_ERROR_UNABLE_TO_OPEN_STACK;
/* Next, makes sure that the Driver Information passed appears to be */
/* semi-valid. */
if((HCI_DriverInformation) && (BTPS_Initialization))
{
/* Try to Open the stack and check if it was successful. */
if(!OpenStack(HCI_DriverInformation, BTPS_Initialization))
{
/* First, attempt to set the Device to be Connectable. */
ret_val = SetConnect();
/* Next, check to see if the Device was successfully made */
/* Connectable. */
if(!ret_val)
{
/* Now that the device is Connectable attempt to make it */
/* Discoverable. */
ret_val = SetDisc();
/* Next, check to see if the Device was successfully made */
/* Discoverable. */
if(!ret_val)
{
/* Now that the device is discoverable attempt to make it*/
/* pairable. */
ret_val = SetPairable();
if(!ret_val)
{
/* Attempt to register a HCI Event Callback. */
ret_val = HCI_Register_Event_Callback(BluetoothStackID, HCI_Event_Callback, (unsigned long)NULL);
if(ret_val > 0)
{
/* Restart the User Interface Selection. */
// UI_Mode = UI_MODE_SELECT;
UI_Mode = UI_MODE_IS_SERVER;
// UI_Mode = UI_MODE_IS_CLIENT;
/* Set up the Selection Interface. */
//UserInterface_Selection();
// UserInterface_Client();
UserInterface_Server();
/* Display the first command prompt. */
DisplayPrompt();
/* Return success to the caller. */
ret_val = (int)BluetoothStackID;
}
}
else
DisplayFunctionError("SetPairable", ret_val);
}
else
DisplayFunctionError("SetDisc", ret_val);
}
else
DisplayFunctionError("SetDisc", ret_val);
/* In some error occurred then close the stack. */
if(ret_val < 0)
{
/* Close the Bluetooth Stack. */
CloseStack();
}
}
else
{
/* There was an error while attempting to open the Stack. */
Display(("Unableto open the stack.\r\n"));
}
}
else
ret_val = APPLICATION_ERROR_INVALID_PARAMETERS;
OpenServer(NULL);
// PairLE(NULL);
// ConnectLE(NULL);
//DiscoverSPPLE(NULL);
//ConfigureSPPLE(NULL);
return(ret_val);
}
/* The following function is used to process a command line string. */
/* This function takes as it's only parameter the command line string*/
/* to be parsed and returns TRUE if a command was parsed and executed*/
/* or FALSE otherwise. */
/*Boolean_t ProcessCommandLine(char *String)
{
return(CommandLineInterpreter(String));
}*/
void ProcessCommandLine1()
{
//ReadDataCommand(NULL);
// SendDataCommand(NULL);
}
void ProcessCommandLine3()
{
Write(NULL);
}
void ProcessCommandLine4()
{
Display(("Dongle address reading:\r\n"));
Read(NULL);
if((lock1 == false)&&(variable==1))
{
Display(("Reading:\r\n"));
ConnectLE(NULL);
lock1=true;
}
}
///*************************************************************
//* Function: ProcessCommandLine()
//*
//* Description: This function is called by IBP.c which will form the
//* data packets. Here, the data is copied to a string and then
//* Write() is called where the packet is transmitted to tablet.
//*
//*
//* Parameters: first parameter is the the packet to be sent to tablet,
//* second parameter is the size of the packet to be sent.
//*
//* Returns: NULL
//*
//* Reentrancy: Yes.
//*
//* Execution Requirements/Assumptions: NULL
//*
//*************************************************************/
void ProcessCommandLine2(Byte_t *String2) // for data packet
{
int x=0;
for(x=0;x<2;x++)
{
String3[x]=String2[x]; // copy this to string3 so that spp_data_write_ can access this data packet variable.
Display(("\nstring3-[var] , x=%d---> %d-",x,String3[x]));
}
SendData1(NULL);
}
///*************************************************************
//* Function: SendData1()
//*
//* Description: This function is called by ProcessCommandLine3, and this
//* function will send the service packet to the tablet.
//*
//*
//* Parameters: NULL
//*
//* Returns: integer.
//*
//* Reentrancy: Yes.
//*
//* Execution Requirements/Assumptions: NULL
//*
//*************************************************************/
//
static int SendData1(ParameterList_t *TempParam)
{
int Ndx;
if (BluetoothStackID)
{
Display(("\n bluetooth stack id"));
Ndx = SPP_Data_Write(BluetoothStackID, 1, sizeof(String3), String3);
if (Ndx >= 0)
{
Display(("\n bluetooth send data ok"));
}
else
{
Display(("\n bluetooth not ok"));
}
}
return (0);
}
--------------------------------
and My IBP code is as below
/*
* IBP.c
*
* Created on: 24-Jul-2017
* Author: Adhitya GN
*/
/***************************************************************
*
* COPYRIGHT 2018, Vasmed Health Sciences Pvt. Ltd..
*
* Filename: IBP.c
* Author: Adhitya GN
* $Revision: -
* $Date: -
*
* Description:
* ALl the codes related to IBP board and forming data packets and sending the data packets will be executed from here.
*
*
*****************************************************************/
#include "Main.h"
#include "IBP.h"
#include "SPPLEDemo.h"
#include <stdbool.h>
#include <stdint.h>
#include "SPPLEDemo.h"
#include "inc/hw_memmap.h"
#include "driverlib/gpio.h"
#include "driverlib/ssi.h"
#include "driverlib/sysctl.h"
#include "driverlib/watchdog.h"
//*****************************************************************************
//****************************************typedef*************************************
typedef struct hex_val
{
uint32_t Parameters[3];
} hex_value;
//*****************************************************************************
//*************************function declaration************************************************
void IBP_initialize();
void send_data(unsigned char );
void receive_data(int);
hex_value receive_data1(int);
void ibp_exec();
void bt_transmit(hex_value);
bool ibp_self_test();
//********************************************************************************************
//********************************global variables*******************************************
bool self_test_indicator=false; // this tells to all functions that self test is finished or no// true= finished.
bool live_procedure=false; // after entering patient info, after going to live screen, then only equalize should work.
Byte_t data[DATA_PACKET_SIZE]; // the data packet.
bool lock;
//********************************************************************************************
/*************************************************************
* Function: IBP_initialize()
*
* Description: This function is called from Main.c before the scheduling function and
* before the self test. This is called after initializng IBP board(mux,speed,etc)
* This is used to initilaize the registers of ADC required for operation of IBP board
* and doing internal adc calibration.
*
* Parameters: NULL
*
* Returns: NULL
*
* Reentrancy: No
*
* Execution Requirements/Assumptions: NULL
*
*************************************************************/
void IBP_initialize()
{
Display(("\n IBP_initialize"));
uint32_t pui32DataRx[NUM_SSI_DATA];
while(SSIDataGetNonBlocking(SSI2_BASE, &pui32DataRx[0]))
{
}
SysCtlDelay(650000); //= 17ms.
SysCtlDelay(50000);
send_data(ADS1248_CMD_RESET);
SysCtlDelay(50000);
send_data(ADS1248_CMD_SDATAC);
send_data(ADS1248_CMD_SELFOCAL);
receive_data(1);
SysCtlDelay(6500000); //17ms
send_data(ADS1248_CMD_WREG); //40h
send_data(ADS1248_3_SYS0); //03h
send_data(ADS1248_1_VBIAS); //01h
send_data(ADS1248_0_MUX0); //00h
send_data(ADS1248_2_MUX1); //03h
//send_data(ADS1248_14_GAIN); //42h ADS1248_14_SPS
send_data(ADS1248_15_SPS); // from 5sps(above) to 1000sps it is set. currently set at 160(or something) sps.
//Display(("\n testing- rx=8---------------------1\n"));
receive_data(8);
send_data(ADS1248_CMD_RREG); //20h
send_data(ADS1248_3_SYS0); //03h
// Display(("\nReceiving-- rx=2--------1\n"));
receive_data(2);
// Display(("\nReceiving= original-----2\n"));
send_data(ADS1248_CMD_NOP);
receive_data(1);
send_data(ADS1248_CMD_NOP);
receive_data(1);
send_data(ADS1248_CMD_NOP);
receive_data(1);
send_data(ADS1248_CMD_NOP);
receive_data(1);
send_data(ADS1248_CMD_SYSGCAL);
receive_data(1);
SysCtlDelay(6500000); //17ms
//14-----Write the respective register configuration with the WREG command (40h, 03h, 01h, 00h, 03h and 42h); --pg 37 datasheet
send_data(ADS1248_CMD_WREG); //40h
send_data(ADS1248_3_SYS0); //03h
send_data(ADS1248_1_VBIAS); //01h
send_data(ADS1248_0_MUX0); //00h
send_data(ADS1248_0_MUX0); //03h
send_data(ADS1248_15_SPS); //42h
receive_data(6);
send_data(ADS1248_CMD_RREG); //20h
send_data(ADS1248_3_SYS0);
receive_data(2);
send_data(ADS1248_CMD_NOP);
receive_data(1);
send_data(ADS1248_CMD_NOP);
receive_data(1);
send_data(ADS1248_CMD_NOP);
receive_data(1);
send_data(ADS1248_CMD_NOP);
receive_data(1);
send_data(ADS1248_CMD_SYNC); //05h
send_data(ADS1248_CMD_SYNC); //05h-------////because we have to give sync command twice---pg 38
receive_data(2);
SysCtlDelay(650000);
//GPIOPinWrite(GPIO_PORTD_BASE, GPIO_PIN_2, GPIO_PIN_2);
}
/*************************************************************
* Function: send_data()
*
* Description: Sends the data to ADC( to communicate with adc registers) for communication through ssi from
* baseboard board to adc of ibp board
*
* Parameters: Data to be sent to adc
*
* Returns: NULL
*
* Reentrancy: Yes. Every 10ms, when ibp_exec() function is scheduled to execute, this will also be executed at that time.
*
* Execution Requirements/Assumptions: NULL
*
*************************************************************/
void send_data(unsigned char Byte)
{
SSIDataPut(SSI2_BASE, Byte);
while(SSIBusy(SSI2_BASE))
{
}
}
/*************************************************************
* Function: receive_data()
*
* Description: Receives the data from adc to baseboard through ssi. this data is mainly junk data. In ssi,
* for every data you send( data to registers to access read/write/anything), there will same number of
* bytes you will be receiving. Those datas are junk datas. So, that is received here.
*
* Parameters: Number of bytes to read/receive.
*
* Returns: NULL
*
* Reentrancy: Yes. Every 10ms, when ibp_exec() function is scheduled to execute, this will also be executed at that time.
*
* Execution Requirements/Assumptions: NULL
*
*************************************************************/
void receive_data(int n)
{
uint8_t ui32Index;
uint32_t pui32DataRx[10];
//uint32_t comp[10];
for(ui32Index = 0; ui32Index < n; ui32Index++)
{
//
// Receive the data using the "blocking" Get function. This function
// will wait until there is data in the receive FIFO before returning.
//
SSIDataGet(SSI2_BASE, &pui32DataRx[ui32Index]);
//
// Since we are using 8-bit data, mask off the MSB.
//
pui32DataRx[ui32Index] &= 0x00FF;
//
// Display the data that SSI0 received.
//
//comp[ui32Index]= (0xFF- pui32DataRx[ui32Index])+0x01;
}
}
/*************************************************************
* Function: receive_data1()
*
* Description: In the above function, receive_data(), we received junk values. But in this function, the
* actual data is received. After we send out NOPs, and then we received the junk data for sending NOP,
* then, we will call this function to receive the required data. The ADC used is 24 bit. So, 3 bytes of data
* will be present and we need all 3 bytes of data to form the adc pressure value from raw ADC values. SO,
* all the 3 bytes should be in a single variable/structure.
*
* Parameters: Number of bytes to read/receive.
*
* Returns: The structure where all 3 bytes of raw adc data is stored.
*
* Reentrancy: Yes. Every 10ms, when ibp_exec() function is scheduled to execute, this will also be executed at that time.
*
* Execution Requirements/Assumptions: NULL
*
*************************************************************/
hex_value receive_data1(int n) // this function will give adc value which is necessary
{
Byte_t x_2; // has 2nd byte of raw adc data. This is the most important byte of all three.
uint8_t ui32Index;
uint32_t pui32DataRx[3]; // captures data read from ssi.
// 2 is initial. 0=not connected. 1=connected.
struct hex_val value; // the structure where adc raw data of 3 bytes is stored. This will be the return value.
uint8_t count=0; // similar to ui32Index. this is for 2nd time.
uint32_t ibp_collect[3]; // similar to pui32DataRx. this is for 2nd time.
for(ui32Index = 0; ui32Index < n; ui32Index++)
{
//Display(("\n1"));
//
// Receive the data using the "blocking" Get function. This function
// will wait until there is data in the receive FIFO before returning.
//
SSIDataGet(SSI2_BASE, &pui32DataRx[ui32Index]);
pui32DataRx[ui32Index] &= 0x00FF;
// Display(("ui32=%x",pui32DataRx[ui32Index]));
if(ui32Index==0) //MSB
{
// do nothing as I dont need MSB. It has 0 always when pressure is there.
value.Parameters[0]=pui32DataRx[ui32Index];
}
else if(ui32Index==1) //middle data. 2nd byte
{
value.Parameters[1]=pui32DataRx[ui32Index];
x_2=pui32DataRx[ui32Index]; //x_2 has adc value. i.e, middle data
//Display(("x=%d",x));
}
else if(ui32Index==2) //LSB. all 3 bytes received now
{
//Display(("\n2"));
value.Parameters[2]=pui32DataRx[ui32Index];
if( (x_2 == IBP_LOWER_LIMIT) || (x_2 > IBP_UPPER_LIMIT) ) //if ibp not working //---if =0 or greater than 75
{
// Display(("\n ibp is not working"));
//Display(("\nx_2=%"));
GPIOPinWrite(GPIO_PORTK_BASE, GPIO_PIN_2, 0x00); // off the power control so ibp board is off
//SysCtlDelay(900); //-- IMPORTANT--------------- // these off/on is to tackle emi/emc issue.
GPIOPinWrite(GPIO_PORTK_BASE, GPIO_PIN_2, GPIO_PIN_2); // on the power control so ibp board is on
//SysCtlDelay(10000);
send_data(ADS1248_CMD_RDATA); // 13h // these 5 lines were done in ibp_exec initially. now, this is 2nd round
receive_data(1);
send_data(ADS1248_CMD_NOP);
send_data(ADS1248_CMD_NOP);
send_data(ADS1248_CMD_NOP);
err=AO_SENSORE_NOT_ATTACHED; // problem in reading data from sensor.
lock=false;
ErrorHandler( false,4 );
for(count = 0; count < n; count++) //2nd count
{
//Display(("\n4"));
SSIDataGet(SSI2_BASE, &ibp_collect[count]);
ibp_collect[count] &= 0x00FF;
if(count==0)
{
value.Parameters[0]=ibp_collect[count];
}
else if(count==1)
{
value.Parameters[1]=ibp_collect[count];
x_2=ibp_collect[count];
}
else if(count==2) //2nd if
{
//Display(("\n5"));
value.Parameters[2]=ibp_collect[count];
}
} //end of else ibp=ok in 1st try
} // end of (if uindex==2), 1st try 3rd byte, inside. msb-ignored, middle-captured, 3rd, this one.
else
{
// Display(("\n lock========%d",err));
if( (lock==false))
{
// Display(("\n ibp is working"));
lock=true;
err=AO_SENSORE_ATTACHED;
// Display(("\nx_2========%d",err));
ErrorHandler( true,4 );
}
}
}// end of for loop, 1st try 3bytes are recieved.
//Display(("\nx_2========%d",x_2));
}//function
return(value); // return 3 byte/ structure.
}
/*************************************************************
* Function: ibp_exec()
*
* Description: This is called from the scheduling algorithm. This is the main function in IBP.c
* After self test is finished, this will be called to collect-
* 1- ibp data, 2- form data packet, 3- call a function to send data packet via bluetooth, 4- wake up from stand-by mode
* But in this function, only stand-by will actually happen. other things are happened from this function by this function
* making function calls to execute other points: 1,2,3 happen.
*
* Parameters: NULL
*
* Returns: NULL
*
* Reentrancy: Yes. Every 10ms
*
* Execution Requirements/Assumptions: NULL
*
*************************************************************/
void ibp_exec()
{
bool emc_issue=false;
if(emc_issue==false)
{
err=ERR_PD_ATTACHED;
ErrorHandler( true,5 );
Display(("\nibp_exec"));
emc_issue=true;
}
struct hex_val x_1; // the 3 bytes structure of raw adc value will be collected here.
if(self_test_indicator==true) // if self test is finished. when i am going inside standby_mode, then also i will make self test
// as not finished.
{
send_data(ADS1248_CMD_RDATA); // 13h // to read data from adc ic register where adc conversion happened.
receive_data(1); // receive junk data (from ssi comm'n') which i explained in above in this file.
send_data(ADS1248_CMD_NOP); // 3 byte ADC. So, send 3 8bit clock via ssi communication.
send_data(ADS1248_CMD_NOP);
send_data(ADS1248_CMD_NOP);
x_1=receive_data1(3); //------here is where actual adc data is received from ssi communication
bt_transmit(x_1); // transmit the data via bluetooth to tablet.( get ibp single data from 3 bytes, form data packet,
// send the data packet via bluetooth.
}
}
/*************************************************************
* Function: bt_transmit()
*
* Description: This function will 1-get two bytes from 3 bytes of raw adc value. 2- form data packet,
* 3- calls a function(which is in sppdemo.c) to send data via bluetooth communication.
*
* Parameters: Takes the 3 byte structure of ibp raw adc data as argument.
*
* Returns: NULL
*
* Reentrancy: Yes
*
* Execution Requirements/Assumptions: NULL
*
*************************************************************/
void bt_transmit(hex_value x)
{
uint8_t var=0;
int crc=0,crc1=0; //WARNING----- DO NOT INTERCHANGE THIS AND BELOW THIS ONE. IF IT IS NOT IN THIS ORDER, YOU WILL
uint8_t crc_i=0;
Display(("\n bt_transmit"));
static int seq;
//--------------------------------------forming data packet-----------------------------------
for(var=0;var<DATA_PACKET_SIZE;var++) // to form 6 byte data-packet format
{
switch(var)
{
case 0: //indication bit whther it's data or command.
data[var]=PACKET_DATAS; // 0 indicates, it's data ( for command=1)
// Display(("\nressult[var] , var0=%d--> %d",var,data[var]));
break;
case 1: //for rjc msb
data[var]= SPPLEBuffer[var-1];
// Display(("\nresult[var] , var1--> %d",data[var]));
break;
case 2: //for rjc lsb
data[var]= SPPLEBuffer[var-2];
//Display(("\nresult[var] , var2--> %d",data[var]));
break;
case 3: //for ibp middle. ignore ibp MSB
data[var]=x.Parameters[1];
Display(("\nresult[var] , var3=%d-->",data[var]));
break;
case 4: //ibp LSB
data[var]=x.Parameters[2];
Display(("\nresult[var] , var4=%d---->",data[var]));
break;
case 5: // for keypad- register 01
data[var]=0x22; //-otherwise, if it doesnt go to any 'if--else' condition, junk value will be there.
//-95=ff^ENC KEY --3-4-18
Display(("\nresult[var] , var5=%d---->",data[var]));
break;
case 6: //for keypad register= 00.
data[var]=0x54;
Display(("\nresult[var] , var6=%d---->",data[var]));
break;
case 7: // for error codes
data[var]=err;
if(data[var]!=0)
{
Display(("\n-------------------------- came ----------------err= %x\n",data[var]));
Display(("\n,--err=dec= %d\n",data[var]));
}
Display(("\nresult[var] , var7=%d---->",data[var]));
err=0;
break;
case 8: // for sequence numbers
data[var]=seq;
seq++; // it will go from 0 to 124
if(seq==125)
{
seq=0;
}
Display(("\nresult[var] , var8=%d---->",data[var]));
break;
case 9: // for checksum.
data[var]=0x55;
Display(("\nresult[var] , var9=%d---->",data[var]));
for(crc_i=0;crc_i<9;crc_i++) // not 9 because not including this crc byte for crc calculation. only previous 8 bytes
{
crc=crc+data[crc_i];
}
if(crc > 255) // refer software document for forumla calculation
{
crc1=crc/256;
crc1=crc1*256;
crc=crc-crc1;
data[var]=crc;
Display(("\nresult[var]=%d\n",data[var]));
}
else
{
data[var]=crc;
}
break;
default:
break;
}
Display(("\nresult--[var] , var=%d--> %x",var,data[var]));
// ProcessCommandLine1(data,DATA_PACKET_SIZE); // this is in line 4307 in sppdemo.c
// ProcessCommandLine3();
}
//------------------------------ sending to bluetooth---------------------------
ProcessCommandLine1(data,DATA_PACKET_SIZE); // this is in line 4307 in sppdemo.c
ProcessCommandLine3();
}
/*************************************************************
* Function: ibp_self_test()
*
* Description: This is the self test of IBP board called during warmup
* from Main.c.
*
* Parameters: NULL
*
* Returns: value indicating whether self test is passed or failed.
*
* Reentrancy: Yes. During self_Test, and till self test finishes, this will keep on executing.
*
* Execution Requirements/Assumptions: NULL
*
*************************************************************/
bool ibp_self_test() //checking for id of adc. if id returned =90H, then correct ID.so self test of ibp=ok
{
// Display(("\n ibp_self_test"));
uint32_t pui32DataRx[NUM_SSI_DATA];
send_data(ADS1248_CMD_ID);
send_data(ADS1248_CMD_WAKEUP);
receive_data(2);
//Display(("\n ---------ibp\n"));
send_data(ADS1248_CMD_NOP);
SSIDataGet(SSI2_BASE, &pui32DataRx[0]);
pui32DataRx[0] &= 0x00FF;
//Display(("\n ---ibp======%x\n", pui32DataRx[0]));
if(pui32DataRx[0]==ADC_ID)
{
//ErrorHandler( true,3 );
return(true);// correct
}
else
{
//ErrorHandler( false,3 );
return(false);// not ok
}
}
------------------------------------------------
my main.c file as below
/*****< main.c >***************************************************************/
/* Copyright 2012 - 2014 Stonestreet One. */
/* All Rights Reserved. */
/* */
/* MAIN - Main application implementation. */
/* */
/* Author: Tim Cook */
/* */
/*** MODIFICATION HISTORY *****************************************************/
/* */
/* mm/dd/yy F. Lastname Description of Modification */
/* -------- ----------- ------------------------------------------------*/
/* 01/28/12 T. Cook Initial creation. */
/******************************************************************************/
#include "Main.h" /* Main application header. */
#include "HAL.h" /* Function for Hardware Abstraction. */
#include "HALCFG.h" /* HAL Configuration Constants. */
#include "SPPLEDemo.h"
#include <stdbool.h>
#include <stdint.h>
#include<stdlib.h>
#include <stdio.h>
#include "inc/hw_memmap.h"
#include "driverlib/gpio.h"
#include "driverlib/pin_map.h"
#include "driverlib/ssi.h"
#include "driverlib/rom.h"
#include "driverlib/rom_map.h"
#include "driverlib/sysctl.h"
#include "drivers/pinout.h"
#include "driverlib/i2c.h"
#include "driverlib/watchdog.h"
#include "driverlib/uart.h"
#include "driverlib/interrupt.h"
#include "inc/hw_ints.h"
#include "driverlib/adc.h"
#include "CCSv5/IBP.h"
#define MAX_COMMAND_LENGTH (64) /* Denotes the max */
/* buffer size used */
/* for user commands */
/* input via the */
/* User Interface. */
#define LED_TOGGLE_RATE_SUCCESS (500) /* The LED Toggle */
/* rate when the demo*/
/* successfully */
/* starts up. */
//*************************function declaration***************my functions********************************
void PinInit();
void ClkGpioInit();
void SpiInit();
void PeripheralInit();
void BtInit();
void IbpInit();
void SelfTest();
bool RjcTest();
bool IbpTest();
bool BtTest();
bool BatteryTest();
void ErrorHandler(bool, uint8_t );
//*****************************************************my functions end***************************************
//********************************global variables*******************************************
bool bt_error=false; // if any bluetooth error comes
bool pa_r,pa_g,alarm_r,bt_g; // to detect which led is on/off
uint8_t err;
bool pd_g,pd_r,battery_g; // to detect which led is on/off
//********************************************************************************************
/* Internal Variables to this Module (Remember that all variables */
/* declared static are initialized to 0 automatically by the */
/* compiler as part of standard C/C++). */
//static unsigned int InputIndex;
//static char Input[MAX_COMMAND_LENGTH];
/* Internal function prototypes. */
//static void ToggleLED(void *UserParameter);
//static int GetInput(void);
/* HCI Sleep Mode Callback. */
static void BTPSAPI HCI_Sleep_Callback(Boolean_t SleepAllowed, unsigned long CallbackParameter);
/* Application Tasks. */
static void DisplayCallback(char Character);
static unsigned long GetTickCallback(void);
//static void ProcessCharacters(void *UserParameter);
//static void IdleFunction(void *UserParameter);
static void MainThread(void);
#define SPPLE_DATA_BUFFER_LENGTH (BTPS_CONFIGURATION_GATT_MAXIMUM_SUPPORTED_MTU_SIZE)
/* The following function is responsible for retrieving the Commands */
/* from the Serial Input routines and copying this Command into the */
/* specified Buffer. This function blocks until a Command (defined */
/* to be a NULL terminated ASCII string). The Serial Data Callback */
/* is responsible for building the Command and dispatching the Signal*/
/* that this function waits for. */
/*
static int GetInput(void)
{
char Char;
int Done;
Initialize the Flag indicating a complete line has been parsed.
Done = 0;
Attempt to read data from the Console.
while((!Done) && (HAL_ConsoleRead(1, &Char)))
{
switch(Char)
{
case '\r':
case '\n':
This character is a new-line or a line-feed character
NULL terminate the Input Buffer.
Input[InputIndex] = '\0';
Set Done to the number of bytes that are to be returned.
** NOTE ** In the current implementation any data after a
new-line or line-feed character will be lost.
This is fine for how this function is used is
no more data will be entered after a new-line
or line-feed.
Done = (InputIndex-1);
InputIndex = 0;
break;
case 0x08:
Backspace has been pressed, so now decrement the number
of bytes in the buffer (if there are bytes in the
buffer).
if(InputIndex)
{
InputIndex--;
while(!HAL_ConsoleWrite(1, "\b"))
;
while(!HAL_ConsoleWrite(1, " "))
;
while(!HAL_ConsoleWrite(1, "\b"))
;
}
break;
default:
Accept any other printable characters.
if((Char >= ' ') && (Char <= '~'))
{
Add the Data Byte to the Input Buffer, and make sure
that we do not overwrite the Input Buffer.
Input[InputIndex++] = Char;
while(!HAL_ConsoleWrite(1, &Char))
;
Check to see if we have reached the end of the buffer.
if(InputIndex == (MAX_COMMAND_LENGTH-1))
{
Input[InputIndex] = 0;
Done = (InputIndex-1);
InputIndex = 0;
}
}
break;
}
}
return(Done);
}
*/
/* The following is the HCI Sleep Callback. This is registered with */
/* the stack to note when the Host processor may enter into a sleep */
/* mode. */
static void BTPSAPI HCI_Sleep_Callback(Boolean_t SleepAllowed, unsigned long CallbackParameter)
{
//xxx Monitor low power state
}
/* The following Toggles an LED at a passed in blink rate. */
/*static void ToggleLED(void *UserParameter)
{
HAL_LedToggle(0);
}*/
/* The following function is registered with the application so that */
/* it can display strings to the debug UART. */
static void DisplayCallback(char Character)
{
while(!HAL_ConsoleWrite(1, &Character))
;
}
/* The following function is registered with the application so that */
/* it can get the current System Tick Count. */
static unsigned long GetTickCallback(void)
{
return(HAL_GetTickCount());
}
/* The following function processes terminal input. */
/*
static void ProcessCharacters(void *UserParameter)
{
Check to see if we have a command to process.
if(GetInput() > 0)
{
Attempt to process a character.
ProcessCommandLine(Input);
}
}
*/
// uint8_t arr[11]= {0x01,0x10,0x20,0x30,0x40,0x50,0x66,0x67,0x68,0x69,0x34};
#define bufferlength 11
/* The following function is responsible for checking the idle state */
/* and possibly entering LPM3 mode. */
/* The following function is the main user interface thread. It */
/* opens the Bluetooth Stack and then drives the main user interface.*/
static void MainThread(void)
{
int Result;
BTPS_Initialization_t BTPS_Initialization;
HCI_DriverInformation_t HCI_DriverInformation;
HCI_HCILLConfiguration_t HCILLConfig;
HCI_Driver_Reconfigure_Data_t DriverReconfigureData;
/* Configure the UART Parameters. */
HCI_DRIVER_SET_COMM_INFORMATION(&HCI_DriverInformation, 1, VENDOR_BAUD_RATE, cpHCILL_RTS_CTS);
HCI_DriverInformation.DriverInformation.COMMDriverInformation.InitializationDelay = 100;
/* Set up the application callbacks. */
BTPS_Initialization.GetTickCountCallback = GetTickCallback;
BTPS_Initialization.MessageOutputCallback = DisplayCallback;
/* Initialize the application. */
if((Result = InitializeApplication(&HCI_DriverInformation, &BTPS_Initialization)) > 0)
{
/* Register a sleep mode callback if we are using HCILL Mode. */
if((HCI_DriverInformation.DriverInformation.COMMDriverInformation.Protocol == cpHCILL) || (HCI_DriverInformation.DriverInformation.COMMDriverInformation.Protocol == cpHCILL_RTS_CTS))
{
HCILLConfig.SleepCallbackFunction = HCI_Sleep_Callback;
HCILLConfig.SleepCallbackParameter = 0;
DriverReconfigureData.ReconfigureCommand = HCI_COMM_DRIVER_RECONFIGURE_DATA_COMMAND_CHANGE_HCILL_PARAMETERS;
DriverReconfigureData.ReconfigureData = (void *)&HCILLConfig;
/* Register the sleep mode callback. Note that if this */
/* function returns greater than 0 then sleep is currently */
/* enabled. */
Result = HCI_Reconfigure_Driver((unsigned int)Result, FALSE, &DriverReconfigureData);
if(Result > 0)
{
/* Flag that sleep mode is enabled. */
Display(("Sleep is allowed.\r\n"));
}
}
/* We need to execute Add a function to process the command line */
/* to the BTPS Scheduler. */
if(BTPS_AddFunctionToScheduler(SelfTest, NULL, 10))
{
//if(BTPS_AddFunctionToScheduler(ProcessCommandLine1,NULL,20));
{
/* Add the idle function (which determines if LPM3 may be */
/* entered) to the scheduler. */
if(BTPS_AddFunctionToScheduler( ProcessCommandLine3, NULL, 10))
{
// Loop forever and execute the scheduler.
while(1)
BTPS_ExecuteScheduler();
}
}
}
}
}
/* The following is the Main application entry point. This function */
/* will configure the hardware and initialize the OS Abstraction */
/* layer, create the Main application thread and start the scheduler.*/
/*
int main(void)
{
Configure the hardware for its intended use.
HAL_ConfigureHardware(1);
Enable interrupts and call the main application thread.
MainThread();
MainThread should run continously, if it exits an error occured.
while(1)
{
ToggleLED(NULL);
BTPS_Delay(100);
}
}
*/
/* The following is the Main application entry point. This function */
/* will configure the hardware and initialize the OS Abstraction */
/* layer, create the Main application thread and start the scheduler.*/
int main(void)
{
/* Configure the hardware for its intended use. */
PinInit();
PeripheralInit();
}
/*************************************************************
* Function: PinInit()
*
* Description: Initializes the pins used in this application including defining the clock, pins used in uart,i2c, spi.
*
* Parameters: NULL
*
* Returns: NULL
*
* Reentrancy: No
*
* Execution Requirements/Assumptions: NULL
*
*************************************************************/
void PinInit()
{
ClkGpioInit();
SpiInit();
}
/*************************************************************
* Function: ClkGpioInit()
*
* Description: Initializes the library function HAL_ConfigureHardware where all the pins and clock is initialized
*
* Parameters: NULL
*
* Returns: NULL
*
* Reentrancy: No
*
* Execution Requirements/Assumptions: NULL
*
*************************************************************/
void ClkGpioInit()
{
HAL_ConfigureHardware(1);
}
/*************************************************************
* Function: SpiInit()
*
* Description: Initializes the pins used in Spi communication for ibp board.
*
* Parameters: NULL
*
* Returns: NULL
*
* Reentrancy: No
*
* Execution Requirements/Assumptions: NULL
*
*************************************************************/
void SpiInit()
{
SysCtlPeripheralEnable(SYSCTL_PERIPH_SSI2);
SysCtlPeripheralEnable(SYSCTL_PERIPH_GPIOD);
GPIOPinConfigure(GPIO_PD3_SSI2CLK);
GPIOPinConfigure(GPIO_PD1_SSI2XDAT0);
GPIOPinConfigure(GPIO_PD0_SSI2XDAT1);
GPIOPinTypeSSI(GPIO_PORTD_BASE, GPIO_PIN_3 | GPIO_PIN_1 | GPIO_PIN_0);
SSIConfigSetExpClk(SSI2_BASE, 120000000, SSI_FRF_MOTO_MODE_1, SSI_MODE_MASTER, 1000000, 8);
SSIEnable(SSI2_BASE);
}
/*************************************************************
* Function: PeripheralInit()
*
* Description: Initializes the peripherals used in this applications such as rjc, ibp,
* keypad, battery and bluetooth boards/chips.
*
* Parameters: NULL
*
* Returns: NULL
*
* Reentrancy: No
*
* Execution Requirements/Assumptions: NULL
*
*************************************************************/
void PeripheralInit()
{
IbpInit();
BtInit();
}
/*************************************************************
* Function: BTInit()
*
* Description: Initializes the bluetooth stack and starts main thread
* and this is where the application/firmware entry point starts.
*
* Parameters: NULL
*
* Returns: NULL
*
* Reentrancy: No
*
* Execution Requirements/Assumptions: NULL
*
*************************************************************/
void BtInit()
{
/* Enable interrupts and call the main application thread. */
MainThread();
}
/*************************************************************
* Function: IBPInit()
*
* Description: Initializes the ibp board settings, such as :
* mux selection, selecting sps(speed), powering the board,
* and calling a function which is in ibp.c to select the
* registers for converting analog values, writing, and
* internal calibration of the IC.
*
* Parameters: NULL
*
* Returns: NULL
*
* Reentrancy: No
*
* Execution Requirements/Assumptions: NULL
*
*************************************************************/
void IbpInit()
{
SysCtlPeripheralEnable(SYSCTL_PERIPH_GPIOK);
while(!SysCtlPeripheralReady(SYSCTL_PERIPH_GPIOK))
{
}
GPIOPinTypeGPIOOutput(GPIO_PORTK_BASE, GPIO_PIN_2); // PK2 = POWER CONTROL
SysCtlPeripheralEnable(SYSCTL_PERIPH_GPIOK);
while(!SysCtlPeripheralReady(SYSCTL_PERIPH_GPIOK))
{
}
GPIOPinTypeGPIOOutput(GPIO_PORTK_BASE, GPIO_PIN_4); //PK4 = GROUND CONTROL
SysCtlPeripheralEnable(SYSCTL_PERIPH_GPION);
while(!SysCtlPeripheralReady(SYSCTL_PERIPH_GPION))
{
}
GPIOPinTypeGPIOOutput(GPIO_PORTN_BASE, GPIO_PIN_0); // PN0 = SPI_EN
SysCtlPeripheralEnable(SYSCTL_PERIPH_GPION);
while(!SysCtlPeripheralReady(SYSCTL_PERIPH_GPION))
{
}
GPIOPinTypeGPIOOutput(GPIO_PORTN_BASE, GPIO_PIN_1); // PN1 = MUX_EN
SysCtlPeripheralEnable(SYSCTL_PERIPH_GPION);
while(!SysCtlPeripheralReady(SYSCTL_PERIPH_GPION))
{
}
GPIOPinTypeGPIOOutput(GPIO_PORTN_BASE, GPIO_PIN_2); // PN2 MUX_SELA
SysCtlPeripheralEnable(SYSCTL_PERIPH_GPION);
while(!SysCtlPeripheralReady(SYSCTL_PERIPH_GPION))
{
}
GPIOPinTypeGPIOOutput(GPIO_PORTN_BASE, GPIO_PIN_3); // PN3 MUX_sELB
GPIOPinWrite(GPIO_PORTK_BASE, GPIO_PIN_2, GPIO_PIN_2); //PK2=1
GPIOPinWrite(GPIO_PORTK_BASE, GPIO_PIN_4, 0x00); //PK4=1
GPIOPinWrite(GPIO_PORTN_BASE, GPIO_PIN_0, GPIO_PIN_0); //PN0=1
GPIOPinWrite(GPIO_PORTN_BASE, GPIO_PIN_1, GPIO_PIN_1); //PN1=1
GPIOPinWrite(GPIO_PORTN_BASE, GPIO_PIN_2, 0x00); //PN2=0 // mux sel-a
GPIOPinWrite(GPIO_PORTN_BASE, GPIO_PIN_3, 0x00); //PN3=1 // mux sel-b
SysCtlPeripheralEnable(SYSCTL_PERIPH_GPIOD);
while(!SysCtlPeripheralReady(SYSCTL_PERIPH_GPIOD))
{
}
GPIOPinTypeGPIOOutput(GPIO_PORTD_BASE, GPIO_PIN_2); // PD2= CHIP SELECT=ACTIVE LOW
GPIOPinWrite(GPIO_PORTD_BASE, GPIO_PIN_2, 0); //PD2=0 - ACCORDING TO DATASHEET , STEP 7
SysCtlDelay(100000); //1MS
IBP_initialize(); // in ibp.c
}
/*************************************************************
* Function: self_test()
*
* Description: This is the function where self test happens. Once self test
* is over, other functions (ibp,rjc,keypad) will be added
* to the scheduler and self test will be removed from scheduler.
* Once self test is over, watchdog is enabled.
*
* Parameters: NULL
*
* Returns: NULL
*
* Reentrancy: Yes
*
* Execution Requirements/Assumptions: NULL
*
************************************************************* */
void SelfTest()
{
//Display(("self test came 1\n"));
Byte_t commands[2];
self_test_indicator=false;
bool r=false,i=false,battery=false;
bool don_err=false;
i=IbpTest();
r=RjcTest();
battery=BatteryTest();
if( (i==true) && (r==true) && (battery==true) )
{
// Display(("\n bloetooth"));
self_test_indicator=true; // indicate self test is done.
commands[0]= PACKET_COMMANDS;
commands[1]= ERR_SELF_TEST_OK ;
ProcessCommandLine2(commands); //send this to tablet to tell self test is ok
// BTPS_DeleteFunctionFromScheduler(SelfTest,NULL); //since self test is done, delte this from scheduler as we dont want
// to execute this selftest() again.
/* BTPS_AddFunctionToScheduler( ProcessCommandLine4,NULL,500);
if((don_err==false)&&(variable==1))
{
commands[0]= PACKET_COMMANDS;
commands[1]= IBP_DONGLE_IS_CONNECTED;
don_err=true;
Display(("\n Dongle is connected"));
ProcessCommandLine2(commands);
}*/
// BTPS_AddFunctionToScheduler(ProcessCommandLine1, NULL, 10); //6.25
BTPS_AddFunctionToScheduler(ibp_exec, NULL, 10); //6.25*/
}
}
/*************************************************************
* Function: RjcTest()
*
* Description: This is the function where self test of rjc happens. This calls another
* function which is in Rjc.c
*
* Parameters: NULL
*
* Returns: bool, the result of the rjc test.
*
* Reentrancy: Yes
*
* Execution Requirements/Assumptions: NULL
*
************************************************************* */
bool RjcTest()
{
// Display(("\n RjcTest"));
return(true);
}
/*************************************************************
* Function: IbpTest()
*
* Description: This is the function where self test of ibp happens. This calls another
* function which is in IBP.c
*
* Parameters: NULL
*
* Returns: bool, the result of the ibp test.
*
* Reentrancy: Yes
*
* Execution Requirements/Assumptions: NULL
*
************************************************************* */
bool IbpTest()
{
//Display(("\n IbpTest"));
bool g=true; //------------shouldn't it be static ?
Byte_t commands[2];
g=ibp_self_test();
if ( g==true)
{
Display(("\n ibp is working\n"));
commands[0]=PACKET_COMMANDS;
commands[1]=ERR_AO_SELF_TEST_OK;
ProcessCommandLine2(commands); // line 4323 in sppdemo.c
return(true);
}
else
{
// Display(("\n ibp not working\n"));
commands[0]=PACKET_COMMANDS;
commands[1]=ERR_IBP_SELF_TEST_FAIL;
ProcessCommandLine2(commands);
return(false);
}
}
/*************************************************************
* Function: BtTest()
*
* Description: This is the function where self test of bluetooth happens.
*
* Parameters: NULL
*
* Returns: bool, the result of the bluetooth test.
*
* Reentrancy: Yes
*
* Execution Requirements/Assumptions: NULL
*
************************************************************* */
bool BtTest() // not used this function currently.
{
// if(bt_error==false) //error=false means -> no error -> working ok.
// {
return(true); // bt=ok
//}
// else
// {
// return(false);
// }
}
/*************************************************************
* Function: BatteryTest()
*
* Description: This is the function where self test of battery happens. This calls another
* function which is in Battery_board.c
*
* Parameters: NULL
*
* Returns: bool, the result of the battery board test.
*
* Reentrancy: Yes
*
* Execution Requirements/Assumptions: NULL
*
************************************************************* */
bool BatteryTest()
{
Byte_t commands[2];
commands[0]=PACKET_COMMANDS;
commands[1]=BAT_SELF_TEST_PASS; // battery pass
ProcessCommandLine2(commands);
Display(("\n -----bat is working\n"));
return(true);
// Display(("BatteryTest\n"));
/* bool bat;
Byte_t commands[2];
bat=battery_board_self_test();
if ( bat==true)
{
commands[0]=PACKET_COMMANDS;
commands[1]=BAT_SELF_TEST_PASS; // battery pass
ProcessCommandLine1(commands);
ErrorHandler( true,11 );
//Display(("\n -----bat is working\n"));*/
/* return(true);
}
else
{
//Display(("\n ---bat not working\n"));
commands[0]=PACKET_COMMANDS;
commands[1]=BAT_SELF_TEST_FAIL; // battery fail
ProcessCommandLine1(commands);
ErrorHandler( false,11 );
return(false);
}*/
//return(true);
}
/*************************************************************
* Function: KeypadKeysTest()
*
* Description: This is the function where self test of keypad keys happens. This calls another
* function which is in Keypad.c
*
* Parameters: NULL
*
* Returns: NULL
*
* Reentrancy: Yes
*
* Execution Requirements/Assumptions: NULL
*
************************************************************* */
/*
void KeypadKeysTest()
{
uint8_t key=0;
Byte_t commands[2];
key=keypad_keys_self_test();
commands[0]=PACKET_COMMANDS;
commands[1]=key;
ProcessCommandLine1(commands);
}
*/
/*************************************************************
* Function: error_handler()
*
* Description: This is the function where all the errors are captured. All the
* errors in the systems and their status is stored in this variable.
* Refer the document to know which position represents which error.
*
* Parameters: first parameter- the value which is written in the error_handler variable
* second parameter- the position where the value is written in the error_handler
* varaiable
*
* Returns: null
*
* Reentrancy: Yes. Whenever the error of a certain board/module changes, this will
* be called.
*
* Execution Requirements/Assumptions: NULL
*
************************************************************* */
void ErrorHandler(bool value, uint8_t position)
{
static uint32_t errors;
if(value==false)
{
errors &= ~(1 << position);
}
else
{
errors |= (1 << position);
}
//Display(("\nerroes= %x\n",errors));
}
/*
****< main.c >**************************************************************
Copyright 2012 - 2014 Stonestreet One.
All Rights Reserved.
MAIN - Main application implementation.
Author: Tim Cook
** MODIFICATION HISTORY ****************************************************
mm/dd/yy F. Lastname Description of Modification
-------- ----------- ------------------------------------------------
01/28/12 T. Cook Initial creation.
****************************************************************************
#include "Main.h" Main application header.
#include "HAL.h" Function for Hardware Abstraction.
#include "HALCFG.h" HAL Configuration Constants.
#define MAX_COMMAND_LENGTH (64) Denotes the max
buffer size used
for user commands
input via the
User Interface.
#define LED_TOGGLE_RATE_SUCCESS (500) The LED Toggle
rate when the demo
successfully
starts up.
Internal Variables to this Module (Remember that all variables
declared static are initialized to 0 automatically by the
compiler as part of standard C/C++).
static unsigned int InputIndex;
static char Input[MAX_COMMAND_LENGTH];
Internal function prototypes.
static void ToggleLED(void *UserParameter);
static int GetInput(void);
HCI Sleep Mode Callback.
static void BTPSAPI HCI_Sleep_Callback(Boolean_t SleepAllowed, unsigned long CallbackParameter);
Application Tasks.
static void DisplayCallback(char Character);
static unsigned long GetTickCallback(void);
static void ProcessCharacters(void *UserParameter);
static void IdleFunction(void *UserParameter);
static void MainThread(void);
The following function is responsible for retrieving the Commands
from the Serial Input routines and copying this Command into the
specified Buffer. This function blocks until a Command (defined
to be a NULL terminated ASCII string). The Serial Data Callback
is responsible for building the Command and dispatching the Signal
that this function waits for.
static int GetInput(void)
{
char Char;
int Done;
Initialize the Flag indicating a complete line has been parsed.
Done = 0;
Attempt to read data from the Console.
while((!Done) && (HAL_ConsoleRead(1, &Char)))
{
switch(Char)
{
case '\r':
case '\n':
This character is a new-line or a line-feed character
NULL terminate the Input Buffer.
Input[InputIndex] = '\0';
Set Done to the number of bytes that are to be returned.
** NOTE ** In the current implementation any data after a
new-line or line-feed character will be lost.
This is fine for how this function is used is
no more data will be entered after a new-line
or line-feed.
Done = (InputIndex-1);
InputIndex = 0;
break;
case 0x08:
Backspace has been pressed, so now decrement the number
of bytes in the buffer (if there are bytes in the
buffer).
if(InputIndex)
{
InputIndex--;
while(!HAL_ConsoleWrite(1, "\b"))
;
while(!HAL_ConsoleWrite(1, " "))
;
while(!HAL_ConsoleWrite(1, "\b"))
;
}
break;
default:
Accept any other printable characters.
if((Char >= ' ') && (Char <= '~'))
{
Add the Data Byte to the Input Buffer, and make sure
that we do not overwrite the Input Buffer.
Input[InputIndex++] = Char;
while(!HAL_ConsoleWrite(1, &Char))
;
Check to see if we have reached the end of the buffer.
if(InputIndex == (MAX_COMMAND_LENGTH-1))
{
Input[InputIndex] = 0;
Done = (InputIndex-1);
InputIndex = 0;
}
}
break;
}
}
return(Done);
}
The following is the HCI Sleep Callback. This is registered with
the stack to note when the Host processor may enter into a sleep
mode.
static void BTPSAPI HCI_Sleep_Callback(Boolean_t SleepAllowed, unsigned long CallbackParameter)
{
//xxx Monitor low power state
}
The following Toggles an LED at a passed in blink rate.
static void ToggleLED(void *UserParameter)
{
HAL_LedToggle(0);
}
The following function is registered with the application so that
it can display strings to the debug UART.
static void DisplayCallback(char Character)
{
while(!HAL_ConsoleWrite(1, &Character))
;
}
The following function is registered with the application so that
it can get the current System Tick Count.
static unsigned long GetTickCallback(void)
{
return(HAL_GetTickCount());
}
The following function processes terminal input.
static void ProcessCharacters(void *UserParameter)
{
Check to see if we have a command to process.
if(GetInput() > 0)
{
Attempt to process a character.
ProcessCommandLine(Input);
}
}
The following function is responsible for checking the idle state
and possibly entering LPM3 mode.
static void IdleFunction(void *UserParameter)
{
//xxx Fill in to put processor into low power mode
}
The following function is the main user interface thread. It
opens the Bluetooth Stack and then drives the main user interface.
static void MainThread(void)
{
int Result;
BTPS_Initialization_t BTPS_Initialization;
HCI_DriverInformation_t HCI_DriverInformation;
HCI_HCILLConfiguration_t HCILLConfig;
HCI_Driver_Reconfigure_Data_t DriverReconfigureData;
Configure the UART Parameters.
HCI_DRIVER_SET_COMM_INFORMATION(&HCI_DriverInformation, 1, VENDOR_BAUD_RATE, cpHCILL_RTS_CTS);
HCI_DriverInformation.DriverInformation.COMMDriverInformation.InitializationDelay = 100;
Set up the application callbacks.
BTPS_Initialization.GetTickCountCallback = GetTickCallback;
BTPS_Initialization.MessageOutputCallback = DisplayCallback;
Initialize the application.
if((Result = InitializeApplication(&HCI_DriverInformation, &BTPS_Initialization)) > 0)
{
Register a sleep mode callback if we are using HCILL Mode.
if((HCI_DriverInformation.DriverInformation.COMMDriverInformation.Protocol == cpHCILL) || (HCI_DriverInformation.DriverInformation.COMMDriverInformation.Protocol == cpHCILL_RTS_CTS))
{
HCILLConfig.SleepCallbackFunction = HCI_Sleep_Callback;
HCILLConfig.SleepCallbackParameter = 0;
DriverReconfigureData.ReconfigureCommand = HCI_COMM_DRIVER_RECONFIGURE_DATA_COMMAND_CHANGE_HCILL_PARAMETERS;
DriverReconfigureData.ReconfigureData = (void *)&HCILLConfig;
Register the sleep mode callback. Note that if this
function returns greater than 0 then sleep is currently
enabled.
Result = HCI_Reconfigure_Driver((unsigned int)Result, FALSE, &DriverReconfigureData);
if(Result > 0)
{
Flag that sleep mode is enabled.
Display(("Sleep is allowed.\r\n"));
}
}
We need to execute Add a function to process the command line
to the BTPS Scheduler.
if(BTPS_AddFunctionToScheduler(ProcessCharacters, NULL, 200))
{
Add the idle function (which determines if LPM3 may be
entered) to the scheduler.
if(BTPS_AddFunctionToScheduler(IdleFunction, NULL, 0))
{
Loop forever and execute the scheduler.
while(1)
BTPS_ExecuteScheduler();
}
}
}
}
The following is the Main application entry point. This function
will configure the hardware and initialize the OS Abstraction
layer, create the Main application thread and start the scheduler.
int main(void)
{
Configure the hardware for its intended use.
HAL_ConfigureHardware(1);
Enable interrupts and call the main application thread.
MainThread();
MainThread should run continously, if it exits an error occured.
while(1)
{
ToggleLED(NULL);
BTPS_Delay(100);
}
}
*/
--------------------------------------
我的意思是通过蓝牙连接。
[引用 userid="518531" URL"~μ C/support/microcontrollers/arm-based microcontrollers-group/arm -based-microcontrollers/f/arm based-microcontrollers-forum/1117172/tm4c129xnczad-need-sample-code-for-sending－10字节 of data-inspple800/trademo#4147]/引用蓝牙地址800147[#quothere4147]以查找模拟器[#quote仿真器是否为蓝牙设备？ 它应该附带一个读取其 BT 地址的机制。
谢谢、
Jacob