void ReqBind(void)
{
HalLedSet ( HAL_LED_1, HAL_LED_MODE_OFF );
zAddrType_t dstAddr;
// Initiate an End Device Bind Request for the mandatory endpoint
dstAddr.addrMode = Addr16Bit;
dstAddr.addr.shortAddr = 0x0000; // Coordinator
#ifdef ZDO_COORDINATOR
ZDP_EndDeviceBindReq( &dstAddr, NLME_GetShortAddr(),
SerialApp_epDesc.endPoint,
SERIALAPP_PROFID,
SERIALAPP_CENTER_OUT_MAX_CLUSTERS,
(cId_t *)SerialApp_ClusterList,
SERIALAPP_CENTER_IN_MAX_CLUSTERS,
(cId_t *)SerialApp_CenterIn_EndOut_ClusterList,
FALSE );
#else
ZDP_EndDeviceBindReq( &dstAddr, NLME_GetShortAddr(),
SerialApp_epDesc.endPoint,
SERIALAPP_PROFID,
SERIALAPP_CENTER_IN_MAX_CLUSTERS,
(cId_t *)SerialApp_CenterIn_EndOut_ClusterList,
SERIALAPP_CENTER_OUT_MAX_CLUSTERS,
(cId_t *)SerialApp_ClusterList,
FALSE );
#endif
}
/*********************************************************************
* @fn zclSampleLight_HandleKeys
*
* @brief Handles all key events for this device.
*
* @param shift - true if in shift/alt.
* @param keys - bit field for key events. Valid entries:
* HAL_KEY_SW_4
* HAL_KEY_SW_3
* HAL_KEY_SW_2
* HAL_KEY_SW_1
*
* @return none
*/
static void zclSampleLight_HandleKeys( byte shift, byte keys )
{
zAddrType_t dstAddr;
(void)shift; // Intentionally unreferenced parameter
if ( keys & HAL_KEY_SW_2 )
{
// Initiate an End Device Bind Request, this bind request will
// only use a cluster list that is important to binding.
dstAddr.addrMode = afAddr16Bit;
dstAddr.addr.shortAddr = 0; // Coordinator makes the match
ZDP_EndDeviceBindReq( &dstAddr, NLME_GetShortAddr(),
SAMPLELIGHT_ENDPOINT,
ZCL_HA_PROFILE_ID,
ZCLSAMPLELIGHT_BINDINGLIST, bindingInClusters,
0, NULL, // No Outgoing clusters to bind
TRUE );
}
if ( keys & HAL_KEY_SW_3 )
{
}
if ( keys & HAL_KEY_SW_4 )
{
}
}
/***********************************************************
LCD send retry
***********************************************************/
static void LCD_SendRetry(){
// first get the short address
uint16 srcAddr = NLME_GetShortAddr();
// new the frame
byte frame[7] = {0};
// fill the header
frame[0] = 0xFE;
// fill the length
frame[1] = 0;
// fill the command
frame[2] = LO_UINT16(LCD_RETRY_CMD);
frame[3] = HI_UINT16(LCD_RETRY_CMD);
// fill Addr
frame[4] = LO_UINT16(srcAddr);
frame[5] = HI_UINT16(srcAddr);
// fill the fcs
frame[6] = LCD_CalcFCS((byte*)&frame[1], 5);
// Send the data to Coordinator
AF_DataRequest( &LCD_DstAddr,
&LCD_epDesc,
ZIGBEE_COMMON_CLUSTER,
7,
(byte *)frame,
&LCD_TransID,
AF_DISCV_ROUTE, AF_DEFAULT_RADIUS );
}
/*********************************************************************
* @fn GenericApp_HandleKeys
*
* @brief Handles all key events for this device.
*
* @param shift - true if in shift/alt.
* @param keys - bit field for key events. Valid entries:
* HAL_KEY_SW_4
* HAL_KEY_SW_3
* HAL_KEY_SW_2
* HAL_KEY_SW_1
*
* @return none
*/
void GenericApp_HandleKeys( byte shift, byte keys )
{
zAddrType_t dstAddr;
// Shift is used to make each button/switch dual purpose.
if ( shift )
{
if ( keys & HAL_KEY_SW_1 )
{
}
if ( keys & HAL_KEY_SW_2 )
{
}
if ( keys & HAL_KEY_SW_3 )
{
}
if ( keys & HAL_KEY_SW_4 )
{
}
}
else
{
if ( keys & HAL_KEY_SW_1 )
{
}
if ( keys & HAL_KEY_SW_2 )
{
HalLedSet ( HAL_LED_4, HAL_LED_MODE_OFF );
// Initiate an End Device Bind Request for the mandatory endpoint
dstAddr.addrMode = Addr16Bit;
dstAddr.addr.shortAddr = 0x0000; // Coordinator
ZDP_EndDeviceBindReq( &dstAddr, NLME_GetShortAddr(),
GenericApp_epDesc.endPoint,
GENERICAPP_PROFID,
GENERICAPP_MAX_CLUSTERS, (cId_t *)GenericApp_ClusterList,
GENERICAPP_MAX_CLUSTERS, (cId_t *)GenericApp_ClusterList,
FALSE );
}
if ( keys & HAL_KEY_SW_3 )
{
}
if ( keys & HAL_KEY_SW_4 )
{
HalLedSet ( HAL_LED_4, HAL_LED_MODE_OFF );
// Initiate a Match Description Request (Service Discovery)
dstAddr.addrMode = AddrBroadcast;
dstAddr.addr.shortAddr = NWK_BROADCAST_SHORTADDR;
ZDP_MatchDescReq( &dstAddr, NWK_BROADCAST_SHORTADDR,
GENERICAPP_PROFID,
GENERICAPP_MAX_CLUSTERS, (cId_t *)GenericApp_ClusterList,
GENERICAPP_MAX_CLUSTERS, (cId_t *)GenericApp_ClusterList,
FALSE );
}
}
}
/*********************************************************************
* @fn zcl_SendBindRequest
*
* @brief Send the appropriate bind request based on DEV_TYPE.
*
* @param none
*
* @return none
*/
static void zcl_SendBindRequest( void ) {
dstAddr.addrMode = afAddr16Bit;
dstAddr.addr.shortAddr = 0; // Coordinator makes the match
ZDP_EndDeviceBindReq( &dstAddr, NLME_GetShortAddr(),
ENDPOINT,
ZCL_HA_PROFILE_ID,
ZCL_BINDINGLIST, bindingClusters,
ZCL_BINDINGLIST, bindingClusters,
TRUE );
}
/*********************************************************************
* @fn zclSampleSw_HandleKeys
*
* @brief Handles all key events for this device.
*
* @param shift - true if in shift/alt.
* @param keys - bit field for key events. Valid entries:
* HAL_KEY_SW_4
* HAL_KEY_SW_3
* HAL_KEY_SW_2
* HAL_KEY_SW_1
*
* @return none
*/
static void zclSampleSw_HandleKeys( byte shift, byte keys )
{
zAddrType_t dstAddr;
(void)shift; // Intentionally unreferenced parameter
if ( keys & HAL_KEY_SW_1 )
{
// Using this as the "Light Switch"
#ifdef ZCL_ON_OFF
zclGeneral_SendOnOff_CmdToggle( SAMPLESW_ENDPOINT, &zclSampleSw_DstAddr, false, 0 );
#endif
}
if ( keys & HAL_KEY_SW_2 )
{
HalLedSet ( HAL_LED_4, HAL_LED_MODE_OFF );
// Initiate an End Device Bind Request, this bind request will
// only use a cluster list that is important to binding.
dstAddr.addrMode = afAddr16Bit;
dstAddr.addr.shortAddr = 0; // Coordinator makes the match
ZDP_EndDeviceBindReq( &dstAddr, NLME_GetShortAddr(),
SAMPLESW_ENDPOINT,
ZCL_HA_PROFILE_ID,
0, NULL, // No incoming clusters to bind
ZCLSAMPLESW_BINDINGLIST, bindingOutClusters,
TRUE );
}
if ( keys & HAL_KEY_SW_3 )
{
#ifdef ZCL_LEVEL_CTRL
uint16 potiVal = HalAdcRead ( SAMPLESW_POTI_CHANNEL, HAL_ADC_RESOLUTION_8 );
zclGeneral_SendLevelControlMoveToLevel( SAMPLESW_ENDPOINT, &zclSampleSw_DstAddr, potiVal, SAMPLESW_STD_TRANSTIME, false, 0 );
#endif
}
if ( keys & HAL_KEY_SW_4 )
{
HalLedSet ( HAL_LED_4, HAL_LED_MODE_OFF );
// Initiate a Match Description Request (Service Discovery)
dstAddr.addrMode = AddrBroadcast;
dstAddr.addr.shortAddr = NWK_BROADCAST_SHORTADDR;
ZDP_MatchDescReq( &dstAddr, NWK_BROADCAST_SHORTADDR,
ZCL_HA_PROFILE_ID,
ZCLSAMPLESW_BINDINGLIST, bindingOutClusters,
0, NULL, // No incoming clusters to bind
FALSE );
}
}
/*********************************************************************
* @fn App_SendSample
*
* @brief
*
* @param buf - pointer for the field
* len - length of the field
*
* @return none
*/
void App_SendSample(unsigned char *buf, unsigned char len, uint16 option)
{
uint8 packetLen=0;
app_msg_t packet;
packet.head = 0xFE;
// packet.nodeid = theNodeID;
SendSeqno++;
if(SendSeqno == 0xFE)
{
SendSeqno = 1;
}
packet.seqno = SendSeqno;
memcpy(packet.IEEEAddr, NLME_GetExtAddr(), 8);//IEEE address 64 bit
myAddr = NLME_GetShortAddr();
packet.myAddr = myAddr;
packet.rssi = 0x00;
packet.cmd = option;
packet.len = len;
memcpy(packet.data, buf, len);
packetLen = sizeof(app_msg_t)-60 + len;
// packet.end = 0xAA;
// AF_SKIP_ROUTING - will cause the device to skip
// routing and try to send the message directly
if ( AF_DataRequest( &ParkingApp_Periodic_DstAddr, &ParkingApp_epDesc,
PARKINGAPP_PERIODIC_CLUSTERID,
packetLen,//sizeof(app_msg_t),//22,
(byte*) &packet,//(byte *)tempbuf,
&ParkingApp_TransID,
#if (defined DATABROADCAST && DATABROADCAST == TRUE)
AF_SKIP_ROUTING, // AF_DISCV_ROUTE
ENDDEVICE_BCAST_RADIUS ) == afStatus_SUCCESS ) //AF_DEFAULT_RADIUS
#else
AF_DISCV_ROUTE,
AF_DEFAULT_RADIUS ) == afStatus_SUCCESS )
#endif
{
// P0_0 = 0;
}
else
{
// Error occurred in request to send.
}
}
/*********************************************************************
*
* @fn LCD_SendTopoInfo
*
*
*
*/
static void LCD_SendTopoInformation()
{
// Define the Frame
unsigned char* srcExtAddr;
srcExtAddr = NLME_GetExtAddr();
uint16 srcAddr = NLME_GetShortAddr();
uint16 parAddr = NLME_GetCoordShortAddr();
byte frame[19] = {0};
// Build the Frame
// Fill SOF 0xFE
frame[0] = 0xFE;
// Fill len
frame[1] = 12;
// Fill CMD
frame[2] = LO_UINT16(TOPOLOGY_CMD);
frame[3] = HI_UINT16(TOPOLOGY_CMD);
// Fill Addr
frame[4] = LO_UINT16(srcAddr);
frame[5] = HI_UINT16(srcAddr);
// fill type
frame[6] = LO_UINT16(LCD);
frame[7] = HI_UINT16(LCD);
// Fill Parent
frame[8] = LO_UINT16(parAddr);
frame[9] = HI_UINT16(parAddr);
// fill the ieee64 address
copyExtAddr(srcExtAddr, (byte*)&frame[10]);
// Cal and fill FCS
frame[18] = LCD_CalcFCS((byte*)&frame[1], 17);
// Send the data to Coordinator
AF_DataRequest( &LCD_DstAddr,
&LCD_epDesc,
ZIGBEE_COMMON_CLUSTER,
19,
(byte *)frame,
&LCD_TransID,
AF_DISCV_ROUTE, AF_DEFAULT_RADIUS );
}
void Router_SendTopologyInformation()
{
// Define the Frame
uint16 srcAddr = NLME_GetShortAddr();
uint16 parAddr = NLME_GetCoordShortAddr();
byte frame[11] = {0};
// Build the Frame
// Fill SOF 0xFE
frame[0] = 0xFE;
// Fill len
frame[1] = 4;
// Fill CMD
frame[2] = LO_UINT16(TOPOLOGY_CMD);
frame[3] = HI_UINT16(TOPOLOGY_CMD);
// Fill Addr
frame[4] = LO_UINT16(srcAddr);
frame[5] = HI_UINT16(srcAddr);
// Fill type
frame[6] = LO_UINT16(ROUTER);
frame[7] = HI_UINT16(ROUTER);
// Fill parent
frame[8] = LO_UINT16(parAddr);
frame[9] = HI_UINT16(parAddr);
// Cal and fill FCS
frame[10] = Router_CalcFCS((byte*)&frame[1], 9);
// Send the data to Coordinator
AF_DataRequest( &Router_DstAddr, &
Router_epDesc,
ZIGBEE_COMMON_CLUSTER,
11,
(byte *) frame,
&Router_TransID,
AF_DISCV_ROUTE, AF_DEFAULT_RADIUS );
}
/*********************************************************************
* @fn zclSampleSw_HandleKeys
*
* @brief Handles all key events for this device.
*
* @param shift - true if in shift/alt.
* @param keys - bit field for key events. Valid entries:
* HAL_KEY_SW_5
* HAL_KEY_SW_4
* HAL_KEY_SW_2
* HAL_KEY_SW_1
*
* @return none
*/
static void zclSampleSw_HandleKeys( byte shift, byte keys )
{
// toggle remote light
if ( keys & HAL_KEY_SW_1 )
{
giSwScreenMode = SW_MAINMODE; // remove help screen if there
// Using this as the "Light Switch"
#ifdef ZCL_ON_OFF
zclGeneral_SendOnOff_CmdToggle( SAMPLESW_ENDPOINT, &zclSampleSw_DstAddr, FALSE, 0 );
#endif
#ifdef LCD_SUPPORTED
HalLcdWriteString( (char *)sCmdSent, HAL_LCD_LINE_2 );
// clear message on screen after 3 seconds
osal_start_timerEx( zclSampleSw_TaskID, SAMPLESW_MAIN_SCREEN_EVT, 3000 );
#endif
}
// invoke EZ-Mode
if ( keys & HAL_KEY_SW_2 )
{
giSwScreenMode = SW_MAINMODE; // remove help screen if there
#ifdef ZCL_EZMODE
{
zclEZMode_InvokeData_t ezModeData;
static uint16 clusterIDs[] = { ZCL_CLUSTER_ID_GEN_ON_OFF }; // only bind on the on/off cluster
// Invoke EZ-Mode
ezModeData.endpoint = SAMPLESW_ENDPOINT; // endpoint on which to invoke EZ-Mode
if ( (zclSampleSw_NwkState == DEV_ZB_COORD) ||
(zclSampleSw_NwkState == DEV_ROUTER) ||
(zclSampleSw_NwkState == DEV_END_DEVICE) )
{
ezModeData.onNetwork = TRUE; // node is already on the network
}
else
{
ezModeData.onNetwork = FALSE; // node is not yet on the network
}
ezModeData.initiator = TRUE; // OnOffSwitch is an initiator
ezModeData.numActiveOutClusters = 1; // active output cluster
ezModeData.pActiveOutClusterIDs = clusterIDs;
ezModeData.numActiveInClusters = 0; // no active input clusters
ezModeData.pActiveInClusterIDs = NULL;
zcl_InvokeEZMode( &ezModeData );
#ifdef LCD_SUPPORTED
HalLcdWriteString( "EZMode", HAL_LCD_LINE_2 );
#endif
}
#else // NOT ZCL_EZMODE
// bind to remote light
zAddrType_t dstAddr;
HalLedSet ( HAL_LED_4, HAL_LED_MODE_OFF );
// Initiate an End Device Bind Request, this bind request will
// only use a cluster list that is important to binding.
dstAddr.addrMode = afAddr16Bit;
dstAddr.addr.shortAddr = 0; // Coordinator makes the match
ZDP_EndDeviceBindReq( &dstAddr, NLME_GetShortAddr(),
SAMPLESW_ENDPOINT,
ZCL_HA_PROFILE_ID,
0, NULL, // No incoming clusters to bind
ZCLSAMPLESW_BINDINGLIST, bindingOutClusters,
TRUE );
#endif // ZCL_EZMODE
}
// toggle permit join
if ( keys & HAL_KEY_SW_4 )
{
giSwScreenMode = SW_MAINMODE; // remove help screen if there
if ( ( zclSampleSw_NwkState == DEV_ZB_COORD ) ||
( zclSampleSw_NwkState == DEV_ROUTER ) )
{
zAddrType_t tmpAddr;
tmpAddr.addrMode = Addr16Bit;
tmpAddr.addr.shortAddr = NLME_GetShortAddr();
// toggle permit join
gPermitDuration = gPermitDuration ? 0 : 0xff;
// Trust Center significance is always true
ZDP_MgmtPermitJoinReq( &tmpAddr, gPermitDuration, TRUE, FALSE );
}
}
if ( shift && ( keys & HAL_KEY_SW_5 ) )
{
zclSampleSw_BasicResetCB();
}
else if ( keys & HAL_KEY_SW_5 )
{
giSwScreenMode = giSwScreenMode ? SW_MAINMODE : SW_HELPMODE;
#ifdef LCD_SUPPORTED
HalLcdWriteString( (char *)sClearLine, HAL_LCD_LINE_2 );
#endif
}
// update the display
zclSampleSw_LcdDisplayUpdate();
}
void Serial_callBack(uint8 port, uint8 event)
{
char theMessageData[] = "Hello";
zAddrType_t dstAddr;
zAddrType_t ZAddr;
afAddrType_t myaddr; // use for p2p
char pbuf[3];
char pbuf1[3];
uint16 cmd;
uint8 buff[128];
uint8 readBytes = 0;
uint16 short_ddr;
uint16 panid;
uint8 *ieeeAddr;
uint16 *p1;
byte cnt = 0;
uint8 yy1;
uint8 yy2;
uint8 i;
byte nr;
uint16 devlist[ NWK_MAX_DEVICES + 1];
associated_devices_t *adp; // delete devices
//short_ddr = GenericApp_DstAddr.addr.shortAddr;
uint8 startOptions;
uint8 logicalType;
logicalType = (uint8)ZDO_Config_Node_Descriptor.LogicalType;
readBytes = HalUARTRead(SER_PORT, buff, 127);
if (readBytes > 0)
{
//HalUARTWrite( SER_PORT, "DataRead: ",10);
// HalUARTWrite( SER_PORT, buff, readBytes);
if(readBytes == 4)
{
if(buff[0] == 'p' && buff[1] == 'i' && buff[2]=='n' && buff[3] == 'g')
{
UART_Send_String( "pong", 4 );
}
}
if( readBytes == 1)
{
yy1 = 1;
if(buff[0]== 's')
{
/// short address
short_ddr = _NIB.nwkDevAddress;
UART_Send_String( (uint8*)&short_ddr, 2);
}
if(buff[0] == 'p')
{
/// pan id
panid = _NIB.nwkPanId;
UART_Send_String( (uint8*)&panid, 2);
}
if(buff[0] == 'c')/// channel
{
yy2 = _NIB.nwkLogicalChannel;
UART_Send_String( (uint8*)&yy2, 1);
}
if(buff[0] =='m') // mac address
{
ieeeAddr = NLME_GetExtAddr();
UART_Send_String( ieeeAddr, 8);
}
if( buff[0] ==0xc0) // coordinator
{
set_coordi();
return;
}
if( buff[0] ==0xe0) // router
{
set_router();
return;
}
if(buff[0] == 0xCA)
{
// 使命的招唤
// read self AssociatedDevList
for(i=0;i< NWK_MAX_DEVICES; i++)
{
nr = AssociatedDevList[ i ].nodeRelation;
if(nr > 0 && nr < 5) //CHILD_RFD CHILD_RFD_RX_IDLE CHILD_FFD CHILD_FFD_RX_IDLE
//if( nr != 0XFF)
{
// myaddr.addrMode = (afAddrMode_t)Addr16Bit;
// myaddr.endPoint = GENERICAPP_ENDPOINT;
// if( AssociatedDevList[ i ].shortAddr != 0x0000)
// {
//if( AssocIsChild( AssociatedDevList[ i ].shortAddr ) != 1 || AssociatedDevList[ i ].age > NWK_ROUTE_AGE_LIMIT)
//if( AssocIsChild( AssociatedDevList[ i ].shortAddr ) == 1 && AssociatedDevList[ i ].age > NWK_ROUTE_AGE_LIMIT )
// {
// myaddr.addr.shortAddr = AssociatedDevList[ i ].shortAddr;
/*
if ( AF_DataRequest( &myaddr, &GenericApp_epDesc, GENERICAPP_CLUSTERID,(byte)osal_strlen( theMessageData ) + 1,
(byte *)&theMessageData,
&GenericApp_TransID,
AF_ACK_REQUEST, AF_DEFAULT_RADIUS ) != afStatus_SUCCESS )
{
uprint("delete asso");
*/
// delete_asso( AssociatedDevList[ i ]. addrIdx);
// }
// else
// {
devlist[yy1] = AssociatedDevList[ i ].shortAddr;
yy1++;
// }
// }
}//else {break;}
}
devlist[0] = BUILD_UINT16(0xce, AssocCount(1, 4) );
UART_Send_String( (uint8*)&devlist[0], yy1*2);
//p1 = AssocMakeList( &cnt );
//UART_Send_String( (uint8*)p1, AssocCount(1, 4)*2);
//osal_mem_free(p1);
return;
}
}
#if defined( ZDO_COORDINATOR )
// only coordinator can have this function
if(readBytes == 3)
{
if( buff[0] == 0xCA || buff[0] == 0x6d)
{
// CA xx xx ,send CA to a node ,with it's short address
///uprint("it's CA ");
short_ddr = BUILD_UINT16( buff[1], buff[2] );
myaddr.addrMode = (afAddrMode_t)Addr16Bit;
myaddr.endPoint = GENERICAPP_ENDPOINT;
myaddr.addr.shortAddr = short_ddr;
if ( AF_DataRequest( &myaddr, &GenericApp_epDesc, GENERICAPP_CLUSTERID, 1,
(byte *)&buff,
&GenericApp_TransID,
AF_DISCV_ROUTE, AF_DEFAULT_RADIUS ) != afStatus_SUCCESS )
{
AF_DataRequest( &myaddr, &GenericApp_epDesc, GENERICAPP_CLUSTERID, 1,
(byte *)&buff,
&GenericApp_TransID,
AF_DISCV_ROUTE, AF_DEFAULT_RADIUS );
// send twice only, if it is still not ok, f**k it
}
return;
}
}
#endif
if( readBytes >= 2)
{
if( buff[0] == 'e' && buff[1] == '#')
{
uprint("EndDevice match");
HalLedSet ( HAL_LED_1, HAL_LED_MODE_OFF );
dstAddr.addrMode = Addr16Bit;
dstAddr.addr.shortAddr = 0x0000; // Coordinator
ZDP_EndDeviceBindReq( &dstAddr, NLME_GetShortAddr(), GenericApp_epDesc.endPoint,
GENERICAPP_PROFID,
GENERICAPP_MAX_CLUSTERS, (cId_t *)GenericApp_ClusterList,
GENERICAPP_MAX_CLUSTERS, (cId_t *)GenericApp_ClusterList,
FALSE );
}
if( buff[0] == 'r' && buff[1] == '#')
{
uprint("Router Device match");
HalLedSet ( HAL_LED_1, HAL_LED_MODE_FLASH );
dstAddr.addrMode = AddrBroadcast;
dstAddr.addr.shortAddr = NWK_BROADCAST_SHORTADDR;
ZDP_MatchDescReq( &dstAddr, NWK_BROADCAST_SHORTADDR,
GENERICAPP_PROFID,
GENERICAPP_MAX_CLUSTERS, (cId_t *)GenericApp_ClusterList,
GENERICAPP_MAX_CLUSTERS, (cId_t *)GenericApp_ClusterList,
FALSE );
}
if(readBytes == 6)
{
if(buff[0] == 'p' && buff[1]==':') // pan id
{
strncpy(pbuf, &buff[2],2); pbuf[2] = '\0';
strncpy(pbuf1, &buff[4],2); pbuf1[2] = '\0';
set_panid( BUILD_UINT16( strtol(pbuf1,NULL,16),strtol(pbuf,NULL,16) ));
if(_NIB.nwkPanId == 0xffff)
{
zgWriteStartupOptions (ZG_STARTUP_SET, ZCD_STARTOPT_DEFAULT_NETWORK_STATE);
SystemReset();
}
//SystemResetSoft();
}
if(buff[0] == 's' && buff[1]==':') // short address
{
/*
strncpy(pbuf, &buff[2],2); pbuf[2] = '\0';
strncpy(pbuf1, &buff[4],2); pbuf1[2] = '\0';
_NIB.nwkDevAddress = BUILD_UINT16( strtol(pbuf1,NULL,16),strtol(pbuf,NULL,16));
*/
}
}
cmd = BUILD_UINT16(buff[ 1 + 1], buff[1]);
if( ( buff[ 0 ] == CPT_SOP) && (cmd == SYS_PING_REQUEST) )
{
sysPingReqRcvd();
return;
}
if( readBytes == 2)
{
if( buff[0] == 0xcc )
{
if( buff[1] > 0x0a && buff[1] < 0x1b )
{
_NIB.nwkLogicalChannel = buff[1];
NLME_UpdateNV(0x01);
ZMacSetReq( ZMacChannel, &buff[1]);
osal_nv_item_init( ZCD_NV_CHANLIST, sizeof(zgDefaultChannelList), &zgDefaultChannelList);
if( buff[1] == 0x0b)
{
zgDefaultChannelList = 0x00000800;
}
if (buff[1] == 0x0c )
{
zgDefaultChannelList = 0x00001000;
}
if (buff[1] == 0x0d )
{
zgDefaultChannelList = 0x00002000;
}
if (buff[1] == 0x0e )
{
zgDefaultChannelList = 0x00004000;
}
if (buff[1] == 0x0f )
{
zgDefaultChannelList = 0x00008000;
}
if (buff[1] == 0x10 )
{
zgDefaultChannelList = 0x00010000;
}
if (buff[1] == 0x11 )
{
zgDefaultChannelList = 0x00020000;
}
if (buff[1] == 0x12 )
{
zgDefaultChannelList = 0x00040000;
}
if (buff[1] == 0x13 )
{
zgDefaultChannelList = 0x00080000;
}
if (buff[1] == 0x14 )
{
zgDefaultChannelList = 0x00100000;
}
if (buff[1] == 0x15 )
{
zgDefaultChannelList = 0x00200000;
}
if (buff[1] == 0x16 )
{
zgDefaultChannelList = 0x00400000;
}
if (buff[1] == 0x17 )
{
zgDefaultChannelList = 0x00800000;
}
if (buff[1] == 0x18 )
{
zgDefaultChannelList = 0x01000000;
}
if (buff[1] == 0x19 )
{
zgDefaultChannelList = 0x02000000;
}
if (buff[1] == 0x1a )
{
zgDefaultChannelList = 0x04000000;
}
osal_nv_write( ZCD_NV_CHANLIST, 0 ,sizeof(zgDefaultChannelList), &zgDefaultChannelList);
UART_Send_String( (uint8*)&zgDefaultChannelList, sizeof(zgDefaultChannelList) );
/*
_NIB.nwkLogicalChannel = buff[1];
NLME_UpdateNV(0x01);
if( osal_nv_write(ZCD_NV_CHANLIST, 0, osal_nv_item_len( ZCD_NV_CHANLIST ), &tmp32) != ZSUCCESS)
{
uprint("change channel to nv failed");
}
*/
/*
_NIB.nwkLogicalChannel = buff[1];
ZMacSetReq( ZMacChannel, &buff[1]);
ZDApp_NwkStateUpdateCB();
_NIB.nwkTotalTransmissions = 0;
nwkTransmissionFailures( TRUE );
*/
}
}
}// readBytes==2
ser_process( buff,readBytes );// 中讯威易的协议最小也是2 字节
}//if( readBytes >= 2)
AF_DataRequest( &GenericApp_DstAddr, &GenericApp_epDesc,
GENERICAPP_CLUSTERID,
readBytes,
(byte *)&buff,
&GenericApp_TransID,
AF_DISCV_ROUTE, AF_DEFAULT_RADIUS );
} //if (readBytes > 0)
}
afStatus_t AF_DataRequest( afAddrType_t *dstAddr, endPointDesc_t *srcEP,
uint16 cID, uint16 len, uint8 *buf, uint8 *transID,
uint8 options, uint8 radius )
{
pDescCB pfnDescCB;
ZStatus_t stat;
APSDE_DataReq_t req;
afDataReqMTU_t mtu;
// Verify source end point
if ( srcEP == NULL )
{
return afStatus_INVALID_PARAMETER;
}
#if !defined( REFLECTOR )
if ( dstAddr->addrMode == afAddrNotPresent )
{
return afStatus_INVALID_PARAMETER;
}
#endif
// Validate broadcasting
if ( ( dstAddr->addrMode == afAddr16Bit ) ||
( dstAddr->addrMode == afAddrBroadcast ) )
{
// Check for valid broadcast values
if( ADDR_NOT_BCAST != NLME_IsAddressBroadcast( dstAddr->addr.shortAddr ) )
{
// Force mode to broadcast
dstAddr->addrMode = afAddrBroadcast;
}
else
{
// Address is not a valid broadcast type
if ( dstAddr->addrMode == afAddrBroadcast )
{
return afStatus_INVALID_PARAMETER;
}
}
}
else if ( dstAddr->addrMode != afAddr64Bit &&
dstAddr->addrMode != afAddrGroup &&
dstAddr->addrMode != afAddrNotPresent )
{
return afStatus_INVALID_PARAMETER;
}
// Set destination address
req.dstAddr.addrMode = dstAddr->addrMode;
if ( dstAddr->addrMode == afAddr64Bit )
osal_cpyExtAddr( req.dstAddr.addr.extAddr, dstAddr->addr.extAddr );
else
req.dstAddr.addr.shortAddr = dstAddr->addr.shortAddr;
req.profileID = ZDO_PROFILE_ID;
if ( (pfnDescCB = afGetDescCB( srcEP )) )
{
uint16 *pID = (uint16 *)(pfnDescCB(
AF_DESCRIPTOR_PROFILE_ID, srcEP->endPoint ));
if ( pID )
{
req.profileID = *pID;
osal_mem_free( pID );
}
}
else if ( srcEP->simpleDesc )
{
req.profileID = srcEP->simpleDesc->AppProfId;
}
req.txOptions = 0;
if ( ( options & AF_ACK_REQUEST ) &&
( req.dstAddr.addrMode != AddrBroadcast ) &&
( req.dstAddr.addrMode != AddrGroup ) )
{
req.txOptions |= APS_TX_OPTIONS_ACK;
}
if ( options & AF_SKIP_ROUTING )
{
req.txOptions |= APS_TX_OPTIONS_SKIP_ROUTING;
}
if ( options & AF_EN_SECURITY )
{
req.txOptions |= APS_TX_OPTIONS_SECURITY_ENABLE;
mtu.aps.secure = TRUE;
}
else
{
mtu.aps.secure = FALSE;
}
mtu.kvp = FALSE;
req.transID = *transID;
req.srcEP = srcEP->endPoint;
req.dstEP = dstAddr->endPoint;
req.clusterID = cID;
req.asduLen = len;
req.asdu = buf;
req.discoverRoute = AF_DataRequestDiscoverRoute;//(uint8)((options & AF_DISCV_ROUTE) ? 1 : 0);
req.radiusCounter = radius;
#if defined ( INTER_PAN )
req.dstPanId = dstAddr->panId;
if ( StubAPS_InterPan( dstAddr->panId, dstAddr->endPoint ) )
{
if ( len > INTERP_DataReqMTU() )
{
stat = afStatus_INVALID_PARAMETER;
}
else
{
stat = INTERP_DataReq( &req );
}
}
else
#endif // INTER_PAN
{
if (len > afDataReqMTU( &mtu ) )
{
if (apsfSendFragmented)
{
stat = (*apsfSendFragmented)( &req );
}
else
{
stat = afStatus_INVALID_PARAMETER;
}
}
else
{
stat = APSDE_DataReq( &req );
}
}
/*
* If this is an EndPoint-to-EndPoint message on the same device, it will not
* get added to the NWK databufs. So it will not go OTA and it will not get
* a MACCB_DATA_CONFIRM_CMD callback. Thus it is necessary to generate the
* AF_DATA_CONFIRM_CMD here. Note that APSDE_DataConfirm() only generates one
* message with the first in line TransSeqNumber, even on a multi message.
* Also note that a reflected msg will not have its confirmation generated
* here.
*/
if ( (req.dstAddr.addrMode == Addr16Bit) &&
(req.dstAddr.addr.shortAddr == NLME_GetShortAddr()) )
{
afDataConfirm( srcEP->endPoint, *transID, stat );
}
if ( stat == afStatus_SUCCESS )
{
(*transID)++;
}
return (afStatus_t)stat;
}
static void pulseUartRx(uint8 port, uint8 event)
{
#ifdef TVSA_DEMO
uint8 ch;
while (HalUARTRead(PULSE_PORT, &ch, 1))
{
switch (pulseState)
{
case SOP_STATE:
if (PULSE_SOP_VAL == ch)
{
pulseState = CMD_STATE;
}
break;
case CMD_STATE:
pulseCmd = ch;
pulseState = FCS_STATE;
break;
case FCS_STATE:
if (pulseCmd == ch)
{
if (pulseCmd == PULSE_CMD_BEG)
{
pulseAddr = NLME_GetShortAddr();
}
else if (pulseCmd == PULSE_CMD_END)
{
pulseAddr = INVALID_NODE_ADDR;
}
(void)osal_set_event(pulseTaskId, PULSE_EVT_ANN);
}
pulseState = SOP_STATE;
break;
default:
break;
}
}
#else
uint8 ch[5];
HalUARTRead(PULSE_PORT, ch, 5);
if (ch[2]==0x21) //if statement to check for command from Z-Sensor Monitor
{
sysPingRsp();
//syncAttempted=TRUE;
zapSync();
if(znpPanId == INVALID_PAN_ID){
//if still invalid id, there is no PAN so set one up by becomeing the coordinator
if(zap_set_logicalType(ZG_DEVICETYPE_COORDINATOR)){
HalLcdWriteString("Should be Coord.",HAL_LCD_LINE_7);
}
else{
HalLcdWriteString("Problem",HAL_LCD_LINE_7);
}
}
else{
pulseAddr = znpAddr;
if (ZSuccess != osal_start_timerEx(pulseTaskId, PULSE_EVT_ANN, PULSE_DLY_ANN))
{
(void)osal_set_event(pulseTaskId, PULSE_EVT_ANN);
}
}
}
#endif
}
/*********************************************************************
* @fn GenericApp_HandleKeys
*
* @brief Handles all key events for this device.
*
* @param shift - true if in shift/alt.
* @param keys - bit field for key events. Valid entries:
* HAL_KEY_SW_4
* HAL_KEY_SW_3
* HAL_KEY_SW_2
* HAL_KEY_SW_1
*
* @return none
*/
static void GenericApp_HandleKeys( uint8 shift, uint8 keys )
{
zAddrType_t dstAddr;
// Shift is used to make each button/switch dual purpose.
if ( shift )
{
if ( keys & HAL_KEY_SW_1 )
{
}
if ( keys & HAL_KEY_SW_2 )
{
}
if ( keys & HAL_KEY_SW_3 )
{
}
if ( keys & HAL_KEY_SW_4 )
{
}
}
else
{
if ( keys & HAL_KEY_SW_1 )
{
// Since SW1 isn't used for anything else in this application...
#if defined( SWITCH1_BIND )
// we can use SW1 to simulate SW2 for devices that only have one switch,
keys |= HAL_KEY_SW_2;
#elif defined( SWITCH1_MATCH )
// or use SW1 to simulate SW4 for devices that only have one switch
keys |= HAL_KEY_SW_4;
#endif
}
if ( keys & HAL_KEY_SW_2 )
{
HalLedSet ( HAL_LED_4, HAL_LED_MODE_OFF );
// Initiate an End Device Bind Request for the mandatory endpoint
dstAddr.addrMode = Addr16Bit;
dstAddr.addr.shortAddr = 0x0000; // Coordinator
ZDP_EndDeviceBindReq( &dstAddr, NLME_GetShortAddr(),
GenericApp_epDesc.endPoint,
GENERICAPP_PROFID,
GENERICAPP_MAX_CLUSTERS, (cId_t *)GenericApp_ClusterList,
GENERICAPP_MAX_CLUSTERS, (cId_t *)GenericApp_ClusterList,
FALSE );
}
if ( keys & HAL_KEY_SW_3 )
{
}
if ( keys & HAL_KEY_SW_4 )
{
HalLedSet ( HAL_LED_4, HAL_LED_MODE_OFF );
// Initiate a Match Description Request (Service Discovery)
dstAddr.addrMode = AddrBroadcast;
dstAddr.addr.shortAddr = NWK_BROADCAST_SHORTADDR;
ZDP_MatchDescReq( &dstAddr, NWK_BROADCAST_SHORTADDR,
GENERICAPP_PROFID,
GENERICAPP_MAX_CLUSTERS, (cId_t *)GenericApp_ClusterList,
GENERICAPP_MAX_CLUSTERS, (cId_t *)GenericApp_ClusterList,
FALSE );
}
}
}
/*********************************************************************
* @fn zclSampleTemperatureSensor_HandleKeys
*
* @brief Handles all key events for this device.
*
* @param shift - true if in shift/alt.
* @param keys - bit field for key events. Valid entries:
* HAL_KEY_SW_5
* HAL_KEY_SW_4
* HAL_KEY_SW_3
* HAL_KEY_SW_2
* HAL_KEY_SW_1
*
* @return none
*/
static void zclSampleTemperatureSensor_HandleKeys( byte shift, byte keys )
{
if ( keys & HAL_KEY_SW_1 )
{
// increase temperature
giTemperatureSensorScreenMode = TEMPSENSE_MAINMODE;
if ( zclSampleTemperatureSensor_MeasuredValue < zclSampleTemperatureSensor_MaxMeasuredValue )
{
zclSampleTemperatureSensor_MeasuredValue = zclSampleTemperatureSensor_MeasuredValue + 100; // considering using whole number value
}
else if ( zclSampleTemperatureSensor_MeasuredValue >= zclSampleTemperatureSensor_MaxMeasuredValue )
{
zclSampleTemperatureSensor_MeasuredValue = zclSampleTemperatureSensor_MaxMeasuredValue;
}
// Send temperature information
zclSampleTemperatureSensor_SendTemp();
}
if ( keys & HAL_KEY_SW_2 )
{
if ( ( giTemperatureSensorScreenMode == TEMPSENSE_MAINMODE ) ||
( giTemperatureSensorScreenMode == TEMPSENSE_HELPMODE ) )
{
giTemperatureSensorScreenMode = TEMPSENSE_MAINMODE;
#ifdef ZCL_EZMODE
zclEZMode_InvokeData_t ezModeData;
static uint16 clusterIDs[] = { ZCL_CLUSTER_ID_MS_TEMPERATURE_MEASUREMENT }; // only bind on the Temperature Measurement cluster
// Invoke EZ-Mode
ezModeData.endpoint = SAMPLETEMPERATURESENSOR_ENDPOINT; // endpoint on which to invoke EZ-Mode
if ( ( zclSampleTemperatureSensor_NwkState == DEV_ZB_COORD ) ||
( zclSampleTemperatureSensor_NwkState == DEV_ROUTER ) ||
( zclSampleTemperatureSensor_NwkState == DEV_END_DEVICE ) )
{
ezModeData.onNetwork = TRUE; // node is already on the network
}
else
{
ezModeData.onNetwork = FALSE; // node is not yet on the network
}
ezModeData.initiator = TRUE; // Temperature Sensor is an initiator
ezModeData.numActiveInClusters = 1;
ezModeData.pActiveInClusterIDs = clusterIDs;
ezModeData.numActiveOutClusters = 0; // active output cluster
ezModeData.pActiveOutClusterIDs = NULL;
zcl_InvokeEZMode( &ezModeData );
#ifdef LCD_SUPPORTED
HalLcdWriteString( "EZMode", HAL_LCD_LINE_2 );
#endif
// NOT ZCL_EZMODE, Use EndDeviceBind
#else
{
zAddrType_t dstAddr;
dstAddr.addrMode = Addr16Bit;
dstAddr.addr.shortAddr = 0; // Coordinator makes the EDB match
// Initiate an End Device Bind Request, this bind request will
// only use a cluster list that is important to binding.
HalLedSet ( HAL_LED_4, HAL_LED_MODE_OFF );
ZDP_EndDeviceBindReq( &dstAddr, NLME_GetShortAddr(),
SAMPLETEMPERATURESENSOR_ENDPOINT,
ZCL_HA_PROFILE_ID,
0, NULL,
ZCLSAMPLETEMPERATURESENSOR_BINDINGLIST, bindingOutClusters,
FALSE );
}
#endif // ZCL_EZMODE
}
}
if ( keys & HAL_KEY_SW_3 )
{
giTemperatureSensorScreenMode = TEMPSENSE_MAINMODE;
// decrease the temperature
if ( zclSampleTemperatureSensor_MeasuredValue > zclSampleTemperatureSensor_MinMeasuredValue )
{
zclSampleTemperatureSensor_MeasuredValue = zclSampleTemperatureSensor_MeasuredValue - 100; // considering using whole number value
}
else if ( zclSampleTemperatureSensor_MeasuredValue >= zclSampleTemperatureSensor_MinMeasuredValue )
{
zclSampleTemperatureSensor_MeasuredValue = zclSampleTemperatureSensor_MinMeasuredValue;
}
// Send temperature information
zclSampleTemperatureSensor_SendTemp();
}
if ( keys & HAL_KEY_SW_4 )
{
giTemperatureSensorScreenMode = TEMPSENSE_MAINMODE;
if ( ( zclSampleTemperatureSensor_NwkState == DEV_ZB_COORD ) ||
( zclSampleTemperatureSensor_NwkState == DEV_ROUTER ) )
{
// toggle permit join
gPermitDuration = gPermitDuration ? 0 : 0xff;
NLME_PermitJoiningRequest( gPermitDuration );
}
}
if ( shift && ( keys & HAL_KEY_SW_5 ) )
{
zclSampleTemperatureSensor_BasicResetCB();
}
else if ( keys & HAL_KEY_SW_5 )
{
if ( giTemperatureSensorScreenMode == TEMPSENSE_MAINMODE )
{
giTemperatureSensorScreenMode = TEMPSENSE_HELPMODE;
}
else if ( giTemperatureSensorScreenMode == TEMPSENSE_HELPMODE )
{
#ifdef LCD_SUPPORTED
HalLcdWriteString( (char *)sClearLine, HAL_LCD_LINE_2 );
#endif
giTemperatureSensorScreenMode = TEMPSENSE_MAINMODE;
}
}
// update display
zclSampleTemperatureSensor_LcdDisplayUpdate();
}
/***************************************************************************************************
* @fn MT_UtilGetDeviceInfo
*
* @brief The Get Device Info serial message.
*
* @param None.
*
* @return void
***************************************************************************************************/
void MT_UtilGetDeviceInfo(void)
{
uint8 *buf;
uint8 *pBuf;
uint8 bufLen = MT_UTIL_DEVICE_INFO_RESPONSE_LEN;
uint16 *assocList = NULL;
#if !defined NONWK
uint8 assocCnt = 0;
if (ZG_DEVICE_RTR_TYPE)
{
assocList = AssocMakeList( &assocCnt );
bufLen += (assocCnt * sizeof(uint16));
}
#endif
buf = osal_mem_alloc( bufLen );
if ( buf )
{
pBuf = buf;
*pBuf++ = ZSUCCESS; // Status
osal_nv_read( ZCD_NV_EXTADDR, 0, Z_EXTADDR_LEN, pBuf );
pBuf += Z_EXTADDR_LEN;
#if defined NONWK
// Skip past ZStack only parameters for NONWK
*pBuf++ = 0;
*pBuf++ = 0;
*pBuf++ = 0;
*pBuf++ = 0;
*pBuf = 0;
#else
{
uint16 shortAddr = NLME_GetShortAddr();
*pBuf++ = LO_UINT16( shortAddr );
*pBuf++ = HI_UINT16( shortAddr );
}
/* Return device type */
*pBuf++ = ZSTACK_DEVICE_BUILD;
/*Return device state */
*pBuf++ = (uint8)devState;
if (ZG_DEVICE_RTR_TYPE)
{
*pBuf++ = assocCnt;
if ( assocCnt )
{
uint8 x;
uint16 *puint16 = assocList;
for ( x = 0; x < assocCnt; x++, puint16++ )
{
*pBuf++ = LO_UINT16( *puint16 );
*pBuf++ = HI_UINT16( *puint16 );
}
}
}
else
{
*pBuf++ = 0;
}
#endif
MT_BuildAndSendZToolResponse( ((uint8)MT_RPC_CMD_SRSP | (uint8)MT_RPC_SYS_UTIL),
MT_UTIL_GET_DEVICE_INFO,
bufLen, buf );
osal_mem_free( buf );
}
if ( assocList )
{
osal_mem_free( assocList );
}
}
afStatus_t AF_DataRequest( afAddrType_t *dstAddr, endPointDesc_t *srcEP,
uint16 cID, uint16 len, uint8 *buf, uint8 *transID,
uint8 options, uint8 radius )
{
pDescCB pfnDescCB;
ZStatus_t stat;
APSDE_DataReq_t req;
afDataReqMTU_t mtu;
epList_t *pList;
// Verify source end point
if ( srcEP == NULL )
{
return afStatus_INVALID_PARAMETER;
}
#if !defined( REFLECTOR )
if ( dstAddr->addrMode == afAddrNotPresent )
{
return afStatus_INVALID_PARAMETER;
}
#endif
// Check if route is available before sending data
if ( options & AF_LIMIT_CONCENTRATOR )
{
if ( dstAddr->addrMode != afAddr16Bit )
{
return ( afStatus_INVALID_PARAMETER );
}
// First, make sure the destination is not its self, then check for an existing route.
if ( (dstAddr->addr.shortAddr != NLME_GetShortAddr())
&& (RTG_CheckRtStatus( dstAddr->addr.shortAddr, RT_ACTIVE, (MTO_ROUTE | NO_ROUTE_CACHE) ) != RTG_SUCCESS) )
{
// A valid route to a concentrator wasn't found
return ( afStatus_NO_ROUTE );
}
}
// Validate broadcasting
if ( ( dstAddr->addrMode == afAddr16Bit ) ||
( dstAddr->addrMode == afAddrBroadcast ) )
{
// Check for valid broadcast values
if( ADDR_NOT_BCAST != NLME_IsAddressBroadcast( dstAddr->addr.shortAddr ) )
{
// Force mode to broadcast
dstAddr->addrMode = afAddrBroadcast;
}
else
{
// Address is not a valid broadcast type
if ( dstAddr->addrMode == afAddrBroadcast )
{
return afStatus_INVALID_PARAMETER;
}
}
}
else if ( dstAddr->addrMode != afAddr64Bit &&
dstAddr->addrMode != afAddrGroup &&
dstAddr->addrMode != afAddrNotPresent )
{
return afStatus_INVALID_PARAMETER;
}
// Set destination address
req.dstAddr.addrMode = dstAddr->addrMode;
if ( dstAddr->addrMode == afAddr64Bit )
{
osal_cpyExtAddr( req.dstAddr.addr.extAddr, dstAddr->addr.extAddr );
}
else
{
req.dstAddr.addr.shortAddr = dstAddr->addr.shortAddr;
}
// This option is to use Wildcard ProfileID in outgoing packets
if ( options & AF_WILDCARD_PROFILEID )
{
req.profileID = ZDO_WILDCARD_PROFILE_ID;
}
else
{
req.profileID = ZDO_PROFILE_ID;
if ( (pfnDescCB = afGetDescCB( srcEP )) )
{
uint16 *pID = (uint16 *)(pfnDescCB(
AF_DESCRIPTOR_PROFILE_ID, srcEP->endPoint ));
if ( pID )
{
req.profileID = *pID;
osal_mem_free( pID );
}
}
else if ( srcEP->simpleDesc )
{
req.profileID = srcEP->simpleDesc->AppProfId;
}
}
req.txOptions = 0;
if ( ( options & AF_ACK_REQUEST ) &&
( req.dstAddr.addrMode != AddrBroadcast ) &&
( req.dstAddr.addrMode != AddrGroup ) )
{
req.txOptions |= APS_TX_OPTIONS_ACK;
}
if ( options & AF_SKIP_ROUTING )
{
req.txOptions |= APS_TX_OPTIONS_SKIP_ROUTING;
}
if ( options & AF_EN_SECURITY )
{
req.txOptions |= APS_TX_OPTIONS_SECURITY_ENABLE;
mtu.aps.secure = TRUE;
}
else
{
mtu.aps.secure = FALSE;
}
if ( options & AF_PREPROCESS )
{
req.txOptions |= APS_TX_OPTIONS_PREPROCESS;
}
mtu.kvp = FALSE;
if ( options & AF_SUPRESS_ROUTE_DISC_NETWORK )
{
req.discoverRoute = DISC_ROUTE_INITIATE;
}
else
{
req.discoverRoute = AF_DataRequestDiscoverRoute;
}
req.transID = *transID;
req.srcEP = srcEP->endPoint;
req.dstEP = dstAddr->endPoint;
req.clusterID = cID;
req.asduLen = len;
req.asdu = buf;
req.radiusCounter = radius;
#if defined ( INTER_PAN )
req.dstPanId = dstAddr->panId;
#endif // INTER_PAN
// Look if there is a Callback function registered for this endpoint
// The callback is used to control the AF Transaction ID used when sending messages
pList = afFindEndPointDescList( srcEP->endPoint );
if ( ( pList != NULL ) && ( pList->pfnApplCB != NULL ) )
{
pList->pfnApplCB( &req );
}
#if defined ( INTER_PAN )
if ( StubAPS_InterPan( dstAddr->panId, dstAddr->endPoint ) )
{
if ( len > INTERP_DataReqMTU() )
{
stat = afStatus_INVALID_PARAMETER;
}
else
{
stat = INTERP_DataReq( &req );
}
}
else
#endif // INTER_PAN
{
if (len > afDataReqMTU( &mtu ) )
{
if (apsfSendFragmented)
{
stat = (*apsfSendFragmented)( &req );
}
else
{
stat = afStatus_INVALID_PARAMETER;
}
}
else
{
stat = APSDE_DataReq( &req );
}
}
/*
* If this is an EndPoint-to-EndPoint message on the same device, it will not
* get added to the NWK databufs. So it will not go OTA and it will not get
* a MACCB_DATA_CONFIRM_CMD callback. Thus it is necessary to generate the
* AF_DATA_CONFIRM_CMD here. Note that APSDE_DataConfirm() only generates one
* message with the first in line TransSeqNumber, even on a multi message.
* Also note that a reflected msg will not have its confirmation generated
* here.
*/
if ( (req.dstAddr.addrMode == Addr16Bit) &&
(req.dstAddr.addr.shortAddr == NLME_GetShortAddr()) )
{
afDataConfirm( srcEP->endPoint, *transID, stat );
}
if ( stat == afStatus_SUCCESS )
{
(*transID)++;
}
return (afStatus_t)stat;
}
