/*********************************************************************
* @fn zclPartition_ProcessInCmd_ReadHandshakeParam
*
* @brief Process in the received Poll Control CheckIn cmd (sent to ZC/ZR)
*
* @param pInMsg - pointer to the incoming message
* @param pCBs - pointer to the application callbacks
*
* @return ZStatus_t
*/
static ZStatus_t zclPartition_ProcessInCmd_ReadHandshakeParam( zclIncoming_t *pInMsg, zclPartition_AppCallbacks_t *pCBs )
{
afAddrType_t * pSrcAddr;
zclCmdReadHandshakeParam_t cmd;
ZStatus_t status;
uint8 msglen;
if ( pCBs->pfnPartition_ReadHandshakeParam )
{
// the app callback will send response
pSrcAddr = &(pInMsg->msg->srcAddr);
// convert from OTA endian to native form
msglen = (uint8)(pInMsg->pDataLen); // pDataLen is a misnomer should be iDataLen (it's a 16-bit length of the data field).
status = zclPartition_ConvertOtaToNative_ReadHandshakeParam( &cmd, pInMsg->pData, msglen );
if ( status != ZSuccess )
{
return ( status );
}
// also need the seq # for reply
cmd.seqNum = pInMsg->hdr.transSeqNum;
// send to the app.
status = ( pCBs->pfnPartition_ReadHandshakeParam( pSrcAddr, &cmd ) );
// done with temporary memory, free it.
zcl_mem_free( cmd.pAttrID );
return ( status );
}
return ( ZFailure );
}
/*********************************************************************
* @fn zclApplianceStatistics_Send_LogNotification
*
* @brief Request sent to client for Log Notification.
*
* @param srcEP - Sending application's endpoint
* @param dstAddr - where you want the message to go
* @param pPayload:
* timeStamp - timestamp of the notification
* logID - identifies uniquely the log information contained in log payload
* logLength - indicates the length in bytes of log payload
* logPayload - variable length payload
* @param disableDefaultRsp - whether to disable the Default Response command
* @param seqNum - sequence number
*
* @return ZStatus_t
*/
ZStatus_t zclApplianceStatistics_Send_LogNotification( uint8 srcEP, afAddrType_t *dstAddr,
zclCmdApplianceStatisticsLogNotificationPayload_t *pPayload,
uint8 disableDefaultRsp, uint8 seqNum )
{
uint8 *pZclPayload; // OTA ZCL Payload
uint16 zclPayloadLen;
ZStatus_t status;
// convert from Native to OTA format
pZclPayload = zclApplianceStatistics_LogNotification_NativeToOta( pPayload , &zclPayloadLen );
if( !pZclPayload )
{
return ZFailure; // no memory
}
// sent over the air
status = zcl_SendCommand( srcEP, dstAddr, ZCL_CLUSTER_ID_HA_APPLIANCE_STATISTICS,
COMMAND_APPLIANCE_STATISTICS_LOG_NOTIFICATION, TRUE,
ZCL_FRAME_SERVER_CLIENT_DIR, disableDefaultRsp, 0, seqNum, zclPayloadLen, pZclPayload );
// done with packet
zcl_mem_free( pZclPayload );
return status;
}
/*********************************************************************
* @fn zclPartition_Send_MultipleAck
*
* @brief Call to send out Poll Control CheckIn command from ZED to ZR/ZC. The Rsp
* will indicate whether to stay awake or go back to sleep.
*
* @param srcEP - Sending application's endpoint
* @param dstAddr - where you want the message to go
* @param pCmd - multi ack response
* @param disableDefaultRsp - whether to disable the Default Response command
* @param seqNum - sequence number
*
* @return ZStatus_t
*/
ZStatus_t zclPartition_Send_MultipleAck( uint8 srcEP, afAddrType_t *dstAddr,
zclCmdMultipleAck_t *pCmd,
uint8 disableDefaultRsp, uint8 seqNum )
{
uint8 buflen;
uint8 NAckSize;
uint8 offset;
uint8 i;
uint8 *buf;
ZStatus_t status;
// determine if NACKs are 1 or 2 bytes
if ( pCmd->options & ZCL_PARTITION_OPTIONS_NACK_16BIT )
{
NAckSize = 2;
}
else
{
NAckSize = 1;
}
// create buffer large enough for multiple ACKs command
// ACKOptions is 1 byte, FirstFrameID and NACKIds are 1 or 2 bytes depending on options
// [ACKOptions][FirstFrameID][NACKId]...[NACKId]
buflen = 1 + NAckSize * ( 1 + pCmd->numNAcks );
buf = zcl_mem_alloc( buflen );
if ( !buf )
{
return ( ZMemError ); // memory error
}
// fill in the buffer
buf[0] = pCmd->options;
offset = 1;
buf[offset++] = LO_UINT16( pCmd->firstFrameID );
if ( NAckSize == 2 )
{
buf[offset++] = HI_UINT16( pCmd->firstFrameID );
}
for ( i = 0; i < pCmd->numNAcks ; ++i )
{
buf[offset++] = LO_UINT16( pCmd->pNAckID[i] );
if ( NAckSize == 2 )
{
buf[offset++] = HI_UINT16( pCmd->pNAckID[i] );
}
}
// send, with payload
status = zcl_SendCommand( srcEP, dstAddr, ZCL_CLUSTER_ID_GEN_PARTITION,
COMMAND_PARTITION_MULTIPLE_ACK, TRUE, ZCL_FRAME_SERVER_CLIENT_DIR,
disableDefaultRsp, 0, seqNum, offset, buf);
// done, free the memory
zcl_mem_free( buf );
return ( status );
}
/*********************************************************************
* @fn zclElectricalMeasurement_Send_GetMeasurementProfileRsp
*
* @brief Call to send out Electrical Measurement Get Measurement Profile Response. This will
* tell the client the appropriate parameters of the measurement profile.
*
* @param srcEP - Sending application's endpoint
* @param dstAddr - where you want the message to go
* @param pPayload:
* startTime - represents the end time of the most chronologically recent interval being requested
* status - table status enumeration lists the valid values returned in status field
* profileIntervalPeriod - time frame used to capture parameter for profiling purposes
* numberOfIntervalsDelivered - number of intervals the device is returning
* attributeID - attribute that has been profiled by the application
* intervals - array of intervals that depend on numberOfIntervalsDelivered, type based on attributeID
* @param disableDefaultRsp - whether to disable the Default Response command
* @param seqNum - sequence number
*
* @return ZStatus_t
*/
ZStatus_t zclElectricalMeasurement_Send_GetMeasurementProfileRsp( uint8 srcEP, afAddrType_t *dstAddr,
zclElectricalMeasurementGetMeasurementProfileRsp_t *pPayload,
uint8 disableDefaultRsp, uint8 seqNum )
{
uint8 i;
uint8 offset;
uint8 *pBuf; // variable length payload
uint8 attrRtn;
uint8 calculatedAttrLen;
uint16 calculatedIntervalSize;
uint16 calculatedBufLen;
ZStatus_t status;
zclAttrRec_t attrRec;
// determine if attribute ID is found per EP and cluster ID
attrRtn = zclFindAttrRec( dstAddr->endPoint, ZCL_CLUSTER_ID_HA_ELECTRICAL_MEASUREMENT, pPayload->attributeID, &attrRec );
if ( attrRtn == TRUE )
{
// if found, determine length of attribute based on given type
calculatedAttrLen = zclGetDataTypeLength( attrRec.attr.dataType );
}
calculatedIntervalSize = calculatedAttrLen * pPayload->numberOfIntervalsDelivered;
// get a buffer large enough to hold the whole packet, including size of variable array
calculatedBufLen = ( 9 + calculatedIntervalSize );
pBuf = zcl_mem_alloc( calculatedBufLen );
if ( !pBuf )
{
return ( ZMemError ); // no memory, return failure
}
pBuf[0] = BREAK_UINT32(pPayload->startTime, 0);
pBuf[1] = BREAK_UINT32(pPayload->startTime, 1);
pBuf[2] = BREAK_UINT32(pPayload->startTime, 2);
pBuf[3] = BREAK_UINT32(pPayload->startTime, 3);
pBuf[4] = pPayload->status;
pBuf[5] = pPayload->profileIntervalPeriod;
pBuf[6] = pPayload->numberOfIntervalsDelivered;
pBuf[7] = LO_UINT16(pPayload->attributeID);
pBuf[8] = HI_UINT16(pPayload->attributeID);
offset = 9;
for ( i = 0; i < calculatedIntervalSize; i++ )
{
pBuf[offset++] = pPayload->pIntervals[i];
}
status = zcl_SendCommand( srcEP, dstAddr, ZCL_CLUSTER_ID_HA_ELECTRICAL_MEASUREMENT,
COMMAND_ELECTRICAL_MEASUREMENT_GET_MEASUREMENT_PROFILE_RSP, TRUE,
ZCL_FRAME_SERVER_CLIENT_DIR, disableDefaultRsp, 0, seqNum, calculatedBufLen, pBuf );
zcl_mem_free( pBuf );
return ( status );
}
/*********************************************************************
* @fn zclPartition_Send_ReadHandshakeParamRsp
*
* @brief Call to send out Poll Control CheckIn command from ZED to ZR/ZC. The Rsp
* will indicate whether to stay awake or go back to sleep.
*
* @param srcEP - Sending application's endpoint
* @param dstAddr - where you want the message to go
* @param pCmd - read multi-attribues response
* @param disableDefaultRsp - whether to disable the Default Response command
* @param seqNum - sequence number
*
* @return ZStatus_t
*/
ZStatus_t zclPartition_Send_ReadHandshakeParamRsp( uint8 srcEP, afAddrType_t *dstAddr,
zclCmdReadHandshakeParamRsp_t *pCmd,
uint8 disableDefaultRsp, uint8 seqNum )
{
uint8 buflen;
uint8 offset;
uint8 i;
uint8 *buf;
ZStatus_t status;
// allocate enough memory for all records. some may end up being short, so we may not use all this buffer.
buflen = sizeof( uint16 ) + ( pCmd->numRecords * sizeof ( zclPartitionReadRec_t ) );
buf = zcl_mem_alloc( buflen );
if ( !buf )
{
return ( ZMemError ); // memory error
}
// fill in the buffer
buf[0] = LO_UINT16( pCmd->clusterID );
buf[1] = HI_UINT16( pCmd->clusterID );
offset = 2;
for ( i = 0; i < pCmd->numRecords; ++i )
{
buf[offset++] = LO_UINT16( pCmd->pReadRecord[i].attrID );
buf[offset++] = HI_UINT16( pCmd->pReadRecord[i].attrID );
buf[offset++] = pCmd->pReadRecord[i].status;
if ( pCmd->pReadRecord[i].status == ZCL_STATUS_SUCCESS )
{
buf[offset++] = pCmd->pReadRecord[i].dataType;
// this only works for Partition Cluster because it's attributes are either uint8 or uint16
buf[offset++] = LO_UINT16( pCmd->pReadRecord[i].attr );
if ( pCmd->pReadRecord[i].dataType == ZCL_DATATYPE_UINT16 )
{
buf[offset++] = LO_UINT16( pCmd->pReadRecord[i].attr );
}
}
}
buflen = offset;
// send, with payload
status = zcl_SendCommand( srcEP, dstAddr, ZCL_CLUSTER_ID_GEN_PARTITION,
COMMAND_PARTITION_READ_HANDSHAKE_PARAM_RSP, TRUE, ZCL_FRAME_CLIENT_SERVER_DIR,
disableDefaultRsp, 0, seqNum, buflen, buf);
// done, free the memory
zcl_mem_free( buf );
return ( status );
}
/*********************************************************************
* @fn zclPartition_Send_WriteHandshakeParam
*
* @brief Call to send out Poll Control CheckIn command from ZED to ZR/ZC. The Rsp
* will indicate whether to stay awake or go back to sleep.
*
* @param srcEP - Sending application's endpoint
* @param dstAddr - where you want the message to go
* @param pCmd - what parameters to write
* @param disableDefaultRsp - whether to disable the Default Response command
* @param seqNum - sequence number
*
* @return ZStatus_t
*/
ZStatus_t zclPartition_Send_WriteHandshakeParam( uint8 srcEP, afAddrType_t *dstAddr,
zclCmdWriteHandshakeParam_t *pCmd,
uint8 disableDefaultRsp, uint8 seqNum )
{
uint8 buflen;
uint8 offset;
uint8 i;
uint8 *buf;
uint16 clusterID;
ZStatus_t status;
// allocate the memory. write records are assumed to be either uint8 or uint16
// WriteRecord: [AttrID][AttrType][AttrData] = max 5 bytes per record, if attrType is uint16 or uint8
buflen = PAYLOAD_LEN_WRITE_HANDSHAKE_PARAM + ( pCmd->numRecords * PAYLOAD_LEN_WRITE_REC );
buf = zcl_mem_alloc( buflen );
if ( !buf )
{
return ( ZMemError ); // memory error
}
// fill in the buffer
clusterID = pCmd->clusterID;
buf[0] = LO_UINT16( clusterID );
buf[1] = HI_UINT16( clusterID );
offset = 2;
for ( i = 0; i < pCmd->numRecords; ++i )
{
// copy write record to output buffer
buf[offset++] = LO_UINT16( pCmd->pWriteRecord[i].attrID );
buf[offset++] = HI_UINT16( pCmd->pWriteRecord[i].attrID );
buf[offset++] = pCmd->pWriteRecord[i].dataType;
// all writeable Partition attributes are either uint8 or uint16
buf[offset++] = LO_UINT16( pCmd->pWriteRecord[i].attr );
if ( pCmd->pWriteRecord[i].dataType == ZCL_DATATYPE_UINT16 )
{
buf[offset++] = HI_UINT16( pCmd->pWriteRecord[i].attr );
}
}
// send, with payload
status = zcl_SendCommand( srcEP, dstAddr, ZCL_CLUSTER_ID_GEN_PARTITION,
COMMAND_PARTITION_WRITE_HANDSHAKE_PARAM, TRUE, ZCL_FRAME_CLIENT_SERVER_DIR,
disableDefaultRsp, 0, seqNum, offset, buf);
// done, free the memory
zcl_mem_free( buf );
return ( status );
}
/*********************************************************************
* @fn zclApplianceStatistics_Send_LogQueueRsp
*
* @brief Response sent to client from LogQueueReq cmd.
*
* @param srcEP - Sending application's endpoint
* @param dstAddr - where you want the message to go
* @param pPayload:
* logQueueSize - defines the # of logID records
* logID - variable length list of logIDs
* @param disableDefaultRsp - whether to disable the Default Response command
* @param seqNum - sequence number
*
* @return ZStatus_t
*/
ZStatus_t zclApplianceStatistics_Send_LogQueueRsp( uint8 srcEP, afAddrType_t *dstAddr,
zclCmdApplianceStatisticsLogQueueRspPayload_t *pPayload,
uint8 disableDefaultRsp, uint8 seqNum )
{
uint8 *pZclPayload; // OTA ZCL Payload
uint16 zclPayloadLen;
ZStatus_t status;
// convert from native to OTA format
pZclPayload = zclApplianceStatistics_LogQueueRsp_NativeToOta( pPayload , &zclPayloadLen );
// send over the air
status = zcl_SendCommand( srcEP, dstAddr, ZCL_CLUSTER_ID_HA_APPLIANCE_STATISTICS,
COMMAND_APPLIANCE_STATISTICS_LOG_QUEUE_RSP, TRUE,
ZCL_FRAME_SERVER_CLIENT_DIR, disableDefaultRsp, 0, seqNum, zclPayloadLen, pZclPayload );
zcl_mem_free( pZclPayload );
return status;
}
/*********************************************************************
* @fn zclApplianceStatistics_ProcessInCmd_LogQueueRsp
*
* @brief Process in the received Appliance Statistics Log Queue Response cmd
*
* @param pInMsg - pointer to the incoming message
* @param pCBs - pointer to the application callback
*
* @return ZStatus_t
*/
static ZStatus_t zclApplianceStatistics_ProcessInCmd_LogQueueRsp( zclIncoming_t *pInMsg, zclApplianceStatistics_AppCallbacks_t *pCBs )
{
zclCmdApplianceStatisticsLogQueueRspPayload_t cmd;
ZStatus_t status = ZFailure;
if ( pCBs->pfnApplianceStatistics_LogQueueRsp )
{
// convert from OTA format to native format
status = zclApplianceStatistics_LogQueueRsp_OtaToNative( &cmd, &pInMsg->pData[0] );
// successfully converted (and log allocated)
if( status == ZSuccess )
{
// call user callback
status = pCBs->pfnApplianceStatistics_LogQueueRsp( &cmd );
zcl_mem_free( cmd.pLogID );
}
}
return ( status );
}
/*********************************************************************
* @fn zclPartition_Send_ReadHandshakeParam
*
* @brief Call to send out Poll Control CheckIn command from ZED to ZR/ZC. The Rsp
* will indicate whether to stay awake or go back to sleep.
*
* @param srcEP - Sending application's endpoint
* @param dstAddr - where you want the message to go
* @param pCmd - what parameters to read
* @param disableDefaultRsp - whether to disable the Default Response command
* @param seqNum - sequence number
*
* @return ZStatus_t
*/
ZStatus_t zclPartition_Send_ReadHandshakeParam( uint8 srcEP, afAddrType_t *dstAddr,
zclCmdReadHandshakeParam_t *pCmd,
uint8 disableDefaultRsp, uint8 seqNum )
{
uint8 buflen;
uint8 offset;
uint8 *buf;
uint8 i;
uint16 clusterID;
uint16 attrID;
ZStatus_t status;
// allocate the memory
buflen = sizeof( uint16 ) + pCmd->numAttrs * sizeof( uint16 );
buf = zcl_mem_alloc( buflen );
if ( !buf )
{
return ( ZMemError ); // memory error
}
// fill in the buffer
clusterID = pCmd->clusterID;
buf[0] = LO_UINT16( clusterID );
buf[1] = HI_UINT16( clusterID );
for ( i = 0; i < pCmd->numAttrs; ++i )
{
attrID = pCmd->pAttrID[i];
buf[offset++] = LO_UINT16( attrID );
buf[offset++] = HI_UINT16( attrID );
}
// send, with payload
status = zcl_SendCommand( srcEP, dstAddr, ZCL_CLUSTER_ID_GEN_PARTITION,
COMMAND_PARTITION_READ_HANDSHAKE_PARAM, TRUE, ZCL_FRAME_CLIENT_SERVER_DIR,
disableDefaultRsp, 0, seqNum, buflen, buf);
// done, free the memory
zcl_mem_free( buf );
return ( status );
}
/*********************************************************************
* @fn zclPartition_Send_TransferPartitionedFrame
*
* @brief send a single block (partitioned frame) to a remote receiver
*
* @param srcEP - Sending application's endpoint
* @param dstAddr - where you want the message to go
* @param pCmd - the partitioned frame
* @param disableDefaultRsp - whether to disable the Default Response command
* @param seqNum - sequence number
*
* @return ZStatus_t or ZCL_STATUS_INSUFFICIENT_SPACE
*/
ZStatus_t zclPartition_Send_TransferPartitionedFrame( uint8 srcEP, afAddrType_t *dstAddr,
zclCmdTransferPartitionedFrame_t *pCmd,
uint8 disableDefaultRsp, uint8 seqNum )
{
uint8 buflen;
uint8 offset;
uint8 *buf;
uint16 indicator;
ZStatus_t status;
// allocate the memory large enough to hold the OTA frame with a 2-byte indicator
buflen = PAYLOAD_LEN_TRANSFER_PARTITIONED_FRAME + pCmd->frameLen;
buf = zcl_mem_alloc( buflen );
if ( !buf )
{
return ( ZMemError ); // memory error
}
// fill in the OTA frame buffer
buf[0] = pCmd->fragmentationOptions;
indicator = pCmd->partitionIndicator;
buf[1] = LO_UINT16(indicator);
offset = 2;
if ( pCmd->fragmentationOptions & ZCL_PARTITION_OPTIONS_INDICATOR_16BIT )
{
buf[offset++] = HI_UINT16(indicator);
}
buf[offset++] = pCmd->frameLen; // octet string begins with length
zcl_memcpy( &buf[offset], pCmd->pFrame, pCmd->frameLen );
offset += pCmd->frameLen;
// send, with payload
status = zcl_SendCommand( srcEP, dstAddr, ZCL_CLUSTER_ID_GEN_PARTITION,
COMMAND_PARTITION_TRANSFER_PARTITIONED_FRAME, TRUE, ZCL_FRAME_CLIENT_SERVER_DIR,
disableDefaultRsp, 0, seqNum, offset, buf );
// done, free the memory
zcl_mem_free( buf );
return ( status );
}
/*********************************************************************
* @fn zclElectricalMeasurement_ProcessInCmd_GetMeasurementProfileRsp
*
* @brief Process in the received Electrical Measurement Get Measurement Profile Response cmd
*
* @param pInMsg - pointer to the incoming message
* @param pCBs - pointer to the application callbacks
*
* @return ZStatus_t
*/
static ZStatus_t zclElectricalMeasurement_ProcessInCmd_GetMeasurementProfileRsp( zclIncoming_t *pInMsg,
zclElectricalMeasurement_AppCallbacks_t *pCBs )
{
uint8 i;
uint8 offset;
uint16 calculatedIntervalSize;
zclElectricalMeasurementGetMeasurementProfileRsp_t cmd;
ZStatus_t status;
if ( pCBs->pfnElectricalMeasurement_GetMeasurementProfileRsp )
{
// determine size of intervals by subtracting size of startTime, status,
// profileIntervalPeriod, numberOfIntervalsDelivered, and attributeID from message length
calculatedIntervalSize = pInMsg->pDataLen - 9;
cmd.pIntervals = zcl_mem_alloc( calculatedIntervalSize );
if ( !cmd.pIntervals )
{
return ( ZMemError ); // no memory, return failure
}
cmd.startTime = BUILD_UINT32( pInMsg->pData[0], pInMsg->pData[1], pInMsg->pData[2], pInMsg->pData[3] );
cmd.status = pInMsg->pData[4];
cmd.profileIntervalPeriod = pInMsg->pData[5];
cmd.numberOfIntervalsDelivered = pInMsg->pData[6];
cmd.attributeID = BUILD_UINT16( pInMsg->pData[7], pInMsg->pData[8] );
offset = 9;
for ( i = 0; i < calculatedIntervalSize; i++ )
{
cmd.pIntervals[i] = pInMsg->pData[offset++];
}
status = ( pCBs->pfnElectricalMeasurement_GetMeasurementProfileRsp( &cmd ) );
zcl_mem_free( cmd.pIntervals );
return status;
}
return ( ZFailure );
}
/*********************************************************************
* @fn zclElectricalMeasurement_ProcessInCmd_GetProfileInfoRsp
*
* @brief Process in the received Electrical Measurement Get Profile Info Response cmd
*
* @param pInMsg - pointer to the incoming message
* @param pCBs - pointer to the application callbacks
*
* @return ZStatus_t
*/
static ZStatus_t zclElectricalMeasurement_ProcessInCmd_GetProfileInfoRsp( zclIncoming_t *pInMsg,
zclElectricalMeasurement_AppCallbacks_t *pCBs )
{
uint8 i;
uint8 offset;
uint16 calculatedArraySize;
zclElectricalMeasurementGetProfileInfoRsp_t cmd;
ZStatus_t status;
if ( pCBs->pfnElectricalMeasurement_GetProfileInfoRsp )
{
// calculate size of variable array
calculatedArraySize = pInMsg->pDataLen - 3; // variable array - 3 bytes of fixed variables
cmd.pListOfAttributes = zcl_mem_alloc( calculatedArraySize );
if ( !cmd.pListOfAttributes )
{
return ( ZMemError ); // no memory, return failure
}
cmd.profileCount = pInMsg->pData[0];
cmd.profileIntervalPeriod = pInMsg->pData[1];
cmd.maxNumberOfIntervals = pInMsg->pData[2];
cmd.numberOfAttributes = calculatedArraySize / sizeof( uint16 );
offset = 3;
for ( i = 0; i < cmd.numberOfAttributes; i++ )
{
cmd.pListOfAttributes[i] = BUILD_UINT16( pInMsg->pData[offset], pInMsg->pData[offset + 1] );
offset += 2;
}
status = ( pCBs->pfnElectricalMeasurement_GetProfileInfoRsp( &cmd ) );
zcl_mem_free( cmd.pListOfAttributes );
return status;
}
return ( ZFailure );
}
/*********************************************************************
* @fn zclElectricalMeasurement_Send_GetProfileInfoRsp
*
* @brief Call to send out Electrical Measurement Get Profile Info Response. This will tell
* the client the appropriate parameters of the measurement profile.
*
* @param srcEP - Sending application's endpoint
* @param dstAddr - where you want the message to go
* @param pPayload:
* profileCount - total number of supported profiles
* profileIntervalPeriod - indicates the time frame of capture for profiling purposes
* maxNumberOfIntervals - maximum number of intervals allowed for the response
* pListOfAttributes - represents list of attributes being profiled
* @param disableDefaultRsp - whether to disable the Default Response command
* @param seqNum - sequence number
*
* @return ZStatus_t
*/
ZStatus_t zclElectricalMeasurement_Send_GetProfileInfoRsp( uint8 srcEP, afAddrType_t *dstAddr,
zclElectricalMeasurementGetProfileInfoRsp_t *pPayload,
uint8 disableDefaultRsp, uint8 seqNum )
{
uint8 i;
uint8 *pBuf; // variable length payload
uint8 offset;
uint16 calculatedBufSize;
ZStatus_t status;
// get a buffer large enough to hold the whole packet
calculatedBufSize = ( 3 + ( pPayload->numberOfAttributes * sizeof( uint16 ) ) ); // size of fixed variables plus variable array
pBuf = zcl_mem_alloc( calculatedBufSize );
if ( !pBuf )
{
return ( ZMemError ); // no memory
}
pBuf[0] = pPayload->profileCount;
pBuf[1] = pPayload->profileIntervalPeriod;
pBuf[2] = pPayload->maxNumberOfIntervals;
offset = 3;
for ( i = 0; i < pPayload->numberOfAttributes; i++ )
{
pBuf[offset++] = LO_UINT16(pPayload->pListOfAttributes[i]);
pBuf[offset++] = HI_UINT16(pPayload->pListOfAttributes[i]);
}
status = zcl_SendCommand( srcEP, dstAddr, ZCL_CLUSTER_ID_HA_ELECTRICAL_MEASUREMENT,
COMMAND_ELECTRICAL_MEASUREMENT_GET_PROFILE_INFO_RSP, TRUE,
ZCL_FRAME_SERVER_CLIENT_DIR, disableDefaultRsp, 0, seqNum, calculatedBufSize, pBuf );
zcl_mem_free( pBuf );
return ( status );
}
/*********************************************************************
* @fn zclThermostat_ProcessInCmd_GetWeeklyScheduleRsp
*
* @brief Process in the received Get Weekly Schedule Response cmd
*
* @param pInMsg - pointer to the incoming message
* @param pCBs - pointer to the application callbacks
*
* @return ZStatus_t
*/
static ZStatus_t zclThermostat_ProcessInCmd_GetWeeklyScheduleRsp( zclIncoming_t *pInMsg,
zclHVAC_AppCallbacks_t *pCBs )
{
uint8 i;
uint8 offset;
uint8 modeBuff; // buffer to determine how to incorporate heat/cool set points
uint8 numTransitions; // buffer for number of transitions for sequence
uint16 arrayRecordSize;
zclThermostatWeeklySchedule_t cmd;
ZStatus_t status;
if ( pCBs->pfnHVAC_GetWeeklyScheduleRsp )
{
numTransitions = pInMsg->pData[0];
modeBuff = pInMsg->pData[2]; // store the modeForSequence in buffer
// if either the heat or cool set points
if( ( modeBuff == HVAC_THERMOSTAT_MODE_HEAT ) || ( modeBuff == HVAC_THERMOSTAT_MODE_COOL ) )
{
// calculate the number of transitions multiplied by size of transitionTime and heatSetPoint/coolSetPoint
arrayRecordSize = ( numTransitions * 4 );
}
// if both cool and heat set points
else if( modeBuff == HVAC_THERMOSTAT_MODE_BOTH )
{
// calculate the number of transitions multiplied by size of transitionTime, heatSetPoint, and coolSetPoint
arrayRecordSize = ( numTransitions * 6 );
}
else
{
return ( ZFailure ); // invalid mode field
}
// allocate memory
cmd.sThermostateSequenceMode.psThermostatModeBoth = zcl_mem_alloc( arrayRecordSize );
if( !cmd.sThermostateSequenceMode.psThermostatModeBoth )
{
return ( ZMemError ); // no memory
}
cmd.numberOfTransitionsForSequence = numTransitions;
cmd.dayOfWeekForSequence = pInMsg->pData[1];
cmd.modeForSequence = modeBuff;
offset = 3;
for( i = 0; i < numTransitions; i++ )
{
if( modeBuff == HVAC_THERMOSTAT_MODE_HEAT ) // heat set point
{
cmd.sThermostateSequenceMode.psThermostatModeHeat[i].transitionTime = BUILD_UINT16( pInMsg->pData[offset], pInMsg->pData[offset + 1] );
cmd.sThermostateSequenceMode.psThermostatModeHeat[i].heatSetPoint = BUILD_UINT16( pInMsg->pData[offset + 2], pInMsg->pData[offset + 3] );
offset += 4;
}
else if( modeBuff == HVAC_THERMOSTAT_MODE_COOL ) // cool set point
{
cmd.sThermostateSequenceMode.psThermostatModeCool[i].transitionTime = BUILD_UINT16( pInMsg->pData[offset], pInMsg->pData[offset + 1] );
cmd.sThermostateSequenceMode.psThermostatModeCool[i].coolSetPoint = BUILD_UINT16( pInMsg->pData[offset + 2], pInMsg->pData[offset + 3] );
offset += 4;
}
else if( modeBuff == HVAC_THERMOSTAT_MODE_BOTH ) // both cool and heat set points
{
cmd.sThermostateSequenceMode.psThermostatModeBoth[i].transitionTime = BUILD_UINT16( pInMsg->pData[offset], pInMsg->pData[offset + 1] );
cmd.sThermostateSequenceMode.psThermostatModeBoth[i].heatSetPoint = BUILD_UINT16( pInMsg->pData[offset + 2], pInMsg->pData[offset + 3] );
cmd.sThermostateSequenceMode.psThermostatModeBoth[i].coolSetPoint = BUILD_UINT16( pInMsg->pData[offset + 4], pInMsg->pData[offset + 5] );
offset += 6;
}
else
{
return ( ZFailure ); // unsupported mode
}
}
status = ( pCBs->pfnHVAC_GetWeeklyScheduleRsp( &cmd ) );
zcl_mem_free( cmd.sThermostateSequenceMode.psThermostatModeBoth );
return status;
}
return ( ZFailure );
}
/*********************************************************************
* @fn zclHVAC_SendGetWeeklyScheduleRsp
*
* @brief Call to send out a Get Weekly Schedule Response Command
*
* @param srcEP - Sending application's endpoint
* @param dstAddr - where you want the message to go
* @param pPayload - payload for Get Weekly Schedule rsp
* @param seqNum - transaction sequence number
*
* @return ZStatus_t
*/
ZStatus_t zclHVAC_SendGetWeeklyScheduleRsp( uint8 srcEP, afAddrType_t *dstAddr,
zclThermostatWeeklySchedule_t *pPayload,
uint8 disableDefaultRsp, uint8 seqNum )
{
uint8 i;
uint8 modeBuff; // buffer to determine how to incorporate heat/cool set points
uint8 *pBuf; // variable length payload
uint8 offset;
uint16 arrayRecordSize; // number of bytes in record array
uint16 calculatedBufSize;
ZStatus_t status;
modeBuff = pPayload->modeForSequence; // store the modeForSequence in buffer
// if either the heat or cool set points
if( ( modeBuff == HVAC_THERMOSTAT_MODE_HEAT ) || ( modeBuff == HVAC_THERMOSTAT_MODE_COOL ) )
{
// calculate the number of transitions multiplied by size of transitionTime and heatSetPoint/coolSetPoint
arrayRecordSize = ( pPayload->numberOfTransitionsForSequence * PAYLOAD_LEN_WEEKLY_SCHEDULE_COOL_HEAT_MODE );
}
// if both cool and heat set points
else if( modeBuff == HVAC_THERMOSTAT_MODE_BOTH )
{
// calculate the number of transitions multiplied by size of transitionTime, heatSetPoint, and coolSetPoint
arrayRecordSize = ( pPayload->numberOfTransitionsForSequence * PAYLOAD_LEN_WEEKLY_SCHEDULE_BOTH_MODES );
}
else
{
return ( ZFailure ); // invalid data
}
// get a buffer large enough to hold the whole packet
calculatedBufSize = ( PAYLOAD_LEN_WEEKLY_SCHEDULE + arrayRecordSize );
pBuf = zcl_mem_alloc( calculatedBufSize );
if( !pBuf )
{
return ( ZFailure ); // no memory
}
// over-the-air is always little endian. Break into a byte stream.
pBuf[0] = pPayload->numberOfTransitionsForSequence;
pBuf[1] = pPayload->dayOfWeekForSequence;
pBuf[2] = pPayload->modeForSequence;
offset = 3;
for( i = 0; i < ( pPayload->numberOfTransitionsForSequence ); i++ )
{
if( modeBuff == HVAC_THERMOSTAT_MODE_HEAT ) // heat set point
{
pBuf[offset++] = LO_UINT16( pPayload->sThermostateSequenceMode.psThermostatModeHeat[i].transitionTime );
pBuf[offset++] = HI_UINT16( pPayload->sThermostateSequenceMode.psThermostatModeHeat[i].transitionTime );
pBuf[offset++] = LO_UINT16( pPayload->sThermostateSequenceMode.psThermostatModeHeat[i].heatSetPoint );
pBuf[offset++] = HI_UINT16( pPayload->sThermostateSequenceMode.psThermostatModeHeat[i].heatSetPoint );
}
else if( modeBuff == HVAC_THERMOSTAT_MODE_COOL ) // cool set point
{
pBuf[offset++] = LO_UINT16( pPayload->sThermostateSequenceMode.psThermostatModeCool[i].transitionTime );
pBuf[offset++] = HI_UINT16( pPayload->sThermostateSequenceMode.psThermostatModeCool[i].transitionTime );
pBuf[offset++] = LO_UINT16( pPayload->sThermostateSequenceMode.psThermostatModeCool[i].coolSetPoint );
pBuf[offset++] = HI_UINT16( pPayload->sThermostateSequenceMode.psThermostatModeCool[i].coolSetPoint );
}
else if( modeBuff == HVAC_THERMOSTAT_MODE_BOTH ) // both cool and heat set points
{
pBuf[offset++] = LO_UINT16( pPayload->sThermostateSequenceMode.psThermostatModeBoth[i].transitionTime );
pBuf[offset++] = HI_UINT16( pPayload->sThermostateSequenceMode.psThermostatModeBoth[i].transitionTime );
pBuf[offset++] = LO_UINT16( pPayload->sThermostateSequenceMode.psThermostatModeBoth[i].heatSetPoint );
pBuf[offset++] = HI_UINT16( pPayload->sThermostateSequenceMode.psThermostatModeBoth[i].heatSetPoint );
pBuf[offset++] = LO_UINT16( pPayload->sThermostateSequenceMode.psThermostatModeBoth[i].coolSetPoint );
pBuf[offset++] = HI_UINT16( pPayload->sThermostateSequenceMode.psThermostatModeBoth[i].coolSetPoint );
}
else
{
return ( ZFailure ); // unsupported mode
}
}
status = zcl_SendCommand( srcEP, dstAddr, ZCL_CLUSTER_ID_HVAC_THERMOSTAT,
COMMAND_THERMOSTAT_GET_WEEKLY_SCHEDULE_RSP, TRUE,
ZCL_FRAME_SERVER_CLIENT_DIR, disableDefaultRsp, 0, seqNum, calculatedBufSize, pBuf );
zcl_mem_free( pBuf );
return status;
}
