Premier commit suite au crash du repo le 10 juillet 2017

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zonetest
2017-07-11 09:18:32 -04:00
commit d08fe76884
267 changed files with 43069 additions and 0 deletions
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#include "ModbusBackend.h"
#include "QBuffer"
#include "EngLog.h"
#include "ZTLog.h"
CModbusBackend::CModbusBackend(CModbusRepository *Repo)
{
mModbusTCPSocketHandle = 0;
mDataLinkValid = false;
mModbusRepo = Repo;
mModbusMode = MODBUS_INVALID_MODE;
mTransactionIDCounter = 0;
mDeviceID = 9;//0xFF;
mModbusMaxRetry = MODBUS_RETRY_MAX_COUNT;
mModbusRequestTimeout = MODBUS_RETRY_DELAY;
}
CModbusBackend::~CModbusBackend()
{
}
void CModbusBackend::ModbusDataReady()
{
CModbusTransaction Transaction;
QByteArray InData = mModbusTCPSocketHandle->readAll();
QBuffer FileBuffer(&InData);
FileBuffer.open(QIODevice::ReadOnly);
FileBuffer.seek(0);
QDataStream *TransactionDataStrm = new QDataStream(&FileBuffer);
*TransactionDataStrm >> Transaction.mHeader;
*TransactionDataStrm >> Transaction.mPDU.mFunctionCode;
Transaction.mPDU.mData = InData.right(Transaction.mHeader.mMessageLength - 2); //-2 to remove Device ID and Function Code.
qDebug("modbus data received %s",InData.toHex().data());
qDebug("Transaction ID 0x%X",Transaction.mHeader.mTransactionID);
qDebug("Message Length %d",Transaction.mHeader.mMessageLength);
qDebug("Protocol ID 0x%X",Transaction.mHeader.mProtocolID);
qDebug("Unit ID 0x%X",Transaction.mHeader.mUnitID);
qDebug("Function Code 0x%X",Transaction.mPDU.mFunctionCode);
qDebug("Data %s",Transaction.mPDU.mData.toHex().data());
if(mModbusMode == MODBUS_MASTER_MODE)
{
AnalyzeModbusResponse(Transaction);
}
else if( mModbusMode == MODBUS_SLAVE_MODE)
{
AnalyzeModbusRequest(Transaction);
}
else
{
CEngLog::instance()->AddLogString("Erreur Modbus: <Illegal modbus backend mode...>");
}
}
void CModbusBackend::ModbusLinkDisconnected()
{
// qDebug("Modbus link disconnected");
mDataLinkValid = false;
}
//In client mode. This is the request from the master.
int CModbusBackend::AnalyzeModbusRequest(CModbusTransaction Transaction)
{
if(Transaction.mHeader.mProtocolID != 0)
{
//Invalid protocol... what can we do?
return 0;
}
switch(Transaction.mPDU.mFunctionCode)
{
case MODBUS_FCT_READ_HOLDING_REGISTERS:
{
bool ok = true;
unsigned short StartAdress = 0;
StartAdress = Transaction.mPDU.mData[0]&0xFF;
StartAdress <<= 8;
StartAdress += Transaction.mPDU.mData[1]&0xFF;
unsigned short NbRegisters = 0;
NbRegisters = Transaction.mPDU.mData[2]&0xFF;
NbRegisters <<= 8;
NbRegisters += Transaction.mPDU.mData[3]&0xFF;
//Validate nb of registers
if(NbRegisters < 1 || NbRegisters > MODBUS_MAX_NB_REGISTERS)
{
SendErrorResponse(Transaction,MODBUS_EXCEPTION_ILLEGAL_DATA_VALUE);
ModbusRequestException(MODBUS_EXCEPTION_ILLEGAL_DATA_VALUE,MODBUS_FCT_READ_HOLDING_REGISTERS);
return 0;
}
//Validate data range
if(!mModbusRepo->IsHRValid(StartAdress,NbRegisters))
{
qDebug("Reg invalid");
//Send negative response
SendErrorResponse(Transaction,MODBUS_EXCEPTION_ILLEGAL_DATA_ADDRESS);
ModbusRequestException(MODBUS_EXCEPTION_ILLEGAL_DATA_ADDRESS,MODBUS_FCT_READ_HOLDING_REGISTERS);
return 0;
}
QByteArray data = mModbusRepo->GetHRData(StartAdress,NbRegisters,&ok);
qDebug("Slave Rx Read Holding Registers. Address: %d, Nb Reg: %d",StartAdress, NbRegisters);
qDebug("Data: %s",data.toHex().data());
//The response to a HR reading needs the byte count before the data.
quint8 ByteCount = data.size();
data.prepend(ByteCount);
SendModbusResponse(Transaction, data);
//All OK
break;
}
case MODBUS_WRITE_SINGLE_REGISTER:
{
unsigned short StartAdress = 0;
StartAdress = Transaction.mPDU.mData[0]&0xFF;
StartAdress <<= 8;
StartAdress += Transaction.mPDU.mData[1]&0xFF;
//Validate data range
if(!mModbusRepo->IsHRValid(StartAdress,1))
{
qDebug("Reg invalid");
//Send negative response
SendErrorResponse(Transaction,MODBUS_EXCEPTION_ILLEGAL_DATA_ADDRESS);
ModbusRequestException(MODBUS_EXCEPTION_ILLEGAL_DATA_ADDRESS,MODBUS_WRITE_SINGLE_REGISTER);
return 0;
}
//Extract data.
QByteArray data = Transaction.mPDU.mData.right(2);
//Write register data
mModbusRepo->WriteHRData(StartAdress,1,data);
qDebug("Slave Rx Write Single Register. Address: %d, Value: 0x%s",StartAdress, data.toHex().data());
qDebug("Data: %s",data.toHex().data());
data = Transaction.mPDU.mData.left(4); //The response corresponds to the Reg. Address & the value. Which is the first 4 bytes of the initial request.
SendModbusResponse(Transaction, data);
RegistersDatabaseUpdated(StartAdress,1);
break;
}
case MODBUS_FCT_WRITE_MULTIPLE_REGISTERS:
{
unsigned short StartAdress = 0;
StartAdress = Transaction.mPDU.mData[0]&0xFF;
StartAdress <<= 8;
StartAdress += Transaction.mPDU.mData[1]&0xFF;
unsigned short NbRegisters = 0;
NbRegisters = Transaction.mPDU.mData[2]&0xFF;
NbRegisters <<= 8;
NbRegisters += Transaction.mPDU.mData[3]&0xFF;
quint8 ByteCount = Transaction.mPDU.mData[4];
//Validate nb of registers
if(NbRegisters < 1 || NbRegisters > 0x7D || ByteCount != (NbRegisters*2))
{
qDebug("Invalid register number or byte count ");
SendErrorResponse(Transaction,MODBUS_EXCEPTION_ILLEGAL_DATA_VALUE);
ModbusRequestException(MODBUS_EXCEPTION_ILLEGAL_DATA_VALUE,MODBUS_FCT_WRITE_MULTIPLE_REGISTERS);
return 0;
}
//Validate data range
if(!mModbusRepo->IsHRValid(StartAdress,NbRegisters))
{
qDebug("Reg invalid");
//Send negative response
SendErrorResponse(Transaction,MODBUS_EXCEPTION_ILLEGAL_DATA_ADDRESS);
ModbusRequestException(MODBUS_EXCEPTION_ILLEGAL_DATA_ADDRESS,MODBUS_FCT_WRITE_MULTIPLE_REGISTERS);
return 0;
}
//Extract data.
QByteArray data = Transaction.mPDU.mData.right(ByteCount);
//Write register data
mModbusRepo->WriteHRData(StartAdress,NbRegisters,data);
qDebug("Slave Rx Write Multiple Registers. Address: %d, Nb Reg: %d",StartAdress, NbRegisters);
qDebug("Data: %s",data.toHex().data());
data = Transaction.mPDU.mData.left(4); //The response corresponds to the Start Adress and Nb of Regs. Which is the first 4 bytes of the initial request.
SendModbusResponse(Transaction, data);
RegistersDatabaseUpdated(StartAdress,NbRegisters);
break;
}
default:
{
//Received "Illegal function code". Send the exception code to master
//TODO: Log this.
qDebug("Slave received illegal function code from master: 0x%x",Transaction.mPDU.mFunctionCode);
SendErrorResponse(Transaction,MODBUS_EXCEPTION_ILLEGAL_FCT);
ModbusRequestException(MODBUS_EXCEPTION_ILLEGAL_FCT,Transaction.mPDU.mFunctionCode);
break;
}
}
return 1;
}
int CModbusBackend::SendModbusResponse(CModbusTransaction RequestTransaction, QByteArray Data)
{
QByteArray ModbusPacket;
QBuffer Buffer(&ModbusPacket);
Buffer.open(QIODevice::WriteOnly|QIODevice::Unbuffered);
Buffer.seek(0);
QDataStream *PacketDataStrm = new QDataStream(&Buffer);
//For a response, the header will be the same as the original request, except for the msg. length.
//Set the appropriate msg length.
RequestTransaction.mHeader.mMessageLength = Data.size() + 2; //+2 to add function code & Unit ID.
RequestTransaction.mPDU.mData = Data;
*PacketDataStrm << RequestTransaction.mHeader;
*PacketDataStrm << RequestTransaction.mPDU.mFunctionCode;
Buffer.close();
ModbusPacket.append(Data);
qDebug("Response packet: %s",ModbusPacket.toHex().data());
mModbusTCPSocketHandle->write(ModbusPacket);
delete PacketDataStrm;
return RET_OK;
}
//In Master mode. This is the response from slave to a previously sent request.
int CModbusBackend::AnalyzeModbusResponse(CModbusTransaction Transaction)
{
if(Transaction.mHeader.mProtocolID != 0)
{
//Invalid protocol... what can we do?
return RET_ERROR;
}
//Find matching request and remove it from the queue...
CModbusRequest *Request;
bool Found = false;
for(int i = 0; i < mRequestsList.size(); i++)
{
if(mRequestsList.at(i)->mHeader.mTransactionID == Transaction.mHeader.mTransactionID)
{
Request = mRequestsList.takeAt(i); //Remove from queue and keep a copy
Request->mRequestTimer->stop(); //Stop the resend timer
Found = true;
}
}
if(Found == false)
{
//Invalid request number. This should happen only if a very long delay exists in the comm.
//TODO: Log this...
qDebug("Master received response to a non existent request!!!");
return RET_ERROR;
}
//check if we have an exception response
if((Transaction.mPDU.mFunctionCode & MODBUS_EXCEPTION_FCT_MASK) != 0)
{
//we have an exception response... something went wrong.
quint8 ExceptionCode = Transaction.mPDU.mData[0];
//TODO: Manage this!
qDebug("Master Rx exception code %d to request %d",ExceptionCode,Request->mPDU.mFunctionCode);
emit ModbusResponseException(ExceptionCode,Request->mPDU.mFunctionCode);
delete Request;
return RET_ERROR;
}
switch(Transaction.mPDU.mFunctionCode)
{
case MODBUS_FCT_READ_HOLDING_REGISTERS:
{
quint8 ByteCount = 0;
ByteCount = Transaction.mPDU.mData.at(0);
if((Request->mNbRegisters*2) != ByteCount)
{
//Inconsistency between the data range and the data count.
//TODO: Log the error.
qDebug("Master eceived a wrong data size in response for a MODBUS_FCT_READ_HOLDING_REGISTERS request");
emit ModbusResponseException(MODBUS_EXCEPTION_ILLEGAL_DATA_VALUE,MODBUS_FCT_READ_HOLDING_REGISTERS);
delete Request;
return RET_ERROR;
}
QByteArray RegisterValues = Transaction.mPDU.mData.right(ByteCount);
qDebug("Master Rx Read Holding Registers Response.");
qDebug("Data: %s",RegisterValues.toHex().data());
mModbusRepo->WriteHRData(Request->mStartAddress,Request->mNbRegisters,RegisterValues);
RegistersDatabaseUpdated(Request->mStartAddress, Request->mNbRegisters);
break;
}
case MODBUS_WRITE_SINGLE_REGISTER:
{
quint16 RegAddress = 0;
RegAddress = Transaction.mPDU.mData[0]&0xFF;
RegAddress <<= 8;
RegAddress += Transaction.mPDU.mData[1]&0xFF;
if(Request->mStartAddress != RegAddress)
{
//Inconsistency between the request Adress and response Adress.
//TODO: Log the error.
qDebug("Master received a wrong Register Adress in response for a MODBUS_WRITE_SINGLE_REGISTER request");
emit ModbusResponseException(MODBUS_EXCEPTION_ILLEGAL_DATA_VALUE,MODBUS_WRITE_SINGLE_REGISTER);
delete Request;
return RET_ERROR;
}
qDebug("Master Rx Write Single Register response. Address: %d,",RegAddress);
qDebug("Data: %s",Transaction.mPDU.mData.toHex().data());
//Everything seems good.
break;
}
case MODBUS_FCT_WRITE_MULTIPLE_REGISTERS:
{
unsigned short StartAdress = 0;
StartAdress = Transaction.mPDU.mData[0]&0xFF;
StartAdress <<= 8;
StartAdress += Transaction.mPDU.mData[1]&0xFF;
unsigned short NbRegisters = 0;
NbRegisters = Transaction.mPDU.mData[2]&0xFF;
NbRegisters <<= 8;
NbRegisters += Transaction.mPDU.mData[3]&0xFF;
if(StartAdress != Request->mStartAddress || NbRegisters != Request->mNbRegisters)
{
//Inconsistency between the request Adress or NbRegisters and response.
//TODO: Log the error.
qDebug("Master Received a wrong Register Adress or NbRegisters in response for a MODBUS_FCT_WRITE_MULTIPLE_REGISTERS request");
emit ModbusResponseException(MODBUS_EXCEPTION_ILLEGAL_DATA_VALUE,MODBUS_FCT_WRITE_MULTIPLE_REGISTERS);
delete Request;
return RET_ERROR;
}
qDebug("Master Rx Write Multiple Registers response. Address: %d, Nb Reg: %d",StartAdress, NbRegisters);
qDebug("Data: %s",Transaction.mPDU.mData.toHex().data());
//All is good.
break;
}
default:
{
//Received "Illegal function code" response
//TODO: Log this.
qDebug("Master received illegal function code 0x%x",Transaction.mPDU.mFunctionCode);
emit ModbusResponseException(MODBUS_EXCEPTION_ILLEGAL_FCT,MODBUS_FCT_WRITE_MULTIPLE_REGISTERS);
break;
}
}
delete Request;
return 1;
}
int CModbusBackend::SendModbusRequest(CModbusRequest *Request)
{
QByteArray ModbusPacket;
QBuffer Buffer(&ModbusPacket);
Buffer.open(QIODevice::WriteOnly|QIODevice::Unbuffered);
Buffer.seek(0);
QDataStream *PacketDataStrm = new QDataStream(&Buffer);
*PacketDataStrm << Request->mHeader;
*PacketDataStrm << Request->mPDU.mFunctionCode;
Buffer.close();
ModbusPacket.append(Request->mPDU.mData);
qDebug("Request packet: %s",ModbusPacket.toHex().data());
mModbusTCPSocketHandle->write(ModbusPacket);
return RET_OK;
}
int CModbusBackend::SendErrorResponse(CModbusTransaction RequestTransaction, quint8 ErrorCode)
{
QByteArray ModbusPacket;
QBuffer Buffer(&ModbusPacket);
Buffer.open(QIODevice::WriteOnly|QIODevice::Unbuffered);
Buffer.seek(0);
QDataStream *PacketDataStrm = new QDataStream(&Buffer);
//For a response, the header will be the same as the original request, except for the msg. length.
//Set the appropriate msg length.
RequestTransaction.mHeader.mMessageLength = 3; //Unit ID, function code & Exception code.
*PacketDataStrm << RequestTransaction.mHeader;
Buffer.close();
ModbusPacket.append(RequestTransaction.mPDU.mFunctionCode + 0x80);
ModbusPacket.append(ErrorCode);
CEngLog::instance()->AddLogString(QString("Modbus: Envoi d'un code d'un code d'erreur. Error Code %1, Error Packet: %2").arg(ErrorCode).arg(ModbusPacket.toHex().data()));
// qDebug("Sending error code %d. Error packet: %s",ErrorCode,ModbusPacket.toHex().data());
mModbusTCPSocketHandle->write(ModbusPacket);
delete PacketDataStrm;
return RET_OK;
}
int CModbusBackend::SendReadHoldingRegistersRequest(quint16 StartAddress, quint16 RegisterCount)
{
//First, validate that the reading range is within our repo
if(mModbusRepo->IsHRValid(StartAddress,RegisterCount) == false)
{
CEngLog::instance()->AddLogString("Trying to send a read HR in an invalid range");
return RET_ERROR;
}
//Create a request.
CModbusRequest *NewRequest = new CModbusRequest;
NewRequest->mStartAddress = StartAddress;
NewRequest->mNbRegisters = RegisterCount;
connect(NewRequest->mRequestTimer,SIGNAL(timeout()),this,SLOT(RequestTimerExpired()));
NewRequest->mPDU.mData.clear();
NewRequest->mPDU.mFunctionCode = MODBUS_FCT_READ_HOLDING_REGISTERS;
quint8 HighByte, LowByte;
LowByte = StartAddress & 0x00FF;
HighByte = (StartAddress >> 8) & 0x00FF;
NewRequest->mPDU.mData.append(HighByte);
NewRequest->mPDU.mData.append(LowByte);
LowByte = RegisterCount & 0x00FF;
HighByte = (RegisterCount >> 8) & 0x00FF;
NewRequest->mPDU.mData.append(HighByte);
NewRequest->mPDU.mData.append(LowByte);
NewRequest->mHeader.mMessageLength = NewRequest->mPDU.mData.size() + 2;
NewRequest->mHeader.mProtocolID = 0;
NewRequest->mHeader.mTransactionID = (qint16)GetNewTransactionID();
NewRequest->mHeader.mUnitID = mDeviceID;
mRequestsList.append(NewRequest);
SendModbusRequest(NewRequest);
NewRequest->mRequestTimer->start(mModbusRequestTimeout);
return RET_OK;
}
int CModbusBackend::SendWriteHoldingRegistersRequest(quint16 StartAddress, quint16 RegisterCount)
{
//First, validate that the reading range is within our repo
if(mModbusRepo->IsHRValid(StartAddress,RegisterCount) == false)
{
CEngLog::instance()->AddLogString("Trying to send a Write HR in an invalid range SendWriteHoldingRegistersRequest()");
return RET_ERROR;
}
if(RegisterCount > MODBUS_MAX_NB_REGISTERS)
{
return RET_ERROR;
}
//Get data.
bool OK;
QByteArray RegData = mModbusRepo->GetHRData(StartAddress,RegisterCount,&OK);
if(OK == false)
{
return RET_ERROR;
}
//Create a request.
CModbusRequest *NewRequest = new CModbusRequest;
NewRequest->mStartAddress = StartAddress;
NewRequest->mNbRegisters = RegisterCount;
connect(NewRequest->mRequestTimer,SIGNAL(timeout()),this,SLOT(RequestTimerExpired()));
NewRequest->mPDU.mData.clear();
NewRequest->mPDU.mFunctionCode = MODBUS_FCT_WRITE_MULTIPLE_REGISTERS;
quint8 HighByte, LowByte;
LowByte = StartAddress & 0x00FF;
HighByte = (StartAddress >> 8) & 0x00FF;
NewRequest->mPDU.mData.append(HighByte);
NewRequest->mPDU.mData.append(LowByte);
LowByte = RegisterCount & 0x00FF;
HighByte = (RegisterCount >> 8) & 0x00FF;
NewRequest->mPDU.mData.append(HighByte);
NewRequest->mPDU.mData.append(LowByte);
NewRequest->mPDU.mData.append(RegData);
NewRequest->mHeader.mMessageLength = NewRequest->mPDU.mData.size() + 2;
NewRequest->mHeader.mProtocolID = 0;
NewRequest->mHeader.mTransactionID = (qint16)GetNewTransactionID();
NewRequest->mHeader.mUnitID = mDeviceID;
mRequestsList.append(NewRequest);
SendModbusRequest(NewRequest);
NewRequest->mRequestTimer->start(mModbusRequestTimeout);
return RET_OK;
}
int CModbusBackend::SendWriteSingleRegisterRequest(quint16 Address)
{
//First, validate that the reading range is within our repo
if(mModbusRepo->IsHRValid(Address,1) == false)
{
CEngLog::instance()->AddLogString("Trying to send a Write HR in an invalid range SendWriteSingleRegisterRequest()");
return RET_ERROR;
}
//Get data.
bool OK;
QByteArray RegData = mModbusRepo->GetHRData(Address,1,&OK);
if(OK == false)
{
return RET_ERROR;
}
//Create a request.
CModbusRequest *NewRequest = new CModbusRequest;
NewRequest->mStartAddress = Address;
NewRequest->mNbRegisters = 1;
connect(NewRequest->mRequestTimer,SIGNAL(timeout()),this,SLOT(RequestTimerExpired()));
NewRequest->mPDU.mData.clear();
NewRequest->mPDU.mFunctionCode = MODBUS_WRITE_SINGLE_REGISTER;
quint8 HighByte, LowByte;
LowByte = Address & 0x00FF;
HighByte = (Address >> 8) & 0x00FF;
NewRequest->mPDU.mData.append(HighByte);
NewRequest->mPDU.mData.append(LowByte);
NewRequest->mPDU.mData.append(RegData);
NewRequest->mHeader.mMessageLength = NewRequest->mPDU.mData.size() + 2;
NewRequest->mHeader.mProtocolID = 0;
NewRequest->mHeader.mTransactionID = (qint16)GetNewTransactionID();
NewRequest->mHeader.mUnitID = mDeviceID;
mRequestsList.append(NewRequest);
SendModbusRequest(NewRequest);
NewRequest->mRequestTimer->start(mModbusRequestTimeout);
return RET_OK;
}
void CModbusBackend::RequestTimerExpired()
{
//find the expired request
for(int i = 0; i < mRequestsList.size(); i++)
{
if(mRequestsList.at(i)->mRequestTimer->isActive() == false)
{
if(mRequestsList.at(i)->mRetries >= mModbusMaxRetry)
{
//The max number of retry has been reached. The device is probably offline.
CZTLog::instance()->AddLogString("Modbus Maître: Nombre maximal de tentatives sans réponse atteint avec le partenaire",true);
delete mRequestsList[i];
mRequestsList.removeAt(i);
//TODO: Manage this situation (log?)
return;
}
else
{
SendModbusRequest(mRequestsList[i]);
mRequestsList.at(i)->mRequestTimer->start(mModbusRequestTimeout);
mRequestsList[i]->mRetries++;
}
}
}
}
quint16 CModbusBackend::GetNewTransactionID()
{
quint16 ID = mTransactionIDCounter++;
if(mTransactionIDCounter == 0xFFFF - 10)
{
mTransactionIDCounter = 0;
}
return ID;
}
CModbusRequest::CModbusRequest():
mRetries(0)
{
mRequestTimer = new QTimer;
mRequestTimer->setSingleShot(true);
}
CModbusRequest::~CModbusRequest()
{
delete mRequestTimer;
}
QDataStream &operator<<(QDataStream &out, const CModbusHeader &source)
{
out << source.mTransactionID
<< source.mProtocolID
<< source.mMessageLength
<< source.mUnitID
;
return out;
}
QDataStream &operator>>(QDataStream &in, CModbusHeader &dest)
{
in >> dest.mTransactionID
>> dest.mProtocolID
>> dest.mMessageLength
>> dest.mUnitID
;
return in;
}
//Virtual function that should not even get called...
void CModbusBackend::ModbusResponseException(quint8 ExceptionCode, quint8 FctCode)
{
Q_UNUSED(ExceptionCode)
Q_UNUSED(FctCode)
CEngLog::instance()->AddLogString("ModbusResponseException called from within slave object... weird stuff!");
}
//Virtual function that should not even get called...
void CModbusBackend::ModbusRequestException(quint8 ExceptionCode, quint8 FctCode)
{
Q_UNUSED(ExceptionCode)
Q_UNUSED(FctCode)
CEngLog::instance()->AddLogString("ModbusResponseException called from within master object... weird stuff!");
}
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#ifndef CMODBUSBACKEND_H
#define CMODBUSBACKEND_H
#include <QObject>
#include <QTcpSocket>
#include "ModbusRepository.h"
#include <QTimer>
#define MODBUS_EXCEPTION_FCT_MASK 0x80
#define MODBUS_RETRY_DELAY 2000 //millisecs
#define MODBUS_RETRY_MAX_COUNT 2 //resend an unanswered request this many times
#define MODBUS_MAX_NB_REGISTERS 0x7D
enum eModbusFunctions
{
MODBUS_FCT_READ_HOLDING_REGISTERS = 3,
MODBUS_WRITE_SINGLE_REGISTER = 6,
MODBUS_FCT_WRITE_MULTIPLE_REGISTERS = 16
};
enum eModbusExceptionCodes
{
MODBUS_EXCEPTION_ILLEGAL_FCT = 1,
MODBUS_EXCEPTION_ILLEGAL_DATA_ADDRESS = 2,
MODBUS_EXCEPTION_ILLEGAL_DATA_VALUE = 3,
MODBUS_EXCEPTION_SERVER_DEVICE_FAILURE = 4,
MODBUS_EXCEPTION_ACKNOWLEDGE = 5,
MODBUS_EXCEPTION_SERVER_DEVICE_BUSY = 6,
MODBUS_EXCEPTION_MEMORY_PARITY_ERROR = 8,
MODBUS_EXCEPTION_GATEWAY_PATH_UNAVAILABLE = 10,
MODBUS_EXCEPTION_GATEWAY_TARGET_DEV_NOT_RESPONDING = 11
};
enum eModbusModes
{
MODBUS_MASTER_MODE,
MODBUS_SLAVE_MODE,
MODBUS_INVALID_MODE
};
class CModbusException
{
public:
};
class CModbusPDU
{
public:
qint8 mFunctionCode;
QByteArray mData;
};
class CModbusHeader
{
public:
qint16 mTransactionID;
qint16 mProtocolID;
qint16 mMessageLength;
qint8 mUnitID;
};
class CModbusTransaction
{
public:
CModbusHeader mHeader;
CModbusPDU mPDU;
};
class CModbusRequest : public CModbusTransaction
{
public:
CModbusRequest();
~CModbusRequest();
int mRetries;
QTimer *mRequestTimer;
quint16 mStartAddress, mNbRegisters; //For convinience...
};
class CModbusBackend : public QObject
{
Q_OBJECT
private:
enum eModbusMasterSMStates
{
MODBUS_SM_WAIT_FOR__STATE
};
enum eModbusSlaveSMStates
{
};
public:
CModbusBackend(CModbusRepository *Repo);
virtual ~CModbusBackend();
QTcpSocket *mModbusTCPSocketHandle;
CModbusRepository *mModbusRepo;
bool mDataLinkValid;
int mModbusMode;
qint8 mDeviceID;
void ModbusLinkDisconnected();
void SetDeviceID(qint8 ID){mDeviceID = ID;}
//Master (client)
int SendReadHoldingRegistersRequest(quint16 StartAddress, quint16 RegisterCount);
int SendWriteHoldingRegistersRequest(quint16 StartAddress, quint16 RegisterCount);
int SendWriteSingleRegisterRequest(quint16 Address);
virtual void RegistersDatabaseUpdated(quint16 StartAdderss, quint16 Length) = 0;
//Master Exception
virtual void ModbusResponseException(quint8 ExceptionCode, quint8 FctCode);
//Slave Exception
virtual void ModbusRequestException(quint8 ExceptionCode, quint8 FctCode);
private:
//Slave (server)
int AnalyzeModbusRequest(CModbusTransaction Transaction);
int ModbusStateMachine(int Event, QByteArray Data);
int SendModbusResponse(CModbusTransaction RequestTransaction, QByteArray Data);
int SendErrorResponse(CModbusTransaction RequestTransaction, quint8 ErrorCode);
//Master (client)
QList<CModbusRequest*> mRequestsList;
int SendModbusRequest(CModbusRequest *Request);
quint16 GetNewTransactionID();
int AnalyzeModbusResponse(CModbusTransaction Transaction);
quint16 mTransactionIDCounter;
int mModbusRequestTimeout;
int mModbusMaxRetry;
signals:
// void RegistersDatabaseUpdated(quint16 StartAdderss, quint16 Length);
// //Master signals
// void ModbusResponseException(quint8 ExceptionCode, quint8 FctCode);
//// //Slave signals
// void ModbusRequestException(quint8 ExceptionCode, quint8 FctCode);
public slots:
void ModbusDataReady();
void RequestTimerExpired();
};
QDataStream &operator<<(QDataStream &out, const CModbusHeader &source);
QDataStream &operator>>(QDataStream &in, CModbusHeader &dest);
#endif // CMODBUSBACKEND_H
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#ifndef PROTOCOLDEFS_H
#define PROTOCOLDEFS_H
//ZT - CC modbus table masks
//Flags definitions for HR2000
#define ZT1_PP_INT_FLAG_MASK_1 0x0001
#define ZT1_PP_INT_FLAG_MASK_2 0x0002
#define ZT1_PP_INT_FLAG_MASK_3 0x0004
#define ZT1_PP_INT_FLAG_MASK_4 0x0008
#define ZT1_PP_EXT_FLAG_MASK_1 0x0010
#define ZT1_PP_EXT_FLAG_MASK_2 0x0020
#define ZT1_PP_EXT_FLAG_MASK_3 0x0040
#define ZT1_PP_EXT_FLAG_MASK_4 0x0080
#define ZT1_PG_FLAG_MASK_1 0x0100
#define ZT1_PG_FLAG_MASK_2 0x0200
#define ZT1_PG_FLAG_MASK_3 0x0400
#define ZT1_PG_FLAG_MASK_4 0x0800
#define ZT1_FN_FLAG_MASK_1 0x1000
#define ZT1_FN_FLAG_MASK_2 0x2000
#define ZT1_FN_FLAG_MASK_3 0x4000
#define ZT1_FN_FLAG_MASK_4 0x8000
//Flags definitions for HR2017
#define ZT2_PP_INT_FLAG_MASK_1 0x0001
#define ZT2_PP_INT_FLAG_MASK_2 0x0002
#define ZT2_PP_INT_FLAG_MASK_3 0x0004
#define ZT2_PP_INT_FLAG_MASK_4 0x0008
#define ZT2_PP_EXT_FLAG_MASK_1 0x0010
#define ZT2_PP_EXT_FLAG_MASK_2 0x0020
#define ZT2_PP_EXT_FLAG_MASK_3 0x0040
#define ZT2_PP_EXT_FLAG_MASK_4 0x0080
//Flags definitions for HR2026
#define ZT1_V00_ALARM_FLAG_MASK 0x0001
#define ZT1_PEQ1_ALARM_FLAG_MASK 0x0002
#define ZT1_ALARM_ITI_FLAG_MASK 0x8000
#define ZT2_V02_ALARM_FLAG_MASK 0x0004
#define ZT2_PEQ2_ALARM_FLAG_MASK 0x0008
//Register addressing
//Outgoing
#define MODBUS_ZT_DATA_BASE_REG 2000
#define MODBUS_ZT_TABLE_DATA_SIZE 28 //Taille de la table = 28 registres
#define MODBUS_ZT1_ALARM_DATA_BASE_REG_ADD 2000
#define MODBUS_ZT2_ALARM_DATA_BASE_REG_ADD 2017
#define MODBUS_MISC_DATA_BASE_REG_ADD 2026
#define MODBUS_ZT_WATCHDOG_REG_ADD 2027
#define MODBUS_ZT1_ALARM_RANKS_BASE_ADD 2001
#define MODBUS_ZT1_RANK_PP_INT_1_REG_ADD 2001
#define MODBUS_ZT1_RANK_PP_INT_2_REG_ADD 2002
#define MODBUS_ZT1_RANK_PP_INT_3_REG_ADD 2003
#define MODBUS_ZT1_RANK_PP_INT_4_REG_ADD 2004
#define MODBUS_ZT1_RANK_PP_EXT_1_REG_ADD 2005
#define MODBUS_ZT1_RANK_PP_EXT_2_REG_ADD 2006
#define MODBUS_ZT1_RANK_PP_EXT_3_REG_ADD 2007
#define MODBUS_ZT1_RANK_PP_EXT_4_REG_ADD 2008
#define MODBUS_ZT1_RANK_PG_1_REG_ADD 2009
#define MODBUS_ZT1_RANK_PG_2_REG_ADD 2010
#define MODBUS_ZT1_RANK_PG_3_REG_ADD 2011
#define MODBUS_ZT1_RANK_PG_4_REG_ADD 2012
#define MODBUS_ZT1_RANK_FN_1_REG_ADD 2013
#define MODBUS_ZT1_RANK_FN_2_REG_ADD 2014
#define MODBUS_ZT1_RANK_FN_3_REG_ADD 2015
#define MODBUS_ZT1_RANK_FN_4_REG_ADD 2016
#define MODBUS_ZT2_ALARM_RANKS_BASE_ADD 2018
#define MODBUS_ZT2_RANK_PP_INT_1_REG_ADD 2018
#define MODBUS_ZT2_RANK_PP_INT_2_REG_ADD 2019
#define MODBUS_ZT2_RANK_PP_INT_3_REG_ADD 2020
#define MODBUS_ZT2_RANK_PP_INT_4_REG_ADD 2021
#define MODBUS_ZT2_RANK_PP_EXT_1_REG_ADD 2022
#define MODBUS_ZT2_RANK_PP_EXT_2_REG_ADD 2023
#define MODBUS_ZT2_RANK_PP_EXT_3_REG_ADD 2024
#define MODBUS_ZT2_RANK_PP_EXT_4_REG_ADD 2025
//Incoming
#define MODBUS_CC_ZTC_ZT1_FLAG_MASK 0x0001
#define MODBUS_CC_ZTC_ZT2_FLAG_MASK 0x0002
#define MODBUS_CC_FCYCLE_ZT1_FLAG_MASK 0x0004
#define MODBUS_CC_FCYCLE_ZT2_FLAG_MASK 0x0008
#define MODBUS_CC_DATA_BASE_REG_ADD 2028
#define MODBUS_CC_TABLE_DATA_SIZE 13 //Taille de la table = 28 registres
#define MODBUS_CC_WATCHDOG_BASE_REG_ADD 2028
#define MODBUS_CC_AN_BASE_REG_ADD 2029
#define MODBUS_CC_CLK_UPDATE_BASE_REG_ADD 2036
#define MODUBS_CC_CLK_SEC_BASE_REG_ADD 2037
#define MODUBS_CC_CLK_HR_MIN_BASE_REG_ADD 2038
#define MODUBS_CC_CLK_MNT_DAY_BASE_REG_ADD 2039
#define MODUBS_CC_CLK_YEAR_BASE_REG_ADD 2040
#endif // PROTOCOLDEFS_H
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#include "ModbusCCMgr.h"
#include "ZTLog.h"
#include "EngLog.h"
CModbusCCMgr::CModbusCCMgr(CModbusRepository *Repo, int ModbusPort, int DevID) :
CModbusBackend(Repo)
{
mModbusServer = new QTcpServer();
mDeviceID = DevID;
mModbusPort = ModbusPort;
connect(mModbusServer,SIGNAL(newConnection()),this,SLOT(NewModbusConnection()));
mModbusMode = MODBUS_SLAVE_MODE;
}
CModbusCCMgr::~CModbusCCMgr()
{
delete mModbusServer;
}
int CModbusCCMgr::StartModbusCCServer()
{
mModbusServer->listen(QHostAddress::Any,mModbusPort);
CZTLog::instance()->AddLogString(QString("Serveur Modbus Commande Centralisée démarré sur le port %1").arg(mModbusPort),true);
return 1;
}
void CModbusCCMgr::NewModbusConnection()
{
mModbusTCPSocketHandle = mModbusServer->nextPendingConnection();
if(mModbusTCPSocketHandle != 0)
{
mDataLinkValid = true;
connect(mModbusTCPSocketHandle,SIGNAL(readyRead()),this,SLOT(ModbusDataReady()));
connect(mModbusTCPSocketHandle,SIGNAL(disconnected()),this,SLOT(ConnectionLost()));
//qDebug("ModbusCC: Connection with CC established");
CZTLog::instance()->AddLogString(QString("Connection Modbus avec la CC établie. IP[%1]").arg(mModbusTCPSocketHandle->peerAddress().toString()),true);
emit ModbusCCConnected();
}
}
void CModbusCCMgr::ConnectionLost()
{
ModbusLinkDisconnected();
emit ModbusCCDisconnected();
CZTLog::instance()->AddLogString(QString("Connection Modbus avec la CC rompue."),true);
}
bool CModbusCCMgr::IsModbusConnected()
{
return mDataLinkValid;
}
void CModbusCCMgr::RegistersDatabaseUpdated(quint16 StartAddress, quint16 Length)
{
Q_UNUSED(StartAddress)
Q_UNUSED(Length)
emit RepoHasChanged();
}
void CModbusCCMgr::ModbusRequestException(quint8 ExceptionCode, quint8 FctCode)
{
//qDebug("Modbus CC: Request exception occured. ExceptCode: [%d], FctCode: [%d]",ExceptionCode,FctCode);
CEngLog::instance()->AddLogString(QString("Modbus CC: Exception de requête. ExceptionCode[%1], FctCode[%2]").arg(ExceptionCode).arg(FctCode));
}
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#ifndef CMODBUSSLAVE_H
#define CMODBUSSLAVE_H
#include <QObject>
#include "ModbusBackend.h"
#include <QTcpServer>
#include "ModbusRepository.h"
class CModbusCCMgr : public CModbusBackend
{
Q_OBJECT
public:
explicit CModbusCCMgr(CModbusRepository *Repo, int ModbusPort, int DevID);
virtual ~CModbusCCMgr();
int StartModbusCCServer();
bool IsModbusConnected();
virtual void RegistersDatabaseUpdated(quint16 StartAddress, quint16 Length);
virtual void ModbusRequestException(quint8 ExceptionCode, quint8 FctCode);
private:
QTcpServer *mModbusServer;
int mModbusPort;
signals:
void RepoHasChanged();
void ModbusCCConnected();
void ModbusCCDisconnected();
public slots:
void NewModbusConnection();
void ConnectionLost();
};
#endif // CMODBUSSLAVE_H
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#include "ModbusMaster.h"
#include <QTcpSocket>
#include "ModbusCCDefs.h"
CModbusMaster::CModbusMaster(CModbusRepository *Repo, int ModbusPort, int DevID):
CModbusBackend(Repo)
{
// connect(mModbusTCPSocketHandle,SIGNAL(readyRead()),this,SLOT(ModbusDataReady()));
mModbusMode = MODBUS_MASTER_MODE;
mModbusPort = ModbusPort;
mDeviceID = DevID;
mModbusTCPSocketHandle = new QTcpSocket();
connect(mModbusTCPSocketHandle,SIGNAL(readyRead()),this,SLOT(ModbusDataReady()));
connect(mModbusTCPSocketHandle,SIGNAL(disconnected()),this,SLOT(SocketDisconnected()));
connect(mModbusTCPSocketHandle,SIGNAL(connected()),this,SLOT(SocketConnected()));
}
CModbusMaster::~CModbusMaster()
{
if(mModbusTCPSocketHandle->state() != QAbstractSocket::UnconnectedState)
{
mModbusTCPSocketHandle->disconnectFromHost();
mModbusTCPSocketHandle->waitForDisconnected(1000);
}
delete mModbusTCPSocketHandle;
}
int CModbusMaster::ConnectToSlave(QString SlaveIP, int SlavePort)
{
if(mModbusTCPSocketHandle->state() != QAbstractSocket::UnconnectedState)
{
return RET_ERROR;
}
mModbusTCPSocketHandle->connectToHost(SlaveIP,SlavePort);
return RET_OK;
}
int CModbusMaster::DisconnectFromSlave()
{
if(mModbusTCPSocketHandle->state() != QAbstractSocket::ConnectedState)
{
qDebug("Trying to disconnect a non connected socket");
mModbusTCPSocketHandle->disconnectFromHost();
return 0;
}
qDebug("Requesting Disconnection...");
mModbusTCPSocketHandle->disconnectFromHost();
return 1;
}
void CModbusMaster::SocketConnected()
{
emit ModbusMasterConnected(this);
qDebug("Master: Connection established with slave");
}
void CModbusMaster::SocketDisconnected()
{
ModbusLinkDisconnected();
emit ModbusMasterDisconnected(this);
}
int CModbusMaster::ReadModbusRegisters()
{
//return SendReadHoldingRegistersRequest(ZT_DATA_BASE_REGISTER_ADDRESS,4); //Read all 3 registers from ZT (2000 - 2003)
}
void CModbusMaster::RegistersDatabaseUpdated(quint16 StartAddress, quint16 Length)
{
emit ModbusMasterRepositoryUpdated();
qDebug("Database updated with ZT data...");
}
void CModbusMaster::ModbusResponseException(quint8 ExceptionCode, quint8 FctCode)
{
qDebug("Modbus MASTER exception: code:%d Fct:%d",ExceptionCode,FctCode);
}
int CModbusMaster::SendAN1ToZT()
{
//return SendWriteHoldingRegistersRequest(CC_AN1_REGISTER_ADDRESS,1);
//return SendWriteSingleRegisterRequest(CC_AN1_REGISTER_ADDRESS);
}
int CModbusMaster::SendAN2ToZT()
{
//return SendWriteHoldingRegistersRequest(CC_AN2_REGISTER_ADDRESS,1);
//return SendWriteSingleRegisterRequest(CC_AN2_REGISTER_ADDRESS);
}
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#ifndef CMODBUSMASTER_H
#define CMODBUSMASTER_H
#include <QObject>
#include "ModbusBackend.h"
class CModbusMaster : public CModbusBackend
{
Q_OBJECT
public:
explicit CModbusMaster(CModbusRepository *Repo, int ModbusPort, int DevID);
~CModbusMaster();
int ConnectToSlave(QString SlaveIP, int SlavePort);
int DisconnectFromSlave();
int ReadModbusRegisters();
int SendAN1ToZT();
int SendAN2ToZT();
virtual void RegistersDatabaseUpdated(quint16 StartAddress, quint16 Length);
virtual void ModbusResponseException(quint8 ExceptionCode, quint8 FctCode);
private:
int mModbusPort;
signals:
void ModbusMasterConnected(CModbusMaster *);
void ModbusMasterDisconnected(CModbusMaster *);
void ModbusMasterRepositoryUpdated();
public slots:
void SocketConnected();
void SocketDisconnected();
};
#endif // CMODBUSMASTER_H
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#include "ModbusRepository.h"
#include <QByteArray>
#include <QBuffer>
#include <QDataStream>
#include "EngLog.h"
CModbusRepository::CModbusRepository()
{
}
int CModbusRepository::AddHRDataMap(quint16 StartAddress, quint16 Length)
{
mMutex.lockForWrite();
for(int i= 0; i < mHoldingRegisters.size(); i++)
{
if((StartAddress >= mHoldingRegisters.at(i).mStartAddress && StartAddress <= mHoldingRegisters.at(i).mEndAddress) ||
(StartAddress + Length - 1 >= mHoldingRegisters.at(i).mStartAddress && StartAddress + Length - 1 <= mHoldingRegisters.at(i).mEndAddress))
{
mMutex.unlock();
return RET_ERROR; //The data map overlaps an existing map.
}
}
CHRDataMap NewHRMap(StartAddress,Length);
mHoldingRegisters.append(NewHRMap);
mMutex.unlock();
CEngLog::instance()->AddLogString(QString("Création d'une zone registre modbus à l'adresse: %1 de taille %2").arg(StartAddress).arg(Length));
return RET_OK;
}
bool CModbusRepository::IsHRValid(quint16 StartAddress, quint16 Length, int *index)
{
mMutex.lockForRead();
for(int i= 0; i < mHoldingRegisters.size(); i++)
{
if((StartAddress >= mHoldingRegisters.at(i).mStartAddress && StartAddress + Length - 1 <= mHoldingRegisters.at(i).mEndAddress))
{
if(index != 0)
{
*index = i;
}
mMutex.unlock();
return true;
}
}
mMutex.unlock();
return false;
}
QByteArray CModbusRepository::GetHRData(quint16 StartAddress, quint16 Length, bool *OK)
{
QByteArray Data;
int RegisterIndex = 0;
if(IsHRValid(StartAddress,Length, &RegisterIndex) == false)
{
if(OK != 0)
{
*OK = false;
}
}
else
{
mMutex.lockForRead();
int DataIndex = StartAddress - mHoldingRegisters.at(RegisterIndex).mStartAddress;
for(int i = 0; i < Length; i++)
{
quint16 CurReg = mHoldingRegisters.at(RegisterIndex).mRegistersData.at(DataIndex++);
quint8 HighByte, LowByte;
LowByte = CurReg & 0x00FF;
HighByte = (CurReg >> 8) & 0x00FF;
Data.append(HighByte);
Data.append(LowByte);
}
mMutex.unlock();
if(OK != 0)
*OK = true;
}
return Data;
}
int CModbusRepository::WriteHRData(quint16 StartAddress, quint16 Length, QByteArray Data)
{
int RegisterIndex;
if(IsHRValid(StartAddress,Length, &RegisterIndex) == false)
{
return RET_ERROR;
}
if(Length*2 != Data.size())
{
return RET_ERROR;
}
mMutex.lockForWrite();
int DataIndex = StartAddress - mHoldingRegisters.at(RegisterIndex).mStartAddress;
for(int i = 0; i < Length; i++)
{
quint8 HighByte = Data.at(i*2);
quint8 LowByte = Data.at(i*2 + 1);
qint16 Word = HighByte;
Word <<= 8;
Word += LowByte;
Word = Word &0xFFFF;
mHoldingRegisters[RegisterIndex].mRegistersData[DataIndex++] = Word;
}
mMutex.unlock();
return RET_OK;
}
int CModbusRepository::WriteSingleReg(quint16 Address, quint16 Value)
{
int RegisterIndex;
if(IsHRValid(Address,1, &RegisterIndex) == false)
{
return RET_ERROR;
}
mMutex.lockForWrite();
int DataIndex = Address - mHoldingRegisters.at(RegisterIndex).mStartAddress;
mHoldingRegisters[RegisterIndex].mRegistersData[DataIndex] = Value;
mMutex.unlock();
return RET_OK;
}
int CModbusRepository::WriteMultipleRegs(quint16 StartAddress, QList<qint16> Data)
{
int RegisterIndex;
if(IsHRValid(StartAddress,Data.size(), &RegisterIndex) == false)
{
return RET_ERROR;
}
mMutex.lockForWrite();
int DataIndex = StartAddress - mHoldingRegisters.at(RegisterIndex).mStartAddress;
for(int i = 0; i < Data.size(); i++)
{
mHoldingRegisters[RegisterIndex].mRegistersData[DataIndex++] = Data.at(i);
}
mMutex.unlock();
return RET_OK;
}
QList<qint16> CModbusRepository::GetRegs(quint16 StartAddress, quint16 Length, bool *OK)
{
int RegisterIndex;
if(IsHRValid(StartAddress,Length, &RegisterIndex) == false)
{
if(OK != 0)
{
*OK = false;
}
return QList<qint16>();
}
if(OK != 0)
{
*OK = true;
}
int DataIndex = StartAddress - mHoldingRegisters.at(RegisterIndex).mStartAddress;
return mHoldingRegisters[RegisterIndex].mRegistersData.mid(DataIndex,Length);
}
quint16 CModbusRepository::GetSingleReg(quint16 Address, bool *OK)
{
int RegisterIndex;
if(IsHRValid(Address,1, &RegisterIndex) == false)
{
if(OK != 0)
*OK = false;
return 0;
}
if(OK != 0)
*OK = true;
mMutex.lockForRead();
int DataIndex = Address - mHoldingRegisters.at(RegisterIndex).mStartAddress;
quint16 Data = mHoldingRegisters[RegisterIndex].mRegistersData[DataIndex];
mMutex.unlock();
return Data;
}
CHRDataMap::CHRDataMap(quint16 StartAddress, quint16 Length)
{
mStartAddress = StartAddress;
mLength = Length;
for(int i = 0; i < Length; i++)
{
mRegistersData.append(0);
}
mEndAddress = StartAddress + Length - 1;
}
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#ifndef MODBUSREPOSITORY_H
#define MODBUSREPOSITORY_H
#include "GlobalDefine.h"
#include <QList>
#include <QReadWriteLock>
class CHRDataMap ///Holding Register data map.
{
public:
CHRDataMap(quint16 StartAddress, quint16 Length);
quint16 mStartAddress,mEndAddress;
quint16 mLength;
QList<qint16> mRegistersData;
};
class CModbusRepository
{
public:
CModbusRepository();
//Holding Registers
int AddHRDataMap(quint16 StartAddress, quint16 Length);
bool IsHRValid(quint16 StartAddress, quint16 Length, int *index = 0);
QByteArray GetHRData(quint16 StartAddress, quint16 Length, bool *OK = 0);
quint16 GetSingleReg(quint16 Address, bool *OK = 0);
QList<qint16> GetRegs(quint16 StartAddress, quint16 Length, bool *OK = 0);
int WriteHRData(quint16 StartAddress, quint16 Length, QByteArray Data);
int WriteSingleReg(quint16 Address, quint16 Value);
int WriteMultipleRegs(quint16 StartAddress, QList<qint16> Data);
private:
QList<CHRDataMap> mHoldingRegisters;
QReadWriteLock mMutex;
};
#endif // MODBUSREPOSITORY_H
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#include "ModbusTKTransport.h"
#include "ZTData.h"
#include "ZTLog.h"
#include "EngLog.h"
CModbusTKTransport::CModbusTKTransport(CModbusRepository *Repo)
{
mModbusRepo = Repo;
mZT1CDVState = mZT2CDVState = false;
mMaintenanceMode = mForceZT1Clear = mForceZT2Clear = false;
mZT1TKDataList.clear();
mZT2TKDataList.clear();
mModbusTKZT1SMState = MODBUS_ZT1_TK_STANDBY_STATE;
mModbusTKZT2SMState = MODBUS_ZT2_TK_STANDBY_STATE;
mZT1TKStateMachineTimer = new QTimer();
mZT1TKStateMachineTimer->setSingleShot(false);
mZT1TKStateMachineTimer->setInterval(0);
connect(mZT1TKStateMachineTimer,SIGNAL(timeout()),this,SLOT(ExecZT1SM()));
mZT2TKStateMachineTimer = new QTimer();
mZT2TKStateMachineTimer->setSingleShot(false);
mZT2TKStateMachineTimer->setInterval(0);
connect(mZT2TKStateMachineTimer,SIGNAL(timeout()),this,SLOT(ExecZT2SM()));
}
CModbusTKTransport::~CModbusTKTransport()
{
delete mZT1TKStateMachineTimer;
delete mZT2TKStateMachineTimer;
}
int CModbusTKTransport::ClearTK(int ZT)
{
if(ZT == ZT1_TYPE_ID)
{
//Fill ZT1 alarm regs with 0.
QList<qint16> Data;
for(int i = 0; i <= 16; i++) //17 registers (1 flags reg + 16 ranks regs)
{
Data.append(0);
}
//Clear pannes & itineraire flags
bool OK = false;
quint16 PannesReg = mModbusRepo->GetSingleReg(MODBUS_MISC_DATA_BASE_REG_ADD,&OK);
if(OK == false)
{
return RET_ERROR;
}
PannesReg ^= ZT1_V00_ALARM_FLAG_MASK;
PannesReg ^= ZT1_PEQ1_ALARM_FLAG_MASK;
PannesReg ^= ZT1_ALARM_ITI_FLAG_MASK;
//Clear repo now...
mModbusRepo->WriteMultipleRegs(MODBUS_ZT1_ALARM_DATA_BASE_REG_ADD,Data);
mModbusRepo->WriteSingleReg(MODBUS_MISC_DATA_BASE_REG_ADD,PannesReg);
}
else if(ZT == ZT2_TYPE_ID)
{
//Fill ZT2 alarm regs with 0.
QList<qint16> Data;
for(int i = 0; i <= 8; i++) //9 registers (1 flags reg + 8 ranks regs)
{
Data.append(0);
}
//Clear pannes
bool OK = false;
quint16 PannesReg = mModbusRepo->GetSingleReg(MODBUS_MISC_DATA_BASE_REG_ADD,&OK);
if(OK == false)
{
return RET_ERROR;
}
PannesReg ^= ZT2_V02_ALARM_FLAG_MASK;
PannesReg ^= ZT2_PEQ2_ALARM_FLAG_MASK;
//Clear repo now...
mModbusRepo->WriteMultipleRegs(MODBUS_ZT2_ALARM_DATA_BASE_REG_ADD,Data);
mModbusRepo->WriteSingleReg(MODBUS_MISC_DATA_BASE_REG_ADD,PannesReg);
}
else
{
return RET_ERROR;
}
return RET_OK;
}
int CModbusTKTransport::SendTKToCC(int ZT)
{
if(ZT == ZT1_TYPE_ID)
{
int PPIntIndex = 0, PPExtIndex = 0, FNIndex = 0, PGIndex = 0;
qint16 FlagsReg = 0;
qint16 PannesReg;
QList<qint16> DataBuf;
//Get a local buffer of the repo...
bool OK;
DataBuf = mModbusRepo->GetRegs(MODBUS_ZT_DATA_BASE_REG,MODBUS_ZT_TABLE_DATA_SIZE,&OK);
if(OK == false)
{
CEngLog::instance()->AddLogString("Erreur de logique. ModbusTkTransport::SendTKToCC() ZT1 -> Lecture repository invalide.");
}
PannesReg = DataBuf.at(RegOffset(MODBUS_MISC_DATA_BASE_REG_ADD));
for(int i = 0; i < mZT1TKDataList.size(); i++)
{
CZTDetectionData TKData = mZT1TKDataList.at(i);
switch(TKData.mDetectionID)
{
case DETECTION_MAGNETIC_SENSOR_COUNT:
{
PannesReg |= ZT1_V00_ALARM_FLAG_MASK;
break;
}
case DETECTION_FN_DETECTION:
{
if(FNIndex == 0)
{
FlagsReg |= ZT1_FN_FLAG_MASK_1;
DataBuf[RegOffset(MODBUS_ZT1_RANK_FN_1_REG_ADD)] = (qint16)TKData.mRank;
}
else if(FNIndex == 1)
{
FlagsReg |= ZT1_FN_FLAG_MASK_2;
DataBuf[RegOffset(MODBUS_ZT1_RANK_FN_2_REG_ADD)] = (qint16)TKData.mRank;
}
else if(FNIndex == 2)
{
FlagsReg |= ZT1_FN_FLAG_MASK_3;
DataBuf[RegOffset(MODBUS_ZT1_RANK_FN_3_REG_ADD)] = (qint16)TKData.mRank;
}
else if(FNIndex == 3)
{
FlagsReg |= ZT1_FN_FLAG_MASK_4;
DataBuf[RegOffset(MODBUS_ZT1_RANK_FN_4_REG_ADD)] = (qint16)TKData.mRank;
}
else
{
CEngLog::instance()->AddLogString("Erreur de logique. ModbusTkTransport::SendTKToCC() -> FNIndex > 3");
}
FNIndex++;
break;
}
case DETECTION_PG_DETECTION:
{
if(PGIndex == 0)
{
FlagsReg |= ZT1_PG_FLAG_MASK_1;
DataBuf[RegOffset(MODBUS_ZT1_RANK_PG_1_REG_ADD)] = (qint16)TKData.mRank;
}
else if(PGIndex == 1)
{
FlagsReg |= ZT1_PG_FLAG_MASK_2;
DataBuf[RegOffset(MODBUS_ZT1_RANK_PG_2_REG_ADD)] = (qint16)TKData.mRank;
}
else if(PGIndex == 2)
{
FlagsReg |= ZT1_PG_FLAG_MASK_3;
DataBuf[RegOffset(MODBUS_ZT1_RANK_PG_3_REG_ADD)] = (qint16)TKData.mRank;
}
else if(PGIndex == 3)
{
FlagsReg |= ZT1_PG_FLAG_MASK_4;
DataBuf[RegOffset(MODBUS_ZT1_RANK_PG_4_REG_ADD)] = (qint16)TKData.mRank;
}
else
{
CEngLog::instance()->AddLogString("Erreur de logique. ModbusTkTransport::SendTKToCC() -> PGIndex > 3");
}
PGIndex++;
break;
}
case DETECTION_PPI_DETECTION:
{
if(PPIntIndex == 0)
{
FlagsReg |= ZT1_PP_INT_FLAG_MASK_1;
DataBuf[RegOffset(MODBUS_ZT1_RANK_PP_INT_1_REG_ADD)] = (qint16)TKData.mRank;
}
else if(PPIntIndex == 1)
{
FlagsReg |= ZT1_PP_INT_FLAG_MASK_2;
DataBuf[RegOffset(MODBUS_ZT1_RANK_PP_INT_2_REG_ADD)] = (qint16)TKData.mRank;
}
else if(PPIntIndex == 2)
{
FlagsReg |= ZT1_PP_INT_FLAG_MASK_3;
DataBuf[RegOffset(MODBUS_ZT1_RANK_PP_INT_3_REG_ADD)] = (qint16)TKData.mRank;
}
else if(PPIntIndex == 3)
{
FlagsReg |= ZT1_PP_INT_FLAG_MASK_4;
DataBuf[RegOffset(MODBUS_ZT1_RANK_PP_INT_4_REG_ADD)] = (qint16)TKData.mRank;
}
else
{
CEngLog::instance()->AddLogString("Erreur de logique. ModbusTkTransport::SendTKToCC() -> PPIntIndex ZT1 > 3");
}
PPIntIndex++;
break;
}
case DETECTION_PPE_DETECTION:
{
if(PPExtIndex == 0)
{
FlagsReg |= ZT1_PP_EXT_FLAG_MASK_1;
DataBuf[RegOffset(MODBUS_ZT1_RANK_PP_EXT_1_REG_ADD)] = (qint16)TKData.mRank;
}
else if(PPExtIndex == 1)
{
FlagsReg |= ZT1_PP_EXT_FLAG_MASK_1;
DataBuf[RegOffset(MODBUS_ZT1_RANK_PP_EXT_2_REG_ADD)] = (qint16)TKData.mRank;
}
else if(PPExtIndex == 2)
{
FlagsReg |= ZT1_PP_EXT_FLAG_MASK_1;
DataBuf[RegOffset(MODBUS_ZT1_RANK_PP_EXT_3_REG_ADD)] = (qint16)TKData.mRank;
}
else if(PPExtIndex == 3)
{
FlagsReg |= ZT1_PP_EXT_FLAG_MASK_1;
DataBuf[RegOffset(MODBUS_ZT1_RANK_PP_EXT_4_REG_ADD)] = (qint16)TKData.mRank;
}
else
{
CEngLog::instance()->AddLogString("Erreur de logique. ModbusTkTransport::SendTKToCC() -> PPExtIndex ZT1 > 3");
}
PPExtIndex++;
break;
}
case DETECTION_PEQ1_DETECTION:
{
PannesReg |= ZT1_PEQ1_ALARM_FLAG_MASK;
break;
}
}
}
//Update the modbus repo to send the alarms...
DataBuf[RegOffset(MODBUS_ZT1_ALARM_DATA_BASE_REG_ADD)] = FlagsReg;
DataBuf[RegOffset(MODBUS_MISC_DATA_BASE_REG_ADD)] = PannesReg;
mModbusRepo->WriteMultipleRegs(MODBUS_ZT_DATA_BASE_REG,DataBuf);
}
else if(ZT == ZT2_TYPE_ID)
{
int PPIntIndex = 0, PPExtIndex = 0;
qint16 FlagsReg = 0;
qint16 PannesReg;
QList<qint16> DataBuf;
//Get a local buffer of the repo...
bool OK;
DataBuf = mModbusRepo->GetRegs(MODBUS_ZT_DATA_BASE_REG,MODBUS_ZT_TABLE_DATA_SIZE,&OK);
if(OK == false)
{
CEngLog::instance()->AddLogString("Erreur de logique. ModbusTkTransport::SendTKToCC() ZT2 -> Lecture repository invalide.");
}
PannesReg = DataBuf.at(RegOffset(MODBUS_MISC_DATA_BASE_REG_ADD));
for(int i = 0; i < mZT1TKDataList.size(); i++)
{
CZTDetectionData TKData = mZT1TKDataList.at(i);
switch(TKData.mDetectionID)
{
case DETECTION_PEQ2_DETECTION:
{
PannesReg |= ZT2_PEQ2_ALARM_FLAG_MASK;
break;
}
case DETECTION_ZT2_MAGNETIC_SENSOR_COUNT:
{
PannesReg |= ZT2_V02_ALARM_FLAG_MASK;
break;
}
case DETECTION_ZT2_PPI_DETECTION:
{
if(PPIntIndex == 0)
{
FlagsReg |= ZT2_PP_INT_FLAG_MASK_1;
DataBuf[RegOffset(MODBUS_ZT2_RANK_PP_INT_1_REG_ADD)] = (qint16)TKData.mRank;
}
else if(PPIntIndex == 1)
{
FlagsReg |= ZT2_PP_INT_FLAG_MASK_2;
DataBuf[RegOffset(MODBUS_ZT2_RANK_PP_INT_2_REG_ADD)] = (qint16)TKData.mRank;
}
else if(PPIntIndex == 2)
{
FlagsReg |= ZT2_PP_INT_FLAG_MASK_3;
DataBuf[RegOffset(MODBUS_ZT2_RANK_PP_INT_3_REG_ADD)] = (qint16)TKData.mRank;
}
else if(PPIntIndex == 3)
{
FlagsReg |= ZT2_PP_INT_FLAG_MASK_4;
DataBuf[RegOffset(MODBUS_ZT2_RANK_PP_INT_4_REG_ADD)] = (qint16)TKData.mRank;
}
else
{
CEngLog::instance()->AddLogString("Erreur de logique. ModbusTkTransport::SendTKToCC() -> PPIntIndex ZT2 > 3");
}
PPIntIndex++;
break;
}
case DETECTION_ZT2_PPE_DETECTION:
{
if(PPExtIndex == 0)
{
FlagsReg |= ZT2_PP_EXT_FLAG_MASK_1;
DataBuf[RegOffset(MODBUS_ZT2_RANK_PP_EXT_1_REG_ADD)] = (qint16)TKData.mRank;
}
else if(PPExtIndex == 1)
{
FlagsReg |= ZT2_PP_EXT_FLAG_MASK_1;
DataBuf[RegOffset(MODBUS_ZT2_RANK_PP_EXT_2_REG_ADD)] = (qint16)TKData.mRank;
}
else if(PPExtIndex == 2)
{
FlagsReg |= ZT2_PP_EXT_FLAG_MASK_1;
DataBuf[RegOffset(MODBUS_ZT2_RANK_PP_EXT_3_REG_ADD)] = (qint16)TKData.mRank;
}
else if(PPExtIndex == 3)
{
FlagsReg |= ZT2_PP_EXT_FLAG_MASK_1;
DataBuf[RegOffset(MODBUS_ZT2_RANK_PP_EXT_4_REG_ADD)] = (qint16)TKData.mRank;
}
else
{
CEngLog::instance()->AddLogString("Erreur de logique. ModbusTkTransport::SendTKToCC() -> PPExtIndex ZT2 > 3");
}
PPExtIndex++;
break;
}
}
}
//Update the modbus repo to send the alarms...
DataBuf[RegOffset(MODBUS_ZT2_ALARM_RANKS_BASE_ADD)] = FlagsReg;
DataBuf[RegOffset(MODBUS_MISC_DATA_BASE_REG_ADD)] = PannesReg;
mModbusRepo->WriteMultipleRegs(MODBUS_ZT_DATA_BASE_REG,DataBuf);
}
else
{
CEngLog::instance()->AddLogString("Erreur de logique. ModbusTkTransport::SendTKToCC() -> Index de ZT invalide!!!");
return RET_ERROR;
}
return RET_OK;
}
bool CModbusTKTransport::IsZT2TKProcessing()
{
if(mModbusTKZT2SMState != MODBUS_ZT2_TK_STANDBY_STATE)
{
return true;
}
return false;
}
bool CModbusTKTransport::IsZT1TKProcessing()
{
if(mModbusTKZT1SMState != MODBUS_ZT1_TK_STANDBY_STATE)
{
return true;
}
return false;
}
bool CModbusTKTransport::IsTKProcessing()
{
if(IsZT1TKProcessing() || IsZT2TKProcessing())
return true;
return false;
}
int CModbusTKTransport::AddNewZT1Detection(CZTDetectionData Detection)
{
mZT1TKDataList.append(Detection);
return RET_OK;
}
int CModbusTKTransport::AddNewZT2Detection(CZTDetectionData Detection)
{
mZT2TKDataList.append(Detection);
return RET_OK;
}
unsigned int CModbusTKTransport::BeginTKEmission()
{
if(mZT1TKDataList.size() > 0)
{
if(GetDetectionConfig()->mZTDetectionConfig[DETECTION_FCT_ZT1].TKActive == false)
{
mZT1TKDataList.clear();
}
else if(mModbusTKZT1SMState == MODBUS_ZT1_TK_STANDBY_STATE)
{
mModbusTKZT1SMState = MODBUS_ZT1_TK_SHOW_STATE;
mZT1TKStateMachineTimer->start(0);
}
}
if(mZT2TKDataList.size() > 0)
{
if(GetDetectionConfig()->mZTDetectionConfig[DETECTION_FCT_ZT2].TKActive == false)
{
mZT2TKDataList.clear();
}
else if(mModbusTKZT2SMState == MODBUS_ZT2_TK_STANDBY_STATE)
{
mModbusTKZT2SMState = MODBUS_ZT2_TK_SHOW_STATE;
mZT2TKStateMachineTimer->start(0);
}
}
return RET_OK;
}
unsigned int CModbusTKTransport::SetInputStates(bool AN1State, bool ZT1CDVState, bool AN2State, bool ZT2CDVState)
{
Q_UNUSED(AN2State)
Q_UNUSED(AN1State)
mZT1CDVState = ZT1CDVState;
mZT2CDVState = ZT2CDVState;
return RET_OK;
}
unsigned int CModbusTKTransport::CancelAllTK()
{
return RET_OK;
}
unsigned int CModbusTKTransport::CancelMaintenanceCurrentTK()
{
return RET_OK;
}
unsigned int CModbusTKTransport::ExitMaintenance()
{
mMaintenanceMode = false;
mForceZT1Clear = false;
mForceZT2Clear = false;
CancelAllTK();
return RET_OK;
}
unsigned int CModbusTKTransport::EnterMaintenance()
{
if(IsTKProcessing())
{
return RET_ERROR;
}
CancelAllTK();
mMaintenanceMode = true;
mForceZT1Clear = false;
mForceZT2Clear = false;
return RET_OK;
}
void CModbusTKTransport::ExecZT1SM()
{
switch(mModbusTKZT1SMState)
{
case MODBUS_ZT1_TK_SHOW_STATE:
{
SendTKToCC(ZT1_TYPE_ID); //Mise à jour de la table Modbus avec les données des alarmes actives.
mModbusTKZT1SMState = MODBUS_ZT1_TK_WAIT_FOR_CLEAR_STATE;
CZTLog::instance()->AddLogString("Émission des alarmes PCC",true);
for(int i = 0; i < mZT1TKDataList.size(); i++)
{
LogTK(mZT1TKDataList.at(i));
}
if(mMaintenanceMode)
{
emit TKOutputStatesChanged(true,false);
}
break;
}
case MODBUS_ZT1_TK_WAIT_FOR_CLEAR_STATE:
{
if(mZT1Clear == true || (mMaintenanceMode == true && mForceZT1Clear == true))
{
ClearTK(ZT1_TYPE_ID); //Remise à zéro des données d'alarmes dans la table modbus.
mModbusTKZT1SMState = MODBUS_ZT1_TK_STANDBY_STATE;
if(mMaintenanceMode == true)
{
if(mForceZT1Clear == true)
{
mForceZT1Clear = false;
CZTLog::instance()->AddLogString("Acquitement manuel de la TK ZT1",true);
}
else
{
CZTLog::instance()->AddLogString("Acquitement ZTC ou FCYCLE détectée",true);
}
emit TKOutputStatesChanged(false,false);
}
else
{
CZTLog::instance()->AddLogString("Acquitement ZTC ou FCYCLE détectée",true);
}
}
else if(mZT1CDVState == false && mMaintenanceMode == false)
{
//The train has left... clear the alarms...
CZTLog::instance()->AddLogString("Libération du CDV de quai ZT1. Acquitement automatique des alarmes ZT1 au PCC",true);
ClearTK(ZT1_TYPE_ID);
mModbusTKZT1SMState = MODBUS_ZT1_TK_STANDBY_STATE;
}
break;
}
case MODBUS_ZT1_TK_STANDBY_STATE:
{
mZT1TKDataList.clear();
mZT1TKStateMachineTimer->stop();
//In maintenance mode, it is possible to have ZT2 events at the same time
//than ZT1. So if any ZT2 events are waiting in the qeue, send them...
if(mMaintenanceMode)
{
if(mZT2TKDataList.size() > 0)
{
BeginTKEmission();
}
}
break;
}
}
}
void CModbusTKTransport::ExecZT2SM()
{
switch(mModbusTKZT2SMState)
{
case MODBUS_ZT2_TK_SHOW_STATE:
{
SendTKToCC(ZT2_TYPE_ID); //Mise à jour de la table Modbus avec les données des alarmes actives.
mModbusTKZT1SMState = MODBUS_ZT2_TK_WAIT_FOR_CLEAR_STATE;
CZTLog::instance()->AddLogString("Émission des alarmes PCC",true);
for(int i = 0; i < mZT2TKDataList.size(); i++)
{
LogTK(mZT2TKDataList.at(i));
}
if(mMaintenanceMode)
{
emit TKOutputStatesChanged(false,true);
}
break;
}
case MODBUS_ZT2_TK_WAIT_FOR_CLEAR_STATE:
{
if(mZT2Clear == true || (mMaintenanceMode == true && mForceZT2Clear == true))
{
ClearTK(ZT2_TYPE_ID); //Remise à zéro des données d'alarmes dans la table modbus.
mModbusTKZT2SMState = MODBUS_ZT2_TK_STANDBY_STATE;
if(mMaintenanceMode == true)
{
if(mForceZT2Clear == true)
{
mForceZT2Clear = false;
CZTLog::instance()->AddLogString("Acquitement manuel de la TK ZT2",true);
}
else
{
CZTLog::instance()->AddLogString("Acquitement ZTC ou FCYCLE détectée",true);
}
emit TKOutputStatesChanged(false,false);
}
else
{
CZTLog::instance()->AddLogString("Acquitement ZTC ou FCYCLE détectée",true);
}
}
else if(mZT2CDVState == false && mMaintenanceMode == false)
{
//The train has left... clear the alarms...
CZTLog::instance()->AddLogString("Libération du CDV de quai ZT2. Acquitement automatique des alarmes ZT2 au PCC",true);
ClearTK(ZT2_TYPE_ID);
mModbusTKZT1SMState = MODBUS_ZT2_TK_STANDBY_STATE;
}
break;
}
case MODBUS_ZT2_TK_STANDBY_STATE:
{
mZT2TKDataList.clear();
mZT2TKStateMachineTimer->stop();
//In maintenance mode, it is possible to have ZT1 events at the same time
//than ZT2. So if any ZT1 events are waiting in the qeue, send them...
if(mMaintenanceMode)
{
if(mZT1TKDataList.size() > 0)
{
BeginTKEmission();
}
}
break;
}
}
}
void CModbusTKTransport::ModbusCCUpdated()
{
qint16 ClearReg = mModbusRepo->GetSingleReg(MODBUS_CC_AN_BASE_REG_ADD);
mZT1Clear = (ClearReg & (MODBUS_CC_FCYCLE_ZT1_FLAG_MASK | MODBUS_CC_ZTC_ZT1_FLAG_MASK)) != 0;
mZT2Clear = (ClearReg & (MODBUS_CC_FCYCLE_ZT2_FLAG_MASK | MODBUS_CC_ZTC_ZT2_FLAG_MASK)) != 0;
}
+63
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@@ -0,0 +1,63 @@
#ifndef MODBUSTKTRANSPORT_H
#define MODBUSTKTRANSPORT_H
#include "TKTransportInterface.h"
#include "ModbusRepository.h"
#include <QTimer>
#include "ModbusCCDefs.h"
class CModbusTKTransport : public CTKTransportInterface
{
public:
enum eModbusTKSMStates
{
MODBUS_ZT1_TK_STANDBY_STATE,
MODBUS_ZT1_TK_SHOW_STATE,
MODBUS_ZT1_TK_WAIT_FOR_CLEAR_STATE,
MODBUS_ZT2_TK_STANDBY_STATE,
MODBUS_ZT2_TK_SHOW_STATE,
MODBUS_ZT2_TK_WAIT_FOR_CLEAR_STATE
};
CModbusTKTransport(CModbusRepository *Repo);
~CModbusTKTransport();
int SendTKToCC(int ZT);
int ClearTK(int ZT);
virtual bool IsZT2TKProcessing();
virtual bool IsZT1TKProcessing();
virtual bool IsTKProcessing();
virtual int AddNewZT1Detection(CZTDetectionData Detection);
virtual int AddNewZT2Detection(CZTDetectionData Detection);
virtual unsigned int BeginTKEmission();
virtual unsigned int SetInputStates(bool AN1State, bool ZT1CDVState, bool AN2State, bool ZT2CDVState);
virtual unsigned int CancelAllTK();
virtual unsigned int CancelMaintenanceCurrentTK();
virtual unsigned int ExitMaintenance();
virtual unsigned int EnterMaintenance();
private:
CModbusRepository *mModbusRepo;
QList<CZTDetectionData> mZT1TKDataList,mZT2TKDataList;
bool mZT1CDVState, mZT2CDVState;
bool mMaintenanceMode, mForceZT1Clear, mForceZT2Clear;
int mModbusTKZT1SMState,mModbusTKZT2SMState;
QTimer *mZT1TKStateMachineTimer, *mZT2TKStateMachineTimer;
bool mZT1Clear, mZT2Clear;
int RegOffset(qint16 Reg){return (int)Reg-MODBUS_ZT_DATA_BASE_REG;}
public slots:
void ExecZT1SM();
void ExecZT2SM();
void ModbusCCUpdated();
};
#endif // MODBUSTKTRANSPORT_H