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辅机参数功能重构

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wangxx1809 2024-04-12 15:51:41 +08:00
parent 8e304f87e3
commit 02f8764bf8
24 changed files with 930 additions and 476 deletions
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2
PrintC/DataManage/RWData.h
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@ -30,9 +30,11 @@ enum DATATYPE {
iFLOAT
};
struct Item {
std::string nameKey; //参数key
std::string strValue; //value
//bool isOutPut; //是否只读 false:只读
DATATYPE valueType; //数据类型
};

1
PrintC/config/bean/IOCfg.h
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@ -1770,6 +1770,7 @@ public:
keyStr = it->nameKey;
if (m_IOCfgMap.find(keyStr) != m_IOCfgMap.end() && it->valueType == iBOOL) {
m_IOCfgMap[keyStr]->m_IsActive = (bool)atoi(it->strValue.c_str());
//m_IOCfgMap[keyStr]->m_IsOutput = it->isOutPut;
}
++it;
}

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PrintC/output/Release/log/2024.hbd
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45
PrintS/Communication/BaseClient.cpp
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@ -1,7 +1,7 @@
#include "BaseClient.h"
#include "BaseClient.h"
#include "S7Command.h"
#include "../global.h"
#include "../Config/ConfigManager.h"
BaseClient::BaseClient()
:m_Thread(INVALID_HANDLE_VALUE)
@ -33,8 +33,18 @@ BaseClient::~BaseClient()
pcommand = NULL;
m_CycleCommands.pop_back();
}
EnterCriticalSection(&m_ValueCS);
for (auto item = m_baseMp.begin(); item != m_baseMp.end(); ++item) {
delete item->second;
}
m_baseMp.clear();
LeaveCriticalSection(&m_ValueCS);
DeleteCriticalSection(&m_ValueCS);
DeleteCriticalSection(&m_RtcCS);
}
void BaseClient::Startup()
@ -116,6 +126,33 @@ void BaseClient::UpdateCycleCommands()
}
}
void BaseClient::InsertMp(void* startPtr, size_t count) {
size_t ptrSize = sizeof(nullptr); //指针大小
for (int i = 0; i < count; ++i) {
BaseData* bd = *((BaseData**)((char*)startPtr + ptrSize * i));
if (m_baseMp.find(bd->GetCode()) != m_baseMp.end()) {
printf("%s is repeated...\n", bd->GetCode().data());
}
else { m_baseMp.insert(make_pair(bd->GetCode(), bd)); }
}
}
void BaseClient::SendToClients() {
string valStr = "";
DATATYPE dataType;
list<Item> its;
EnterCriticalSection(&m_ValueCS);
auto baseItem = m_baseMp.begin();
while (baseItem != m_baseMp.end()) {
its.emplace_back(Item{ baseItem->first,baseItem->second->GetValueStr(),baseItem->second->GetDataType() });
++baseItem;
}
ClientWrapper::Instance()->PushAllClient(new WriteData(SYSPARAMDATA, its));
LeaveCriticalSection(&m_ValueCS);
}
S7Client::S7Client(CommunicationCfg* pconfig)
:m_S7Client(nullptr)
@ -458,6 +495,8 @@ TcpClient::TcpClient(CommunicationCfg* pconfig, int freq)
TcpClient::~TcpClient()
{
Shutdown();
}
void TcpClient::Init()
@ -604,3 +643,5 @@ void TcpClient::Shutdown()
if (m_Client.IsOpen())m_Client.Close();
}

10
PrintS/Communication/BaseClient.h
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@ -9,6 +9,9 @@
#include <queue>
#include <list>
#include "ConnectInterface.h"
#include "BaseData.h"
#include <unordered_map>
class BaseStat {
public:
@ -45,6 +48,7 @@ public:
virtual bool IsComConnected() { return m_BaseStat.isConnected; }
void ClearCycleCommand();
void SendToClients();
protected:
virtual void InitCommand() = 0;
virtual unsigned int GetInterval() { return 600; }
@ -63,6 +67,7 @@ protected:
virtual void CycleBegin() {};
void InsertMp(void* startPtr, size_t count);
protected:
HANDLE m_Thread;
@ -75,6 +80,8 @@ protected:
//CSocketHandle m_Client;
uint64_t m_LastCycleTickcount;
BaseStat m_BaseStat;
unordered_map<std::string, BaseData*> m_baseMp;
};
class S7Client :public BaseClient
@ -160,10 +167,13 @@ private:
virtual void ReadTimeoutProc(Command* pcommand);
virtual void ReadSuccessProc(int rlength, unsigned char* buffer, Command* pcommand);
unsigned int GetInterval() { return m_Config->m_Interval; }
protected:
CSocketHandle m_Client;
CommunicationCfg* m_Config;
int m_Freq;
int m_ReadTimeout;
int m_WriteTimeout;
};

165
PrintS/Communication/BaseData.h Normal file
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@ -0,0 +1,165 @@
#pragma once
#include <string>
#include "../DataManage/RWData.h"
class BaseData {
public:
BaseData(const std::string& code,const std::string& context):m_code(code),m_context(context){}
virtual ~BaseData() {}
virtual void SetValue(float f) {}
virtual void SetValue(int i) {}
virtual void SetValue(unsigned short us) {}
virtual void SetValue(short s) {}
virtual void SetValue(bool b) {}
//virtual void GetValue(DATATYPE& dataType, float& f) {}
//virtual void GetValue(DATATYPE& dataType, int& i) {}
//virtual void GetValue(DATATYPE& dataType, unsigned short& us) {}
//virtual void GetValue(DATATYPE& dataType, short& s) {}
//virtual void GetValue(DATATYPE& dataType, bool& b) {}
std::string GetCode() { return m_code; }
virtual std::string GetValueStr() { return ""; }
virtual DATATYPE GetDataType() { return UNKNOW; }
private:
std::string m_code; //key编码
std::string m_context; //中文内容
};
class FloatData : public BaseData {
public:
FloatData(const std::string& code, const std::string& context/*, float val*/)
: BaseData(code, context), m_value(0.0f) {
//if (m_baseMp.find(code) != m_baseMp.end()) {
// printf("%s is repeated...", code.c_str());
//}
//else {
// m_baseMp.insert(make_pair(code, this));
//}
}
~FloatData() {}
void SetValue(float f) { m_value = f; }
//void GetValue(DATATYPE& dataType, float& f) { dataType = iFLOAT; f = m_value; }
DATATYPE GetDataType() { return iFLOAT; }
float GetValue() { return m_value; }
virtual std::string GetValueStr() { return to_string(m_value); }
private:
float m_value;
};
class IntData : public BaseData {
public:
IntData(const std::string& code, const std::string& context/*, int val*/)
: BaseData(code, context), m_value(0) {
//if (m_baseMp.find(code) != m_baseMp.end()) {
// printf("%s is repeated...", code.c_str());
//}
//else {
// m_baseMp.insert(make_pair(code, this));
//}
}
~IntData() {}
void SetValue(int i) { m_value = i; }
//void GetValue(DATATYPE& dataType,int& i) { dataType = iINT; i = m_value; }
DATATYPE GetDataTypeI() { return iINT; }
int GetValue() { return m_value; }
virtual std::string GetValueStr() { return to_string(m_value); }
private:
int m_value;
};
class ShortData : public BaseData {
public:
ShortData(const std::string& code, const std::string& context/*, short val*/)
: BaseData(code, context), m_value(0) {
//if (m_baseMp.find(code) != m_baseMp.end()) {
// printf("%s is repeated...", code.c_str());
//}
//else {
// m_baseMp.insert(make_pair(code, this));
//}
}
~ShortData() {}
void SetValue(short s) { m_value = s; }
//void GetValue(DATATYPE& dataType, short& s) { dataType = iSHORT; s = m_value; }
DATATYPE GetDataType() { return iSHORT; }
short GetValue() { return m_value; }
virtual std::string GetValueStr() { return to_string(m_value); }
private:
short m_value;
};
class UShortData : public BaseData {
public:
UShortData(const std::string& code, const std::string& context/*, unsigned short val*/)
: BaseData(code, context), m_value(0) {
//if (m_baseMp.find(code) != m_baseMp.end()) {
// printf("%s is repeated...", code.c_str());
//}
//else {
// m_baseMp.insert(make_pair(code, this));
//}
}
~UShortData() {}
void SetValue(unsigned short us) { m_value = us; }
//void GetValue(DATATYPE& dataType, unsigned short& us) { dataType = iUSHORT; us = m_value; }
DATATYPE GetDataType() { return iUSHORT; }
unsigned short GetValue() { return m_value; }
virtual std::string GetValueStr() { return to_string(m_value); }
private:
unsigned short m_value;
};
class BoolData : public BaseData {
public:
BoolData(const std::string& code, const std::string& context/*, bool val*/)
: BaseData(code, context), m_value(0) {
//if (m_baseMp.find(code) != m_baseMp.end()) {
// printf("%s is repeated...", code.c_str());
//}
//else {
// m_baseMp.insert(make_pair(code, this));
//}
}
~BoolData() {}
void SetValue(bool b) { m_value = b; }
//string GetValueStr() { return to_string(m_value); }
DATATYPE GetDataType() { return iBOOL; }
bool GetValue() { return m_value; }
virtual std::string GetValueStr() { return to_string(m_value); }
private:
bool m_value;
};
class UcharData : public BaseData {
public:
UcharData(const std::string& code, const std::string& context/*, bool val*/)
: BaseData(code, context), m_value(0) {
//if (m_baseMp.find(code) != m_baseMp.end()) {
// printf("%s is repeated...", code.c_str());
//}
//else {
// m_baseMp.insert(make_pair(code, this));
//}
}
~UcharData() {}
void SetValue(UCHAR uc) { m_value = uc; }
//void GetValue(DATATYPE& dataType, UCHAR& uc) { dataType = iUCHAR; uc = m_value; }
DATATYPE GetDataType() { return iUCHAR; }
UCHAR GetValue() { return m_value; }
virtual std::string GetValueStr() { return to_string(m_value); }
private:
UCHAR m_value;
};

372
PrintS/Communication/ChillerClient.cpp
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@ -8,8 +8,22 @@ ChillerClient::ChillerClient(CommunicationCfg* pconfig,int* tp) :TcpClient(pconf
{
m_Freq = 150;
m_Type = tp;
}
size_t ptrSize = sizeof(nullptr); //指针大小
void* startPtr = &m_DoluyoChillerStat.m_startFlag + 1;
size_t count = ((size_t)&m_DoluyoChillerStat.m_endFlag - (size_t)&startPtr) / ptrSize;
InsertMp(startPtr, count);
startPtr = &m_HansChillerstat.m_startFlag + 1;
count = ((size_t)&m_HansChillerstat.m_endFlag - (size_t)&startPtr) / ptrSize;
InsertMp(startPtr, count);
startPtr = &m_TongFeiStat.m_startFlag + 1;
count = ((size_t)&m_TongFeiStat.m_endFlag - (size_t)&startPtr) / ptrSize;
InsertMp(startPtr, count);
}
ChillerClient::~ChillerClient()
{
@ -112,15 +126,15 @@ void ChillerClient::ProcDoluyoInfo(void* pobject, Command* pcommand)
//pDlc->m_ValueMutex.lock();
EnterCriticalSection(&pDlc->m_ValueCS);
pDlc->m_DoluyoChillerStat.tempRealtimeValue = (float)watertempValue / 10.0f;
pDlc->m_DoluyoChillerStat.runInfo = runinfo;
pDlc->m_DoluyoChillerStat.m_tempRealtimeValue->SetValue((float)watertempValue / 10.0f);
pDlc->m_DoluyoChillerStat.m_runInfo->SetValue(runinfo);
switch (runs) {
case 0:pDlc->m_DoluyoChillerStat.isRun = false; break;
case 1:pDlc->m_DoluyoChillerStat.isRun = true; break;
case 2:pDlc->m_DoluyoChillerStat.isRun = false; break;
case 0:pDlc->m_DoluyoChillerStat.m_isRun->SetValue(false); break;
case 1:pDlc->m_DoluyoChillerStat.m_isRun->SetValue(true); break;
case 2:pDlc->m_DoluyoChillerStat.m_isRun->SetValue(false); break;
}
pDlc->m_DoluyoChillerStat.alarmInfo = alarminfo;
pDlc->m_DoluyoChillerStat.isLevelAlarm= ((levelalarm == 0) ? false : true);
pDlc->m_DoluyoChillerStat.m_alarmInfo->SetValue(alarminfo);
pDlc->m_DoluyoChillerStat.m_isLevelAlarm->SetValue(((levelalarm == 0) ? false : true));
//stat->tempSettingValue = (float)tempSetValue / 10.0f;
LeaveCriticalSection(&pDlc->m_ValueCS);
}
@ -135,7 +149,7 @@ void ChillerClient::ProcDoluyoReadTargeValue(void* pobject, Command* pcommand)
//unsigned char* rseq = pcommand->m_RespSeq;
short tempValue = (((rseq[3] & 0xff) << 8) + (rseq[4] & 0xff));
EnterCriticalSection(&pDlc->m_ValueCS);
pDlc->m_DoluyoChillerStat.tempSettingValue = (float)tempValue / 10.0f;
pDlc->m_DoluyoChillerStat.m_tempSettingValue->SetValue((float)tempValue / 10.0f);
LeaveCriticalSection(&pDlc->m_ValueCS);
}
@ -152,110 +166,110 @@ void ChillerClient::ProcDoluyoSettingValue(void* pobject, Command* pcommand)
}
void ChillerClient::GetDoluyoStat(DoluyoChillerstat& stat1)
{
EnterCriticalSection(&m_ValueCS);
stat1.baseStat = m_BaseStat;
stat1.alarmInfo = m_DoluyoChillerStat.alarmInfo;
stat1.isRun = m_DoluyoChillerStat.isRun;
stat1.runInfo = m_DoluyoChillerStat.runInfo;
stat1.tempRealtimeValue = m_DoluyoChillerStat.tempRealtimeValue;
stat1.tempSettingValue = m_DoluyoChillerStat.tempSettingValue;
stat1.isLevelAlarm = m_DoluyoChillerStat.isLevelAlarm;
LeaveCriticalSection(&m_ValueCS);
}
//void ChillerClient::GetDoluyoStat(DoluyoChillerstat& stat1)
//{
// EnterCriticalSection(&m_ValueCS);
// stat1.baseStat = m_BaseStat;
// stat1.alarmInfo = m_DoluyoChillerStat.alarmInfo;
// stat1.isRun = m_DoluyoChillerStat.isRun;
// stat1.runInfo = m_DoluyoChillerStat.runInfo;
// stat1.tempRealtimeValue = m_DoluyoChillerStat.tempRealtimeValue;
// stat1.tempSettingValue = m_DoluyoChillerStat.tempSettingValue;
// stat1.isLevelAlarm = m_DoluyoChillerStat.isLevelAlarm;
// LeaveCriticalSection(&m_ValueCS);
//}
void ChillerClient::GetHansStat(HansChillerstat& stat)
{
EnterCriticalSection(&m_ValueCS);
/*stat.baseStat = m_BaseStat;
stat.alarmInfo = m_Stat.alarmInfo;
stat.isRun = m_Stat.isRun;
stat.runInfo = m_Stat.runInfo;
stat.tempRealtimeValue = m_Stat.tempRealtimeValue;
stat.tempSettingValue = m_Stat.tempSettingValue;
stat.isLevelAlarm = m_Stat.isLevelAlarm;*/
stat.baseStat = m_BaseStat;
stat.m_WaterOutTemp = m_HansChillerstat.m_WaterOutTemp;
stat.m_Flow = m_HansChillerstat.m_Flow;
stat.m_SettingTemp = m_HansChillerstat.m_SettingTemp;
stat.m_RunIndicate = m_HansChillerstat.m_RunIndicate;
stat.m_WorkIndicate = m_HansChillerstat.m_WorkIndicate;
stat.m_CompressorIndicate = m_HansChillerstat.m_CompressorIndicate;
stat.m_WaterPumpIndicate = m_HansChillerstat.m_WaterPumpIndicate;
stat.m_HeaterIndicate = m_HansChillerstat.m_HeaterIndicate;
stat.m_FanIndicate = m_HansChillerstat.m_FanIndicate;
stat.m_SolenoidValveIndicate = m_HansChillerstat.m_SolenoidValveIndicate;
stat.m_LowTempErrorIndicate = m_HansChillerstat.m_LowTempErrorIndicate;
stat.m_TempUndulateIndicate = m_HansChillerstat.m_TempUndulateIndicate;
stat.m_HeaterExceptionIndicate = m_HansChillerstat.m_HeaterExceptionIndicate;
stat.m_IOSignalIndicate = m_HansChillerstat.m_IOSignalIndicate;
stat.m_IsAlarm = m_HansChillerstat.m_IsAlarm;
stat.m_FlowAlarm = m_HansChillerstat.m_FlowAlarm;
stat.m_TempAlarm = m_HansChillerstat.m_TempAlarm;
stat.m_PressureAlarm = m_HansChillerstat.m_PressureAlarm;
stat.m_WaterLevelAlarm = m_HansChillerstat.m_WaterLevelAlarm;
stat.m_TempSensorAlarm = m_HansChillerstat.m_TempSensorAlarm;
stat.m_SolenoidValveAlarm = m_HansChillerstat.m_SolenoidValveAlarm;
stat.m_PhaseSeqAlarm = m_HansChillerstat.m_PhaseSeqAlarm;
stat.m_CompressorStartFreqAlarm = m_HansChillerstat.m_CompressorStartFreqAlarm;
stat.m_IO0Alarm = m_HansChillerstat.m_IO0Alarm;
stat.m_IO1Alarm = m_HansChillerstat.m_IO1Alarm;
stat.m_IO2Alarm = m_HansChillerstat.m_IO2Alarm;
stat.m_IO3Alarm = m_HansChillerstat.m_IO3Alarm;
stat.m_IO4Alarm = m_HansChillerstat.m_IO4Alarm;
LeaveCriticalSection(&m_ValueCS);
}
//void ChillerClient::GetHansStat(HansChillerstat& stat)
//{
// EnterCriticalSection(&m_ValueCS);
// /*stat.baseStat = m_BaseStat;
// stat.alarmInfo = m_Stat.alarmInfo;
// stat.isRun = m_Stat.isRun;
// stat.runInfo = m_Stat.runInfo;
// stat.tempRealtimeValue = m_Stat.tempRealtimeValue;
// stat.tempSettingValue = m_Stat.tempSettingValue;
// stat.isLevelAlarm = m_Stat.isLevelAlarm;*/
// stat.baseStat = m_BaseStat;
// stat.m_WaterOutTemp = m_HansChillerstat.m_WaterOutTemp;
// stat.m_Flow = m_HansChillerstat.m_Flow;
// stat.m_SettingTemp = m_HansChillerstat.m_SettingTemp;
// stat.m_RunIndicate = m_HansChillerstat.m_RunIndicate;
// stat.m_WorkIndicate = m_HansChillerstat.m_WorkIndicate;
// stat.m_CompressorIndicate = m_HansChillerstat.m_CompressorIndicate;
// stat.m_WaterPumpIndicate = m_HansChillerstat.m_WaterPumpIndicate;
// stat.m_HeaterIndicate = m_HansChillerstat.m_HeaterIndicate;
// stat.m_FanIndicate = m_HansChillerstat.m_FanIndicate;
// stat.m_SolenoidValveIndicate = m_HansChillerstat.m_SolenoidValveIndicate;
// stat.m_LowTempErrorIndicate = m_HansChillerstat.m_LowTempErrorIndicate;
// stat.m_TempUndulateIndicate = m_HansChillerstat.m_TempUndulateIndicate;
// stat.m_HeaterExceptionIndicate = m_HansChillerstat.m_HeaterExceptionIndicate;
// stat.m_IOSignalIndicate = m_HansChillerstat.m_IOSignalIndicate;
// stat.m_IsAlarm = m_HansChillerstat.m_IsAlarm;
// stat.m_FlowAlarm = m_HansChillerstat.m_FlowAlarm;
// stat.m_TempAlarm = m_HansChillerstat.m_TempAlarm;
// stat.m_PressureAlarm = m_HansChillerstat.m_PressureAlarm;
// stat.m_WaterLevelAlarm = m_HansChillerstat.m_WaterLevelAlarm;
// stat.m_TempSensorAlarm = m_HansChillerstat.m_TempSensorAlarm;
// stat.m_SolenoidValveAlarm = m_HansChillerstat.m_SolenoidValveAlarm;
// stat.m_PhaseSeqAlarm = m_HansChillerstat.m_PhaseSeqAlarm;
// stat.m_CompressorStartFreqAlarm = m_HansChillerstat.m_CompressorStartFreqAlarm;
// stat.m_IO0Alarm = m_HansChillerstat.m_IO0Alarm;
// stat.m_IO1Alarm = m_HansChillerstat.m_IO1Alarm;
// stat.m_IO2Alarm = m_HansChillerstat.m_IO2Alarm;
// stat.m_IO3Alarm = m_HansChillerstat.m_IO3Alarm;
// stat.m_IO4Alarm = m_HansChillerstat.m_IO4Alarm;
// LeaveCriticalSection(&m_ValueCS);
//}
void ChillerClient::GetTongFeiStat(TongFeiStat& stat)
{
EnterCriticalSection(&m_ValueCS);
stat.m_BaseStat = m_BaseStat;
stat.m_IsLowVoltageAlarm = m_TongFeiStat.m_IsLowVoltageAlarm;
stat.m_IsHydraulicFailure = m_TongFeiStat.m_IsHydraulicFailure;
stat.m_IsLevelFailure = m_TongFeiStat.m_IsLevelFailure;
stat.m_IsLiquidPumpAlarm = m_TongFeiStat.m_IsLiquidPumpAlarm;
stat.m_IsPressAlarm = m_TongFeiStat.m_IsPressAlarm;
stat.m_IsElectricHeatingFailure = m_TongFeiStat.m_IsElectricHeatingFailure;
stat.m_IsAntifreezeAlarm = m_TongFeiStat.m_IsAntifreezeAlarm;
stat.m_IsLiquidTempTooHigh = m_TongFeiStat.m_IsLiquidTempTooHigh;
stat.m_IsLiquidTempProbeFailure = m_TongFeiStat.m_IsLiquidTempProbeFailure;
stat.m_IsEffluentTempProbeFailure = m_TongFeiStat.m_IsEffluentTempProbeFailure;
stat.m_IsAmbientTempProbeFailure = m_TongFeiStat.m_IsAmbientTempProbeFailure;
stat.m_IsCondensationTempProbeFailure = m_TongFeiStat.m_IsCondensationTempProbeFailure;
stat.m_IsEvaporationInletTempProbeFailure = m_TongFeiStat.m_IsEvaporationInletTempProbeFailure;
stat.m_IsEvaporationOutletTempProbeFailure = m_TongFeiStat.m_IsEvaporationOutletTempProbeFailure;
stat.m_IsCondensationTempTooHigh = m_TongFeiStat.m_IsCondensationTempTooHigh;
stat.m_IsPhaseOrderError = m_TongFeiStat.m_IsPhaseOrderError;
stat.m_IsPowerFailure = m_TongFeiStat.m_IsPowerFailure;
stat.m_IsCompressorFailure = m_TongFeiStat.m_IsCompressorFailure;
stat.m_IsAmbientTempTooHigh = m_TongFeiStat.m_IsAmbientTempTooHigh;
stat.m_IsAmbientTempException = m_TongFeiStat.m_IsAmbientTempException;
stat.m_AlarmState = m_TongFeiStat.m_AlarmState;
stat.m_RoomTempSettingValue = m_TongFeiStat.m_RoomTempSettingValue;
stat.m_ConstantTempSettingValue = m_TongFeiStat.m_ConstantTempSettingValue;
stat.m_WorkMode = m_TongFeiStat.m_WorkMode;
stat.m_RefrigerationMethod = m_TongFeiStat.m_RefrigerationMethod;
stat.m_LiquidAlarmTemp = m_TongFeiStat.m_LiquidAlarmTemp;
stat.m_UnitStatus = m_TongFeiStat.m_UnitStatus;
stat.m_LiquidTempProbe = m_TongFeiStat.m_LiquidTempProbe;
stat.m_EffluentTempProbe = m_TongFeiStat.m_EffluentTempProbe;
stat.m_AmbientTempProbe = m_TongFeiStat.m_AmbientTempProbe;
stat.m_CondensationTempProbe = m_TongFeiStat.m_CondensationTempProbe;
stat.m_EvaporationInletTempProbe = m_TongFeiStat.m_EvaporationInletTempProbe;
stat.m_EvaporationOutletTempProbe = m_TongFeiStat.m_EvaporationOutletTempProbe;
stat.m_WorkingFrequency = m_TongFeiStat.m_WorkingFrequency;
stat.m_OverHeatingValue = m_TongFeiStat.m_OverHeatingValue;
stat.m_EEV1 = m_TongFeiStat.m_EEV1;
stat.m_EEV2 = m_TongFeiStat.m_EEV2;
stat.m_CondensingFanRatio = m_TongFeiStat.m_CondensingFanRatio;
stat.m_ElectricHeatingRatio = m_TongFeiStat.m_ElectricHeatingRatio;
stat.m_FlowRate = m_TongFeiStat.m_FlowRate;
LeaveCriticalSection(&m_ValueCS);
}
//void ChillerClient::GetTongFeiStat(TongFeiStat& stat)
//{
// EnterCriticalSection(&m_ValueCS);
// stat.m_BaseStat = m_BaseStat;
// stat.m_IsLowVoltageAlarm = m_TongFeiStat.m_IsLowVoltageAlarm;
// stat.m_IsHydraulicFailure = m_TongFeiStat.m_IsHydraulicFailure;
// stat.m_IsLevelFailure = m_TongFeiStat.m_IsLevelFailure;
// stat.m_IsLiquidPumpAlarm = m_TongFeiStat.m_IsLiquidPumpAlarm;
// stat.m_IsPressAlarm = m_TongFeiStat.m_IsPressAlarm;
// stat.m_IsElectricHeatingFailure = m_TongFeiStat.m_IsElectricHeatingFailure;
// stat.m_IsAntifreezeAlarm = m_TongFeiStat.m_IsAntifreezeAlarm;
// stat.m_IsLiquidTempTooHigh = m_TongFeiStat.m_IsLiquidTempTooHigh;
// stat.m_IsLiquidTempProbeFailure = m_TongFeiStat.m_IsLiquidTempProbeFailure;
// stat.m_IsEffluentTempProbeFailure = m_TongFeiStat.m_IsEffluentTempProbeFailure;
// stat.m_IsAmbientTempProbeFailure = m_TongFeiStat.m_IsAmbientTempProbeFailure;
// stat.m_IsCondensationTempProbeFailure = m_TongFeiStat.m_IsCondensationTempProbeFailure;
// stat.m_IsEvaporationInletTempProbeFailure = m_TongFeiStat.m_IsEvaporationInletTempProbeFailure;
// stat.m_IsEvaporationOutletTempProbeFailure = m_TongFeiStat.m_IsEvaporationOutletTempProbeFailure;
// stat.m_IsCondensationTempTooHigh = m_TongFeiStat.m_IsCondensationTempTooHigh;
// stat.m_IsPhaseOrderError = m_TongFeiStat.m_IsPhaseOrderError;
// stat.m_IsPowerFailure = m_TongFeiStat.m_IsPowerFailure;
// stat.m_IsCompressorFailure = m_TongFeiStat.m_IsCompressorFailure;
// stat.m_IsAmbientTempTooHigh = m_TongFeiStat.m_IsAmbientTempTooHigh;
// stat.m_IsAmbientTempException = m_TongFeiStat.m_IsAmbientTempException;
//
// stat.m_AlarmState = m_TongFeiStat.m_AlarmState;
// stat.m_RoomTempSettingValue = m_TongFeiStat.m_RoomTempSettingValue;
// stat.m_ConstantTempSettingValue = m_TongFeiStat.m_ConstantTempSettingValue;
// stat.m_WorkMode = m_TongFeiStat.m_WorkMode;
// stat.m_RefrigerationMethod = m_TongFeiStat.m_RefrigerationMethod;
// stat.m_LiquidAlarmTemp = m_TongFeiStat.m_LiquidAlarmTemp;
// stat.m_UnitStatus = m_TongFeiStat.m_UnitStatus;
//
// stat.m_LiquidTempProbe = m_TongFeiStat.m_LiquidTempProbe;
// stat.m_EffluentTempProbe = m_TongFeiStat.m_EffluentTempProbe;
// stat.m_AmbientTempProbe = m_TongFeiStat.m_AmbientTempProbe;
// stat.m_CondensationTempProbe = m_TongFeiStat.m_CondensationTempProbe;
// stat.m_EvaporationInletTempProbe = m_TongFeiStat.m_EvaporationInletTempProbe;
// stat.m_EvaporationOutletTempProbe = m_TongFeiStat.m_EvaporationOutletTempProbe;
//
// stat.m_WorkingFrequency = m_TongFeiStat.m_WorkingFrequency;
// stat.m_OverHeatingValue = m_TongFeiStat.m_OverHeatingValue;
// stat.m_EEV1 = m_TongFeiStat.m_EEV1;
// stat.m_EEV2 = m_TongFeiStat.m_EEV2;
// stat.m_CondensingFanRatio = m_TongFeiStat.m_CondensingFanRatio;
// stat.m_ElectricHeatingRatio = m_TongFeiStat.m_ElectricHeatingRatio;
// stat.m_FlowRate = m_TongFeiStat.m_FlowRate;
// LeaveCriticalSection(&m_ValueCS);
//}
void ChillerClient::ProcHansInfo(void* pobject, Command* pcommand)
{
@ -271,35 +285,35 @@ void ChillerClient::ProcHansInfo(void* pobject, Command* pcommand)
float settingTemp = (float)(((rseq[33] & 0xff) << 8) + (rseq[34] & 0xff)) / 10.0f;
EnterCriticalSection(&pDlc->m_ValueCS);
pDlc->m_HansChillerstat.m_WaterOutTemp = waterOutTemp;
pDlc->m_HansChillerstat.m_Flow = flow;
pDlc->m_HansChillerstat.m_SettingTemp = settingTemp;
pDlc->m_HansChillerstat.m_RunIndicate = (state1 & 0x01) ? true : false; //运行指示
pDlc->m_HansChillerstat.m_WorkIndicate = (state1 & 0x02) ? true : false; //工作正常指示
pDlc->m_HansChillerstat.m_IsAlarm = (state1 & 0x04) ? true : false; //报警
pDlc->m_HansChillerstat.m_CompressorIndicate = (state1 & 0x08) ? true : false; //压缩机指示
pDlc->m_HansChillerstat.m_WaterPumpIndicate = (state1 & 0x10) ? true : false; //水泵指示
pDlc->m_HansChillerstat.m_HeaterIndicate = (state1 & 0x20) ? true : false; //加热器指示
pDlc->m_HansChillerstat.m_FanIndicate = (state1 & 0x40) ? true : false; //风机指示
pDlc->m_HansChillerstat.m_SolenoidValveIndicate = (state1 & 0x80) ? true : false; //电磁阀指示
pDlc->m_HansChillerstat.m_FlowAlarm = (state1 & 0x100) ? true : false; //流量报警
pDlc->m_HansChillerstat.m_TempAlarm = (state1 & 0x200) ? true : false; //温度报警
pDlc->m_HansChillerstat.m_PressureAlarm = (state1 & 0x400) ? true : false; //压力报警
pDlc->m_HansChillerstat.m_WaterLevelAlarm = (state1 & 0x800) ? true : false; //液位报警
pDlc->m_HansChillerstat.m_LowTempErrorIndicate = (state1 & 0x1000) ? true : false; //低温错误指示
pDlc->m_HansChillerstat.m_TempUndulateIndicate = (state1 & 0x2000) ? true : false; //温度波动指示
pDlc->m_HansChillerstat.m_WaterOutTemp->SetValue(waterOutTemp);
pDlc->m_HansChillerstat.m_Flow->SetValue(flow);
pDlc->m_HansChillerstat.m_SettingTemp->SetValue(settingTemp);
pDlc->m_HansChillerstat.m_RunIndicate->SetValue((state1 & 0x01) ? true : false); //运行指示
pDlc->m_HansChillerstat.m_WorkIndicate->SetValue((state1 & 0x02) ? true : false); //工作正常指示
pDlc->m_HansChillerstat.m_IsAlarm->SetValue((state1 & 0x04) ? true : false); //报警
pDlc->m_HansChillerstat.m_CompressorIndicate->SetValue((state1 & 0x08) ? true : false); //压缩机指示
pDlc->m_HansChillerstat.m_WaterPumpIndicate->SetValue((state1 & 0x10) ? true : false); //水泵指示
pDlc->m_HansChillerstat.m_HeaterIndicate->SetValue((state1 & 0x20) ? true : false); //加热器指示
pDlc->m_HansChillerstat.m_FanIndicate->SetValue((state1 & 0x40) ? true : false); //风机指示
pDlc->m_HansChillerstat.m_SolenoidValveIndicate->SetValue((state1 & 0x80) ? true : false); //电磁阀指示
pDlc->m_HansChillerstat.m_FlowAlarm->SetValue((state1 & 0x100) ? true : false); //流量报警
pDlc->m_HansChillerstat.m_TempAlarm->SetValue((state1 & 0x200) ? true : false); //温度报警
pDlc->m_HansChillerstat.m_PressureAlarm->SetValue((state1 & 0x400) ? true : false); //压力报警
pDlc->m_HansChillerstat.m_WaterLevelAlarm->SetValue((state1 & 0x800) ? true : false); //液位报警
pDlc->m_HansChillerstat.m_LowTempErrorIndicate->SetValue((state1 & 0x1000) ? true : false); //低温错误指示
pDlc->m_HansChillerstat.m_TempUndulateIndicate->SetValue((state1 & 0x2000) ? true : false); //温度波动指示
pDlc->m_HansChillerstat.m_TempSensorAlarm = (state2 & 0x01) ? true : false; //温度传感器故障报警
pDlc->m_HansChillerstat.m_SolenoidValveAlarm = (state2 & 0x02) ? true : false; //电磁阀故障报警
pDlc->m_HansChillerstat.m_HeaterExceptionIndicate = (state2 & 0x04) ? true : false; //加热器异常指示
pDlc->m_HansChillerstat.m_IOSignalIndicate = (state2 & 0x08) ? true : false; //IO信号指示
pDlc->m_HansChillerstat.m_PhaseSeqAlarm = (state2 & 0x10) ? true : false; //相序报警
pDlc->m_HansChillerstat.m_CompressorStartFreqAlarm = (state2 & 0x20) ? true : false; //压缩机起动频繁报警
pDlc->m_HansChillerstat.m_IO0Alarm = (state2 & 0x100) ? true : false; //IO0错误报警
pDlc->m_HansChillerstat.m_IO1Alarm = (state2 & 0x200) ? true : false; //IO0错误报警
pDlc->m_HansChillerstat.m_IO2Alarm = (state2 & 0x400) ? true : false; //IO0错误报警
pDlc->m_HansChillerstat.m_IO3Alarm = (state2 & 0x800) ? true : false; //IO0错误报警
pDlc->m_HansChillerstat.m_IO4Alarm = (state2 & 0x1000) ? true : false; //IO0错误报警
pDlc->m_HansChillerstat.m_TempSensorAlarm->SetValue((state2 & 0x01) ? true : false); //温度传感器故障报警
pDlc->m_HansChillerstat.m_SolenoidValveAlarm->SetValue((state2 & 0x02) ? true : false); //电磁阀故障报警
pDlc->m_HansChillerstat.m_HeaterExceptionIndicate->SetValue((state2 & 0x04) ? true : false); //加热器异常指示
pDlc->m_HansChillerstat.m_IOSignalIndicate->SetValue((state2 & 0x08) ? true : false); //IO信号指示
pDlc->m_HansChillerstat.m_PhaseSeqAlarm->SetValue((state2 & 0x10) ? true : false); //相序报警
pDlc->m_HansChillerstat.m_CompressorStartFreqAlarm->SetValue((state2 & 0x20) ? true : false); //压缩机起动频繁报警
pDlc->m_HansChillerstat.m_IO0Alarm->SetValue((state2 & 0x100) ? true : false); //IO0错误报警
pDlc->m_HansChillerstat.m_IO1Alarm->SetValue((state2 & 0x200) ? true : false); //IO0错误报警
pDlc->m_HansChillerstat.m_IO2Alarm->SetValue((state2 & 0x400) ? true : false); //IO0错误报警
pDlc->m_HansChillerstat.m_IO3Alarm->SetValue((state2 & 0x800) ? true : false); //IO0错误报警
pDlc->m_HansChillerstat.m_IO4Alarm->SetValue((state2 & 0x1000) ? true : false); //IO0错误报警
LeaveCriticalSection(&pDlc->m_ValueCS);
//g_SystemInfo->LockInfo();
@ -601,28 +615,28 @@ void ChillerClient::ProcTongfeiAlarmInputInfo(void* pobject, Command* pcommand)
bitset<8> arr2(rseq[4]);
bitset<8> arr3(rseq[5]);
EnterCriticalSection(&cc->m_ValueCS);
cc->m_TongFeiStat.m_IsLowVoltageAlarm = arr1[0];
cc->m_TongFeiStat.m_IsHydraulicFailure = arr1[1];
cc->m_TongFeiStat.m_IsLevelFailure = arr1[2];
cc->m_TongFeiStat.m_IsLiquidPumpAlarm = arr1[3];
cc->m_TongFeiStat.m_IsPressAlarm = arr1[4];
cc->m_TongFeiStat.m_IsElectricHeatingFailure = arr1[5];
cc->m_TongFeiStat.m_IsAntifreezeAlarm = arr1[6];
cc->m_TongFeiStat.m_IsLiquidTempTooHigh = arr1[7];
cc->m_TongFeiStat.m_IsLowVoltageAlarm->SetValue(arr1[0]);
cc->m_TongFeiStat.m_IsHydraulicFailure->SetValue(arr1[1]);
cc->m_TongFeiStat.m_IsLevelFailure->SetValue(arr1[2]);
cc->m_TongFeiStat.m_IsLiquidPumpAlarm->SetValue(arr1[3]);
cc->m_TongFeiStat.m_IsPressAlarm->SetValue(arr1[4]);
cc->m_TongFeiStat.m_IsElectricHeatingFailure->SetValue(arr1[5]);
cc->m_TongFeiStat.m_IsAntifreezeAlarm->SetValue(arr1[6]);
cc->m_TongFeiStat.m_IsLiquidTempTooHigh->SetValue(arr1[7]);
cc->m_TongFeiStat.m_IsLiquidTempProbeFailure = arr2[0];
cc->m_TongFeiStat.m_IsEffluentTempProbeFailure = arr2[1];
cc->m_TongFeiStat.m_IsAmbientTempProbeFailure = arr2[2];
cc->m_TongFeiStat.m_IsCondensationTempProbeFailure = arr2[3];
cc->m_TongFeiStat.m_IsEvaporationInletTempProbeFailure = arr2[4];
cc->m_TongFeiStat.m_IsEvaporationOutletTempProbeFailure = arr2[5];
cc->m_TongFeiStat.m_IsCondensationTempTooHigh = arr2[6];
cc->m_TongFeiStat.m_IsPhaseOrderError = arr2[7];
cc->m_TongFeiStat.m_IsLiquidTempProbeFailure->SetValue(arr2[0]);
cc->m_TongFeiStat.m_IsEffluentTempProbeFailure->SetValue(arr2[1]);
cc->m_TongFeiStat.m_IsAmbientTempProbeFailure->SetValue(arr2[2]);
cc->m_TongFeiStat.m_IsCondensationTempProbeFailure->SetValue(arr2[3]);
cc->m_TongFeiStat.m_IsEvaporationInletTempProbeFailure->SetValue(arr2[4]);
cc->m_TongFeiStat.m_IsEvaporationOutletTempProbeFailure->SetValue(arr2[5]);
cc->m_TongFeiStat.m_IsCondensationTempTooHigh->SetValue(arr2[6]);
cc->m_TongFeiStat.m_IsPhaseOrderError->SetValue(arr2[7]);
cc->m_TongFeiStat.m_IsPowerFailure = arr3[0];
cc->m_TongFeiStat.m_IsCompressorFailure = arr3[1];
cc->m_TongFeiStat.m_IsAmbientTempTooHigh = arr3[2];
cc->m_TongFeiStat.m_IsAmbientTempException = arr3[3];
cc->m_TongFeiStat.m_IsPowerFailure->SetValue(arr3[0]);
cc->m_TongFeiStat.m_IsCompressorFailure->SetValue(arr3[1]);
cc->m_TongFeiStat.m_IsAmbientTempTooHigh->SetValue(arr3[2]);
cc->m_TongFeiStat.m_IsAmbientTempException->SetValue(arr3[3]);
LeaveCriticalSection(&cc->m_ValueCS);
}
@ -634,7 +648,7 @@ void ChillerClient::ProcTongfeiAlarmStateInfo(void* pobject, Command* pcommand)
short state1 = (((rseq[3] & 0xff) << 8) + (rseq[4] & 0xff));
EnterCriticalSection(&cc->m_ValueCS);
cc->m_TongFeiStat.m_AlarmState = state1;
cc->m_TongFeiStat.m_AlarmState->SetValue(state1);
LeaveCriticalSection(&cc->m_ValueCS);
}
@ -651,11 +665,11 @@ void ChillerClient::ProcTongfeiUserParamsInfo(void* pobject, Command* pcommand)
short liquidAlarmTemp = (((rseq[11] & 0xff) << 8) + (rseq[12] & 0xff));
EnterCriticalSection(&cc->m_ValueCS);
cc->m_TongFeiStat.m_RoomTempSettingValue = (float)roomTempSettingValue/10.0f;
cc->m_TongFeiStat.m_ConstantTempSettingValue = (float)constantTempSettingValue / 10.0f;
cc->m_TongFeiStat.m_WorkMode = workMode;
cc->m_TongFeiStat.m_RefrigerationMethod = refrigerationMethod;
cc->m_TongFeiStat.m_LiquidAlarmTemp = (float)liquidAlarmTemp / 10.0f;
cc->m_TongFeiStat.m_RoomTempSettingValue->SetValue((float)roomTempSettingValue/10.0f);
cc->m_TongFeiStat.m_ConstantTempSettingValue->SetValue((float)constantTempSettingValue / 10.0f);
cc->m_TongFeiStat.m_WorkMode->SetValue((int)workMode);
cc->m_TongFeiStat.m_RefrigerationMethod->SetValue(refrigerationMethod);
cc->m_TongFeiStat.m_LiquidAlarmTemp->SetValue((float)liquidAlarmTemp / 10.0f);
LeaveCriticalSection(&cc->m_ValueCS);
}
void ChillerClient::ProcTongfeiAnaShowInfo(void* pobject, Command* pcommand)
@ -673,13 +687,13 @@ void ChillerClient::ProcTongfeiAnaShowInfo(void* pobject, Command* pcommand)
short unitStatus = (((rseq[19] & 0xff) << 8) + (rseq[20] & 0xff));
EnterCriticalSection(&cc->m_ValueCS);
cc->m_TongFeiStat.m_LiquidTempProbe = (float)liquidTempProbe/10.0f;
cc->m_TongFeiStat.m_EffluentTempProbe = (float)effluentTempProbe / 10.0f;
cc->m_TongFeiStat.m_AmbientTempProbe = (float)ambientTempProbe / 10.0f;
cc->m_TongFeiStat.m_CondensationTempProbe = (float)condensationTempProbe / 10.0f;
cc->m_TongFeiStat.m_EvaporationInletTempProbe = (float)evaporationInletTempProbe / 10.0f;
cc->m_TongFeiStat.m_EvaporationOutletTempProbe = (float)evaporationOutletTempProbe / 10.0f;
cc->m_TongFeiStat.m_UnitStatus = unitStatus;
cc->m_TongFeiStat.m_LiquidTempProbe->SetValue((float)liquidTempProbe/10.0f);
cc->m_TongFeiStat.m_EffluentTempProbe->SetValue((float)effluentTempProbe / 10.0f);
cc->m_TongFeiStat.m_AmbientTempProbe->SetValue((float)ambientTempProbe / 10.0f);
cc->m_TongFeiStat.m_CondensationTempProbe->SetValue((float)condensationTempProbe / 10.0f);
cc->m_TongFeiStat.m_EvaporationInletTempProbe->SetValue((float)evaporationInletTempProbe / 10.0f);
cc->m_TongFeiStat.m_EvaporationOutletTempProbe->SetValue((float)evaporationOutletTempProbe / 10.0f);
cc->m_TongFeiStat.m_UnitStatus->SetValue(unitStatus);
LeaveCriticalSection(&cc->m_ValueCS);
}
@ -695,10 +709,10 @@ void ChillerClient::ProcTongfeiAnaShowInfo2(void* pobject, Command* pcommand)
short EEV2 = (((rseq[9] & 0xff) << 8) + (rseq[10] & 0xff));
EnterCriticalSection(&cc->m_ValueCS);
cc->m_TongFeiStat.m_WorkingFrequency = (float)WorkingFrequency / 10.0f;
cc->m_TongFeiStat.m_OverHeatingValue = (float)OverHeatingValue / 10.0f;
cc->m_TongFeiStat.m_EEV1 = (float)EEV1/10.0f;
cc->m_TongFeiStat.m_EEV2 = (float)EEV2/10.0f;
cc->m_TongFeiStat.m_WorkingFrequency->SetValue((float)WorkingFrequency / 10.0f);
cc->m_TongFeiStat.m_OverHeatingValue->SetValue((float)OverHeatingValue / 10.0f);
cc->m_TongFeiStat.m_EEV1->SetValue((float)EEV1/10.0f);
cc->m_TongFeiStat.m_EEV2->SetValue((float)EEV2/10.0f);
LeaveCriticalSection(&cc->m_ValueCS);
}
@ -713,8 +727,8 @@ void ChillerClient::ProcTongfeianaShowInfo3(void* pobject, Command* pcommand)
short FlowRate = (((rseq[11] & 0xff) << 8) + (rseq[12] & 0xff));
EnterCriticalSection(&cc->m_ValueCS);
cc->m_TongFeiStat.m_CondensingFanRatio = (float)CondensingFanRatio / 10.0f;
cc->m_TongFeiStat.m_ElectricHeatingRatio = (float)ElectricHeatingRatio / 10.0f;
cc->m_TongFeiStat.m_FlowRate = (float)FlowRate/10.0f;
cc->m_TongFeiStat.m_CondensingFanRatio->SetValue((float)CondensingFanRatio / 10.0f);
cc->m_TongFeiStat.m_ElectricHeatingRatio->SetValue((float)ElectricHeatingRatio / 10.0f);
cc->m_TongFeiStat.m_FlowRate->SetValue((float)FlowRate/10.0f);
LeaveCriticalSection(&cc->m_ValueCS);
}

273
PrintS/Communication/ChillerClient.h
View File

@ -2,22 +2,30 @@
#include "BaseClient.h"
#include "../config/ConfigManager.h"
#include "../LanguageManager.h"
#include <unordered_map>
#pragma pack(1)
class DoluyoChillerstat
{
public:
explicit DoluyoChillerstat() {
tempRealtimeValue = 0;
runInfo = 0;
isRun = false;
alarmInfo = 0;
tempSettingValue = 0;
isLevelAlarm = false;
explicit DoluyoChillerstat()
: m_tempRealtimeValue(new FloatData("tempRealtimeValue",u8"水箱温度"))
, m_runInfo(new UShortData("runInfo",u8"水箱温度"))
, m_isRun(new BoolData("isRun","水箱温度"))
, m_alarmInfo(new UShortData("alarmInfo","水箱温度"))
, m_tempSettingValue(new FloatData("tempSettingValue","水箱温度"))
, m_isLevelAlarm(new BoolData("isLevelAlarm","水箱温度")){
//tempRealtimeValue = 0;
//runInfo = 0;
//isRun = false;
//alarmInfo = 0;
//tempSettingValue = 0;
//isLevelAlarm = false;
}
string GetRunInfo() {
string str = "";
switch (runInfo) {
switch (m_runInfo->GetValue()) {
case 0:str = _(u8"待机"); break;
case 2:str = _(u8"关机过程"); break;
case 4:str = _(u8"制冷运行"); break;
@ -29,7 +37,7 @@ public:
string GetAlarmInfo() {
string str = "";
switch (alarmInfo)
switch (m_alarmInfo->GetValue())
{
case 0:str = _(u8"无故障"); break;
case 1:str = _(u8"提示故障"); break;
@ -40,19 +48,58 @@ public:
public:
BaseStat baseStat;
float tempRealtimeValue; //水箱温度
unsigned short runInfo; //运行消息 0:待机 2:关机过程 4:制冷运行 5:制热运行 6:化霜运行
unsigned char isRun; //开关机
unsigned short alarmInfo; //故障消息 0:无故障 1:提示故障 2:停机故障
float tempSettingValue; //设定温度
bool isLevelAlarm; //液位报警
char m_startFlag; //成员变量开始标记
//float tempRealtimeValue; //水箱温度
FloatData* m_tempRealtimeValue; //水箱温度
//unsigned short runInfo; //运行消息 0:待机 2:关机过程 4:制冷运行 5:制热运行 6:化霜运行
UShortData* m_runInfo; //运行消息 0:待机 2:关机过程 4:制冷运行 5:制热运行 6:化霜运行
//bool isRun; //开关机
BoolData* m_isRun; //开关机
//unsigned short alarmInfo; //故障消息 0:无故障 1:提示故障 2:停机故障
UShortData* m_alarmInfo; //故障消息 0:无故障 1:提示故障 2:停机故障
//float tempSettingValue; //设定温度
FloatData* m_tempSettingValue; //设定温度
//bool isLevelAlarm; //液位报警
BoolData* m_isLevelAlarm; //液位报警
char m_endFlag; //成员变量结束标记
};
class HansChillerstat //冷水机
{
public:
HansChillerstat() {
m_WaterOutTemp=0.0f;
HansChillerstat()
: m_WaterOutTemp(new FloatData("WaterOutTemp", u8"出水温度"))
, m_Flow(new FloatData("Flow", u8"流量"))
, m_SettingTemp(new FloatData("SettingTemp", u8"设置温度"))
, m_RunIndicate(new BoolData("RunIndicate", u8"运行指示"))
, m_WorkIndicate(new BoolData("WorkIndicate", u8"工作正常指示"))
, m_IsAlarm(new BoolData("IsAlarm", u8"报警"))
, m_CompressorIndicate(new BoolData("CompressorIndicate", u8"压缩机指示"))
, m_WaterPumpIndicate(new BoolData("WaterPumpIndicate", u8"水泵指示"))
, m_HeaterIndicate(new BoolData("HeaterIndicate", u8"加热器指示"))
, m_FanIndicate(new BoolData("FanIndicate", u8"风机指示"))
, m_SolenoidValveIndicate(new BoolData("SolenoidValveIndicate", u8"电磁阀指示"))
, m_FlowAlarm(new BoolData("FlowAlarm", u8"流量报警"))
, m_TempAlarm(new BoolData("TempAlarm", u8"温度报警"))
, m_PressureAlarm(new BoolData("PressureAlarm", u8"压力报警"))
, m_WaterLevelAlarm(new BoolData("WaterLevelAlarm", u8"液位报警"))
, m_LowTempErrorIndicate(new BoolData("LowTempErrorIndicate", u8"低温错误指示"))
, m_TempUndulateIndicate(new BoolData("TempUndulateIndicate", u8"温度波动指示"))
, m_TempSensorAlarm(new BoolData("TempSensorAlarm", u8"温度传感器故障报警"))
, m_SolenoidValveAlarm(new BoolData("SolenoidValveAlarm", u8"电磁阀故障报警"))
, m_HeaterExceptionIndicate(new BoolData("HeaterExceptionIndicate", u8"加热器异常指示"))
, m_IOSignalIndicate(new BoolData("IOSignalIndicate", u8"IO信号指示"))
, m_PhaseSeqAlarm(new BoolData("PhaseSeqAlarm", u8"相序报警"))
, m_CompressorStartFreqAlarm(new BoolData("CompressorStartFreqAlarm", u8"压缩机起动频繁报警"))
, m_IO0Alarm(new BoolData("IO0Alarm", u8"IO0错误报警"))
, m_IO1Alarm(new BoolData("IO1Alarm", u8"IO1错误报警"))
, m_IO2Alarm(new BoolData("IO2Alarm", u8"IO2错误报警"))
, m_IO3Alarm(new BoolData("IO3Alarm", u8"IO3错误报警"))
, m_IO4Alarm(new BoolData("IO4Alarm", u8"IO4错误报警"))
{
/* m_WaterOutTemp=0.0f;
m_Flow=0.0f;
m_SettingTemp=0.0f;
@ -81,92 +128,144 @@ public:
m_IO1Alarm = false;
m_IO2Alarm = false;
m_IO3Alarm = false;
m_IO4Alarm = false;
m_IO4Alarm = false;*/
}
~HansChillerstat(){}
public:
BaseStat baseStat;
float m_WaterOutTemp; //出水温度
float m_Flow; //流量
float m_SettingTemp; //设置温度
char m_startFlag; //成员变量开始标记
bool m_RunIndicate; //运行指示
bool m_WorkIndicate; //工作正常指示
bool m_IsAlarm; //报警
bool m_CompressorIndicate; //压缩机指示
bool m_WaterPumpIndicate; //水泵指示
bool m_HeaterIndicate; //加热器指示
bool m_FanIndicate; //风机指示
bool m_SolenoidValveIndicate; //电磁阀指示
bool m_FlowAlarm; //流量报警
bool m_TempAlarm; //温度报警
bool m_PressureAlarm; //压力报警
bool m_WaterLevelAlarm; //液位报警
bool m_LowTempErrorIndicate; //低温错误指示
bool m_TempUndulateIndicate; //温度波动指示
FloatData* m_WaterOutTemp; //出水温度
FloatData* m_Flow; //流量
FloatData* m_SettingTemp; //设置温度
BoolData* m_RunIndicate; //运行指示
BoolData* m_WorkIndicate; //工作正常指示
BoolData* m_IsAlarm; //报警
BoolData* m_CompressorIndicate; //压缩机指示
BoolData* m_WaterPumpIndicate; //水泵指示
BoolData* m_HeaterIndicate; //加热器指示
bool m_TempSensorAlarm; //温度传感器故障报警
bool m_SolenoidValveAlarm; //电磁阀故障报警
bool m_HeaterExceptionIndicate; //加热器异常指示
bool m_IOSignalIndicate; //IO信号指示
bool m_PhaseSeqAlarm; //相序报警
bool m_CompressorStartFreqAlarm; //压缩机起动频繁报警
bool m_IO0Alarm; //IO0错误报警
bool m_IO1Alarm; //IO1错误报警
bool m_IO2Alarm; //IO2错误报警
bool m_IO3Alarm; //IO3错误报警
bool m_IO4Alarm; //IO4错误报警
BoolData* m_FanIndicate; //风机指示
BoolData* m_SolenoidValveIndicate; //电磁阀指示
BoolData* m_FlowAlarm; //流量报警
BoolData* m_TempAlarm; //温度报警
BoolData* m_PressureAlarm; //压力报警
BoolData* m_WaterLevelAlarm; //液位报警
BoolData* m_LowTempErrorIndicate; //低温错误指示
BoolData* m_TempUndulateIndicate; //温度波动指示
BoolData* m_TempSensorAlarm; //温度传感器故障报警
BoolData* m_SolenoidValveAlarm; //电磁阀故障报警
BoolData* m_HeaterExceptionIndicate; //加热器异常指示
BoolData* m_IOSignalIndicate; //IO信号指示
BoolData* m_PhaseSeqAlarm; //相序报警
BoolData* m_CompressorStartFreqAlarm; //压缩机起动频繁报警
BoolData* m_IO0Alarm; //IO0错误报警
BoolData* m_IO1Alarm; //IO1错误报警
BoolData* m_IO2Alarm; //IO2错误报警
BoolData* m_IO3Alarm; //IO3错误报警
BoolData* m_IO4Alarm; //IO4错误报警
char m_endFlag; //成员变量结束标记
};
class TongFeiStat {
public:
TongFeiStat()
: m_IsLowVoltageAlarm(new BoolData("IsLowVoltageAlarm", u8"低压报警"))
, m_IsHydraulicFailure(new BoolData("IsHydraulicFailure", u8"液路故障"))
, m_IsLevelFailure(new BoolData("IsLevelFailure", u8"液位故障"))
, m_IsLiquidPumpAlarm(new BoolData("IsLiquidPumpAlarm", u8"液泵热继电器报警"))
, m_IsPressAlarm(new BoolData("IsPressAlarm", u8"压机热继电器报警"))
, m_IsElectricHeatingFailure(new BoolData("IsElectricHeatingFailure", u8"电加热故障"))
, m_IsAntifreezeAlarm(new BoolData("IsAntifreezeAlarm", u8"防冻报警"))
, m_IsLiquidTempTooHigh(new BoolData("IsLiquidTempTooHigh", u8"液温太高"))
, m_IsLiquidTempProbeFailure(new BoolData("IsLiquidTempProbeFailure", u8"液温温度探头故障"))
, m_IsEffluentTempProbeFailure(new BoolData("IsEffluentTempProbeFailure", u8"出液温度探头故障"))
, m_IsAmbientTempProbeFailure(new BoolData("IsAmbientTempProbeFailure", u8"环境温度探头故障"))
, m_IsCondensationTempProbeFailure(new BoolData("IsCondensationTempProbeFailure", u8"冷凝温度探头故障"))
, m_IsEvaporationInletTempProbeFailure(new BoolData("IsEvaporationInletTempProbeFailure", u8"蒸发进口温度探头故障"))
, m_IsEvaporationOutletTempProbeFailure(new BoolData("IsEvaporationOutletTempProbeFailure", u8"蒸发出口温度探头故障"))
, m_IsCondensationTempTooHigh(new BoolData("IsCondensationTempTooHigh", u8"冷凝温度过高"))
, m_IsPhaseOrderError(new BoolData("IsPhaseOrderError", u8"相序错误"))
, m_IsPowerFailure(new BoolData("IsPowerFailure", u8"电源故障"))
, m_IsCompressorFailure(new BoolData("IsCompressorFailure", u8"压缩机故障"))
, m_IsAmbientTempTooHigh(new BoolData("IsAmbientTempTooHigh", u8"环境温度太高"))
, m_IsAmbientTempException(new BoolData("IsAmbientTempException", u8"环境温度异常"))
, m_AlarmState(new IntData("AlarmState", u8"故障状态"))
, m_RoomTempSettingValue(new FloatData("RoomTempSettingValue", u8"室温同调预设温度"))
, m_ConstantTempSettingValue(new FloatData("ConstantTempSettingValue", u8"恒温预设温度"))
, m_WorkMode(new IntData("WorkMode", u8"工作模式"))
, m_RefrigerationMethod(new IntData("RefrigerationMethod", u8"制冷方式"))
, m_LiquidAlarmTemp(new FloatData("LiquidAlarmTemp", u8"出液报警温度"))
, m_UnitStatus(new IntData("UnitStatus", u8"机组状态"))
, m_LiquidTempProbe(new FloatData("LiquidTempProbe", u8"液温温度探头"))
, m_EffluentTempProbe(new FloatData("EffluentTempProbe", u8"出液温度探头"))
, m_AmbientTempProbe(new FloatData("AmbientTempProbe", u8"环境温度探头"))
, m_CondensationTempProbe(new FloatData("CondensationTempProbe", u8"冷凝温度探头"))
, m_EvaporationInletTempProbe(new FloatData("EvaporationInletTempProbe", u8"蒸发进口温度探头"))
, m_EvaporationOutletTempProbe(new FloatData("EvaporationOutletTempProbe", u8"蒸发出口温度探头"))
, m_WorkingFrequency(new FloatData("WorkingFrequency", u8"运行频率"))
, m_OverHeatingValue(new FloatData("OverHeatingValue", u8"过热度"))
, m_EEV1(new FloatData("EEV1", u8"蒸发出口温度探头"))
, m_EEV2(new FloatData("EEV2", u8"蒸发出口温度探头"))
, m_CondensingFanRatio(new FloatData("CondensingFanRatio", u8"冷凝风机比例"))
, m_ElectricHeatingRatio(new FloatData("ElectricHeatingRatio", u8"电加热比例"))
, m_FlowRate(new FloatData("FlowRate", u8"流量"))
{
}
BaseStat m_BaseStat;
bool m_IsLowVoltageAlarm; //低压报警
bool m_IsHydraulicFailure; //液路故障
bool m_IsLevelFailure; //液位故障
bool m_IsLiquidPumpAlarm; //液泵热继电器报警
bool m_IsPressAlarm; //压机热继电器报警
bool m_IsElectricHeatingFailure; //电加热故障
bool m_IsAntifreezeAlarm; //防冻报警
bool m_IsLiquidTempTooHigh; //液温太高
bool m_IsLiquidTempProbeFailure; //液温温度探头故障
bool m_IsEffluentTempProbeFailure; //出液温度探头故障
bool m_IsAmbientTempProbeFailure; //环境温度探头故障
bool m_IsCondensationTempProbeFailure; //冷凝温度探头故障
bool m_IsEvaporationInletTempProbeFailure; //蒸发进口温度探头故障
bool m_IsEvaporationOutletTempProbeFailure; //蒸发出口温度探头故障
bool m_IsCondensationTempTooHigh; //冷凝温度过高
bool m_IsPhaseOrderError; //相序错误
bool m_IsPowerFailure; //电源故障
bool m_IsCompressorFailure; //压缩机故障
bool m_IsAmbientTempTooHigh; //环境温度太高
bool m_IsAmbientTempException; //环境温度异常
char m_startFlag; //成员变量开始标记
BoolData* m_IsLowVoltageAlarm; //低压报警
BoolData* m_IsHydraulicFailure; //液路故障
BoolData* m_IsLevelFailure; //液位故障
BoolData* m_IsLiquidPumpAlarm; //液泵热继电器报警
BoolData* m_IsPressAlarm; //压机热继电器报警
BoolData* m_IsElectricHeatingFailure; //电加热故障
BoolData* m_IsAntifreezeAlarm; //防冻报警
BoolData* m_IsLiquidTempTooHigh; //液温太高
BoolData* m_IsLiquidTempProbeFailure; //液温温度探头故障
BoolData* m_IsEffluentTempProbeFailure; //出液温度探头故障
BoolData* m_IsAmbientTempProbeFailure; //环境温度探头故障
BoolData* m_IsCondensationTempProbeFailure; //冷凝温度探头故障
BoolData* m_IsEvaporationInletTempProbeFailure; //蒸发进口温度探头故障
BoolData* m_IsEvaporationOutletTempProbeFailure; //蒸发出口温度探头故障
BoolData* m_IsCondensationTempTooHigh; //冷凝温度过高
BoolData* m_IsPhaseOrderError; //相序错误
BoolData* m_IsPowerFailure; //电源故障
BoolData* m_IsCompressorFailure; //压缩机故障
BoolData* m_IsAmbientTempTooHigh; //环境温度太高
BoolData* m_IsAmbientTempException; //环境温度异常
IntData* m_AlarmState; //故障状态
FloatData* m_RoomTempSettingValue; //室温同调预设温度
FloatData* m_ConstantTempSettingValue; //恒温预设温度
IntData* m_WorkMode; //工作模式
IntData* m_RefrigerationMethod; //制冷方式
FloatData* m_LiquidAlarmTemp; //出液报警温度
IntData* m_UnitStatus; //机组状态
FloatData* m_LiquidTempProbe; //液温温度探头
FloatData* m_EffluentTempProbe; //出液温度探头
FloatData* m_AmbientTempProbe; //环境温度探头
FloatData* m_CondensationTempProbe; //冷凝温度探头
FloatData* m_EvaporationInletTempProbe; //蒸发进口温度探头
FloatData* m_EvaporationOutletTempProbe; //蒸发出口温度探头
FloatData* m_WorkingFrequency; //运行频率
FloatData* m_OverHeatingValue; //过热度
FloatData* m_EEV1;
FloatData* m_EEV2;
FloatData* m_CondensingFanRatio; //冷凝风机比例
FloatData* m_ElectricHeatingRatio; //电加热比例
FloatData* m_FlowRate; //流量
int m_AlarmState; //故障状态
float m_RoomTempSettingValue; //室温同调预设温度
float m_ConstantTempSettingValue; //恒温预设温度
int m_WorkMode; //工作模式
int m_RefrigerationMethod; //制冷方式
float m_LiquidAlarmTemp; //出液报警温度
int m_UnitStatus; //机组状态
float m_LiquidTempProbe; //液温温度探头
float m_EffluentTempProbe; //出液温度探头
float m_AmbientTempProbe; //环境温度探头
float m_CondensationTempProbe; //冷凝温度探头
float m_EvaporationInletTempProbe; //蒸发进口温度探头
float m_EvaporationOutletTempProbe; //蒸发出口温度探头
float m_WorkingFrequency; //运行频率
float m_OverHeatingValue; //过热度
float m_EEV1;
float m_EEV2;
float m_CondensingFanRatio; //冷凝风机比例
float m_ElectricHeatingRatio; //电加热比例
float m_FlowRate; //流量
char m_endFlag; //成员变量开始标记
};
#pragma pack()
class ChillerClient:public TcpClient
{

108
PrintS/Communication/IPGLaserClient.h
View File

@ -1,4 +1,4 @@
#pragma once
#pragma once
#include "BaseClient.h"
#include "../config/bean/AlarmCfg.h"
class IPGLaserState {
@ -38,39 +38,40 @@ public:
}
public:
float currentSetpoint; //激光二极管电流设置
float laserTemperature; //内部实际温度
string outputPower; //输出功率W
int moduleErrorCode; //模块错误代码
bool isOverheat; //温度过热
bool isEmissionOn; //使能
bool isHighBackReflectionLevel; //高反报警
bool isExtCtrlEnable; //外部控制模式
bool isModuleDisconnected; //激光模块失连
bool isModuleAlarm; //激光模块故障
bool isAimingBeamON; //红光开
//bool isPulseTooShort; //脉冲宽度太小
//bool isPulseMode; //脉冲模式
bool isPowerSupplyOff; //模块主电源关闭
bool isModulationEnabled; //调制模式开启
bool isEmission; //激光发射
// bool isGateModeEnabled; //Gate模式开启
// bool isHighPulseEnergy; //脉冲能量太大
bool isExtEmissionCtrlEnabled; //外部Emission控制开启
bool isPowerSupplyFailure; //模块主电源故障
//bool isLockFrontPanel; //前显示面板锁定
//bool isKeyswitchInREMPosition; //钥匙开关REM位置
//bool isWaveformPulseModeEnabled;//波形脉冲模式开启
//bool isHighDutyCycle; //脉冲周期太长
bool isLowTemperature; //温度过低
bool isPowerSupplyVotageAlarm; //模块主电源电压超范围
bool isLeakageCurrentTooHigh; //漏电流过大
bool isExtRedLightCtrlEnabled; //外部红光控制开启
bool isCritialError; //关键错误
bool isOpticalInterlockActive; //光学回路安全互锁开路
//bool isAveragePowerTooHigh; //平均功率太高
float currentSetpoint; //激光二极管电流设置
float laserTemperature; //内部实际温度
string outputPower; //输出功率W
int moduleErrorCode; //模块错误代码
bool isOverheat; //温度过热
bool isEmissionOn; //使能
bool isHighBackReflectionLevel; //高反报警
bool isExtCtrlEnable; //外部控制模式
bool isModuleDisconnected; //激光模块失连
bool isModuleAlarm; //激光模块故障
bool isAimingBeamON; //红光开
//bool isPulseTooShort; //脉冲宽度太小
//bool isPulseMode; //脉冲模式
bool isPowerSupplyOff; //模块主电源关闭
bool isModulationEnabled; //调制模式开启
bool isEmission; //激光发射
// bool isGateModeEnabled; //Gate模式开启
// bool isHighPulseEnergy; //脉冲能量太大
bool isExtEmissionCtrlEnabled; //外部Emission控制开启
bool isPowerSupplyFailure; //模块主电源故障
//bool isLockFrontPanel; //前显示面板锁定
//bool isKeyswitchInREMPosition; //钥匙开关REM位置
//bool isWaveformPulseModeEnabled;//波形脉冲模式开启
//bool isHighDutyCycle; //脉冲周期太长
bool isLowTemperature; //温度过低
bool isPowerSupplyVotageAlarm; //模块主电源电压超范围
bool isLeakageCurrentTooHigh; //漏电流过大
bool isExtRedLightCtrlEnabled; //外部红光控制开启
bool isCritialError; //关键错误
bool isOpticalInterlockActive; //光学回路安全互锁开路
//bool isAveragePowerTooHigh; //平均功率太高
};
class IPGLaserClient:public TcpClient
{
public:
@ -121,29 +122,30 @@ public:
}
public:
float currentSetpoint; //激光二极管电流设置
float laserTemperature; //内部实际温度
string outputPower; //输出功率W
int moduleErrorCode; //模块错误代码
bool isCommandBufferOverload; //指令溢出
bool isOverheat; //温度过热
bool isEmissionOn; //使能
bool isHighBackReflectionLevel; //高反报警
bool isAnalogPowerControlEnable; //功率外控
bool isAimingBeamON; //红光开
bool isPowerSupplyOff; //模块主电源关闭
bool isModulationEnabled; //调制模式开启
bool isEmission; //激光发射
bool isGateModeEnable; //门模式开启
bool isHardwareEmissionCtrlEnabled; //硬控发射开启
bool isPowerSupplyFailure; //模块主电源故障
bool isLowTemperature; //温度过低
bool isPowerSupplyAlarm; //供电报警
bool isHardwareAimingBeanControlEnable; //硬控红光开启
bool isCritialError; //关键错误
bool isFiberInterlockActive; //光路内部锁定
float currentSetpoint; //激光二极管电流设置
float laserTemperature; //内部实际温度
string outputPower; //输出功率W
int moduleErrorCode; //模块错误代码
bool isCommandBufferOverload; //指令溢出
bool isOverheat; //温度过热
bool isEmissionOn; //使能
bool isHighBackReflectionLevel; //高反报警
bool isAnalogPowerControlEnable; //功率外控
bool isAimingBeamON; //红光开
bool isPowerSupplyOff; //模块主电源关闭
bool isModulationEnabled; //调制模式开启
bool isEmission; //激光发射
bool isGateModeEnable; //门模式开启
bool isHardwareEmissionCtrlEnabled; //硬控发射开启
bool isPowerSupplyFailure; //模块主电源故障
bool isLowTemperature; //温度过低
bool isPowerSupplyAlarm; //供电报警
bool isHardwareAimingBeanControlEnable; //硬控红光开启
bool isCritialError; //关键错误
bool isFiberInterlockActive; //光路内部锁定
};
class IPGLaserClientV1 :public TcpClient
{
public:

85
PrintS/Communication/TempCtrlClient.cpp
View File

@ -1,12 +1,19 @@
#include "TempCtrlClient.h"
#include "TempCtrlClient.h"
#include "Aibus.h"
#include <bitset>
#include "../SystemInfo.h"
//#include "../config/ConfigManager.h"
//#include "../global.h"
TempCtrlClient::TempCtrlClient(CommunicationCfg* pconfig):TcpClient(pconfig)
{
size_t ptrSize = sizeof(nullptr); //指针大小
void* startPtr = &m_Stat.m_startFlag + 1;
size_t count = ((size_t)&m_Stat.m_endFlag - (size_t)&startPtr) / ptrSize;
InsertMp(startPtr, count);
startPtr = &m_Stat.alarm.m_startFlag + 1;
count = ((size_t)&m_Stat.alarm.m_endFlag - (size_t)&startPtr) / ptrSize;
InsertMp(startPtr, count);
}
@ -28,7 +35,7 @@ void TempCtrlClient::InitCommand()
void TempCtrlClient::SetTargeValue(float value)
{
EnterCriticalSection(&m_RtcCS);
float targevalue = value*m_Stat.scale;
float targevalue = value*m_Stat.scale->GetValue();
Command* pCommand = new Aibus(SET_TARGE_VALUE, 0x1, 0x0, (short)targevalue, false);
pCommand->m_Fun = &TempCtrlClient::ProcSetTemp;
pCommand->m_Ref = this;
@ -49,21 +56,21 @@ void TempCtrlClient::ProcTempInfo(void* pobject, Command* pcommand)
scale *= 10;
}
EnterCriticalSection(&pTc->m_ValueCS);
pTc->m_Stat.scale = scale;
pTc->m_Stat.measuredValue = (float)((short)(rseq[1] << 8) + rseq[0]) / scale;
pTc->m_Stat.settingValue = (float)((short)(rseq[3] << 8) + rseq[2]) / scale;
pTc->m_Stat.outputValue = rseq[4];
pTc->m_Stat.scale->SetValue( scale);
pTc->m_Stat.measuredValue->SetValue((float)((short)(rseq[1] << 8) + rseq[0]) / scale);
pTc->m_Stat.settingValue->SetValue((float)((short)(rseq[3] << 8) + rseq[2]) / scale);
pTc->m_Stat.outputValue->SetValue(rseq[4]);
bitset<8> bitStatus(rseq[5]);
pTc->m_Stat.alarm.isOverLimit = bitStatus[0];
pTc->m_Stat.alarm.isLowerLimit = bitStatus[1];
pTc->m_Stat.alarm.isActiveAlarm = bitStatus[2];
pTc->m_Stat.alarm.isInactiveAlarm = bitStatus[3];
pTc->m_Stat.alarm.isInputLimit = bitStatus[4];
pTc->m_Stat.alarm.al1 = bitStatus[5];
pTc->m_Stat.alarm.al2 = bitStatus[6];
pTc->m_Stat.alarm.isOverLimit->SetValue(bitStatus[0]);
pTc->m_Stat.alarm.isLowerLimit->SetValue(bitStatus[1]);
pTc->m_Stat.alarm.isActiveAlarm->SetValue(bitStatus[2]);
pTc->m_Stat.alarm.isInactiveAlarm->SetValue(bitStatus[3]);
pTc->m_Stat.alarm.isInputLimit->SetValue(bitStatus[4]);
pTc->m_Stat.alarm.al1->SetValue(bitStatus[5]);
pTc->m_Stat.alarm.al2->SetValue(bitStatus[6]);
EnterCriticalSection(&g_SystemInfo->m_InfoCs);
g_SystemInfo->m_PlatformTemp = pTc->m_Stat.measuredValue;
g_SystemInfo->m_PlatformTempSettingValue = pTc->m_Stat.settingValue;
g_SystemInfo->m_PlatformTemp = pTc->m_Stat.measuredValue->GetValue();
g_SystemInfo->m_PlatformTempSettingValue = pTc->m_Stat.settingValue->GetValue();
LeaveCriticalSection(&g_SystemInfo->m_InfoCs);
LeaveCriticalSection(&pTc->m_ValueCS);
@ -77,32 +84,32 @@ void TempCtrlClient::ProcSetTemp(void* pobject, Command* pcommand)
unsigned char* rseq = pcommand->m_RespSeq;
float fvalue = 0;
EnterCriticalSection(&pTc->m_ValueCS);
int scale = (pTc->m_Stat.scale == 0 ? 1 : pTc->m_Stat.scale);
int scale = (pTc->m_Stat.scale->GetValue() == 0 ? 1 : pTc->m_Stat.scale->GetValue());
fvalue = (float)((short)(rseq[7] << 8) + rseq[6]) / scale;
pTc->m_Stat.measuredValue = (float)((short)(rseq[1] << 8) + rseq[0]) / scale;
pTc->m_Stat.settingValue = (float)((short)(rseq[3] << 8) + rseq[2]) / scale;
pTc->m_Stat.outputValue = rseq[4];
pTc->m_Stat.measuredValue->SetValue((float)((short)(rseq[1] << 8) + rseq[0]) / scale);
pTc->m_Stat.settingValue->SetValue((float)((short)(rseq[3] << 8) + rseq[2]) / scale);
pTc->m_Stat.outputValue->SetValue(rseq[4]);
bitset<8> bitStatus(rseq[5]);
pTc->m_Stat.alarm.isOverLimit = bitStatus[0];
pTc->m_Stat.alarm.isLowerLimit = bitStatus[1];
pTc->m_Stat.alarm.isActiveAlarm = bitStatus[2];
pTc->m_Stat.alarm.isInactiveAlarm = bitStatus[3];
pTc->m_Stat.alarm.isInputLimit = bitStatus[4];
pTc->m_Stat.alarm.al1 = bitStatus[5];
pTc->m_Stat.alarm.al2 = bitStatus[6];
pTc->m_Stat.alarm.isOverLimit->SetValue(bitStatus[0]);
pTc->m_Stat.alarm.isLowerLimit->SetValue(bitStatus[1]);
pTc->m_Stat.alarm.isActiveAlarm->SetValue(bitStatus[2]);
pTc->m_Stat.alarm.isInactiveAlarm->SetValue(bitStatus[3]);
pTc->m_Stat.alarm.isInputLimit->SetValue(bitStatus[4]);
pTc->m_Stat.alarm.al1->SetValue(bitStatus[5]);
pTc->m_Stat.alarm.al2->SetValue(bitStatus[6]);
LeaveCriticalSection(&pTc->m_ValueCS);
}
void TempCtrlClient::GetStat(TempStat& stat)
{
EnterCriticalSection(&m_ValueCS);
memcpy_s(&stat.alarm, sizeof(TempAlarm), &m_Stat.alarm, sizeof(TempAlarm));
stat.baseStat = m_BaseStat;
stat.measuredValue = m_Stat.measuredValue;
stat.outputValue = m_Stat.outputValue;
stat.scale = m_Stat.scale;
stat.settingValue = m_Stat.settingValue;
LeaveCriticalSection(&m_ValueCS);
}
//void TempCtrlClient::GetStat(TempStat& stat)
//{
// EnterCriticalSection(&m_ValueCS);
// memcpy_s(&stat.alarm, sizeof(TempAlarm), &m_Stat.alarm, sizeof(TempAlarm));
// stat.baseStat = m_BaseStat;
// stat.measuredValue = m_Stat.measuredValue;
// stat.outputValue = m_Stat.outputValue;
// stat.scale = m_Stat.scale;
// stat.settingValue = m_Stat.settingValue;
// LeaveCriticalSection(&m_ValueCS);
//}

76
PrintS/Communication/TempCtrlClient.h
View File

@ -1,45 +1,65 @@
#pragma once
#pragma once
#include "BaseClient.h"
#pragma pack(1)
struct TempAlarm
{
bool isOverLimit; //上限报警
bool isLowerLimit; //下限报警
bool isActiveAlarm; //正偏差报警
bool isInactiveAlarm; //负偏差报警
bool isInputLimit; //超量程报警
bool al1; //AL1状态，0为动作
bool al2; //AL2状态，0为动作
TempAlarm() {
isOverLimit = false;
isLowerLimit = false;
isActiveAlarm = false;
isInactiveAlarm = false;
isInputLimit = false;
al1 = false;
al2 = false;
char m_startFlag; //开始标记
BoolData* isOverLimit; //上限报警
BoolData* isLowerLimit; //下限报警
BoolData* isActiveAlarm; //正偏差报警
BoolData* isInactiveAlarm; //负偏差报警
BoolData* isInputLimit; //超量程报警
BoolData* al1; //AL1状态，0为动作
BoolData* al2; //AL2状态，0为动作
char m_endFlag; //结束标记
TempAlarm()
: isOverLimit(new BoolData("isOverLimit", u8"上限报警"))
, isLowerLimit(new BoolData("isLowerLimit", u8"下限报警"))
, isActiveAlarm(new BoolData("isActiveAlarm", u8"正偏差报警"))
, isInactiveAlarm(new BoolData("isInactiveAlarm", u8"负偏差报警"))
, isInputLimit(new BoolData("isInputLimit", u8"超量程报警"))
, al1(new BoolData("al1", u8"AL1状态，0为动作"))
, al2(new BoolData("al2", u8"AL2状态，0为动作")){
//isOverLimit = false;
//isLowerLimit = false;
//isActiveAlarm = false;
//isInactiveAlarm = false;
//isInputLimit = false;
//al1 = false;
//al2 = false;
}
};
class TempStat
{
public:
TempStat() {
measuredValue = 0;
settingValue = 0;
outputValue = 0;
scale = 0;
TempStat()
: measuredValue(new FloatData("measuredValue", u8"测量值"))
, settingValue(new FloatData("settingValue", u8"给定值"))
, outputValue(new UcharData("outputValue", u8"输出值MV"))
, scale(new IntData("scale", u8"数值放大倍数")){
//measuredValue = 0;
//settingValue = 0;
//outputValue = 0;
//scale = 0;
}
~TempStat(){}
public:
BaseStat baseStat;
float measuredValue; //测量值
float settingValue; //给定值
unsigned char outputValue; //输出值MV
TempAlarm alarm; //报警信息
int scale; //数值放大倍数
};
char m_startFlag; //开始标记
FloatData* measuredValue; //测量值
FloatData* settingValue; //给定值
UcharData* outputValue; //输出值MV
IntData* scale; //数值放大倍数
char m_endFlag; //开始标记
TempAlarm alarm; //报警信息
};
#pragma pack()
class TempCtrlClient :public TcpClient
{
@ -48,7 +68,7 @@ public:
~TempCtrlClient();
void SetTargeValue(float value);
void GetStat(TempStat& stat);
//void GetStat(TempStat& stat);
private:
void InitCommand();

83
PrintS/Communication/UPSClient.cpp
View File

@ -1,10 +1,16 @@
#include "UPSClient.h"
#include "UPSClient.h"
#include "../utils/StringHelper.h"
#include "UpsComand.h"
UPSClient::UPSClient(CommunicationCfg* pconfig) :TcpClient(pconfig)
{
m_Freq = 500;
size_t ptrSize = sizeof(nullptr); //指针大小
void* startPtr = &m_Stat.m_startFlag + 1;
size_t count = ((size_t)&m_Stat.m_endFlag - (size_t)&startPtr) / ptrSize;
InsertMp(startPtr, count);
}
@ -49,7 +55,7 @@ void UPSClient::ProcInfo(void* pobject, Command* pcommand)
UPSClient* pUw = (UPSClient*)pobject;
unsigned char* rseq = pcommand->m_RespSeq;
unsigned int dlength = pcommand->m_RespLen;
float inputVol = (float)((rseq[1] - '0') * 1000 + (rseq[2] - '0') * 100 + (rseq[3] - '0') * 10 + (rseq[5] - '0')) / 10.0f;
float lastVol = (float)((rseq[7] - '0') * 1000 + (rseq[8] - '0') * 100 + (rseq[9] - '0') * 10 + (rseq[11] - '0')) / 10.0f;
float outputVol = (float)((rseq[13] - '0') * 1000 + (rseq[14] - '0') * 100 + (rseq[15] - '0') * 10 + (rseq[17] - '0')) / 10.0f;
@ -57,23 +63,23 @@ void UPSClient::ProcInfo(void* pobject, Command* pcommand)
float outputF = (float)((rseq[23] - '0') * 100 + (rseq[24] - '0') * 10 + (rseq[26] - '0')) / 10.0f;
float unitVol = (float)((rseq[28] - '0') * 100 + (rseq[30] - '0') * 10 + (rseq[31] - '0')) / 100.0f;
float tempValue = (float)((rseq[33] - '0') * 100 + (rseq[34] - '0') * 10 + (rseq[36] - '0')) / 10.0f;
EnterCriticalSection(&pUw->m_ValueCS);
pUw->m_Stat.inputVol = inputVol;
pUw->m_Stat.lastVol = lastVol;
pUw->m_Stat.outputVol = outputVol;
pUw->m_Stat.outputLoad = outputLoad;
pUw->m_Stat.outputF = outputF;
pUw->m_Stat.unitVol = unitVol;
pUw->m_Stat.tempValue = tempValue;
pUw->m_Stat.isVolError = (rseq[38] == '1' ? true : false);
pUw->m_Stat.isBatteryVolLow = (rseq[39] == '1' ? true : false);
pUw->m_Stat.isBypassMode = (rseq[40] == '1' ? true : false);
pUw->m_Stat.isUpsError = (rseq[41] == '1' ? true : false);
pUw->m_Stat.upsType = (rseq[42] == '1' ? true : false);
pUw->m_Stat.isTesting = (rseq[43] == '1' ? true : false);
pUw->m_Stat.isShutdown = (rseq[44] == '1' ? true : false);
EnterCriticalSection(&pUw->m_ValueCS);
pUw->m_Stat.inputVol->SetValue(inputVol);
pUw->m_Stat.lastVol->SetValue(lastVol);
pUw->m_Stat.outputVol->SetValue(outputVol);
pUw->m_Stat.outputLoad->SetValue(outputLoad);
pUw->m_Stat.outputF->SetValue(outputF);
pUw->m_Stat.unitVol->SetValue(unitVol);
pUw->m_Stat.tempValue->SetValue(tempValue);
pUw->m_Stat.isVolError->SetValue((rseq[38] == '1' ? true : false));
pUw->m_Stat.isBatteryVolLow->SetValue((rseq[39] == '1' ? true : false));
pUw->m_Stat.isBypassMode->SetValue((rseq[40] == '1' ? true : false));
pUw->m_Stat.isUpsError->SetValue((rseq[41] == '1' ? true : false));
pUw->m_Stat.upsType->SetValue((rseq[42] == '1' ? true : false));
pUw->m_Stat.isTesting->SetValue((rseq[43] == '1' ? true : false));
pUw->m_Stat.isShutdown->SetValue((rseq[44] == '1' ? true : false));
LeaveCriticalSection(&pUw->m_ValueCS);
}
@ -83,23 +89,24 @@ void UPSClient::ProcShutDown(void* pobject, Command* pcommand)
}
void UPSClient::GetStat(Upsstat& stat)
{
EnterCriticalSection(&m_ValueCS);
stat.baseStat = m_BaseStat;
stat.inputVol = m_Stat.inputVol;
stat.isBatteryVolLow = m_Stat.isBatteryVolLow;
stat.isBypassMode = m_Stat.isBypassMode;
stat.isShutdown = m_Stat.isShutdown;
stat.isTesting = m_Stat.isTesting;
stat.isUpsError = m_Stat.isUpsError;
stat.isVolError = m_Stat.isVolError;
stat.lastVol = m_Stat.lastVol;
stat.outputF = m_Stat.outputF;
stat.outputLoad = m_Stat.outputLoad;
stat.outputVol = m_Stat.outputVol;
stat.tempValue = m_Stat.tempValue;
stat.unitVol = m_Stat.unitVol;
stat.upsType = m_Stat.upsType;
LeaveCriticalSection(&m_ValueCS);
}
//void UPSClient::GetStat(Upsstat& stat)
//{
// EnterCriticalSection(&m_ValueCS);
// stat.baseStat = m_BaseStat;
// stat.inputVol = m_Stat.inputVol;
// stat.isBatteryVolLow = m_Stat.isBatteryVolLow;
// stat.isBypassMode = m_Stat.isBypassMode;
// stat.isShutdown = m_Stat.isShutdown;
// stat.isTesting = m_Stat.isTesting;
// stat.isUpsError = m_Stat.isUpsError;
// stat.isVolError = m_Stat.isVolError;
// stat.lastVol = m_Stat.lastVol;
// stat.outputF = m_Stat.outputF;
// stat.outputLoad = m_Stat.outputLoad;
// stat.outputVol = m_Stat.outputVol;
// stat.tempValue = m_Stat.tempValue;
// stat.unitVol = m_Stat.unitVol;
// stat.upsType = m_Stat.upsType;
// LeaveCriticalSection(&m_ValueCS);
//}

87
PrintS/Communication/UPSClient.h
View File

@ -1,44 +1,67 @@
#pragma once
#pragma once
#include "BaseClient.h"
#pragma pack(1)
class Upsstat
{
public:
Upsstat() {
inputVol = 0;
lastVol = 0;
outputVol = 0;
outputLoad = 0;
outputF = 0;
unitVol = 0;
tempValue = 0;
isVolError = false;
isBatteryVolLow = false;
isBypassMode = false;
isUpsError = false;
upsType = false;
isTesting = false;
isShutdown = false;
Upsstat()
: inputVol(new FloatData("inputVol", u8"输入电压: MMM.M"))
, lastVol(new FloatData("lastVol", u8"上一次转电池放电时电压: NNN.N"))
, outputVol(new FloatData("outputVol", u8"输出电压: PPP.P"))
, outputLoad(new IntData("outputLoad", u8"输出负载百分比: QQQ"))
, outputF(new FloatData("outputF", u8"输入频率: RR.R"))
, unitVol(new FloatData("unitVol", u8"电池单元电压: S.SS"))
, tempValue(new FloatData("tempValue", u8"温度: TT.T"))
, isVolError(new BoolData("isVolError", u8"市电异常"))
, isBatteryVolLow(new BoolData("isBatteryVolLow", u8"电池电压低"))
, isBypassMode(new BoolData("isBypassMode", u8"旁路模式"))
, isUpsError(new BoolData("isUpsError", u8"UPS 故障"))
, upsType(new BoolData("upsType", u8"UPS 后备式 (0 ：在线式)"))
, isTesting(new BoolData("isTesting", u8"测试进行中"))
, isShutdown(new BoolData("isShutdown", u8"关机"))
{
//inputVol = 0;
//lastVol = 0;
//outputVol = 0;
//outputLoad = 0;
//outputF = 0;
//unitVol = 0;
//tempValue = 0;
//isVolError = false;
//isBatteryVolLow = false;
//isBypassMode = false;
//isUpsError = false;
//upsType = false;
//isTesting = false;
//isShutdown = false;
}
~Upsstat(){}
public:
BaseStat baseStat;
float inputVol; //输入电压: MMM.M
float lastVol; //上一次转电池放电时电压: NNN.N
float outputVol; //输出电压: PPP.P
int outputLoad; //输出负载百分比: QQQ
float outputF; //输入频率: RR.R
float unitVol; //电池单元电压: S.SS
float tempValue; //温度: TT.T
bool isVolError; //市电异常
bool isBatteryVolLow; //电池电压低
bool isBypassMode; //旁路模式
bool isUpsError; //UPS 故障
bool upsType; //UPS 后备式 (0 ：在线式)
bool isTesting; //测试进行中
bool isShutdown; //关机
char m_startFlag; //开始标记
FloatData* inputVol; //输入电压: MMM.M
FloatData* lastVol; //上一次转电池放电时电压: NNN.N
FloatData* outputVol; //输出电压: PPP.P
IntData* outputLoad; //输出负载百分比: QQQ
FloatData* outputF; //输入频率: RR.R
FloatData* unitVol; //电池单元电压: S.SS
FloatData* tempValue; //温度: TT.T
BoolData* isVolError; //市电异常
BoolData* isBatteryVolLow; //电池电压低
BoolData* isBypassMode; //旁路模式
BoolData* isUpsError; //UPS 故障
BoolData* upsType; //UPS 后备式 (0 ：在线式)
BoolData* isTesting; //测试进行中
BoolData* isShutdown; //关机
char m_endFlag; //结束标记
};
#pragma pack()
class UPSClient :public TcpClient
{
@ -47,7 +70,9 @@ public:
~UPSClient();
void InitCommand();
void ShutDownUps(float minute);
void GetStat(Upsstat& stat);
//void GetStat(Upsstat& stat);
//void SendToClients();
private:
void static ProcInfo(void* pobject, Command* pcommand);
void static ProcShutDown(void* pobject, Command* pcommand);

3
PrintS/Config/bean/IOCfg.h
View File

@ -54,7 +54,7 @@ public:
bool m_IsActive;
int m_AuthLess; //用户等级
string m_ShowContent;
string m_ShowContent; //无用
private:
PLCReveiver* m_cc;
S7Command* m_CtrlCommand;
@ -1726,6 +1726,7 @@ public:
IOCfg* m_CylinderHandDoorClose; //缸体吊装门关位
};
class TempCtrlClient;
class IOCfgWrapper {
public:
enum SafeDoorState

13
PrintS/DataManage/ClientInfo.cpp
View File

@ -47,4 +47,17 @@ void ClientWrapper::PushAllClient(WriteData* wd) {
(*client)->PushMsg(wd);
++client;
}
}
bool ClientWrapper::IsExist(ClientInfo* ci) {
std::lock_guard<std::mutex> lck(m_mux);
bool flag = false;
auto client = m_clientList.begin();
while (client != m_clientList.end()) {
if (*client == ci){
flag = true; break;
}
++client;
}
return flag;
}

2
PrintS/DataManage/ClientInfo.h
View File

@ -75,6 +75,8 @@ public:
void PushAllClient(WriteData* wd);
bool IsExist(ClientInfo* ci);
private:
ClientWrapper() {}
~ClientWrapper() {}

5
PrintS/DataManage/RWData.h
View File

@ -50,8 +50,11 @@ enum DATATYPE {
iUINT,
iFLOAT,
iSTRING,
iCHAR,
iUCHAR,
iWORD,
UNKNOW,
};
class ClientInfo;

18
PrintS/PLC/CoreCommunication.cpp
View File

@ -409,24 +409,30 @@ void CoreCommunication::GetEnvState(EnvState& envState)
void CoreCommunication::SendProc() {
string keyStr, valStr;
string valStr;
DATATYPE dataType;
list<Item> its;
while (!m_sendTdExitFlag) {
std::unique_lock<std::shared_mutex> lock(m_ValueMtx);
keyStr = valStr = "";
valStr = "";
its.clear();
auto param = SysParam::m_sysParamMp.begin();
while (param != SysParam::m_sysParamMp.end()) {
keyStr = param->first;
valStr = param->second.GetValue(dataType);
its.emplace_back(Item{keyStr,valStr,dataType});
its.emplace_back(Item{ param->first,valStr,dataType});
++param;
}
ClientWrapper::Instance()->PushAllClient(new WriteData(SYSPARAMDATA, its));
keyStr = valStr = "";
valStr = "";
its.clear();
auto ioItem = m_IOCfgWrapper->m_IOCfgMap.begin();
while (ioItem != m_IOCfgWrapper->m_IOCfgMap.end()) {
valStr = to_string(ioItem->second->IsActive());
its.emplace_back(Item{ ioItem->first,valStr,iBOOL });
++param;
}
ClientWrapper::Instance()->PushAllClient(new WriteData(SYSPARAMDATA, its));
std::this_thread::sleep_for(std::chrono::milliseconds(100));

43
PrintS/PLC/SysParam.cpp
View File

@ -53,7 +53,12 @@ SysParamFloat::SysParamFloat(int addr, int num, PLCReveiver* cc, const string& c
m_CtrlCommand->m_Ref = this;
m_CtrlCommand->isNeedDel = false;
m_sysParamMp.insert(make_pair(code,DValue(this)));
if (m_sysParamMp.find(code) != m_sysParamMp.end()) {
printf("%s is repeated...", code.c_str());
}
else {
m_sysParamMp.insert(make_pair(code, DValue(this)));
}
}
void SysParamFloat::SetValue(float value)
@ -79,11 +84,22 @@ SysParamFloat::~SysParamFloat()
SysParamFloatUI::SysParamFloatUI(SysParamFloat* sp) :SysParamFloat(sp) {
m_sysParamMp.insert(make_pair("UI"+sp->GetCode(), DValue(this)));
if (m_sysParamMp.find("UI" + sp->GetCode()) != m_sysParamMp.end()) {
printf("%s is repeated...", ("UI" + sp->GetCode()).c_str());
}
else {
m_sysParamMp.insert(make_pair("UI" + sp->GetCode(), DValue(this)));
}
}
SysParamWordUI::SysParamWordUI(SysParamWord* sp) :SysParamWord(sp) {
m_sysParamMp.insert(make_pair("UI" + sp->GetCode(), DValue(this)));
if (m_sysParamMp.find("UI" + sp->GetCode()) != m_sysParamMp.end()) {
printf("%s is repeated...", ("UI" + sp->GetCode()).c_str());
}
else {
m_sysParamMp.insert(make_pair("UI" + sp->GetCode(), DValue(this)));
}
}
SysParamWord::SysParamWord(int addr, int num, PLCReveiver* cc, const string& context, const string& code )
@ -101,7 +117,12 @@ SysParamWord::SysParamWord(int addr, int num, PLCReveiver* cc, const string& con
m_CtrlCommand->m_Ref = this;
m_CtrlCommand->isNeedDel = false;
m_sysParamMp.insert(make_pair(code, DValue(this)));
if (m_sysParamMp.find(code) != m_sysParamMp.end()) {
printf("%s is repeated...", code.c_str());
}
else {
m_sysParamMp.insert(make_pair(code, DValue(this)));
}
}
void SysParamWord::SetValue(short value)
@ -138,7 +159,12 @@ SysParamBool::SysParamBool(int addr, int num, PLCReveiver* cc,const string& cont
m_CtrlCommand->m_Ref = this;
m_CtrlCommand->isNeedDel = false;
m_sysParamMp.insert(make_pair(code, DValue(this)));
if (m_sysParamMp.find(code) != m_sysParamMp.end()) {
printf("%s is repeated...", code.c_str());
}
else {
m_sysParamMp.insert(make_pair(code, DValue(this)));
}
}
SysParamBool:: ~SysParamBool()
@ -170,7 +196,12 @@ SysParamInt::SysParamInt(int addr, int num, PLCReveiver* cc, const string& conte
m_CtrlCommand->m_Ref = this;
m_CtrlCommand->isNeedDel = false;
m_sysParamMp.insert(make_pair(code, DValue(this)));
if (m_sysParamMp.find(code) != m_sysParamMp.end()) {
printf("%s is repeated...", code.c_str());
}
else {
m_sysParamMp.insert(make_pair(code, DValue(this)));
}
}
SysParamInt:: ~SysParamInt()

1
PrintS/PrintS.vcxproj
View File

@ -347,6 +347,7 @@
<ClInclude Include="ChartletManager.h" />
<ClInclude Include="Communication\Aibus.h" />
<ClInclude Include="Communication\BaseClient.h" />
<ClInclude Include="Communication\BaseData.h" />
<ClInclude Include="Communication\BaseServoClient.h" />
<ClInclude Include="Communication\ChillerClient.h" />
<ClInclude Include="Communication\Command.h" />

3
PrintS/PrintS.vcxproj.filters
View File

@ -1744,6 +1744,9 @@
<ClInclude Include="DataManage\ClientInfo.h">
<Filter>DataManage</Filter>
</ClInclude>
<ClInclude Include="Communication\BaseData.h">
<Filter>Communication</Filter>
</ClInclude>
</ItemGroup>
<ItemGroup>
<Text Include="说明.txt" />

6
PrintS/job/MetaData.h
View File

@ -467,15 +467,15 @@ public:
void UnLockPart() { LeaveCriticalSection(&partCs); }
string GetJobTitle(void) { return general_info->job_name; }
unsigned int GetLayerCount(void) { return layers->vector_layers.size(); }
unsigned int GetComponentCount(void) { return partsMap.size(); }
unsigned int GetLayerCount(void) { return (UINT)layers->vector_layers.size(); }
unsigned int GetComponentCount(void) { return (UINT)partsMap.size(); }
Layer* GetLayer(unsigned int id);
string GetJobUid(void) { return job_id; }
void GetPartId(int layerIndex, set<int>& partIds);
// float GetProgress(void) { return m_ProgressValue; }
//string GetProgressInfo();
float PowderRequiretment(void);
unsigned int GetNumOfScanField() { return machine_type->scanFields.size(); }
unsigned int GetNumOfScanField() { return (UINT)machine_type->scanFields.size(); }
vector<ScanField*>* GetScanFields() {
return &machine_type->scanFields;
}

4
PrintS/job/VolumeCalc.cpp
View File

@ -1,4 +1,4 @@
#define NOMINMAX
#define NOMINMAX
#include "VolumeCalc.h"
#define CLIPPER_SCALE 1.0e9
@ -157,7 +157,7 @@ void VolumeCalc::GetLayerBorders(MetaData* metadata, unsigned int layer, PolyTre
}
if (poly_found)
break;
int end_idx = contour.size() - 1;
size_t end_idx = contour.size() - 1;
for (size_t j = 0; j < 10 && j < contour.size() - 1; j++) {
if (isBetween(contour[end_idx - j], contour[end_idx - j - 1], closed->Contour.back())) {
if (!isBetween(closed->Contour.back(), closed->Contour[closed->Contour.size() - 2], contour[end_idx - j - 1]) ||

1
PrintS/protobuf/stream.proto
View File

@ -22,6 +22,7 @@ enum TYPE{
message ParamInfo{
bytes nameKey = 1; //参数key
bytes strValue = 2; //value
//bool isOutput = 2; //是否只读
TYPE valueType = 3; //数据类型
}