PhysicalDevice/Detector/TiRay/CCOS.Dev.FPD.TiRayDR/CCOS.Dev.FPD.TiRayDR.cpp

#include "CCOS.Dev.FPD.TiRayDR.h"
#include "common_api.h"
#include "DICOMImageHeadKey.h"
#include "Detector_TiRayDR.h"
#include "LogLocalHelper.h"       
#include "Log4CPP.h"

namespace nsFPD = CCOS::Dev::Detail::Detector;

//-----------------------------------------------------------------------------
//		FPDDeviceTiRay
//-----------------------------------------------------------------------------
extern Detector_TiRayDR* g_pDetector;

static nsFPD::TiRayDriver gIODriver;

//Log4CPP::Logger* mLog::gLogger = nullptr;

extern "C"  CCOS::Dev::IODriver *  GetIODriver()		// 返回静态对象的引用, 调用者不能删除 !
{
	return &gIODriver;
}

extern "C"  CCOS::Dev::IODriver *  CreateIODriver()  // 返回新对象, 调用者必须自行删除此对象 !
{
	return new nsFPD::TiRayDriver();
}

nsFPD::TiRayDriver::TiRayDriver()
{
	pObjDev = nullptr;
	m_bDriverConnect = false; //缺省为false
	m_pAttribute.reset(new ResDataObject());
	m_pDescription.reset(new ResDataObject());
}

nsFPD::TiRayDriver::~TiRayDriver()
{
	if (pObjDev != nullptr)
	{
		delete pObjDev;
		pObjDev = nullptr;
	}
}

void nsFPD::TiRayDriver::Prepare()
{
	// 初始化日志系统
	std::string strLogPath = GetProcessDirectory() + R"(/Conf/log_config.xml)";
	std::string LogHost = "DevTiRay"; // 确保这是正确的值
	std::string moduleName = "DevTiRay";
	bool ret = initLogModule(
		LogHost,       // 主机名（用于日志路径中的{host}占位符）
		moduleName,        // 唯一模块名
		strLogPath,  // 配置文件路径
		true           // 是否输出到控制台（可选）
	);
	if (!ret) {
		std::cerr << "Log init failed!" << std::endl;
		return;
	}
	TiRaySetLocalModuleName(moduleName);

	FINFO("Code Build datetime [{$} {$}]", __DATE__, __TIME__);
}

bool nsFPD::TiRayDriver::Connect()
{
	FINFO("--Func-- Driver Connect Start");
	bool bWired = false;
	bool bWireless = false;


	if (pObjDev == nullptr)
	{
		pObjDev = new FPDDeviceTiRay(EventCenter, m_ConfigFileName);
	}
	/*m_DetectorConfiguration.reset(new DetectorConfiguration(m_ConfigFileName));
	ResDataObject objModeConfig = m_DetectorConfiguration->m_Configurations;
	std::string strWiredIP = (std::string)objModeConfig["DetectorWiredIP"];
	std::string strWiressIP = (std::string)objModeConfig["DetectorWirelessIP"];
	
	bWired = CheckConnect(strWiredIP);
	if (strWiressIP != "0.0.0.0")
		bWireless = CheckConnect(strWiressIP);

	FINFO("Driver Connect Over");
	if (bWired || bWireless)
	{
		m_bDriverConnect = true;
		return true;
	}
	else
	{
		m_bDriverConnect = false;
		return false;
	}*/
	m_bDriverConnect = true;
	return true;
}

void nsFPD::TiRayDriver::Disconnect()
{
	FINFO("--Func-- Driver Disconnect Start");
	m_bDriverConnect = false; //disconnect置为false
	FINFO("Driver Disconnect Over");
}

bool nsFPD::TiRayDriver::isConnected() const
{
	return m_bDriverConnect;
}

bool nsFPD::TiRayDriver::CheckConnect(std::string strIP)
{
	CMyPingip obPingIp;
	if (!obPingIp.PingFunction(strIP.c_str()))
	{
		FINFO("ping {$} Failed", strIP);
		return false;
	}
	return true;
}

auto nsFPD::TiRayDriver::CreateDevice(int index)->std::unique_ptr <IODevice>
{
	FINFO("--Func-- Driver CreateDevice Start");
	auto Device = std::unique_ptr<IODevice>(new IODevice(pObjDev));
	pObjDev->CreateDevice();
	pObjDev->Register();
	FINFO("Driver CreateDevice Over");
	return Device;
}

std::string nsFPD::TiRayDriver::DriverProbe()
{
	FINFO("--Func-- Driver DriverProbe Start");
	FINFO("DriverProbe Config Name: {$}", m_ConfigFileName);
	ResDataObject r_config, HardwareInfo;
	if (r_config.loadFile(m_ConfigFileName.c_str()))
	{
		HardwareInfo.add("MajorID", r_config["CONFIGURATION"]["MajorID"]);
		HardwareInfo.add("MinorID", r_config["CONFIGURATION"]["MinorID"]);
		HardwareInfo.add("VendorID", r_config["CONFIGURATION"]["VendorID"]);
		HardwareInfo.add("ProductID", r_config["CONFIGURATION"]["ProductID"]);
		HardwareInfo.add("SerialID", r_config["CONFIGURATION"]["SerialID"]);
	}
	else
	{
		HardwareInfo.add("MajorID", "Detector");
		HardwareInfo.add("MinorID", "DR");
		HardwareInfo.add("VendorID", "TiRay");
#ifdef TiRay4343
		HardwareInfo.add("ProductID", "DY4343");
#endif // TiRay4343
#ifdef TiRay2530W
		HardwareInfo.add("ProductID", "DY2530W");
#endif // TiRay2530W
#ifdef TiRay4343W
		HardwareInfo.add("ProductID", "DY4343W");
#endif // TiRay4343W

		HardwareInfo.add("SerialID", "Driver");
	}
	string str = HardwareInfo.encode();
	return str;
}

/***
** 获取ID和配置
***/
std::string nsFPD::TiRayDriver::GetResource()
{
	FINFO("--Func-- Driver GetResource Start");
	ResDataObject r_config, temp;
	FINFO("m_ConfigFileName:{$}", m_ConfigFileName);
	if (!temp.loadFile(m_ConfigFileName.c_str()))
	{
		return "";
	}
	m_ConfigAll = temp;
	r_config = temp["CONFIGURATION"];
	m_Configurations = r_config;

	ResDataObject DescriptionTemp;
	ResDataObject ListTemp;
	string strTemp = ""; //用于读取字符串配置信息
	int nTemp = -1; //用于读取整型配置信息
	string strValue = ""; //用于存储配置的值
	string strType = ""; //用于存储配置的类型 int/float/string...
	string strAccess = ""; //用于存储权限的类型 R/W/RW

	try
	{
		int nConfigInfoCount = (int)m_Configurations["ConfigToolInfo"].GetKeyCount("AttributeInfo");
		m_pAttribute->clear();
		m_pDescription->clear();
		for (int nInfoIndex = 0; nInfoIndex < nConfigInfoCount; nInfoIndex++)
		{
			DescriptionTemp.clear();
			ListTemp.clear();
			//AttributeType
			strTemp = (string)m_Configurations["ConfigToolInfo"][nInfoIndex]["AttributeDescripition"]["Type"];
			DescriptionTemp.add(AttributeType, strTemp.c_str());
			strType = strTemp; //记录配置项的类型

			//AttributeKey
			//1. 根据AttributeType，内部key和配置路径，拿到当前的真实值
			strTemp = (string)m_Configurations["ConfigToolInfo"][nInfoIndex]["InnerKey"];
			nTemp = (int)m_Configurations["ConfigToolInfo"][nInfoIndex]["PathID"];
			GetDeviceConfigValue(r_config, strTemp.c_str(), nTemp, strValue);
			//2. 赋值
			strTemp = (string)m_Configurations["ConfigToolInfo"][nInfoIndex]["AttributeKey"];
			if ("int" == strType)
			{
				(*m_pAttribute).add(strTemp.c_str(), atoi(strValue.c_str()));
			}
			else if ("float" == strType)
			{
				(*m_pAttribute).add(strTemp.c_str(), atof(strValue.c_str()));
			}
			else //其它先按string类型处理
			{
				(*m_pAttribute).add(strTemp.c_str(), strValue.c_str());
			}

			//AttributeAccess
			strTemp = (string)m_Configurations["ConfigToolInfo"][nInfoIndex]["AttributeDescripition"]["Access"];
			DescriptionTemp.add(AttributeAccess, strTemp.c_str());

			//AttributeRangeMin
			strTemp = (string)m_Configurations["ConfigToolInfo"][nInfoIndex]["AttributeDescripition"]["RangeMin"];
			if (strTemp != "") //不需要的配置项为空
			{
				DescriptionTemp.add(AttributeRangeMin, strTemp.c_str());
			}

			//AttributeRangeMax
			strTemp = (string)m_Configurations["ConfigToolInfo"][nInfoIndex]["AttributeDescripition"]["RangeMax"];
			if (strTemp != "") //不需要的配置项为空
			{
				DescriptionTemp.add(AttributeRangeMax, strTemp.c_str());
			}

			//AttributeList
			nTemp = m_Configurations["ConfigToolInfo"][nInfoIndex]["AttributeDescripition"]["ListNum"];
			if (nTemp > 0) //ListNum不大于0时说明不需要list配置
			{
				for (int nListIndex = 0; nListIndex < nTemp; nListIndex++)
				{
					strTemp = (string)m_Configurations["ConfigToolInfo"][nInfoIndex]["AttributeDescripition"]["ListInfo"][nListIndex];
					auto temKey = std::to_string(nListIndex);
					ListTemp.add(temKey.c_str(), strTemp.c_str());
				}
				DescriptionTemp.add(AttributeList, ListTemp);
			}

			//AttributeRequired
			strTemp = (string)m_Configurations["ConfigToolInfo"][nInfoIndex]["AttributeDescripition"]["Required"];
			DescriptionTemp.add(AttributeRequired, strTemp.c_str());

			//AttributeDefaultValue
			strTemp = (string)m_Configurations["ConfigToolInfo"][nInfoIndex]["AttributeDescripition"]["DefaultValue"];
			if (strTemp != "") //不需要的配置项为空
			{
				DescriptionTemp.add(AttributeDefaultValue, strTemp.c_str());
			}

			strTemp = (string)m_Configurations["ConfigToolInfo"][nInfoIndex]["AttributeKey"];
			(*m_pDescription).add(strTemp.c_str(), DescriptionTemp);
		}
	}
	catch (ResDataObjectExption& e)
	{
		FERROR("Get config FERROR: {$}", e.what());
		return "";
	}

	ResDataObject resDeviceResource;
	resDeviceResource.add(ConfKey::CcosDetectorAttribute, (*m_pAttribute));
	resDeviceResource.add(ConfKey::CcosDetectorDescription, (*m_pDescription));

	ResDataObject DescriptionTempEx;
	DescriptionTempEx.add(ConfKey::CcosDetectorConfig, resDeviceResource);

	m_DeviceConfig = DescriptionTempEx;

	string res = DescriptionTempEx.encode();

	FINFO("Driver GetResource Over");
	return res;
}

std::string nsFPD::TiRayDriver::DeviceProbe()
{
	FINFO("--Func-- Driver DeviceProbe Start");
	ResDataObject r_config, HardwareInfo;
	if (r_config.loadFile(m_ConfigFileName.c_str()))
	{
		HardwareInfo.add("MajorID", r_config["CONFIGURATION"]["MajorID"]);
		HardwareInfo.add("MinorID", "Device");
		HardwareInfo.add("VendorID", r_config["CONFIGURATION"]["VendorID"]);
		HardwareInfo.add("ProductID", r_config["CONFIGURATION"]["ProductID"]);
		HardwareInfo.add("SerialID", r_config["CONFIGURATION"]["SerialID"]);
	}
	else
	{
		HardwareInfo.add("MajorID", "Detector");
		HardwareInfo.add("MinorID", "Device");
		HardwareInfo.add("VendorID", "TiRay");
#ifdef TiRay4343
		HardwareInfo.add("ProductID", "DY4343");
#endif // TiRay4343
#ifdef TiRay2530W
		HardwareInfo.add("ProductID", "DY2530W");
#endif // TiRay2530W
#ifdef TiRay4343W
		HardwareInfo.add("ProductID", "DY4343W");
#endif // TiRay4343W

		HardwareInfo.add("SerialID", "1234");
	}
	string str = HardwareInfo.encode();
	FINFO("Driver DeviceProbe Over");
	return str;
}

bool nsFPD::TiRayDriver::GetDeviceConfig(std::string& Cfg)
{
	FINFO("--Func-- Driver GetDeviceConfig Start");
	Cfg = m_DeviceConfig.encode();
	FINFO("Cfg:{$}", Cfg);
	FINFO("Driver GetDeviceConfig Over");
	return true;
}

bool nsFPD::TiRayDriver::SetDeviceConfig(std::string Cfg)
{
	FINFO("--Func-- Driver SetDeviceConfig Start");
	FINFO("SetDeviceConfig {$}", Cfg.c_str());
	ResDataObject DeviceConfig;
	DeviceConfig.decode(Cfg.c_str());

	ResDataObject DescriptionTempEx;
	DescriptionTempEx = DeviceConfig["DeviceConfig"];

	bool bSaveFile = false; //true:重新保存配置文件
	string strAccess = "";
	for (int i = 0; i < DescriptionTempEx.size(); i++)
	{
		ResDataObject temp = DescriptionTempEx[i];
		FINFO("{$}", temp.encode());
		for (int j = 0; j < temp.size(); j++)
		{
			string strKey = temp.GetKey(j);
			FINFO("{$}", strKey.c_str());
			try
			{
				if (m_pAttribute->GetFirstOf(strKey.c_str()) >= 0)
				{
					strAccess = (string)(*m_pDescription)[strKey.c_str()]["Access"];
					if ("RW" == strAccess || "rw" == strAccess)
					{
						//修改对应配置，在其他单元的配置项要同时调用其修改函数修改真实值
						//1. 修改内存中的值，用于给上层发消息
						(*m_pAttribute)[strKey.c_str()] = temp[j];
						//2. 拿到Innerkey
						int nConfigInfoCount = (int)m_Configurations["ConfigToolInfo"].GetKeyCount("AttributeInfo");
						FINFO("ConfigInfo Count: {$}", nConfigInfoCount);
						string strTemp = ""; //存储AttributeKey
						for (int nInfoIndex = 0; nInfoIndex < nConfigInfoCount; nInfoIndex++)
						{
							strTemp = (string)m_Configurations["ConfigToolInfo"][nInfoIndex]["AttributeKey"];
							if (strTemp == strKey)
							{
								strTemp = (string)m_Configurations["ConfigToolInfo"][nInfoIndex]["InnerKey"];
								break;
							}
						}
						//3. 修改配置文件中的值
						if (SetDeviceConfigValue(m_Configurations, strTemp.c_str(), 1, temp[j]))
						{
							bSaveFile = true;
						}
					}
					else
					{
						FINFO("{$} is not a RW configuration item", strKey.c_str());
					}
				}
			}
			catch (ResDataObjectExption& e)
			{
				FERROR("SetDeviceConfig crashed: {$}", e.what());
				return false;
			}
		}
	}

	if (bSaveFile)
	{
		//3. 重新保存配置文件
		SaveConfigFile(true);
	}
	FINFO("Driver SetDeviceConfig Over");
	return true;
}

bool nsFPD::TiRayDriver::SaveConfigFile(bool bSendNotify)
{
	FINFO("--Func-- Driver SaveConfigFile Start");
	FINFO("ConfigFileName:{$}", m_ConfigFileName);
	m_ConfigAll["CONFIGURATION"] = m_Configurations;
	bool ret = m_ConfigAll.SaveFile(m_ConfigFileName.c_str());
	FINFO("Driver SaveConfigFile Over");
	if (ret)
	{
		FINFO("SaveConfigFile Success!");
		return true;
	}
	else
	{
		FERROR("SaveConfigFile Fail!");
		return false;
	}
}

bool nsFPD::TiRayDriver::GetDeviceConfigValue(ResDataObject config, const char* pInnerKey,
	int nPathID, string& strValue)
{
	FINFO("--Func-- Driver GetDeviceConfigValue Start");
	strValue = "";
	string strTemp = pInnerKey;
	if (1 == nPathID) //从DriverConfig路径下每个DPC自己的配置文件读取
	{
		if (WiredIP == strTemp || WirelessIP == strTemp || LocalIP == strTemp)
		{
			strValue = (string)config["connections"][pInnerKey];
		}
		else if (DetectorVender == strTemp || DetectorModel == strTemp ||
			DetectorDescription == strTemp || DetectorSerialNumber == strTemp)
		{
			strValue = (string)config[pInnerKey];
		}
		else if (SyncType == strTemp || FPDWorkStation == strTemp ||
			ImageWidth == strTemp || ImageHeight == strTemp)
		{
			strValue = (string)config["ModeTable"]["DetectorMode"][pInnerKey];
		}
		else if (TempMaxLimit == strTemp || ReConnect == strTemp ||
			TempUpperLimit == strTemp || TempLowerLimit == strTemp || TempMinLimit == strTemp ||
			BatLowerLimit == strTemp || BatMiniLimit == strTemp ||
			BatLowerLimitInCali == strTemp || WifiLowerLimit == strTemp ||
			WifiMiniLimit == strTemp || HighPowerTimeout == strTemp ||
			ShowTemperature == strTemp || ShowWifi == strTemp ||
			ShowBattery == strTemp || ShowBluetooth == strTemp ||
			FPDExamMode == strTemp || FPDAcqMode == strTemp || FPDModeMatch == strTemp || 
			CcosDetectorAttachedFlag == strTemp)
		{
			strValue = (string)config[pInnerKey];
		}
		else
		{
			strValue = "";
			FERROR("FERROR Configuration item: {$}", pInnerKey);
		}
	}
	FINFO("Driver GetDeviceConfigValue Over");
	return true;
}

bool nsFPD::TiRayDriver::SetDeviceConfigValue(ResDataObject &config, const char* pInnerKey,
	int nPathID, const char* szValue)
{
	FINFO("--Func-- Driver SetDeviceConfigValue Start");
	FINFO("SetDeviceConfigValue change {$} item value to {$}", pInnerKey, szValue);
	string strTemp = pInnerKey;
	if (1 == nPathID) //从DriverConfig路径下每个DPC自己的配置文件读取
	{
		if (WiredIP == strTemp || WirelessIP == strTemp || LocalIP == strTemp)
		{
			config["connections"][pInnerKey] = szValue;
		}
		else if (DetectorVender == strTemp || DetectorModel == strTemp ||
			DetectorDescription == strTemp || DetectorSerialNumber == strTemp)
		{
			config[pInnerKey] = szValue;
		}
		else if (SyncType == strTemp || FPDWorkStation == strTemp ||
			ImageWidth == strTemp || ImageHeight == strTemp)
		{
			config["ModeTable"]["DetectorMode"][pInnerKey] = szValue;
		}
		else if (TempMaxLimit == strTemp || ReConnect == strTemp ||
			TempUpperLimit == strTemp || TempLowerLimit == strTemp ||
			BatLowerLimit == strTemp || BatMiniLimit == strTemp ||
			BatLowerLimitInCali == strTemp || WifiLowerLimit == strTemp ||
			WifiMiniLimit == strTemp || HighPowerTimeout == strTemp ||
			ShowTemperature == strTemp || ShowWifi == strTemp ||
			ShowBattery == strTemp || ShowBluetooth == strTemp ||
			FPDExamMode == strTemp || FPDAcqMode == strTemp || FPDModeMatch == strTemp || 
			CcosDetectorAttachedFlag == strTemp)
		{
			config[pInnerKey] = szValue;
		}
		else
		{
			FERROR("FERROR Configuration item: {$}", pInnerKey);
			return false;
		}
	}
	FINFO("Driver SetDeviceConfigValue Over");
	return true;
}

nsFPD::FPDDeviceTiRay::FPDDeviceTiRay(std::shared_ptr<IOEventCenter> center, std::string strConfigPath)
	: FPDDeviceMould("DevTiRay"), m_nFPDExpReadyTime(1000),
	m_nCalibTotalExposureNum{},
	m_nCalibCurrentCalibrationRound{1},
	m_nCalibCurrentExposureIndex{},
	m_nCalibCurrentExposureNum{},
	m_nFullImageHeight{},
	m_nFullImageWidth{},
	m_nImgBits{},
	m_nPixelSpacing{},
	m_nSensitivity{},
	m_fDose{},
	m_fFactorEXI2UGY{},
	m_eSyncMode(SYNC_SOFTWARE),
	m_eAppStatus(APP_STATUS_IDLE),
	m_bDeviceConnect(false),
	m_pFullImgBuffer(nullptr)
{
	m_strWorkPath = GetProcessDirectory();
	m_DetectorCtrlUnit.reset(new OemCtrl(center, this));
	m_AcqUnit.reset(new OemAcq(center, this));
	m_SyncUnit.reset(new OemSync(center, this));
	m_CalibUnit.reset(new OemCalib(center, this));
	m_DetectorConfiguration.reset(new DetectorConfiguration(strConfigPath));

	std::string strErrorInfoPath = m_strWorkPath + "\\OEMDrivers\\Detector\\Conf\\";
	//m_WarnAndError.reset(new FPDErrorWarning(center, DetectorUnitType, strErrorInfoPath));

	m_DetectorCtrlUnit->SetDetectorStatus(to_string(DETECTOR_STATUS_INIT));
	m_CalibUnit->SetCalibrationStatus(to_string(CCOS_CALIBRATION_STATUS_ERROR));
	EventCenter = center;
}

nsFPD::FPDDeviceTiRay::~FPDDeviceTiRay()
{
	if (nullptr != m_pFullImgBuffer)
	{
		delete[] m_pFullImgBuffer;
		m_pFullImgBuffer = nullptr;
	}
}

std::string nsFPD::FPDDeviceTiRay::GetGUID() const
{
	return DetectorUnitType;
}

bool nsFPD::FPDDeviceTiRay::Prepare()
{
	FINFO("--Func Device-- Prepare Start");
	//EventCenter->OnMaxBlockSize("DrTiRay", 4000 * 4000 * 2, 6, 1500 * 1500 * 2, 2);
	Connect();
	FINFO("Device Prepare Over");
	return true;
}

bool nsFPD::FPDDeviceTiRay::CreateDevice()
{
	FINFO("--Func Device-- CreateDevice Start");
	if (!LoadConfig())
	{
		return false;
	}

	if (nullptr == g_pDetector)
	{
		g_pDetector = new Detector_TiRayDR();
	}

	g_pDetector->DriverEntry(this, m_DetectorConfiguration->m_Configurations);
	FINFO("Device CreateDevice Over");
	return true;
}

void nsFPD::FPDDeviceTiRay::Register()
{
	FINFO("--Func Device-- Register Start");
	auto Disp = m_Dispatch.Lock().As();

	RegisterCtrl(Disp);
	RegisterAcq(Disp);
	RegisterSync(Disp);
	RegisterCalib(Disp);
	RegisterOthers(Disp);
	FINFO("Device Register Over");
}
RET_STATUS nsFPD::FPDDeviceTiRay::ScanDetector(string& strDetectorInfo)
{
	if (nullptr == g_pDetector)
	{
		std::cerr << "[FPDDeviceTiRay::ScanDetector] g_pDetector is not initialized!" << std::endl;
		return RET_STATUS::RET_FAILED;
	}

	return g_pDetector->ScanDetector(strDetectorInfo) ?
		RET_STATUS::RET_SUCCEED : RET_STATUS::RET_FAILED;
}

RET_STATUS nsFPD::FPDDeviceTiRay::Connect()
{
	FINFO("--Func Device-- Connect Start");

	m_DetectorCtrlUnit->SetAttachStatus(to_string(1)); //没有attach功能，直接上发1，使客户端显示探测器状态

	RET_STATUS ret = RET_STATUS::RET_FAILED;
	if (g_pDetector->Connect(this, m_strWorkPath.c_str()))
	{
		m_SyncUnit->SetSupportSyncMode(m_stDeviceConfig.strSupportSyncMode);
		string strTemp = (string)m_DetectorConfiguration->m_Configurations["SerialNumber"];
		m_DetectorCtrlUnit->SetSerialNumber(strTemp);
		//m_CalibUnit->SetLastCalibrationDate(m_stDeviceConfig.strLastCalibrationDate);
		//m_CalibUnit->SetCalibrationFileExpireTime(m_stDeviceConfig.strCalibrationFileExpireTime);
		
		if (m_stDeviceConfig.bSupportDDR) //是否支持DDR采集功能
		{
			m_DetectorCtrlUnit->SetSupportDDR("YES");
		}
		else
		{
			m_DetectorCtrlUnit->SetSupportDDR("NO");
		}
		ret = RET_STATUS::RET_SUCCEED;
	}
	FINFO("Device Connect Over");
	return ret;
}

RET_STATUS nsFPD::FPDDeviceTiRay::EnterExam(int nExamMode)
{
	FINFO("--Func Device-- EnterExam Start");
	switch (nExamMode)
	{
	case APP_STATUS_WORK_BEGIN:
		FINFO("Enter into Exam Windows");
		m_eAppStatus = APP_STATUS_WORK_BEGIN;
		FINFO("m_stDeviceConfig.strLastCalibrationDate:{$}", m_stDeviceConfig.strLastCalibrationDate);
		//进检查时判断当前校正文件是否过期，如果即将过期或者已过期都向上通知
		//if (m_stDeviceConfig.strLastCalibrationDate == "0000-00-00 00:00:00")
		//{
		//	//没有做过校正
		//	FWARN("No calibration file, please make a calibration!");
		//	//m_WarnAndError->SendWarn(ERR_FPD_CAL_FILE_NOT_EXIST, "");
		//}
		//else
		//{
		//	time_t lastCalibDate = StringToDatetime(m_stDeviceConfig.strLastCalibrationDate);
		//	int nExpireTime = std::stoi(m_stDeviceConfig.strCalibrationFileExpireTime);//单位：天
		//	FINFO("nExpireTime:{$}", nExpireTime);
		//	time_t localtime = time(NULL);
		//	//判断是否过期
		//	if (localtime > lastCalibDate + nExpireTime * 24 * 3600)
		//	{
		//		//过期了报错
		//		FWARN("Calibration file is expired! please make a calibration!");
		//		//m_WarnAndError->SendWarn(ERR_FPD_CAL_FILE_OUTDATE, "");
		//	}
		//}
		break;
	case APP_STATUS_WORK_END:
		FINFO("Quit Exam Windows");
		m_eAppStatus = APP_STATUS_WORK_END;
		break;
	case APP_STATUS_DETSHARE_BEGIN:
		FINFO("Enter into Detector Share Windows");
		m_eAppStatus = APP_STATUS_DETSHARE_BEGIN;
		break;
	case APP_STATUS_DETSHAR_END:
		FINFO("Quit Detector Share Windows");
		m_eAppStatus = APP_STATUS_DETSHAR_END;
		break;
	case APP_STATUS_CAL_BEGIN:
		FINFO("Enter into Calibration Windows");
		m_eAppStatus = APP_STATUS_CAL_BEGIN;
		break;
	case APP_STATUS_CAL_END:
		FINFO("Quit Calibration Windows");
		m_eAppStatus = APP_STATUS_CAL_END;
		break;
	case APP_STATUS_WORK_IN_SENSITIVITY:
		FINFO("Enter into sensitivity test interface");
		m_eAppStatus = APP_STATUS_WORK_IN_SENSITIVITY;
		break;
	default:
		break;
	}

	g_pDetector->EnterExamMode(nExamMode);
	FINFO("Device EnterExam Over");

	return RET_STATUS::RET_SUCCEED;
}

RET_STATUS nsFPD::FPDDeviceTiRay::SetAcqMode(string strMode)
{
	FINFO("--Func Device-- SetAcqMode Start");
	RET_STATUS ret = RET_STATUS::RET_FAILED;

	//如果没连接，不执行
	if (!m_bDeviceConnect)
	{
		FERROR("Detector not connected, return");
		return ret;
	}

	//设置采集模式时发一次非Standby状态，配合子系统走流程，使界面ready状态和探测器同步
	m_DetectorCtrlUnit->SetDetectorStatus(to_string(DETECTOR_STATUS_WAKEUP));

	int nMode = AcqMode::RAD;
	bool bRet = GetLogicMode(strMode, nMode);
	if (!bRet)
	{
		return RET_STATUS::RET_FAILED;
	}

	try
	{
		ResDataObject objModeConfig = m_DetectorConfiguration->m_Configurations;

		m_nFullImageWidth = (int)objModeConfig["ModeTable"][0]["ImageWidth"];
		m_nFullImageHeight = (int)objModeConfig["ModeTable"][0]["ImageHeight"];
		m_nImgBits = (int)objModeConfig["ModeTable"][0]["PhySizeInfoBit"];
		m_nPixelSpacing = (int)objModeConfig["ModeTable"][0]["PixelPitch"];
		m_nSensitivity = (int)objModeConfig["ModeTable"][0]["Sensitivity"];
		m_nFPDExpReadyTime = (int)objModeConfig["ModeTable"][0]["XWindow"];

		if (nullptr != m_pFullImgBuffer)
		{
			delete[]m_pFullImgBuffer;
			m_pFullImgBuffer = nullptr;
		}
		m_pFullImgBuffer = new unsigned short[(size_t)m_nFullImageWidth * (size_t)m_nFullImageHeight];
		m_AcqUnit->SetFulImageInfo(m_nFullImageHeight, m_nFullImageWidth, m_nImgBits, false);
		m_AcqUnit->SetPrevImageInfo(false, 0, 0, false);

		string strDoseOfExi = std::to_string(m_nSensitivity);
		m_fFactorEXI2UGY = 100.0f / stof(strDoseOfExi) * 1.0f;//统一使用IEC标准 呈现四角信息，无单位 ugy * 100 -ugy。所有Zskk探测器的FactorEXI2UGY均需*100
		FINFO("m_fFactorEXI2UGY = {$} ", m_fFactorEXI2UGY);
		m_DetectorCtrlUnit->SetFPDSensitivity(std::to_string(m_fFactorEXI2UGY));

		//读取校正时的目标EXI
		int nTargetCalibExi = (int)objModeConfig["ModeTable"][0]["TargetGainEXI"];
		m_nTargetCalibExi = nTargetCalibExi;
		FINFO("m_nTargetCalibExi:{$}", m_nTargetCalibExi);

		if (g_pDetector->SetAcqMode(nMode))
		{
			ret = RET_STATUS::RET_SUCCEED;
			m_AcqUnit->AcqModeNotify(strMode);
		}
		else
		{
			ret = RET_STATUS::RET_FAILED;
		}

	}
	catch (ResDataObjectExption& e)
	{
		FERROR("Read configuration failed, Error code: {$}", e.what());
	}
	FINFO("Device SetAcqMode Over");

	return ret;
}

bool nsFPD::FPDDeviceTiRay::GetLogicMode(string& strAcqMode, int& nLogicMode)
{
	if (strAcqMode == "RAD")
	{
		nLogicMode = RAD;
	}
	else if (strAcqMode == "DualEnergy")
	{
		nLogicMode = DUAL_ENERGY;
	}
	else if (strAcqMode == "DDR"||strAcqMode == "TOMO")
	{
		nLogicMode = DDR;
	}
	else if (strAcqMode == "PF")
	{
		nLogicMode = PF;
	}
	else if (strAcqMode == "1")
	{
		nLogicMode = RAD;
	}
	else if (strAcqMode == "2")
	{
		nLogicMode = DUAL_ENERGY;
	}
	else if (strAcqMode == "3")
	{
		nLogicMode = DDR;
	}
	else if (strAcqMode == "4")
	{
		nLogicMode = PF;
	}
	else
	{
		FERROR("Not support mode!");
		return false;
	}
	return true;
}

RET_STATUS nsFPD::FPDDeviceTiRay::GetSyncMode(SYNC_MODE& eSyncMode)
{
	FINFO("--Func Device-- GetSyncMode Start");
	eSyncMode = m_eSyncMode;
	FINFO("Device GetSyncMode Over");
	return RET_STATUS::RET_SUCCEED;
}

RET_STATUS nsFPD::FPDDeviceTiRay::PrepareAcquisition()
{
	FINFO("--Func Device-- PrepareAcquisition Start");
	RET_STATUS ret = RET_STATUS::RET_FAILED;

	if (!m_bDeviceConnect)
	{
		FERROR("Detector not connected, return");
		return ret;
	}

	if ((m_CalibUnit->GetCalibrationStatus() == CCOS_CALIBRATION_STATUS_RUNNING) ||
		(m_CalibUnit->GetCalibrationStatus() == CCOS_CALIBRATION_STATUS_ACTIVE))
	{
		FERROR("PrepareAcquisition failed. Detector at Calibration status");
	}

	
	m_SyncUnit->FPDReadyNotify(false); //prepare前置为初值
	if (g_pDetector->PrepareAcquisition(this))
	{
		ret = RET_STATUS::RET_SUCCEED;
	}
	
	FINFO("Device PrepareAcquisition Over");
	return ret;
}

RET_STATUS nsFPD::FPDDeviceTiRay::StartAcquisition(string in)
{
	FINFO("--Func Device-- StartAcquisition Start");
	RET_STATUS ret = RET_STATUS::RET_FAILED;

	if (!m_bDeviceConnect)
	{
		FERROR("Detector not connected, return");
		return ret;
	}

	if (DETECTOR_STATUS_STANDBY != m_DetectorCtrlUnit->GetDetectorStatus())
	{
		if ((m_CalibUnit->GetCalibrationStatus() == CCOS_CALIBRATION_STATUS_RUNNING) ||
			(m_CalibUnit->GetCalibrationStatus() == CCOS_CALIBRATION_STATUS_ACTIVE))
		{
			FERROR("PrepareAcquisition failed. Detector at Calibration status.");
		}

		if (DETECTOR_STATUS_ACQ == m_DetectorCtrlUnit->GetDetectorStatus())
		{
			FERROR("Detector already at Acq status.");
		}
	}
	else
	{
		if (g_pDetector->StartAcquisition(this))
		{
			ret = RET_STATUS::RET_SUCCEED;
			m_DetectorCtrlUnit->SetDetectorStatus(to_string(DETECTOR_STATUS_ACQ));
		}
		else
		{
			m_DetectorCtrlUnit->SetDetectorStatus(to_string(DETECTOR_STATUS_STANDBY));
		}
	}

	FINFO("Device StartAcquisition Over");
	return ret;
}

RET_STATUS nsFPD::FPDDeviceTiRay::StopAcquisition()
{
	FINFO("--Func Device-- StopAcquisition Start");
	RET_STATUS ret = RET_STATUS::RET_FAILED;

	if (!m_bDeviceConnect)
	{
		FERROR("Detector not connected, return");
		return ret;
	}

	if (DETECTOR_STATUS_STANDBY == m_DetectorCtrlUnit->GetDetectorStatus())
	{
		FINFO("Detector already at Acq status.");
		ret = RET_STATUS::RET_SUCCEED;
	}
	else
	{
		if (g_pDetector->StopAcquisition(this))
		{
			ret = RET_STATUS::RET_SUCCEED;
			//m_DetectorCtrlUnit->SetDetectorStatus(to_string(DETECTOR_STATUS_STANDBY));
		}
	}
	FINFO("Device StopAcquisition Over");
	return ret;
}

RET_STATUS nsFPD::FPDDeviceTiRay::ActiveCalibration(CCOS_CALIBRATION_TYPE eType)
{
	FINFO("--Func Device-- ActiveCalibration Start");
	FINFO("ActiveCalibration {$}", (int)eType);
	RET_STATUS ret = RET_STATUS::RET_FAILED;

	if (!m_bDeviceConnect)
	{
		FERROR("m_bDeviceConnect is false, detector not connect, return");
		return ret;
	}

	if (eType == CCOS_CALIBRATION_TYPE_NONE || eType == CCOS_CALIBRATION_TYPE_MAX)
	{
		FERROR("calibration type is invalid!");
		return RET_STATUS::RET_INVALID;
	}
	else
	{
		m_CalibType = eType;
	}

	m_eAppStatus = APP_STATUS_CAL_BEGIN;
	if (eType == CCOS_CALIBRATION_TYPE_XRAY)
	{
		FINFO("calibration type: XRAY");
		int nCalibrationRounds = (int)m_CalibDoseList.size();
		g_pDetector->SetCalibRounds(nCalibrationRounds);
	}

	if (g_pDetector->ActiveCalibration(this, eType))
	{
		ret = RET_STATUS::RET_SUCCEED;
		m_CalibUnit->SetCalibrationStatus(to_string(CCOS_CALIBRATION_STATUS_ACTIVE));
		m_CalibUnit->SetCalibrationProgress("0");
	}
	else
	{
		FERROR("Active calibration failed");
		ret = RET_STATUS::RET_FAILED;
	}

	//重置校正流程参数
	m_nCalibCurrentCalibrationRound = 1;
	m_nCalibCurrentExposureIndex = 1;
	m_nCalibCurrentExposureNum = 0;
	FINFO("Device ActiveCalibration Over");
	return ret;
}

RET_STATUS nsFPD::FPDDeviceTiRay::PrepareCalibration()
{
	FINFO("--Func Device-- PrepareCalibration Start");
	RET_STATUS ret = RET_STATUS::RET_FAILED;

	if (!m_bDeviceConnect)
	{
		FERROR("m_bDeviceConnect is false, detector not connect, return");
		return ret;
	}

	if (g_pDetector->PrepareCalibration(this))
	{
		m_CalibUnit->SetCalibrationStatus(to_string(CCOS_CALIBRATION_STATUS_PREPARE));
		CCOS_CALIBRATION_TYPE nCalibrationType = m_CalibUnit->GetCalibrationType();
		if (nCalibrationType == CCOS_CALIBRATION_TYPE_XRAY && m_eSyncMode == SYNC_AED)
		{
			FINFO("set m_bEnterAcqStatus true");
		}
		ret = RET_STATUS::RET_SUCCEED;
		m_DetectorCtrlUnit->SetDetectorStatus(to_string(DETECTOR_STATUS_STANDBY));
	}
	else
	{
		FERROR("PrepareCalibration failed!");
		return ret;
	}

	FINFO("Device PrepareCalibration Over");
	return ret;
}

RET_STATUS nsFPD::FPDDeviceTiRay::GetRequestedDose(std::string& strDose)
{
	FINFO("--Func Device-- GetRequestedDose Start");
	RET_STATUS ret = RET_STATUS::RET_FAILED;
	ResDataObject out;

	if (!m_bDeviceConnect)
	{
		FERROR("m_bDeviceConnect is false, detector not connect, return");
		return ret;
	}

	CCOS_CALIBRATION_TYPE nCalibrationType = m_CalibUnit->GetCalibrationType();
	FINFO("GetRequestedDose calib type is {$}", (int)nCalibrationType);
	if (CCOS_CALIBRATION_TYPE_DARK == nCalibrationType)
	{
		out.add("Dose", 0.0f);
		out.add("kV", 0.0f);
		out.add("mA", 0.0f);
		out.add("ms", 0.0f);
		out.add("mAs", 0.0f);
	}
	else if (CCOS_CALIBRATION_TYPE_XRAY == nCalibrationType)
	{
		FINFO("calib dose list size is {$}", m_CalibDoseList.size());
		ResDataObject temp = m_CalibDoseList[m_nCalibCurrentCalibrationRound - 1];
		int nTargetExi = (int)temp["TargetGainEXI"];
		m_DetectorCtrlUnit->SetTargetEXI(std::to_string(nTargetExi));
		FINFO("nTargetExi:{$}", nTargetExi);
		out.add("Dose", nTargetExi);
		out.add("kV", temp["KV"]);
		out.add("mA", temp["MA"]);
		out.add("ms", temp["MS"]);
		out.add("mAs", temp["MAS"]);
	}
	else
	{
		FERROR("Don't support CalibrationType($)", (int)nCalibrationType);
		return ret;
	}

	strDose = out.encode();
	FINFO("GetRequestedDose:{$}", strDose);
	ret = RET_STATUS::RET_SUCCEED;
	FINFO("Device GetRequestedDose Over");
	return ret;
}

RET_STATUS nsFPD::FPDDeviceTiRay::SetRequestedDose(std::string strDose)
{
	FINFO("--Func Device-- SetRequestedDose Start");
	RET_STATUS Ret = RET_STATUS::RET_SUCCEED;
	FINFO("SetRequestedDose Over");
	return Ret;
}

RET_STATUS nsFPD::FPDDeviceTiRay::GetCalibrationStep(int nDetectorID, string& strCalibrationStepInfo)
{
	FINFO("--Func Device-- GetCalibrationStep Start");
	cout << "--Func Device-- GetCalibrationStep Start. DetectorID: " << nDetectorID << endl;
	RET_STATUS ret = RET_STATUS::RET_SUCCEED;
	ResDataObject out;

	int nCalibrationRounds = (int)m_CalibDoseList.size();
	int nExposureNumCurrentRound = (int)m_CalibDoseList[m_nCalibCurrentCalibrationRound - 1]["ExpNum"];
	if (g_pDetector->GetCalibrationStep(m_nCalibCurrentCalibrationRound, nCalibrationRounds, m_nCalibCurrentExposureIndex, nExposureNumCurrentRound))
	{
		cout << "g_pDetector->GetCalibrationStep success" << endl;
		FINFO("GetCalibrationStep success");
	}
	else
	{
		cout << "g_pDetector->GetCalibrationStep failed" << endl;
		FERROR("GetCalibrationStep error");
		ret = RET_STATUS::RET_FAILED;
		return ret;
	}

	out.add("CalibrationRounds", (int)m_CalibDoseList.size());
	out.add("TotalExposureNum", m_nCalibTotalExposureNum);
	out.add("CurrentCalibrationRound", m_nCalibCurrentCalibrationRound);
	out.add("ExposureNumCurrentRound", (int)m_CalibDoseList[m_nCalibCurrentCalibrationRound - 1]["ExpNum"]);
	out.add("CurrentExposureIndex", m_nCalibCurrentExposureIndex);
	out.add("CurrentExposureNum", m_nCalibCurrentExposureNum);

	cout << "Calibration info - Rounds: " << nCalibrationRounds
		<< ", TotalExposures: " << m_nCalibTotalExposureNum
		<< ", CurrentRound: " << m_nCalibCurrentCalibrationRound
		<< ", CurrentIndex: " << m_nCalibCurrentExposureIndex << endl;

	strCalibrationStepInfo = out.encode();
	cout << "strCalibrationStepInfo: " << strCalibrationStepInfo << endl;
	cout << "Device GetCalibrationStep Over. Return: " << ret << endl;

	FINFO("strCalibrationStepInfo: {$}", strCalibrationStepInfo.c_str());
	FINFO("Device GetCalibrationStep Over");
	return ret;
}

RET_STATUS nsFPD::FPDDeviceTiRay::StartCalibration()
{
	FINFO("--Func Device-- StartCalibration Start");
	RET_STATUS ret = RET_STATUS::RET_FAILED;

	if (!m_bDeviceConnect)
	{
		FERROR("m_bDeviceConnect is false, detector not connect, return");
		return ret;
	}

	if (m_CalibUnit->GetCalibrationStatus() != CCOS_CALIBRATION_STATUS_PREPARE)
	{
		FERROR("Start calibration failed, in {$} status", (int)m_CalibUnit->GetCalibrationStatus());
		return ret;
	}

	if (g_pDetector->StartCalibration(this))
	{
		FINFO("start calibration success set detector status");
		m_CalibUnit->SetCalibrationStatus(to_string(CCOS_CALIBRATION_STATUS_RUNNING));
		ret = RET_STATUS::RET_SUCCEED;
		if (m_eSyncMode == SYNC_AED)
		{
			m_DetectorCtrlUnit->SetDetectorStatus(to_string(DETECTOR_STATUS_ACQ));//StartCalibration
		}
	}
	else
	{
		FERROR("StartCalibration failed");
		ret = RET_STATUS::RET_FAILED;
		return ret;
	}
	FINFO("Device StartCalibration Over");
	return ret;
}

RET_STATUS nsFPD::FPDDeviceTiRay::StopCalibration()
{
	FINFO("--Func Device-- StopCalibration Start");
	RET_STATUS ret = RET_STATUS::RET_FAILED;

	if (!m_bDeviceConnect)
	{
		FERROR("m_bDeviceConnect is false, detector not connect, return");
		return ret;
	}

	m_eAppStatus = APP_STATUS_CAL_END;

	if (g_pDetector->StopCalibration(this))
	{
		ret = RET_STATUS::RET_SUCCEED;
		m_CalibUnit->SetCalibrationStatus(to_string(CCOS_CALIBRATION_STATUS_BESTOPPED));
	}
	else
	{
		FERROR("StopCalibration failed");
	}

	FINFO("Device StopCalibration Over");
	return ret;
}

RET_STATUS nsFPD::FPDDeviceTiRay::AbortCalibration()
{
	FINFO("--Func Device-- AbortCalibration Start");

	m_eAppStatus = APP_STATUS_CAL_END;
	CCOS_CALIBRATION_TYPE nCalibrationType = m_CalibUnit->GetCalibrationType();

	m_DetectorCtrlUnit->SetDetectorStatus(to_string(DETECTOR_STATUS_STANDBY));
	m_CalibUnit->SetCalibrationStatus(to_string(CCOS_CALIBRATION_STATUS_ERROR));
	m_CalibUnit->SetCalibrationProgress("100");

	if (CCOS_CALIBRATION_TYPE_XRAY == nCalibrationType)
	{
		g_pDetector->AbortCalibration(this);
		m_AcqUnit->SendNoNeedWaitImage(true);
	}
	//如果中止的时候探测器在采集状态需要停止采集

	return RET_STATUS::RET_SUCCEED;
	FINFO("Device AbortCalibration Over");
}

RET_STATUS nsFPD::FPDDeviceTiRay::AcceptCalibration()
{
	FINFO("--Func Device-- AcceptCalibration Start");
	RET_STATUS Ret = RET_STATUS::RET_SUCCEED;
	if (g_pDetector->AcceptCalibration())
	{
		FINFO("AcceptCalibration success");
		Ret = RET_STATUS::RET_SUCCEED;
	}
	else
	{
		FERROR("AcceptCalibration error");
		Ret = RET_STATUS::RET_FAILED;
	}
	int nExposureNumCurrentRound = (int)m_CalibDoseList[m_nCalibCurrentCalibrationRound - 1]["ExpNum"];

	//完成校正条件：轮数够了，曝光次数够了
	if ((m_nCalibCurrentCalibrationRound == (int)m_CalibDoseList.size()) && (m_nCalibCurrentExposureIndex == nExposureNumCurrentRound))
	{
		FINFO("Calibration Round: {$}, Exposure Index: {$}, Finished", m_nCalibCurrentCalibrationRound, m_nCalibCurrentExposureIndex);
		m_DetectorCtrlUnit->SetDetectorStatus(to_string(DETECTOR_STATUS_STANDBY));
		m_CalibUnit->SetCalibrationStatus(to_string(CCOS_CALIBRATION_STATUS_STANDBY));
		m_CalibUnit->SetCalibrationProgress("100");
		return Ret;
	}

	if (m_nCalibCurrentExposureIndex >= nExposureNumCurrentRound) //跳到下一轮校正参数
	{
		m_nCalibCurrentCalibrationRound++;
		m_nCalibCurrentExposureIndex = 1;
	}
	else
	{
		m_nCalibCurrentExposureIndex++;
	}
	m_nCalibCurrentExposureNum++;

	m_DetectorCtrlUnit->SetDetectorStatus(to_string(DETECTOR_STATUS_STANDBY));
	FINFO("Device AcceptCalibration Over");
	return Ret;
}

RET_STATUS nsFPD::FPDDeviceTiRay::RejectCalibration()
{
	FINFO("--Func Device-- RejectCalibration Start");
	RET_STATUS Ret = RET_STATUS::RET_SUCCEED;

	if (g_pDetector->RejectCalibration())
	{
		Ret = RET_STATUS::RET_SUCCEED;
	}
	else
	{
		FERROR("RejectCalibration error");
		Ret = RET_STATUS::RET_FAILED;
	}
	m_DetectorCtrlUnit->SetDetectorStatus(to_string(DETECTOR_STATUS_STANDBY));
	FINFO("Device RejectCalibration Over");
	return Ret;
}

RET_STATUS nsFPD::FPDDeviceTiRay::ActiveDetector(bool bActive)
{
	FINFO("--Func Device-- ActiveDetector Start");
	if (!m_stDeviceConfig.bConnectStatus)
	{
		return RET_STATUS::RET_THREAD_INVALID;
	}
	FINFO("Device ActiveDetector Over");

	return RET_STATUS::RET_SUCCEED;
}

RET_STATUS nsFPD::FPDDeviceTiRay::CompleteCalibration()
{
	FINFO("--Func Device-- CompleteCalibration Start");

	if (!g_pDetector->CompleteCalibration(this))
	{
		FERROR("CompleteCalibration fail!");
		return RET_STATUS::RET_FAILED;
	}

	if (g_pDetector->GetCalibType() == CCOS_CALIBRATION_TYPE_DARK)
	{
		FINFO("CompleteCalibration Calibration Type DARK");
	}
	else if (g_pDetector->GetCalibType() == CCOS_CALIBRATION_TYPE_XRAY)
	{
		FINFO("CompleteCalibration Calibration Type XRAY");
		m_eAppStatus = APP_STATUS_CAL_END;
	}

	FINFO("CompleteCalibration set detector status standby");
	m_DetectorCtrlUnit->SetDetectorStatus(to_string(DETECTOR_STATUS_STANDBY));
	m_CalibUnit->SetCalibrationStatus(to_string(CCOS_CALIBRATION_STATUS_STANDBY));
	m_CalibUnit->SetCalibrationProgress("100");
	FINFO("Device CompleteCalibration Over");
	return RET_STATUS::RET_SUCCEED;
}

RET_STATUS nsFPD::FPDDeviceTiRay::SaveCalibrationFile(bool bSaveFlag)
{
	FINFO("--Func Device-- SaveCalibrationFile Start");
	RET_STATUS Ret = RET_STATUS::RET_SUCCEED;
	FINFO("SaveCalibrationFile bSaveFlag: {$}", bSaveFlag);

	if (!bSaveFlag)
	{
		FERROR("Not save calibration file");
		return Ret;
	}

	//点击save按钮时先调用compelte再调用save
	CompleteCalibration();

	if (g_pDetector->SaveCalibrationFile())
	{
		m_CalibUnit->SetSaveCalibrationFileFinish(true);
		Ret = RET_STATUS::RET_SUCCEED;
		//更新配置文件中校正日期和时间
		time_t localtime = time(NULL);
		string strLocalTime = DatetimeToString(localtime);
		FINFO("strLocalTime:{$}", strLocalTime);
		m_CalibUnit->SetLastCalibrationDate(strLocalTime);
		FINFO("m_CalibUnit->SetLastCalibrationDate Over");
		//清除校正文件相关警告
		//m_WarnAndError->ClearWarn(ERR_FPD_CAL_FILE_NOT_EXIST);
		//m_WarnAndError->ClearWarn(ERR_FPD_CAL_FILE_OUTDATE);
	}
	else
	{
		FERROR("SaveCalibrationFile error");
		m_CalibUnit->SetSaveCalibrationFileFinish(false);
		Ret = RET_STATUS::RET_FAILED;
	}
	FINFO("Device SaveCalibrationFile Over");
	return Ret;
}

bool nsFPD::FPDDeviceTiRay::Support_DarkCalib()
{
	return true;
}

bool nsFPD::FPDDeviceTiRay::Support_XrayCalib()
{
	return true;
}

void nsFPD::FPDDeviceTiRay::SendTemperatureValue(float fValue)
{
	int nStatus = 0;
	m_Temperature->SetTemperature(fValue, nStatus);
	FINFO("SendTemperatureValue: {$}, status {$}", fValue, nStatus);
	return;
}

void nsFPD::FPDDeviceTiRay::SendWifiValue(int nValue)
{
	int nStatus = 0;
	m_Wifi->SetSignalValue(nValue, nStatus);
	FINFO("SendWifiValue: {$}, status {$}", nValue, nStatus);
	return;
}

void nsFPD::FPDDeviceTiRay::SendBatteryValue(int nValue)
{
	int nStatus = 0;
	m_Battery->SetRemainPowerValue(nValue, nStatus);
	FINFO("SendBatteryValue: {$}, status {$}", nValue, nStatus);
	return;
}

bool nsFPD::FPDDeviceTiRay::LoadConfig()
{
	FINFO("--Func Device-- LoadConfig Start");
	if (!m_DetectorConfiguration->LoadConfigurations(m_stDeviceConfig, m_CalibDoseList, m_nCalibTotalExposureNum))
	{
		FERROR("Load configuration file failed!!!");
		return false;
	}

	ResDataObject objModeConfig = m_DetectorConfiguration->m_Configurations;

	m_nFullImageWidth = (int)objModeConfig["ModeTable"][0]["ImageWidth"];
	m_nFullImageHeight = (int)objModeConfig["ModeTable"][0]["ImageHeight"];
	m_nImgBits = (int)objModeConfig["ModeTable"][0]["PhySizeInfoBit"];
	m_nPixelSpacing = (int)objModeConfig["ModeTable"][0]["PixelPitch"];
	m_nSensitivity = (int)objModeConfig["ModeTable"][0]["Sensitivity"];
	m_nFPDExpReadyTime = (int)objModeConfig["ModeTable"][0]["XWindow"];

	if (nullptr != m_pFullImgBuffer)
	{
		delete[]m_pFullImgBuffer;
		m_pFullImgBuffer = nullptr;
	}
	m_pFullImgBuffer = new unsigned short[(size_t)m_nFullImageWidth * (size_t)m_nFullImageHeight];
	m_AcqUnit->SetFulImageInfo(m_nFullImageHeight, m_nFullImageWidth, m_nImgBits, false);
	m_AcqUnit->SetPrevImageInfo(false, 0, 0, false);

	string strDoseOfExi = std::to_string(m_nSensitivity);
	m_fFactorEXI2UGY = 100.0f / stof(strDoseOfExi) * 1.0f;//统一使用IEC标准 呈现四角信息，无单位 ugy * 100 -ugy。所有Zskk探测器的FactorEXI2UGY均需*100
	m_DetectorCtrlUnit->SetFPDSensitivity(std::to_string(m_fFactorEXI2UGY));

	//读取校正时的目标EXI
	int nTargetCalibExi = (int)objModeConfig["ModeTable"][0]["TargetGainEXI"];
	m_nTargetCalibExi = nTargetCalibExi;
	//FINFO("m_CalibDoseList:{$}", m_CalibDoseList.encode());
	//FINFO("m_nCalibTotalExposureNum:{$}", m_nCalibTotalExposureNum);
	//m_SyncUnit->SetSupportSyncMode(m_stDeviceConfig.strSupportSyncMode);
	//m_CalibUnit->SetLastCalibrationDate(m_stDeviceConfig.strLastCalibrationDate);
	//m_CalibUnit->SetCalibrationFileExpireTime(m_stDeviceConfig.strCalibrationFileExpireTime);

	m_Battery.reset(new DeviceBatteryMould("DetectorBattery", 0, 
		m_stDeviceConfig.nBatteryLimit,
		m_stDeviceConfig.nBatteryWarning, 
		100, 
		m_stDeviceConfig.nBatteryLimit, 
		100, 100, 0, EventCenter));

	m_Temperature.reset(new DeviceTemperatureMould("DetectorTemperature", 0.0f, m_stDeviceConfig.fTemperatureErrorMin,
		m_stDeviceConfig.fTemperatureWarnMin, m_stDeviceConfig.fTemperatureWarnMax,
		m_stDeviceConfig.fTemperatureWarnMin, m_stDeviceConfig.fTemperatureWarnMax,
		m_stDeviceConfig.fTemperatureErrorMax, 0.0f, EventCenter));

	m_Wifi.reset(new DeviceWifiMould("DetectorWifi", 0, m_stDeviceConfig.nWifiLimit, m_stDeviceConfig.nWifiWarning,
		100, m_stDeviceConfig.nWifiLimit, 100, 100, 0, EventCenter));

	FINFO("Device LoadConfig Over");
	return true;
}

void nsFPD::FPDDeviceTiRay::RegisterCtrl(nsDetail::Dispatch* Dispatch)
{
	Dispatch->Action.Push(ActionKey::EnterExam, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::JSEnterExam);
	Dispatch->Action.Push(ActionKey::ExitExam, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::JSExitExam);
	Dispatch->Action.Push(ActionKey::SetExposureTimes, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::JSSetExposureTimes);
	Dispatch->Action.Push(ActionKey::SetXrayOnNum, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::JSSetXrayOnNum);
	Dispatch->Action.Push(ActionKey::ActiveDetector, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::JSActiveDetector);
	Dispatch->Action.Push(ActionKey::ScanDetector, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::JSScanDetector);
	Dispatch->Action.Push(ActionKey::ConnectDetector, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::JSConnectDetector);

	Dispatch->Get.Push(AttrKey::DetectorConnectStatus, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::JSGetConnectStatus);
	Dispatch->Get.Push(AttrKey::DetectorStatus, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::JSGetFPDStatus);
	Dispatch->Get.Push(AttrKey::DetectorType, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::JSGetDetectorType);
	Dispatch->Get.Push(AttrKey::Description, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::JSGetDescription);
	Dispatch->Get.Push(AttrKey::DetectorID, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::JSGetDetectorID);
	Dispatch->Get.Push(AttrKey::FPDSensitivity, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::JSGetFPDSensitivity);
	Dispatch->Get.Push(AttrKey::PixelData, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::JSGetPixelData);
	Dispatch->Get.Push(AttrKey::TargetEXI, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::JSGetTargetEXI);
	Dispatch->Get.Push(CcosDetectorAttachedFlag, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::JSGetAttachStatus);//CcosDetectorAttachedFlag
	Dispatch->Get.Push(SupportDDR, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::JSGetSupportDDR);
	Dispatch->Get.Push(AttrKey::SerialNumber, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::JSGetSerialNumber);

	Dispatch->Set.Push(AttrKey::DetectorConnectStatus, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::SetConnectStatus);
	Dispatch->Set.Push(AttrKey::DetectorStatus, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::SetDetectorStatus);
	Dispatch->Set.Push(AttrKey::DetectorType, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::SetDetectorType);
	Dispatch->Set.Push(AttrKey::Description, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::SetDescription);
	Dispatch->Set.Push(AttrKey::DetectorID, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::SetDetectorID);
	Dispatch->Set.Push(AttrKey::PixelData, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::SetPixelData);
	Dispatch->Set.Push(AttrKey::TargetEXI, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::SetTargetEXI);
	Dispatch->Set.Push(CcosDetectorAttachedFlag, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::SetAttachStatus);
	Dispatch->Set.Push(SupportDDR, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::SetSupportDDR);
	Dispatch->Set.Push(AttrKey::SerialNumber, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::SetSerialNumber);

	Dispatch->Update.Push(AttrKey::SerialNumber, m_DetectorCtrlUnit.get(), &DetectorCtrlUnit::JSUpdateSerialNumber);
}

void nsFPD::FPDDeviceTiRay::RegisterAcq(nsDetail::Dispatch* Dispatch)
{
	Dispatch->Action.Push(ActionKey::SetAcqMode, m_AcqUnit.get(), &AcqUnit::JSSetAcqMode);

	Dispatch->Get.Push(AttrKey::AcqMode, m_AcqUnit.get(), &AcqUnit::JSGetAcqMode);
	Dispatch->Get.Push(AttrKey::ZskkFPDState, m_AcqUnit.get(), &AcqUnit::JSGetZskkFPDState);
	Dispatch->Get.Push(AttrKey::NoNeedWaitImage, m_AcqUnit.get(), &AcqUnit::JSGetNoNeedWaitImage);
	Dispatch->Get.Push(AttrKey::ImgDataInfo, m_AcqUnit.get(), &AcqUnit::JSGetLastImage);

	Dispatch->Set.Push(AttrKey::ZskkFPDState, m_AcqUnit.get(), &AcqUnit::SetZskkFPDState);
	Dispatch->Set.Push(AttrKey::NoNeedWaitImage, m_AcqUnit.get(), &AcqUnit::JSSetNoNeedWaitImage);
}

void nsFPD::FPDDeviceTiRay::RegisterSync(nsDetail::Dispatch* Dispatch)
{
	Dispatch->Action.Push(ActionKey::SetSyncMode, m_SyncUnit.get(), &SyncUnit::JSSetSyncMode);
	Dispatch->Action.Push(ActionKey::SetXwindowSize, m_SyncUnit.get(), &SyncUnit::JSSetXwindowSize);
	Dispatch->Action.Push(ActionKey::PrepareAcquisition, m_SyncUnit.get(), &SyncUnit::JSPrepareAcquisition);
	Dispatch->Action.Push(ActionKey::StartAcquisition, m_SyncUnit.get(), &SyncUnit::JSStartAcquisition);
	Dispatch->Action.Push(ActionKey::StopAcquisition, m_SyncUnit.get(), &SyncUnit::JSStopAcquisition);
	Dispatch->Action.Push(ActionKey::ActiveSyncMode, m_SyncUnit.get(), &SyncUnit::JSActiveSyncMode);

	Dispatch->Get.Push(AttrKey::FPDReadyStatus, m_SyncUnit.get(), &SyncUnit::JSGetFPDReady);
	Dispatch->Get.Push(AttrKey::XwindowStatus, m_SyncUnit.get(), &SyncUnit::JSGetXWindowStatus);
	Dispatch->Get.Push(AttrKey::ImageReadingStatus, m_SyncUnit.get(), &SyncUnit::JSGetImageReadingStatus);
	Dispatch->Get.Push(AttrKey::FPDExpReady, m_SyncUnit.get(), &SyncUnit::JSGetExpReadyStatus);
	Dispatch->Get.Push(AttrKey::SyncMode, m_SyncUnit.get(), &SyncUnit::JSGetSyncMode);
	Dispatch->Get.Push(AttrKey::SupportSyncMode, m_SyncUnit.get(), &SyncUnit::JSGetSupportSyncMode);

	Dispatch->Set.Push(AttrKey::ImageReadingStatus, m_SyncUnit.get(), &SyncUnit::JSSetImageReadingStatus);
	Dispatch->Set.Push(AttrKey::XwindowStatus, m_SyncUnit.get(), &SyncUnit::JSSetXWindowStatus);
	Dispatch->Set.Push(AttrKey::ImageReadingStatus, m_SyncUnit.get(), &SyncUnit::JSSetImageReadingStatus);
	Dispatch->Set.Push(AttrKey::SupportSyncMode, m_SyncUnit.get(), &SyncUnit::SetSupportSyncMode);
}

void nsFPD::FPDDeviceTiRay::RegisterCalib(nsDetail::Dispatch* Dispatch)
{
	Dispatch->Action.Push(ActionKey::ActiveCalibration, m_CalibUnit.get(), &CalibUnit::JSActiveCalibration);
	Dispatch->Action.Push(ActionKey::GetRequestedDose, m_CalibUnit.get(), &CalibUnit::JSGetRequestedDose);
	Dispatch->Action.Push(ActionKey::SetRequestedDose, m_CalibUnit.get(), &CalibUnit::JSSetRequestedDose);
	Dispatch->Action.Push(ActionKey::PrepareCalibration, m_CalibUnit.get(), &CalibUnit::JSPrepareCalibration);
	Dispatch->Action.Push(ActionKey::StartCalibration, m_CalibUnit.get(), &CalibUnit::JSStartCalibration);
	Dispatch->Action.Push(ActionKey::StopCalibration, m_CalibUnit.get(), &CalibUnit::JSStopCalibration);
	Dispatch->Action.Push(ActionKey::AbortCalibration, m_CalibUnit.get(), &CalibUnit::JSAbortCalibration);
	Dispatch->Action.Push(ActionKey::CompleteCalibration, m_CalibUnit.get(), &CalibUnit::JSCompleteCalibration);
	Dispatch->Action.Push(ActionKey::SetCorrectionType, m_CalibUnit.get(), &CalibUnit::JSSetCorrectionType);
	Dispatch->Action.Push(ActionKey::AcceptCalibration, m_CalibUnit.get(), &CalibUnit::JSAcceptCalibration);
	Dispatch->Action.Push(ActionKey::RejectCalibration, m_CalibUnit.get(), &CalibUnit::JSRejectCalibration);
	Dispatch->Action.Push(ActionKey::SaveCalibrationFile, m_CalibUnit.get(), &CalibUnit::JSSaveCalibrationFile);
	Dispatch->Action.Push(ActionKey::GetCalibrationStep, m_CalibUnit.get(), &CalibUnit::JSGetCalibrationStep);

	Dispatch->Get.Push(AttrKey::CalibrationStatus, m_CalibUnit.get(), &CalibUnit::JSGetCalibStatus);
	Dispatch->Get.Push(AttrKey::CalibrationProgress, m_CalibUnit.get(), &CalibUnit::JSGetCalibProgress);
	Dispatch->Get.Push(AttrKey::UploadCalibrationFilesResult, m_CalibUnit.get(), &CalibUnit::JSGetUploadCalibrationFilesResult);
	Dispatch->Get.Push(AttrKey::SupportCalibrationType, m_CalibUnit.get(), &CalibUnit::JSGetSupportCalibrationType);
	Dispatch->Get.Push(AttrKey::HaveImgCalibration, m_CalibUnit.get(), &CalibUnit::JSGetHaveImgCalibration);
	Dispatch->Get.Push(AttrKey::SaveCalibrationFileFinish, m_CalibUnit.get(), &CalibUnit::JSGetSaveCalibrationFileFinish);
	Dispatch->Get.Push(AttrKey::CalibMode, m_CalibUnit.get(), &CalibUnit::JSGetCalibMode);
	Dispatch->Get.Push(AttrKey::LastCalibrationDate, m_CalibUnit.get(), &CalibUnit::JSGetLastCalibrationDate);
	Dispatch->Get.Push(AttrKey::CalibrationFileExpireTime, m_CalibUnit.get(), &CalibUnit::JSGetCalibrationFileExpireTime);

	Dispatch->Set.Push(AttrKey::CalibrationStatus, m_CalibUnit.get(), &CalibUnit::SetCalibrationStatus);
	Dispatch->Set.Push(AttrKey::CalibrationProgress, m_CalibUnit.get(), &CalibUnit::SetCalibrationProgress);
	Dispatch->Set.Push(AttrKey::UploadCalibrationFilesResult, m_CalibUnit.get(), &CalibUnit::SetUploadCalibrationFilesResult);
	Dispatch->Set.Push(AttrKey::LastCalibrationDate, m_CalibUnit.get(), &CalibUnit::SetLastCalibrationDate);
	Dispatch->Set.Push(AttrKey::CalibrationFileExpireTime, m_CalibUnit.get(), &CalibUnit::SetCalibrationFileExpireTime);

	Dispatch->Update.Push(AttrKey::CalibMode, m_CalibUnit.get(), &CalibUnit::JSUpdateCalibMode);
	Dispatch->Update.Push(AttrKey::LastCalibrationDate, m_CalibUnit.get(), &CalibUnit::JSUpdateLastCalibrationDate);
	Dispatch->Update.Push(AttrKey::CalibrationFileExpireTime, m_CalibUnit.get(), &CalibUnit::JSUpdateCalibrationFileExpireTime);
}

void nsFPD::FPDDeviceTiRay::RegisterOthers(nsDetail::Dispatch* Dispatch)
{
	Dispatch->Get.Push(AttrKey::Temperature_Value, m_Temperature.get(), &DeviceTemperatureMould::JSGetCurrentTemperatureValue);
	Dispatch->Get.Push(AttrKey::Remain_Power_Value, m_Battery.get(), &DeviceBatteryMould::JSGetCurrentBatteryValue);
	Dispatch->Get.Push(AttrKey::Wifi_Strength_Value, m_Wifi.get(), &DeviceWifiMould::JSGetCurrentSignalValue);
	Dispatch->Get.Push(TempUpperLimit, m_Temperature.get(), &DeviceTemperatureMould::JSGetTemperatureWarningMax);
	Dispatch->Get.Push(TempLowerLimit, m_Temperature.get(), &DeviceTemperatureMould::JSGetTemperatureWarningMin);
	Dispatch->Get.Push(TempMaxLimit, m_Temperature.get(), &DeviceTemperatureMould::JSGetTemperatureErrorMax);
	Dispatch->Get.Push(TempMinLimit, m_Temperature.get(), &DeviceTemperatureMould::JSGetTemperatureErrorMin);
	Dispatch->Get.Push(TemperatureCalibUpWarn, m_Temperature.get(), &DeviceTemperatureMould::JSGetTemperatureCalibWarningMax);
	Dispatch->Get.Push(TemperatureCalibLowWarn, m_Temperature.get(), &DeviceTemperatureMould::JSGetTemperatureCalibWarningMin);
	Dispatch->Get.Push(BatLowerLimit, m_Battery.get(), &DeviceBatteryMould::JSGetBatteryWarningMin);
	Dispatch->Get.Push(BatMiniLimit, m_Battery.get(), &DeviceBatteryMould::JSGetBatteryErrorMin);
	Dispatch->Get.Push(WifiLowerLimit, m_Wifi.get(), &DeviceWifiMould::JSGetSignalWarningMin);
	Dispatch->Get.Push(WifiMiniLimit, m_Wifi.get(), &DeviceWifiMould::JSGetSignalErrorMin);

	//Dispatch->Get.Push(nDetail::AttrKey::ErrorList, m_WarnAndError.get(), &FPDErrorWarning::JSGetErrorList);

	Dispatch->Set.Push(TempUpperLimit, m_Temperature.get(), &DeviceTemperatureMould::SetTemperatureWarningMax);
	Dispatch->Set.Push(TempLowerLimit, m_Temperature.get(), &DeviceTemperatureMould::SetTemperatureWarningMin);
	Dispatch->Set.Push(TempMaxLimit, m_Temperature.get(), &DeviceTemperatureMould::SetTemperatureErrorMax);
	Dispatch->Set.Push(TempMinLimit, m_Temperature.get(), &DeviceTemperatureMould::SetTemperatureErrorMin);
	Dispatch->Set.Push(TemperatureCalibUpWarn, m_Temperature.get(), &DeviceTemperatureMould::SetTemperatureCalibWarningMax);
	Dispatch->Set.Push(TemperatureCalibLowWarn, m_Temperature.get(), &DeviceTemperatureMould::SetTemperatureCalibWarningMin);
	Dispatch->Set.Push(BatLowerLimit, m_Battery.get(), &DeviceBatteryMould::SetBatteryWarningMin);
	Dispatch->Set.Push(BatMiniLimit, m_Battery.get(), &DeviceBatteryMould::SetBatteryErrorMin);
	Dispatch->Set.Push(WifiLowerLimit, m_Wifi.get(), &DeviceWifiMould::SetSignalWarningMin);
	Dispatch->Set.Push(WifiMiniLimit, m_Wifi.get(), &DeviceWifiMould::SetSignalErrorMin);

	Dispatch->Update.Push(TempUpperLimit, m_Temperature.get(), &DeviceTemperatureMould::JSUpdateTemperatureWarningMax);
	Dispatch->Update.Push(TempLowerLimit, m_Temperature.get(), &DeviceTemperatureMould::JSUpdateTemperatureWarningMin);
	Dispatch->Update.Push(TempMaxLimit, m_Temperature.get(), &DeviceTemperatureMould::JSUpdateTemperatureErrorMax);
	Dispatch->Update.Push(TempMinLimit, m_Temperature.get(), &DeviceTemperatureMould::JSUpdateTemperatureErrorMin);
	Dispatch->Update.Push(TemperatureCalibUpWarn, m_Temperature.get(), &DeviceTemperatureMould::JSUpdateTemperatureCalibWarningMax);
	Dispatch->Update.Push(TemperatureCalibLowWarn, m_Temperature.get(), &DeviceTemperatureMould::JSUpdateTemperatureCalibWarningMin);
	Dispatch->Update.Push(BatLowerLimit, m_Battery.get(), &DeviceBatteryMould::JSUpdateBatteryWarningMin);
	Dispatch->Update.Push(BatMiniLimit, m_Battery.get(), &DeviceBatteryMould::JSUpdateBatteryErrorMin);
	Dispatch->Update.Push(WifiLowerLimit, m_Wifi.get(), &DeviceWifiMould::JSUpdateSignalWarningMin);
	Dispatch->Update.Push(WifiMiniLimit, m_Wifi.get(), &DeviceWifiMould::JSUpdateSignalErrorMin);
}

void nsFPD::FPDDeviceTiRay::OnFPDCallback(int nDetectorID, int nEventID, int nEventLevel,
	const char* pszMsg, int nParam1, float fParam2, int nPtrParamLen, void* pParam)
{
	switch (nEventLevel)
	{
	case EVT_LEVEL_CONFIGURATION:
	{
		OnEventProcessConf(nDetectorID, nEventID, nEventLevel, pszMsg, nParam1, fParam2, nPtrParamLen, pParam);
		break;
	}
	case EVT_LEVEL_INFORMATOION:
	{
		OnEventProcessInfo(nDetectorID, nEventID, nEventLevel, pszMsg, nParam1, fParam2, nPtrParamLen, pParam);
		break;
	}
	case EVT_LEVEL_STATUS:
	{
		OnEventProcessStatus(nDetectorID, nEventID, nEventLevel, pszMsg, nParam1, fParam2, nPtrParamLen, pParam);
		break;
	}
	case EVT_LEVEL_DATA:
	{
		OnEventProcessData(nDetectorID, nEventID, nEventLevel, pszMsg, nParam1, fParam2, nPtrParamLen, pParam);
		break;
	}
	case EVT_LEVEL_WARNING:
	{
		OnEventProcessWarning(nDetectorID, nEventID, nEventLevel, pszMsg, nParam1, fParam2, nPtrParamLen, pParam);
		break;
	}
	case EVT_LEVEL_ERROR:
	{
		OnEventProcessError(nDetectorID, nEventID, nEventLevel, pszMsg, nParam1, fParam2, nPtrParamLen, pParam);
		break;
	}
	default:
		break;
	}
}

void nsFPD::FPDDeviceTiRay::OnEventProcessConf(int nDetectorID, int nEventID, int nEventLevel,
	const char* pszMsg, int nParam1, float fParam2, int nPtrParamLen, void* pParam)
{
	FERROR("Not support this conf({$})", nEventID);
}

void nsFPD::FPDDeviceTiRay::OnEventProcessInfo(int nDetectorID, int nEventID, int nEventLevel,
	const char* pszMsg, int nParam1, float fParam2, int nPtrParamLen, void* pParam)
{
	switch (nEventID)
	{
	case EVT_DATA_RAW_IMAGE:
	{
		FINFO("EVT_DATA_RAW_IMAGE");
		m_AcqUnit->ImagerPixelSpacingNotify(m_nPixelSpacing);

		//某些值暂时先用假值，有需要再改
		ResDataObject objImageHead, objTemp;
		objTemp.add(SM_IMAGE_TYPE, (int)IMAGE_FULL);
		objTemp.add(SM_IMAGE_BIT, m_nImgBits);
		objTemp.add(SM_IMAGE_TAG, 1);
		objTemp.add(SM_IMAGE_INDEX, 1);
		objTemp.add(SM_IMAGE_YEAR, m_stImgCreateTime.wYear);
		objTemp.add(SM_IMAGE_MONTH, m_stImgCreateTime.wMonth);
		objTemp.add(SM_IMAGE_DAY, m_stImgCreateTime.wDay);
		objTemp.add(SM_IMAGE_HOUR, m_stImgCreateTime.wHour);
		objTemp.add(SM_IMAGE_MINUTE, m_stImgCreateTime.wMinute);
		objTemp.add(SM_IMAGE_SEC, m_stImgCreateTime.wSecond);
		objTemp.add(SM_IMAGE_MILLSEC, m_stImgCreateTime.wMilliseconds);
		objTemp.add(SM_IMAGE_LSB, "5000");
		objTemp.add(SM_IMAGE_DOSE, m_nSensitivity);
		objTemp.add(SM_IMAGE_PIXELSPACING, m_nPixelSpacing);
		objTemp.add(SM_IMAGE_PIXELREPRESENTATION, "1");
		objTemp.add(SM_IMAGE_FLIP, "No");
		objTemp.add(SM_IMAGE_ORIGINX, "0");
		objTemp.add(SM_IMAGE_ORIGINY, "0");
		objTemp.add(SM_IMAGE_EXI2UGY, m_fFactorEXI2UGY);
		objTemp.add(SM_IMAGE_WIDTH, m_nFullImageWidth);
		objTemp.add(SM_IMAGE_HEIGHT, m_nFullImageHeight);
		objTemp.add(SM_IMAGE_ROTATION, "No");
		objTemp.add("ImagePath", pszMsg);
		objImageHead.add(SM_IMAGE_HEAD, objTemp);
		FINFO("Full image head: {$}", objImageHead.encode());

		FINFO("Add image Size: FullImageWidth: {$}, FullImageHeight: {$}", m_nFullImageWidth, m_nFullImageHeight);
		m_AcqUnit->AddFrameWithRawHead(IMAGE_FULL, objImageHead.encode(), m_nFullImageWidth * m_nFullImageHeight);
		FINFO("Add image over");
		break;
	}
	default:
		FERROR("Not support this data({$})", nEventID);
		break;
	}
}

void nsFPD::FPDDeviceTiRay::OnEventProcessStatus(int nDetectorID, int nEventID, int nEventLevel,
	const char* pszMsg, int nParam1, float fParam2, int nPtrParamLen, void* pParam)
{
	switch (nEventID)
	{
	case EVT_STATUS_INIT:
		FINFO("EVT_STATUS_INIT nParam1:{$}", nParam1);
		break;
	case EVT_STATUS_PANEL:
	{
		ENUM_PANEL_STATUS m_ePanelStatus = (ENUM_PANEL_STATUS)nParam1;
		if (PANEL_CLOSE == nParam1)
		{
			FINFO("EVT_STATUS_PANEL PANEL_CLOSE");
			m_bDeviceConnect = false;
			m_DetectorCtrlUnit->SetDetectorStatus(to_string(DETECTOR_STATUS_SHUTDOWN));
			m_DetectorCtrlUnit->SetConnectStatus(to_string(PANEL_DISCONNECT_SUCCESS));
			//m_WarnAndError->SendError(ERR_FPD_DISCONNECT, "");
		}
		else if (PANEL_CONNECT == nParam1)
		{
			FINFO("EVT_STATUS_PANEL PANEL_CONNECT");
			m_bDeviceConnect = true;
			m_DetectorCtrlUnit->SetDetectorStatus(to_string(DETECTOR_STATUS_WAKEUP));
			m_DetectorCtrlUnit->SetConnectStatus(to_string(PANEL_CONNECT_OK));
			//m_WarnAndError->ClearError(ERR_FPD_DISCONNECT);
		}
		else if (PANEL_STANDBY == nParam1)
		{
			FINFO("EVT_STATUS_PANEL PANEL_STANDBY");
			m_DetectorCtrlUnit->SetDetectorStatus(to_string(DETECTOR_STATUS_STANDBY));
		}
		else if (PANEL_SLEEP == nParam1)
		{
			FINFO("EVT_STATUS_PANEL PANEL_NOT_READY");
			m_DetectorCtrlUnit->SetDetectorStatus(to_string(DETECTOR_STATUS_WAKEUP));
		}
		else if (PANEL_READY_EXP == nParam1)
		{
			FINFO("EVT_STATUS_PANEL PANEL_READY_EXP");
			m_SyncUnit->FPDReadyNotify(true);
			m_AcqUnit->SetZskkFPDState(to_string(ZSKK_FPD_STATE_READY));
		}
		else if (PANEL_XWINDOW_ON == nParam1) //Xwindow On
		{
			m_stImgCreateTime = { 0 };
			GetLocalTime(&m_stImgCreateTime);
			FINFO("XWindowOn at {$}-{$}-{$} {$}:{$}:{$}:{$}", m_stImgCreateTime.wYear, m_stImgCreateTime.wMonth, m_stImgCreateTime.wDay,
				m_stImgCreateTime.wHour, m_stImgCreateTime.wMinute, m_stImgCreateTime.wSecond, m_stImgCreateTime.wMilliseconds);
			m_SyncUnit->XWindowOnNotify();
			FINFO("m_SyncUnit XWindowOnNotify Finished!");
		}
		else if (PANEL_XWINDOW_OFF == nParam1) // Xwindow Off
		{
			m_stImgCreateTime = { 0 };
			GetLocalTime(&m_stImgCreateTime);
			FINFO("XWindowOff at {$:d04}-{$:d02}-{$:d02} {$:d02}:{$:d02}:{$:d02}:{$:d03}", m_stImgCreateTime.wYear, m_stImgCreateTime.wMonth, m_stImgCreateTime.wDay,
				m_stImgCreateTime.wHour, m_stImgCreateTime.wMinute, m_stImgCreateTime.wSecond, m_stImgCreateTime.wMilliseconds);
			m_SyncUnit->XWindowOffNotify();
		}
		else if (PANEL_START_ACQ == nParam1)
		{
			FINFO("EVT_STATUS_PANEL PANEL_START_ACQ");
			m_DetectorCtrlUnit->SetDetectorStatus(to_string(DETECTOR_STATUS_ACQ));
		}
		else if (PANEL_XRAY_ON == nParam1)
		{
			FINFO("EVT_STATUS_PANEL PANEL_XRAY_ON");
			m_SyncUnit->XrayOnNotify();
		}
		else if (PANEL_XRAY_OFF == nParam1)
		{
			FINFO("EVT_STATUS_PANEL PANEL_XRAY_OFF");
			m_SyncUnit->XrayOffNotify();
		}
		break;
	}
	case EVT_STATUS_CALIBRATIOIN:
	{
		FINFO("EVT_STATUS_PANEL EVT_STATUS_CALIBRATIOIN");
		ENUM_PANEL_EVENT_STATE eStatus = (ENUM_PANEL_EVENT_STATE)nParam1;
		switch (eStatus)
		{
		case PANEL_EVENT_START:
			m_CalibUnit->SetCalibrationStatus(to_string(CCOS_CALIBRATION_STATUS_ACTIVE));
			break;

		case PANEL_EVENT_BEGIN:
			m_CalibUnit->SetCalibrationStatus(to_string(CCOS_CALIBRATION_STATUS_RUNNING));
			break;
		case PANEL_EVENT_END_OK:
		case PANEL_EVENT_END_ERROR:
			m_DetectorCtrlUnit->SetDetectorStatus(to_string(DETECTOR_STATUS_STANDBY));
			m_CalibUnit->SetCalibrationStatus(to_string(CCOS_CALIBRATION_STATUS_STANDBY));
			m_CalibUnit->SetCalibrationProgress(to_string(100));//make progress
			break;
		case PANEL_EVENT_TIMEOUT:
			break;
		default:
			break;
		}
		break;
	}
	case EVT_STATUS_SINGLEEXP:
	{
		FINFO("EVT_STATUS_PANEL EVT_STATUS_SINGLEEXP");
		if (DOSE_ACCEPT == nParam1)
		{
			FINFO("Calibration Result is acceptable");
			m_DetectorCtrlUnit->SetDetectorStatus(to_string(DETECTOR_STATUS_STANDBY));
			m_CalibUnit->PauseCalibration();
		}
		else
		{
			FERROR("Not support this param({$})", nParam1);
		}
		break;
	}
	case EVT_STATUS_TEMPERATURE:
	{
		FINFO("EVT_STATUS_PANEL EVT_STATUS_TEMPERATURE");
		float fTemperature = fParam2;
		SendTemperatureValue(fTemperature);
		break;
	}
	case EVT_STATUS_WIFI:
	{
		FINFO("EVT_STATUS_PANEL EVT_STATUS_WIFI");
		int nWifiLevel = nParam1;
		SendWifiValue(nWifiLevel);
		break;
	}
	case EVT_STATUS_BATTERY_VALUE:
	{
		FINFO("EVT_STATUS_PANEL EVT_STATUS_BATTERY_VALUE");
		int nBatteryValue = nParam1;
		SendBatteryValue(nBatteryValue);
		break;
	}
	default:
		FERROR("Not support this event({$})", nEventID);
		break;
	}
}

void nsFPD::FPDDeviceTiRay::OnEventProcessData(int nDetectorID, int nEventID, int nEventLevel,
	const char* pszMsg, int nParam1, float fParam2, int nPtrParamLen, void* pParam)
{
	switch (nEventID)
	{
	case EVT_DATA_RAW_IMAGE:
	{
		FINFO("EVT_DATA_RAW_IMAGE");
		m_AcqUnit->ImagerPixelSpacingNotify(m_nPixelSpacing);

		memcpy(m_pFullImgBuffer, pParam, (size_t)m_nFullImageWidth * (size_t)m_nFullImageHeight * sizeof(unsigned short));

		//某些值暂时先用假值，有需要再改
		ResDataObject objImageHead, objTemp;
		objTemp.add(SM_IMAGE_TYPE, (int)IMAGE_FULL);
		objTemp.add(SM_IMAGE_BIT, m_nImgBits);
		objTemp.add(SM_IMAGE_TAG, 1);
		objTemp.add(SM_IMAGE_INDEX, 1);
		objTemp.add(SM_IMAGE_YEAR, m_stImgCreateTime.wYear);
		objTemp.add(SM_IMAGE_MONTH, m_stImgCreateTime.wMonth);
		objTemp.add(SM_IMAGE_DAY, m_stImgCreateTime.wDay);
		objTemp.add(SM_IMAGE_HOUR, m_stImgCreateTime.wHour);
		objTemp.add(SM_IMAGE_MINUTE, m_stImgCreateTime.wMinute);
		objTemp.add(SM_IMAGE_SEC, m_stImgCreateTime.wSecond);
		objTemp.add(SM_IMAGE_MILLSEC, m_stImgCreateTime.wMilliseconds);
		objTemp.add(SM_IMAGE_LSB, "5000");
		objTemp.add(SM_IMAGE_DOSE, m_nSensitivity);
		objTemp.add(SM_IMAGE_PIXELSPACING, m_nPixelSpacing);
		objTemp.add(SM_IMAGE_PIXELREPRESENTATION, "1");
		objTemp.add(SM_IMAGE_FLIP, "No");
		objTemp.add(SM_IMAGE_ORIGINX, "0");
		objTemp.add(SM_IMAGE_ORIGINY, "0");
		objTemp.add(SM_IMAGE_EXI2UGY, m_fFactorEXI2UGY);
		objTemp.add(SM_IMAGE_WIDTH, m_nFullImageWidth);
		objTemp.add(SM_IMAGE_HEIGHT, m_nFullImageHeight);
		objTemp.add(SM_IMAGE_ROTATION, "No");
		objImageHead.add(SM_IMAGE_HEAD, objTemp);
		FINFO("Full image head: {$}", objImageHead.encode());

		FINFO("Add image Size: FullImageWidth: {$}, FullImageHeight: {$}", m_nFullImageWidth, m_nFullImageHeight);
		m_AcqUnit->AddFrameWithRawHead(IMAGE_FULL, objImageHead.encode(), m_pFullImgBuffer, m_nFullImageWidth * m_nFullImageHeight);
		FINFO("Add image over");
		break;
	}
	case EVT_DATA_DOSEPARAM:
	{
		m_fDoseParam = fParam2;
		m_WaitCalibDoseEvt->SetEvent();
		break;
	}
	default:
		FERROR("Not support this data({$})", nEventID);
		break;
	}
}

void nsFPD::FPDDeviceTiRay::OnEventProcessError(int nDetectorID, int nEventID, int nEventLevel,
	const char* pszMsg, int nParam1, float fParam2, int nPtrParamLen, void* pParam)
{
	switch (nEventID)
	{
		case EVT_ERR_COMMUNICATE:
			break;
		case EVT_ERR_INIT_FAILED:
			break;
		default:
			FERROR("Not support this FERROR({$})", nEventID);
			break;
	}
}

void nsFPD::FPDDeviceTiRay::OnEventProcessWarning(int nDetectorID, int nEventID, int nEventLevel,
	const char* pszMsg, int nParam1, float fParam2, int nPtrParamLen, void* pParam)
{
	FERROR("Not support this warn({$})", nEventID);
}

RET_STATUS nsFPD::FPDDeviceTiRay::ActiveSyncMode(int nSyncMode)
{
	FINFO("--Func-- ActiveSyncMode nSyncMode:{$}", nSyncMode);
	m_eSyncMode = (SYNC_MODE)nSyncMode;
	if (g_pDetector->SetSyncMode(nSyncMode))
	{
		return RET_SUCCEED;
	}
	else
	{
		FERROR("ActiveSyncMode fail!");
		return RET_FAILED;
	}
}

RET_STATUS nsFPD::FPDDeviceTiRay::UpdateCalibMode(CCOS_CALIBRATION_MODE eCalibMode)
{
	FINFO("--Func-- UpdateCalibMode eCalibMode:{$}", (int)eCalibMode);
	m_stDeviceConfig.nCalibMode = (int)eCalibMode;
	if (g_pDetector->UpdateCalibMode(eCalibMode))
	{
		FINFO("UpdateCalibMode success!");
		return RET_SUCCEED;
	}
	else
	{
		FERROR("UpdateCalibMode fail!");
		return RET_FAILED;
	}
}

RET_STATUS nsFPD::FPDDeviceTiRay::UpdateLastCalibrationDate(std::string in)
{
	FINFO("--Func-- UpdateLastCalibrationDate in:{$}", in);
	m_stDeviceConfig.strLastCalibrationDate = in;
	return RET_SUCCEED;
}

RET_STATUS nsFPD::FPDDeviceTiRay::UpdateCalibrationFileExpireTime(std::string in)
{
	FINFO("--Func-- UpdateCalibrationFileExpireTime in:{$}", in);
	m_stDeviceConfig.strCalibrationFileExpireTime = in;
	return RET_SUCCEED;
}