#ifndef SSMPROBEPROPERTIES_H
#define SSMPROBEPROPERTIES_H

#include <QObject>
#include <QMetaType>

#include "model/databaseManager/dto/ProbeProperties/DbmProbeProperties.h"

struct SsmProbeProperties_t {
	bool linear;
	float pitch;
	float radius;
	int subAzimuthNo;
	int subElevationNo;
	int elementNo;
	float elementWidth;
	float elementHeight;
	float fieldOfView;
	QList<float> impulseResponse;
	QList<int> angleValues;
	QList<float> focusValues;
	QList<float> hiFocusValues;
	int multiFocusStep;
	QList<int> otiC0Values;
	QList<QList<float> > ffcValues;
	QList<float> depthData;
	QList<int> frequencyValues;
	QList<int> hiFrequencyValues;
	QList<int> dFrequencyValues;
	QList<int> pwFrequencyValues;
	QList<QList<float> > criSteeringAngles;
	float rxGain;
	float txGain;
	QList<float> lineDensityValues;
	QList<float> dLineDensityValues;
	int halfCycleNoValues;
	int ffcHalfCycleNoValues;
	QList<int> hiHalfCycleNoValues;
	QList<int> dopplerHalfCycleNoValues;
	QList<float> priExtensionValue;
	float dPriExtensionValue;
	float txResolution;
	float rxResolution;
	float mLinesPri;
	int simultPwFrameRate;
	QList<float> virtualConvexLineDensityValues;
	float vcMaxTheta;
	QList<bool> piValues;
	QList<QString> hiNames;
	QList<float> AtgcB;
	QList<float> AtgcD;
	QList<float> AtgcPW;
	QList<float> AtgcReserve;

	void init(DbmDtoProbeProperties temp)
	{
		linear = !temp.geometry;
		pitch = static_cast<float>(temp.pitch);
		radius = static_cast<float>(temp.radius);
		subAzimuthNo = temp.subAzimuthNo;
		subElevationNo = temp.subElevationNo;
		elementNo = temp.elementNo;
		elementWidth = static_cast<float>(temp.elementWidth);
		elementHeight = static_cast<float>(temp.elementHeight);
		fieldOfView = static_cast<float>(temp.fov);
		multiFocusStep = temp.multiFocusStep;
		rxGain = static_cast<float>(temp.rxGain);
		txGain = static_cast<float>(temp.txGain);
		halfCycleNoValues = temp.halfCycleNoValues;
		ffcHalfCycleNoValues = temp.ffcHalfCycleNoValues;
		dPriExtensionValue = static_cast<float>(temp.dPriExtensionValue);
		txResolution = static_cast<float>(temp.txResolution);
		rxResolution = static_cast<float>(temp.rxResolution);
		mLinesPri = static_cast<float>(temp.mLinesPri);
		simultPwFrameRate = temp.simultPwFrameRate;
		vcMaxTheta = static_cast<float>(temp.vcMaxTheta);

		otiC0Values = temp.otiC0Values;
		frequencyValues = temp.frequencyValues;
		hiFrequencyValues = temp.hiFrequencyValues;
		dFrequencyValues = temp.dFrequencyValues;
		pwFrequencyValues = temp.pwFrequencyValues;
		hiHalfCycleNoValues = temp.hiHalfCycleNoValues;
		dopplerHalfCycleNoValues = temp.dopplerHalfCycleNoValues;
		hiNames = temp.hiNames;

		impulseResponse.clear();
		for(auto i = 0; i < temp.impulseResponse.length(); i++)
		{
			impulseResponse.append(static_cast<float>(temp.impulseResponse[i]));
		}

		angleValues.clear();
		for(auto i = 0; i < temp.angleValues.length(); i++)
		{
			angleValues.append(static_cast<int>(temp.angleValues[i]));
		}

		focusValues.clear();
		for(auto i = 0; i < temp.focusValues.length(); i++)
		{
			focusValues.append(static_cast<float>(temp.focusValues[i]));
		}

		hiFocusValues.clear();
		for(auto i = 0; i < temp.hiFocusValues.length(); i++)
		{
			hiFocusValues.append(static_cast<float>(temp.hiFocusValues[i]));
		}

		ffcValues.clear();
		for(auto i = 0; i < temp.ffcValues.length(); i++)
		{
			QList<float> t;
			for(auto j = 0; j < temp.ffcValues[i].length(); j++)
			{
				t.append(static_cast<float>(temp.ffcValues[i][j]));
			}
			ffcValues.append(t);
		}

		depthData.clear();
		for(auto i = 0; i < temp.depthValues.length(); i++)
		{
			depthData.append(static_cast<float>(temp.depthValues[i]));
		}

		criSteeringAngles.clear();
		for(auto i = 0; i < temp.criSteeringAngles.length(); i++)
		{
			QList<float> t;
			for(auto j = 0; j < temp.criSteeringAngles[i].length(); j++)
			{
				t.append(static_cast<float>(temp.criSteeringAngles[i][j]));
			}
			criSteeringAngles.append(t);
		}

		lineDensityValues.clear();
		for(auto i = 0; i < temp.lineDensityValues.length(); i++)
		{
			lineDensityValues.append(static_cast<float>(temp.lineDensityValues[i]));
		}

		dLineDensityValues.clear();
		for(auto i = 0; i < temp.dLineDensityValues.length(); i++)
		{
			dLineDensityValues.append(static_cast<float>(temp.dLineDensityValues[i]));
		}

		priExtensionValue.clear();
		for(auto i = 0; i < temp.priExtensionValue.length(); i++)
		{
			priExtensionValue.append(static_cast<float>(temp.priExtensionValue[i]));
		}

		virtualConvexLineDensityValues.clear();
		for(auto i = 0; i < temp.virtualConvexLineDensityValues.length(); i++)
		{
			virtualConvexLineDensityValues.append(
				static_cast<float>(temp.virtualConvexLineDensityValues[i]));
		}

		AtgcB.clear();
		for(auto i = 0; i < temp.AtgcB.length(); i++)
		{
			AtgcB.append(static_cast<float>(temp.AtgcB[i]));
		}

		AtgcD.clear();
		for(auto i = 0; i < temp.AtgcD.length(); i++)
		{
			AtgcD.append(static_cast<float>(temp.AtgcD[i]));
		}

		AtgcPW.clear();
		for(auto i = 0; i < temp.AtgcPW.length(); i++)
		{
			AtgcPW.append(static_cast<float>(temp.AtgcPW[i]));
		}

		AtgcReserve.clear();
		for(auto i = 0; i < temp.AtgcReserve.length(); i++)
		{
			AtgcReserve.append(static_cast<float>(temp.AtgcReserve[i]));
		}

		piValues.clear();
		for(auto i = 0; i < temp.piValues.length(); i++)
		{
			piValues.append(temp.piValues[i] == 1);
		}
	}
};

Q_DECLARE_METATYPE(SsmProbeProperties_t);

#endif //SSMPROBEPROPERTIES_H