/*
 * InstantPlot.cc
 *
 *  Created on: 29 oct. 2013
 *      Author: CS
 */

#include <fstream>
#include <iomanip>
#include <boost/lexical_cast.hpp>

#include "InstantPlot.hh"
#include "ParamsNode.hh"
#include "AxesNode.hh"
#include "PlotLogger.hh"
#include "PlotOutput.hh"
#include "TimeUtil.hh"
#include "ParamMgr.hh"

#include "AxisLegendManager.hh"

using namespace AMDA::Parameters;
using namespace AMDA::Info;

namespace plot {

InstantPlot::InstantPlot(AMDA::Parameters::ParameterManager& manager,
		boost::shared_ptr<Panel> panel) :
		PanelPlotOutput(manager, panel),
		_time(0),

		_prevTime(0),
		_nextTime(0),

		_originalParamId("") {
}

InstantPlot::~InstantPlot() {
}

void InstantPlot::createParameters(std::list<std::string>& usedParametersId_) {

	if (_originalParamId.empty())
		return;

	// Fill usedParameterId_ list with the only used parameter
	// We do not want any resampling on the parameter

	AMDA::Parameters::ParameterSPtr originalParam =	_parameterManager.getParameter(_originalParamId);

	if (std::find (usedParametersId_.begin(),usedParametersId_.end(),originalParam->getId()) == usedParametersId_.end())
		usedParametersId_.push_back(originalParam->getId());

	// Force use of normalized parameter id
	_originalParamId = originalParam->getId();

	AMDA::Info::ParamInfoSPtr paramInfo = AMDA::Info::ParamMgr::getInstance()->getParamInfoFromId(originalParam->getInfoId());

	if (paramInfo != nullptr)
	{
		if (_iSerieProperties != nullptr)
		{
			boost::shared_ptr<AMDA::Info::ParamTable> tableSPtr;

			if (paramInfo != nullptr)
				tableSPtr = paramInfo->getTable(0);

			if ((tableSPtr != nullptr) && (tableSPtr->isVariable(&_parameterManager)))

			{

				for (std::map<std::string, std::string>::iterator it = tableSPtr->getTableParams(&_parameterManager).begin(); it != tableSPtr->getTableParams(&_parameterManager).end(); ++it)

				{
					std::string tableParamKey = it->first;
					std::string tableParamName = it->second;

					AMDA::Parameters::ParameterSPtr originalTableParam = _parameterManager.getParameter(tableParamName);
					_iSerieProperties->addTableParam(tableParamKey, originalTableParam->getId());
				}

				//Add table parameters to parameters list
				for (std::map<std::string, std::string>::iterator it = _iSerieProperties->getTableParams().begin(); it != _iSerieProperties->getTableParams().end(); ++it)
				{
					std::string tableParamId = it->second;

					if (std::find (usedParametersId_.begin(),usedParametersId_.end(),tableParamId) == usedParametersId_.end())
						usedParametersId_.push_back(tableParamId);
				}
			}
		}
		else if (_iSpectroProperties != nullptr)
		{
			boost::shared_ptr<AMDA::Info::ParamTable> table0SPtr;
			boost::shared_ptr<AMDA::Info::ParamTable> table1SPtr;

			if (paramInfo != nullptr)
			{
				table0SPtr = paramInfo->getTable(0);
				table1SPtr = paramInfo->getTable(1);
			}

			if ((table0SPtr != nullptr) && table0SPtr->isVariable(&_parameterManager))

			{

				for (std::map<std::string, std::string>::iterator it = table0SPtr->getTableParams(&_parameterManager).begin(); it != table0SPtr->getTableParams(&_parameterManager).end(); ++it)

				{
					std::string tableParamKey = it->first;
					std::string tableParamName = it->second;

					AMDA::Parameters::ParameterSPtr originalTableParam = _parameterManager.getParameter(tableParamName);
					_iSpectroProperties->addTable0Param(tableParamKey, originalTableParam->getId());
				}

				//Add table parameters to parameters list
				for (std::map<std::string, std::string>::iterator it = _iSpectroProperties->getTable0Params().begin(); it != _iSpectroProperties->getTable0Params().end(); ++it)
				{
					std::string tableParamId = it->second;

					if (std::find (usedParametersId_.begin(),usedParametersId_.end(),tableParamId) == usedParametersId_.end())
						usedParametersId_.push_back(tableParamId);
				}
			}

			if ((table1SPtr != nullptr) && table1SPtr->isVariable(&_parameterManager))

			{

				for (std::map<std::string, std::string>::iterator it = table1SPtr->getTableParams(&_parameterManager).begin(); it != table1SPtr->getTableParams(&_parameterManager).end(); ++it)

				{
					std::string tableParamKey = it->first;
					std::string tableParamName = it->second;

					AMDA::Parameters::ParameterSPtr originalTableParam = _parameterManager.getParameter(tableParamName);
					_iSpectroProperties->addTable1Param(tableParamKey, originalTableParam->getId());
				}

				//Add table parameters to parameters list
				for (std::map<std::string, std::string>::iterator it = _iSpectroProperties->getTable1Params().begin(); it != _iSpectroProperties->getTable1Params().end(); ++it)
				{
					std::string tableParamId = it->second;

					if (std::find (usedParametersId_.begin(),usedParametersId_.end(),tableParamId) == usedParametersId_.end())
						usedParametersId_.push_back(tableParamId);
				}
			}
		}
	}

}

/**
 * @overload PanelPlotOutput::preparePlotArea()
 */
void InstantPlot::preparePlotArea(double startTime, double stopTime, int intervalIndex) {
	LOG4CXX_DEBUG(gLogger, "InstantPlot::preparePlotArea");
	// for test, dump plot properties
	const char* lBuildType=getenv("BUILD_TYPE");
	if(lBuildType && std::string(lBuildType) == "Debug") {
		std::ofstream out("instantPlot.txt");
		dump(out);
		out.close();
	}

	if (_iSerieProperties != nullptr)
	{
		/*
		 * Sequence for an instant series
		 */
		// Configure range of series and color.
		configureSeriesAxis();

		// Configure axis legend
		configureSeriesAxisLegend();

		// Configure params legend
		configureParamsLegend(startTime,stopTime,intervalIndex);
	}
	else if (_iSpectroProperties != nullptr)
	{
		/*
		 * Sequence for an instant spectro
		 */
		// Configure range of spectro axis.
		configureSpectroAxis();

		// Configure axis legend
		configureSpectroAxisLegend();
	}

	// check instant "cut" time validity
	if ((_time == 0) || (_time < startTime) || (_time > stopTime)) {
		double middleTime = (startTime + stopTime) / 2;
		LOG4CXX_WARN(gLogger, "InstantPlot::preparePlotArea invalid \"cut\" time : " << _time << " replaced by middle time : " << middleTime);
		_time = middleTime;
	}

	// If panel title is empty, replace it with start and end date.

	if (_panel->getTitle()->_text.empty() || _panel->_updateTitleOnNextInterval) {

		//Title must be updated during the next interval plot
		_panel->_updateTitleOnNextInterval = true;

		// Set start date and end date.

		std::string lTimeFormat("%Y/%m/%d %H:%M:%S");

		long int lStartTime = static_cast<long int>(_time);
		tm * lStartTimeTm = gmtime(&lStartTime);
		char lStartTimeChr[80];

		// Format date.
		strftime(lStartTimeChr, 80, lTimeFormat.c_str(), lStartTimeTm);

		std::string lStartTimeStr= lStartTimeChr;
		lStartTimeStr += '.'+std::to_string(_time -lStartTime ).substr(2,3);
		_panel->setTitleText((const char*)lStartTimeStr.c_str());

	}

	PanelPlotOutput::preparePlotArea(startTime,stopTime,intervalIndex);
}

/*
 * Dumps properties for test.
 */
void InstantPlot::dump(std::ostream& out_){
	PanelPlotOutput::dump(out_);
	std::string prefix = "instantplot.";
	if (_iSerieProperties != nullptr)
		_iSerieProperties->dump(out_,prefix);
	if (_iSpectroProperties != nullptr)
		_iSpectroProperties->dump(out_,prefix);
}

/**
* @brief Retrieve ConstantLine informations for a given serieId and constantId.
*/
ConstantLine * InstantPlot::getConstantLineFromSerieId (int serieId, int constantId) {
	if (_iSerieProperties == nullptr)
		return NULL;
	// Look for serieId correspondence
	if (_iSerieProperties->getId() == serieId) {
		if (_iSerieProperties->getTableOnXAxis()) {
			boost::shared_ptr<Axis> yAxis(_panel->getAxis(_iSerieProperties->getYAxisId()));
			// Look for constantId correspondence
			for (auto constantLine : yAxis->_constantLines) {
				if (constantLine->getId() == constantId) {
					return constantLine.get();
				}
			}
		} else {
			boost::shared_ptr<Axis> xAxis(_panel->getAxis(_iSerieProperties->getXAxisId()));
			// Look for constantId correspondence
			for (auto constantLine : xAxis->_constantLines) {
				if (constantLine->getId() == constantId) {
					return constantLine.get();
				}
			}
		}
	}

	// ConstantId not found, we throw an exception
	std::stringstream lError;
	lError << "InstantPlot::getConstantLineFromSerieId : Unable to find constantId='" << constantId << "' for serieId='" << serieId << "'";
	BOOST_THROW_EXCEPTION(PanelPlotOutputException() << AMDA::ex_msg(lError.str()));
	return NULL;
}

/**
* @brief Retrieve values for a given serieId.
*/
void InstantPlot::getSerieParameterValues(int serieId, double **xValues, double **yValues, int *nbValues) {
	*nbValues = 0;

	if (_iSerieProperties == nullptr)
		return;

	if (_iSerieProperties->getId() == serieId) {

		// Retrieve parameter informations and param Table if it exists
		ParameterSPtr p = _parameterManager.getParameter(_originalParamId);
		AMDA::Info::ParamInfoSPtr paramInfo = AMDA::Info::ParamMgr::getInstance()->getParamInfoFromId(p->getInfoId());
		boost::shared_ptr<AMDA::Info::ParamTable> paramTable;
		if (paramInfo)
			paramTable = paramInfo->getTable(0);

		ParameterData& paramData = (*_pParameterValues)[_originalParamId];

		*nbValues = paramData.getDim1Size();

		// Build valueData and tableData
		double valueData[*nbValues];
		double tableData[*nbValues];
		double valueMin = DBL_MAX;
		double valueMax = -DBL_MAX;
		double tableMin = DBL_MAX;
		double tableMax = -DBL_MAX;
		double tableValue = 0;
		AMDA::Info::t_TableBound crtBound;

		for (int i = 0; i < *nbValues; ++i) {

			double value = paramData.getInterpolatedValue(_time, AMDA::Common::ParameterIndexComponent(i),_prevTime, _nextTime);

			valueData[i] = value;
			valueMin = std::min (valueMin,value);
			valueMax = std::max (valueMax,value);

			if (paramTable) {

				if (!paramTable->isVariable(&_parameterManager))

					crtBound = paramTable->getBound(&_parameterManager, i);
				else
				{
					std::map<std::string, std::vector<double>> paramsTableData;
					for (std::map<std::string, std::string>::iterator it = _iSerieProperties->getTableParams().begin(); it != _iSerieProperties->getTableParams().end(); ++it)
					{
						ParameterData& data = (*_pParameterValues)[it->second];
						double valIdx = data.indexOf(_time);
						std::vector<double> paramTableValues;
						for (int j = 0; j < data.getDim1Size(); ++j)
						{
							double* values = data.getValues(AMDA::Common::ParameterIndexComponent(j), valIdx);
							paramTableValues.push_back((*values));
						}
						paramsTableData[it->first] = paramTableValues;
					}
					crtBound = paramTable->getBound(&_parameterManager, i, &paramsTableData);
				}
				tableValue = (crtBound.min + crtBound.max) /2;

			} else {
				tableValue = i;
			}

			tableData [i] = tableValue;
			tableMin = std::min (tableMin,tableValue);
			tableMax = std::max (tableMax,tableValue);
		}

		//Attach valueData and tableData x / y value depending on table values associated axe
		if (_iSerieProperties->getTableOnXAxis()) {
			*xValues = _panel->getAxis (_iSerieProperties->getXAxisId())->getComputedValues(
										tableData, *nbValues, tableMin, tableMax);

			*yValues = _panel->getAxis (_iSerieProperties->getYAxisId())->getComputedValues(
										valueData, *nbValues, valueMin, valueMax);

			// If table values decrease, change values order
			if ((*xValues) [0] > (*xValues) [(*nbValues) -1]) {
				double swapX [*nbValues];
				double swapY [*nbValues];
				for (int i=0; i<*nbValues; i++) {
					swapX [i] = (*xValues) [*nbValues - 1 - i];
					swapY [i] = (*yValues) [*nbValues - 1 - i];
				}
				for (int i=0; i<*nbValues; i++) {
					(*xValues) [i] = swapX [i];
					(*yValues) [i] = swapY [i];
				}
			}
		}
		else {
			*xValues = _panel->getAxis (_iSerieProperties->getXAxisId())->getComputedValues(
										valueData, *nbValues, valueMin, valueMax);

			*yValues = _panel->getAxis (_iSerieProperties->getYAxisId())->getComputedValues(
										tableData, *nbValues, tableMin, tableMax);

			// If table values decrease, change values order
			if ((*yValues) [0] > (*yValues) [(*nbValues) -1]) {
				double swapX [*nbValues];
				double swapY [*nbValues];
				for (int i=0; i<*nbValues; i++) {
					swapX [i] = (*xValues) [*nbValues - 1 - i];
					swapY [i] = (*yValues) [*nbValues - 1 - i];
				}
				for (int i=0; i<*nbValues; i++) {
					(*xValues) [i] = swapX [i];
					(*yValues) [i] = swapY [i];
				}
			}
		}
	}
}

/**
* @brief Merge, sort and remove duplicate from 2 arrays in a vector
*/
void InstantPlot::mergeAndSortTime (	double *values1Table, int values1Nb,
									double *values2Table, int values2Nb,
									std::vector<double> &valuesTableMerged) {

	// Build 2 vectors
	std::vector<double> v1(values1Table, values1Table + values1Nb);
	std::vector<double> v2(values2Table, values2Table + values2Nb);

	// Populate resulting vector
	valuesTableMerged.insert( valuesTableMerged.end(), v1.begin(), v1.end() );
	valuesTableMerged.insert( valuesTableMerged.end(), v2.begin(), v2.end() );

	// Sort and remove duplicates for the resulting vector
	sort (valuesTableMerged.begin(), valuesTableMerged.end());
	valuesTableMerged.erase( unique( valuesTableMerged.begin(), valuesTableMerged.end() ), valuesTableMerged.end() );
}

/**
* @brief Return or compute an interpolated value
*/
double InstantPlot::getInterpolatedValue (double *valuesData, double *valuesTable, int valuesNb, double atTableValue) {

	// get index of first time after given time_
	if(isnan(atTableValue)){
		return nan("");
	}

	double *pTable = valuesTable;

	for(int t=0; t<valuesNb; t++) {
		// No interpolation required
		if (*pTable == atTableValue){
			return valuesData [t];
		}
		// Interpolation required
		if (*pTable >= atTableValue){
			if (t == 0) {
				return nan("");
			}
			else {
				double v1 = valuesData [t-1];
				double v2 = valuesData [t];
				double d1 = valuesTable [t-1];
				double d2 = valuesTable [t];
				// Return a linear interpolation of the value for the index
				return (v1 + (v2-v1) * (atTableValue-d1)/(d2-d1));
			}
		}
		pTable++;
	}
	return nan("");
}

/**
* @brief Compute if two ligne segments intersects
*/
bool InstantPlot::intersect (	double xi, double y1i, double y2i,
								double xj, double y1j, double y2j,
								double *xInter) {

	// Simply checks if segment are above or below the other
	if ( ((y1i >= y2i) && (y1j >= y2j)) ||( (y1i <= y2i) && (y1j <= y2j)) ) {
		return false;
	}

	// Computes intersection point :
    // Compute a and b (y = a * x + b) for each segment
    double a1 = (y1j - y1i) / (xj - xi);
    double b1 = y1i - a1 * xi ;

    double a2 = (y2j - y2i) / (xj - xi);
    double b2 = y2i - a2 * xi ;

    // Compute intersection point (a1*x+b1 = a2*x+b2)
    *xInter = (b2-b1) / (a1-a2);

    return true;
}

/**
* @brief Compute and add intersections time to the vector if intersections exist
*/
void InstantPlot::addIntersectionTable (double *values1Data, double *values1Table, int values1Nb,
										double *values2Data, double *values2Table, int values2Nb,
										std::vector<double> &valuesTableMerged) {

	if (valuesTableMerged.empty() == true)
		return;

	// For each table segment compute intersection if it exists
	std::vector<double> intersectionTable;

	double xi = valuesTableMerged [0];
	double y1i = getInterpolatedValue (values1Data, values1Table, values1Nb, xi);
	double y2i = getInterpolatedValue (values2Data, values2Table, values2Nb, xi);

	for (size_t t=1; t<valuesTableMerged.size(); t++) {

		double xj = valuesTableMerged [t];
		double y1j = getInterpolatedValue (values1Data, values1Table, values1Nb, xj);
		double y2j = getInterpolatedValue (values2Data, values2Table, values2Nb, xj);

		double xInter;

		if (intersect (xi, y1i, y2i, xj, y1j, y2j, &xInter) == true) {
			intersectionTable.push_back(xInter);
		}

		// Next vector element
		xi = xj;
		y1i = y1j;
		y2i = y2j;
	}

	// Add intersections informations to the resulting values
	valuesTableMerged.insert( valuesTableMerged.end(), intersectionTable.begin(), intersectionTable.end() );

	// Sort and remove duplicates for the resulting vector
	sort (valuesTableMerged.begin(), valuesTableMerged.end());
	valuesTableMerged.erase( unique( valuesTableMerged.begin(), valuesTableMerged.end() ), valuesTableMerged.end() );
}

/**
* @brief Draw Fill Area for the given arrays and the valueTime timeline
*/
void InstantPlot::drawFillArea (double *values1Data, double *values1Table, int values1Nb,
								double *values2Data, double *values2Table, int values2Nb,
								std::vector<double> &valuesTableMerged,
								bool colorGreaterSpecified, Color& colorGreater,
								bool colorLessSpecified, Color& colorLess) {
	// Get X and Y axis.
	boost::shared_ptr<Axis> lXAxis(_panel->getAxis(_iSerieProperties->getXAxisId()));
	boost::shared_ptr<Axis> lYAxis(_panel->getAxis(_iSerieProperties->getYAxisId()));

	Range lXRange = getXAxisRange (*_iSerieProperties, lXAxis);
	Range lYRange = getYAxisRange (*_iSerieProperties, lYAxis);

	_pls->wind(lXRange.getMin(), lXRange.getMax(), lYRange.getMin(), lYRange.getMax());

	PLFLT x[4], y[4], deltai, deltaj;
	Color curColor;
	Color lInitialColor = changeColor(_pls, colorGreater, _panel->_page->_mode);

	for ( size_t i = 0; i < (valuesTableMerged.size() - 1); i++ )
	{
		x[0] = valuesTableMerged[i];
		x[1] = x[0];
		x[2] = valuesTableMerged[i+1];
		x[3] = x[2];

		y[0] = getInterpolatedValue (values1Data, values1Table, values1Nb, valuesTableMerged[i]);
		y[1] = getInterpolatedValue (values2Data, values2Table, values2Nb, valuesTableMerged[i]);
		y[2] = getInterpolatedValue (values2Data, values2Table, values2Nb, valuesTableMerged[i+1]);
		y[3] = getInterpolatedValue (values1Data, values1Table, values1Nb, valuesTableMerged[i+1]);

		deltai = y[1] - y[0];
		deltaj = y[2] - y[3];

		// Set fill color depending on segment position
		if ( ((deltai > 0) && (fabs(deltai) > fabs(deltaj))) ||
			 ((deltaj > 0) && (fabs(deltaj) > fabs(deltai))) ) {
			// s1 above s2
			if (colorGreaterSpecified == true) {
				curColor = colorGreater;
			} else {
				continue;
			}
		}
		else if ( 	((deltai < 0) && (fabs(deltai) > fabs(deltaj))) ||
					((deltaj < 0) && (fabs(deltaj) > fabs(deltai))) ) {
			// s1 under s2
			if (colorLessSpecified == true) {
				curColor = colorLess;
			} else {
				continue;
			}
		} else {
			// Colinear segments, no fill required
			continue;
		}

		// Fill polygon using the given color
		changeColor(_pls, curColor, _panel->_page->_mode);
		if (_iSerieProperties->getTableOnXAxis())
			_pls->fill(4, x, y);
		else
			_pls->fill(4, y, x);
    }

	// Restore color.
	restoreColor(_pls, lInitialColor, _panel->_page->_mode);
}

void InstantPlot::drawFills(double startDate, double stopDate) {
	if (_iSerieProperties == nullptr)
		return;

	PanelPlotOutput::drawFills(startDate, stopDate);
	LOG4CXX_DEBUG(gLogger, "InstantPlot::drawFillArea");

	double *values1Data 	= NULL;
	double *values1Table 	= NULL;
	int 	values1Nb	= 0;

	double 	values2Data [2];
	double 	values2Table [2];

	double *values1X 	= NULL;
	double *values1Y 	= NULL;

	std::vector<double> valuesTableMerged;

	// Drawing Fill Area located between Serie and Constant (horizontal) line
	for (auto fillSerieConstant : _panel->_fillSerieConstants) {

		// Retrieve serie parameter values for serieId
		getSerieParameterValues (fillSerieConstant->getSerieId(), &values1X, &values1Y, &values1Nb);

		if (_iSerieProperties->getTableOnXAxis()) {
			values1Table = values1X;
			values1Data = values1Y;
		} else {
			values1Table = values1Y;
			values1Data = values1X;
		}

		// Retrieve constantLine informations for these fill
		ConstantLine *constantLine = getConstantLineFromSerieId (	fillSerieConstant->getSerieId(),
																fillSerieConstant->getConstantId());

		// Build values2 values2Time array with 2 values : yConst & (first value, last value) for serie
		values2Data [0] = convertYAxisValue (constantLine->getValue());
		values2Data [1] = convertYAxisValue (constantLine->getValue());

		values2Table [0] = values1Table [0];
		values2Table [1] = values1Table [values1Nb-1];
		// Logarithmic scale for X ?
		// already done !

		int values2Nb = 2;

		if (_iSerieProperties->getTableOnXAxis()) {
			// Logarithmic scale for Y ?
			if (_panel->getAxis(_iSerieProperties->getYAxisId())->_scale == Axis::Scale::LOGARITHMIC) {
				values2Data [0] = log10 (values2Data [0]);
				values2Data [1] = log10 (values2Data [1]);
			}
		} else {
			// Logarithmic scale for X ?
			if (_panel->getAxis(_iSerieProperties->getXAxisId())->_scale == Axis::Scale::LOGARITHMIC) {
				values2Data [0] = log10 (values2Data [0]);
				values2Data [1] = log10 (values2Data [1]);
			}
		}


		// Build time vector by merging existing times and computing intersections, and draw it !
		mergeAndSortTime (	values1Table, values1Nb,
							values2Table, values2Nb,
							valuesTableMerged);

		addIntersectionTable (values1Data, values1Table, values1Nb,
							 values2Data, values2Table, values2Nb,
							 valuesTableMerged);

		drawFillArea (	values1Data, values1Table, values1Nb,
						values2Data, values2Table, values2Nb,
						valuesTableMerged,
						fillSerieConstant->isColorGreaterSpecified(), fillSerieConstant->getColorGreater(),
						fillSerieConstant->isColorLessSpecified(), fillSerieConstant->getColorLess());

		delete [] values1Data;
		delete [] values1Table;
	}
}

void InstantPlot::drawSeries(double startDate, double stopDate, int intervalIndex, std::string pParamId,
		SeriesProperties& pSeries,
		AMDA::Common::ParameterIndexComponent pParamIndex, ParameterAxes& param,

		bool moreThanOneSerieForAxis, bool& noData) {

	if (_iSerieProperties == nullptr)
		return;

	PanelPlotOutput::drawSeries(startDate, stopDate, intervalIndex, pParamId, pSeries, pParamIndex, param, moreThanOneSerieForAxis);
	LOG4CXX_DEBUG(gLogger, "InstantPlot::drawSeries");

	double* xValues = NULL;
	double* yValues = NULL;
	int 	nbValues;

	getSerieParameterValues (_iSerieProperties->getId(), &xValues, &yValues, &nbValues);

	if (noData && (nbValues > 0)) {
		for (int i = 0; i < nbValues; ++i) {
			if (!isNAN(xValues[i]) && !isNAN(yValues[i])) {
				noData = false;
			}
		}
	}

	Color lineColor   = getSerieLineColor(pSeries, moreThanOneSerieForAxis);
	Color symbolColor = getSerieSymbolColor(pSeries, lineColor);

	drawSymbols(
		pSeries.getSymbolProperties().getType(),
		pSeries.getSymbolProperties().getSize(), 1.,
		symbolColor,
		nbValues, xValues, yValues);

	drawLines(
		pSeries.getLineProperties().getType(),
		pSeries.getLineProperties().getStyle(),
		pSeries.getLineProperties().getWidth(),
		lineColor,
		nbValues, xValues, yValues);

	//add serie to the params legend
	addSerieToParamsLegend(*_iSerieProperties,pParamIndex,param._originalParamId,
			lineColor,symbolColor,startDate,stopDate, intervalIndex);

	//delete data
	delete [] xValues;
	delete [] yValues;
}

void InstantPlot::configureSeriesAxis() {
	if (_iSerieProperties == nullptr)
		//nothing to do
		return;

	LOG4CXX_DEBUG(gLogger, "InstantPlot::configureSeriesAxis");

	///////////////////////////////////////////////////////////////////////////
	// Retrieve X and Y axis
	///////////////////////////////////////////////////////////////////////////

	boost::shared_ptr<Axis> lXAxis = _panel->getAxis(_iSerieProperties->getXAxisId());
	if (lXAxis.get() == nullptr) {
		std::stringstream lError;
		lError << "InstantPlot::configureSeriesAxis" << ": X axis with id '" << _iSerieProperties->getXAxisId() << "' not found.";
		BOOST_THROW_EXCEPTION(PanelPlotOutputException() << AMDA::ex_msg(lError.str()));
	}

	lXAxis->_used = true;

	boost::shared_ptr<Axis> lYAxis = _panel->getAxis(_iSerieProperties->getYAxisId());
	if (lYAxis.get() == nullptr) {
		std::stringstream lError;
		lError << "InstantPlot::configureSeriesAxis" << ": Y axis with id '" << _iSerieProperties->getYAxisId() << "' not found.";
		BOOST_THROW_EXCEPTION(PanelPlotOutputException() << AMDA::ex_msg(lError.str()));
	}

	lYAxis->_used = true;

	if (_iSerieProperties->getTableOnXAxis())
	{
		configureTableAxis (lXAxis, false, 0);
		configureDataAxis (lYAxis, false);
	}
	else
	{
		configureTableAxis (lYAxis, false, 0);
		configureDataAxis (lXAxis, false);
	}
}

void InstantPlot::configureTableAxis (boost::shared_ptr<Axis> axisSPtr, bool isSpectro, int relatedDim)
{
	///////////////////////////////////////////////////////////////////////////
	// Configure range for table axis.
	///////////////////////////////////////////////////////////////////////////

	ParameterSPtr p = _parameterManager.getParameter(_originalParamId);

	int dimSize;
	if (relatedDim == 0)
		dimSize = (*_pParameterValues)[_originalParamId].getDim1Size();
	else
		dimSize = (*_pParameterValues)[_originalParamId].getDim2Size();

	//set axis range
	Range lAxisRange = axisSPtr->Axis::getRange();
	AMDA::Info::ParamInfoSPtr paramInfo = AMDA::Info::ParamMgr::getInstance()->getParamInfoFromId(p->getInfoId());
	if (isnan(lAxisRange.getMin()) && isnan(lAxisRange.getMax()))
	{
		boost::shared_ptr<AMDA::Info::ParamTable> tableSPtr;
		if (paramInfo != nullptr)
			tableSPtr = paramInfo->getTable(relatedDim);

		if (tableSPtr == nullptr) {
			LOG4CXX_DEBUG(gLogger, "No table defined => use index");
			lAxisRange.setMin(std::min(0.,lAxisRange.getMin()));
			lAxisRange.setMax(std::max((double)dimSize,lAxisRange.getMax()));
		} else {
			AMDA::Info::t_TableBound crtBound;

			if (!tableSPtr->isVariable(&_parameterManager))

			{

				for (int i = 0; i < dimSize; ++i)
				{
					crtBound = tableSPtr->getBound(&_parameterManager, i);

					if (isSpectro)
					{

						if (!isNAN(crtBound.min))
							lAxisRange.setMin(std::min(crtBound.min,lAxisRange.getMin()));
						if (!isNAN(crtBound.max))
							lAxisRange.setMax(std::max(crtBound.max,lAxisRange.getMax()));

					}
					else
					{

						if (!isNAN(crtBound.min) && !isNAN(crtBound.max))
							lAxisRange.setMin(std::min((crtBound.min+ crtBound.max) / 2.0,lAxisRange.getMin()));
						if (!isNAN(crtBound.min) && !isNAN(crtBound.max))
							lAxisRange.setMax(std::max((crtBound.min+ crtBound.max) / 2.0,lAxisRange.getMax()));

					}
				}
			}
			else
			{
				std::map<std::string, std::string> relatedTableParam;

				if (isSpectro)
				{

					switch (relatedDim)
					{
					case 0 :
						relatedTableParam = _iSpectroProperties->getTable0Params();
						break;
					case 1 :
						relatedTableParam = _iSpectroProperties->getTable1Params();
						break;
					}

				}
				else
				{

					relatedTableParam = _iSerieProperties->getTableParams();
				}

				std::map<std::string, std::vector<double>> paramsTableData;
				for (std::map<std::string, std::string>::iterator it = relatedTableParam.begin(); it != relatedTableParam.end(); ++it)
				{
					ParameterData& data = (*_pParameterValues)[it->second];
					double valIdx = data.indexOf(_time);
					std::vector<double> paramTableValues;
					for (int i = 0; i < data.getDim1Size(); ++i)
					{
						double* values = data.getValues(AMDA::Common::ParameterIndexComponent(i), valIdx);
						paramTableValues.push_back((*values));
					}
					paramsTableData[it->first] = paramTableValues;
				}

				for (int i = 0; i < dimSize; ++i)
				{
					crtBound = tableSPtr->getBound(&_parameterManager, i, &paramsTableData);
					if (isSpectro)
					{

						if (!isNAN(crtBound.min))
							lAxisRange.setMin(std::min(crtBound.min,lAxisRange.getMin()));
						if (!isNAN(crtBound.max))
							lAxisRange.setMax(std::max(crtBound.max,lAxisRange.getMax()));

					}
					else
					{

						if (!isNAN(crtBound.min) && !isNAN(crtBound.max))
							lAxisRange.setMin(std::min((crtBound.min+ crtBound.max) / 2.0,lAxisRange.getMin()));
						if (!isNAN(crtBound.min) && !isNAN(crtBound.max))
							lAxisRange.setMax(std::max((crtBound.min+ crtBound.max) / 2.0,lAxisRange.getMax()));

					}

				}
			}
		}
	}

	//do not extend the axis
	lAxisRange._extend = false;
	axisSPtr->setRange(lAxisRange);

	LOG4CXX_DEBUG(gLogger, "Table axis range : min = " << lAxisRange.getMin() << ", max = " << lAxisRange.getMax());
}

void InstantPlot::configureDataAxis (boost::shared_ptr<Axis> axisSPtr, bool isSpectro)
{
	int dim1Size = (*_pParameterValues)[_originalParamId].getDim1Size();
	int dim2Size = (*_pParameterValues)[_originalParamId].getDim2Size();

	///////////////////////////////////////////////////////////////////////////
	// Configure range axis
	///////////////////////////////////////////////////////////////////////////
	Range lAxisRange(axisSPtr->getRange());

	// If user didn't set a range, calculate range automatically (based on parameters values).
	if (!lAxisRange.isSet()) {

		double instantTimeMin = NAN;
		double instantTimeMax = NAN;

		ParameterData& data = (*_pParameterValues)[_originalParamId];

		if (isSpectro)
		{
			for (int i = 0; i < dim1Size; ++i) {
				for (int j = 0; j < dim2Size; ++j) {

					double valIdx = data.getInterpolatedValue(_time, AMDA::Common::ParameterIndexComponent(i,j),_prevTime, _nextTime);

					if (!isNAN(valIdx)) {
						if (isNAN(instantTimeMax) || (valIdx > instantTimeMax))
							instantTimeMax = valIdx;

						if (isNAN(instantTimeMin) || (valIdx < instantTimeMin))
							instantTimeMin = valIdx;
					}

				}
			}
		}
		else
		{
			for (int i = 0; i < dim1Size; ++i) {

				double valIdx = data.getInterpolatedValue(_time, AMDA::Common::ParameterIndexComponent(i),_prevTime, _nextTime);

				if (!isNAN(valIdx)) {
					if (isNAN(instantTimeMax) || (valIdx > instantTimeMax))
						instantTimeMax = valIdx;

					if (isNAN(instantTimeMin) || (valIdx < instantTimeMin))
						instantTimeMin = valIdx;
				}

			}
		}

		//do not extend the axis
		lAxisRange._extend = false;
		lAxisRange.setMin(instantTimeMin);
		lAxisRange.setMax(instantTimeMax);

		fixRange(lAxisRange, axisSPtr->_scale == Axis::Scale::LOGARITHMIC);

		axisSPtr->setRange(lAxisRange);

	}
	LOG4CXX_DEBUG(gLogger, "Data axis range : min = " << lAxisRange.getMin() << ", max = " << lAxisRange.getMax());
}

void InstantPlot::configureSeriesAxisLegend () {
	if (_iSerieProperties == nullptr)
		return;

	std::string yAxisId = _iSerieProperties->getYAxisId();

	boost::shared_ptr<Axis> lYAxis = _panel->getAxis(yAxisId);
	if (lYAxis.get() == nullptr) {
		std::stringstream lError;
		lError << "TimePlot::configureSeriesAxis" << ": Y axis with id '" << yAxisId << "' not found.";
		BOOST_THROW_EXCEPTION(PanelPlotOutputException() << AMDA::ex_msg(lError.str()));
	}

	std::string xAxisId = _iSerieProperties->getXAxisId();

	boost::shared_ptr<Axis> lXAxis = _panel->getAxis(xAxisId);
	if (lXAxis.get() == nullptr) {
		std::stringstream lError;
		lError << "TimePlot::configureSeriesAxis" << ": Y axis with id '" << xAxisId << "' not found.";
		BOOST_THROW_EXCEPTION(PanelPlotOutputException() << AMDA::ex_msg(lError.str()));
	}

	if (_iSerieProperties->getTableOnXAxis())
	{
		configureTableAxisLegend(lXAxis,0);
		configureDataAxisLegend(lYAxis, false);
	}
	else
	{
		configureTableAxisLegend(lYAxis,0);
		configureDataAxisLegend(lXAxis, false);
	}
}

void InstantPlot::configureTableAxisLegend(boost::shared_ptr<Axis> axisSPtr, int relatedDim) {

	AMDA::Common::ParameterIndexComponentList indexes;
	AxisLegendManager::setAxisLegendForTable(this, axisSPtr, _originalParamId, _originalParamId, indexes, relatedDim);

}

void InstantPlot::configureDataAxisLegend(boost::shared_ptr<Axis> axisSPtr, bool isSpectro) {

	if (isSpectro)
	{
		AxisLegendManager::setAxisLegendForSpectro(this, axisSPtr, _originalParamId);
	}
	else
	{
		AxisLegendManager::AxisParamsComponents axisParamsComponents;

		axisParamsComponents[_originalParamId].push_back(ParameterIndexComponentColor(-1,-1, axisSPtr->_color));

		AxisLegendManager::setAxisLegendForSeries(this, axisSPtr, axisParamsComponents);

	}
}

void InstantPlot::drawSpectro(double startDate, double stopDate, std::string pParamId,

		SpectroProperties& pSpectro, bool& noData)

{
	if (_iSpectroProperties == nullptr)
		return;

	PanelPlotOutput::drawSpectro(startDate, stopDate, pParamId, pSpectro);
	LOG4CXX_DEBUG(gLogger, "InstantPlot::drawSpectro");

	//get parameter data and info
	ParameterSPtr p = _parameterManager.getParameter(pParamId);

	ParameterData& data = (*_pParameterValues)[pParamId];

	boost::shared_ptr<AMDA::Info::ParamTable> tableOnXSPtr;
	boost::shared_ptr<AMDA::Info::ParamTable> tableOnYSPtr;
	int dimOnXSize = 0.;
	int dimOnYSize = 0.;
	std::map<std::string, std::string> paramsOnX;
	std::map<std::string, std::string> paramsOnY;

	AMDA::Info::ParamInfoSPtr paramInfo = AMDA::Info::ParamMgr::getInstance()->getParamInfoFromId(p->getInfoId());

	if (_iSpectroProperties->getDimOnXAxis() == 0)

	{

		if (paramInfo != nullptr) {
			tableOnXSPtr = paramInfo->getTable(0);
			tableOnYSPtr = paramInfo->getTable(1);

		}

		dimOnXSize   = data.getDim1Size();
		dimOnYSize   = data.getDim2Size();
		paramsOnX    = _iSpectroProperties->getTable0Params();
		paramsOnY    = _iSpectroProperties->getTable1Params();
	}
	else
	{
		if (paramInfo != nullptr) {
			tableOnXSPtr = paramInfo->getTable(1);
			tableOnYSPtr = paramInfo->getTable(0);

		}

		dimOnXSize   = data.getDim2Size();
		dimOnYSize   = data.getDim1Size();
		paramsOnX    = _iSpectroProperties->getTable1Params();
		paramsOnY    = _iSpectroProperties->getTable0Params();

	}

	//get axis
	boost::shared_ptr<Axis> lXAxis = _panel->getAxis(_iSpectroProperties->getXAxisId());
	boost::shared_ptr<Axis> lYAxis = _panel->getAxis(_iSpectroProperties->getYAxisId());
	boost::shared_ptr<ColorAxis> lZAxis = _panel->getColorAxis();

	//Check dimensions

	if ((dimOnXSize <= 0) || (dimOnYSize <= 0))

	{
		LOG4CXX_INFO(gLogger, "InstantPlot::drawSpectro - No data to plot");
		return;
	}

	MatrixGrid matrixGrid;

	for (int i = 0; i < dimOnXSize; ++i)

	{
		GridPart part;

		if (tableOnXSPtr == nullptr)
		{
			//no table defined => use index
			part.x[0] = i;
			part.x[1] = i+1;
		}
		else

		{

			if (!tableOnXSPtr->isVariable(&_parameterManager))

			{

				part.x[0] = tableOnXSPtr->getBound(&_parameterManager, i).min;
				part.x[1] = tableOnXSPtr->getBound(&_parameterManager, i).max;

			}
			else
			{

				std::map<std::string, std::vector<double>> paramsTableData;
				for (std::map<std::string, std::string>::iterator it = paramsOnX.begin(); it != paramsOnX.end(); ++it)

				{

					ParameterData& data = (*_pParameterValues)[it->second];
					double valIdx = data.indexOf(_time);
					std::vector<double> paramTableValues;
					for (int k = 0; k < data.getDim1Size(); ++k)

					{

						double* values = data.getValues(AMDA::Common::ParameterIndexComponent(k), valIdx);
						paramTableValues.push_back((*values));

					}

					paramsTableData[it->first] = paramTableValues;

				}

				part.x[0] = tableOnXSPtr->getBound(&_parameterManager, i, &paramsTableData).min;
				part.x[1] = tableOnXSPtr->getBound(&_parameterManager, i, &paramsTableData).max;

			}
		}

		if (std::isnan(part.x[0]) || std::isnan(part.x[1])) {
			continue;
		}

		if (lXAxis->_scale == Axis::Scale::LOGARITHMIC) {
			if ((part.x[0] <= 0) || (part.x[1] <= 0)) {
				continue;
			}
			part.x[0] = log10(part.x[0]);
			part.x[1] = log10(part.x[1]);
		}

		for (int j = 0; j < dimOnYSize; ++j)

		{

			if (tableOnYSPtr == nullptr)

			{
				//no table defined => use index

				part.y[0] = j;
				part.y[1] = j+1;

			}
			else
			{

				if (!tableOnYSPtr->isVariable(&_parameterManager))

				{

					part.y[0] = tableOnYSPtr->getBound(&_parameterManager, j).min;
					part.y[1] = tableOnYSPtr->getBound(&_parameterManager, j).max;

				}
				else
				{
					std::map<std::string, std::vector<double>> paramsTableData;

					for (std::map<std::string, std::string>::iterator it = paramsOnY.begin(); it != paramsOnY.end(); ++it)

					{
						ParameterData& data = (*_pParameterValues)[it->second];
						double valIdx = data.indexOf(_time);
						std::vector<double> paramTableValues;

						for (int k = 0; k < data.getDim1Size(); ++k)

						{

							double* values = data.getValues(AMDA::Common::ParameterIndexComponent(k), valIdx);

							paramTableValues.push_back((*values));
						}
						paramsTableData[it->first] = paramTableValues;
					}

					part.y[0] = tableOnYSPtr->getBound(&_parameterManager, j, &paramsTableData).min;
					part.y[1] = tableOnYSPtr->getBound(&_parameterManager, j, &paramsTableData).max;

				}

			}

			if (std::isnan(part.y[0]) || std::isnan(part.y[1])) {
				continue;

			}

			if (lYAxis->_scale == Axis::Scale::LOGARITHMIC)

			{

				if ((part.y[0] <= 0) || (part.y[1] <= 0)) {
					continue;

				}

				part.y[0] = log10(part.y[0]);
				part.y[1] = log10(part.y[1]);

			}

			part.isColorIndex = false;

			if (_iSpectroProperties->getDimOnXAxis() == 0) {

				part.value = data.getInterpolatedValue(_time, AMDA::Common::ParameterIndexComponent(i,j),_prevTime, _nextTime);

			}

			else {

				part.value = data.getInterpolatedValue(_time, AMDA::Common::ParameterIndexComponent(j,i),_prevTime, _nextTime);

			}

			if (!isNAN(part.value))
				noData = false;

			matrixGrid.push_back(part);
		}
	}

	//get specific colors for min / max values
	Color minValColor = lZAxis->getMinValColor();
	Color maxValColor = lZAxis->getMaxValColor();

	//draw spectro
	drawMatrix(matrixGrid, _iSpectroProperties->getMin(), _iSpectroProperties->getMax(),
		minValColor, maxValColor, lZAxis->_color._colorMapIndex);
}

void InstantPlot::configureSpectroAxis()
{
	if (_iSpectroProperties == nullptr)
		return;

	LOG4CXX_DEBUG(gLogger, "InstantPlot::configureSpectroAxis");

	///////////////////////////////////////////////////////////////////////////
	// Retrieve X, Y and Z axis
	///////////////////////////////////////////////////////////////////////////

	boost::shared_ptr<Axis> lXAxis = _panel->getAxis(_iSpectroProperties->getXAxisId());
	if (lXAxis.get() == nullptr) {
		std::stringstream lError;
		lError << "InstantPlot::configureSpectroAxis" << ": X axis with id '" << _iSpectroProperties->getXAxisId() << "' not found.";
		BOOST_THROW_EXCEPTION(PanelPlotOutputException() << AMDA::ex_msg(lError.str()));
	}

	lXAxis->_used = true;

	boost::shared_ptr<Axis> lYAxis = _panel->getAxis(_iSpectroProperties->getYAxisId());
	if (lYAxis.get() == nullptr) {
		std::stringstream lError;
		lError << "InstantPlot::configureSpectroAxis" << ": Y axis with id '" << _iSpectroProperties->getYAxisId() << "' not found.";
		BOOST_THROW_EXCEPTION(PanelPlotOutputException() << AMDA::ex_msg(lError.str()));
	}

	lYAxis->_used = true;

	boost::shared_ptr<Axis> lZAxis = _panel->getAxis(_iSpectroProperties->getZAxisId());
	if (lZAxis.get() == nullptr) {
		std::stringstream lError;
		lError << "InstantPlot::configureSpectroAxis" << ": Z axis with id '" << _iSpectroProperties->getYAxisId() << "' not found.";
		BOOST_THROW_EXCEPTION(PanelPlotOutputException() << AMDA::ex_msg(lError.str()));
	}

	lZAxis->_used = true;

	if (_iSpectroProperties->getDimOnXAxis() == 0)
	{
		configureTableAxis (lXAxis, true, 0);
		configureTableAxis (lYAxis, true, 1);
		configureDataAxis (lZAxis, true);
	}
	else
	{
		configureTableAxis (lXAxis, true, 1);
		configureTableAxis (lYAxis, true, 0);
		configureDataAxis (lZAxis, true);
	}
}

void InstantPlot::configureSpectroAxisLegend ()
{
	if (_iSpectroProperties == nullptr)
		return;

	LOG4CXX_DEBUG(gLogger, "InstantPlot::configureSpectroAxisLegend");

	//get X axis
	std::string xAxisId = _iSpectroProperties->getXAxisId();
	boost::shared_ptr<Axis> lXAxis = _panel->getAxis(xAxisId);
	if (lXAxis.get() == nullptr) {
		std::stringstream lError;
		lError << "TimePlot::configureSpectroAxisLegend" << ": X axis with id '" << xAxisId << "' not found.";
		BOOST_THROW_EXCEPTION(PanelPlotOutputException() << AMDA::ex_msg(lError.str()));
	}

	//get y axis
	std::string yAxisId = _iSpectroProperties->getYAxisId();
	boost::shared_ptr<Axis> lYAxis = _panel->getAxis(yAxisId);
	if (lYAxis.get() == nullptr) {
		std::stringstream lError;
		lError << "TimePlot::configureSpectroAxisLegend" << ": Y axis with id '" << yAxisId << "' not found.";
		BOOST_THROW_EXCEPTION(PanelPlotOutputException() << AMDA::ex_msg(lError.str()));
	}

	//get z axis
	std::string zAxisId = _iSpectroProperties->getZAxisId();
	boost::shared_ptr<Axis> lZAxis = _panel->getAxis(zAxisId);
	if (lZAxis.get() == nullptr) {
		std::stringstream lError;
		lError << "InstantPlot::configureSpectroAxisLegend" << ": Z axis with id '" << zAxisId << "' not found.";
		BOOST_THROW_EXCEPTION(PanelPlotOutputException() << AMDA::ex_msg(lError.str()));
	}

	if (_iSpectroProperties->getDimOnXAxis() == 0)
	{
		configureTableAxisLegend(lXAxis,0);
		configureTableAxisLegend(lYAxis,1);
		configureDataAxisLegend(lZAxis, true);
	}
	else
	{
		configureTableAxisLegend(lXAxis,1);
		configureTableAxisLegend(lYAxis,0);
		configureDataAxisLegend(lZAxis, true);
	}
}

/**
 * @overload  PanelPlotOutput::getSerieParamsLegendString Get the instant serie legend
 */
std::string InstantPlot::getSerieParamsLegendString(SeriesProperties &/*rSeriesProperties*/,
			AMDA::Common::ParameterIndexComponent& /*index*/, std::string /*originalParamId*/)
{
	if (_iSerieProperties == nullptr)
		return "";

	// Retrieve ParamInfo Manager
	ParamMgr 		*piMgr =ParamMgr::getInstance();

	// Build parameter text legend depending on the availability of paramInfo
	// for Y and X component

	// Try to retrieve informations from paramInfo for table component
	ParameterSPtr p = _parameterManager.getParameter(_originalParamId);
	ParamInfoSPtr	paramInfo = piMgr->getParamInfoFromId(p->getInfoId());

	std::string tableLegendText;
	if (paramInfo)
	{
		boost::shared_ptr<AMDA::Info::ParamTable> tableSPtr = paramInfo->getTable(0);

		if (tableSPtr) {

			tableLegendText = tableSPtr->getName(&_parameterManager);

		} else {
			tableLegendText = "Table indexes";
		}
	}

	// Build parameter text legend depending on the availability of paramInfo
	std::string dataLegendText;
	if (paramInfo) {
		dataLegendText = paramInfo->getShortName();
	} else {
		dataLegendText = _originalParamId;
	}

	// Data always depends on table, no inversion even if table not on x axis
	std::stringstream paramLegendText;
	paramLegendText << dataLegendText << " = f(" << tableLegendText << ")";

	return paramLegendText.str();
}

/**
 * @overload PanelPlotOutput::configureParamsLegend Configure params legend for an instant plot.
 */
void InstantPlot::configureParamsLegend(double startTime, double stopTime, int intervalIndex)
{
	LOG4CXX_DEBUG(gLogger, "InstantPlot::configureParamsLegend");

	_panel->_paramsLegendProperties.resetPlot();

	if (_iSerieProperties == nullptr)
		return;

	//for the legend configuration, we don't need to know the line and symbol colors
	Color fakeColor(0,0,0);

	AMDA::Common::ParameterIndexComponent index(-1,-1);
	addSerieToParamsLegend(*_iSerieProperties,index,
			_originalParamId,fakeColor, fakeColor,startTime,stopTime, intervalIndex);
}

/**
 * @brief Override PanelPlotOutput:draw
 * draw the plot for the current time interval
 */

bool InstantPlot::draw(double startTime, double stopTime, int intervalIndex,

		bool /*isFirstInterval*/, bool /*isLastInterval*/) {
	LOG4CXX_DEBUG(gLogger, "InstantPlot::draw");

	_panel->_paramsLegendProperties.resetPlot();

	// Sets panel plplot viewport, draw background & title for the panel
	_panel->draw(_pls);

	bool noData = true;

	if (!_originalParamId.empty())

	{

		//Set pointer to ParameterData list
			if (_pParameterValues == NULL)
			{
				std::stringstream lError;
					lError << "PanelPlotOutput::draw - Pointer to parameterValues is not set";
				BOOST_THROW_EXCEPTION(
						PanelPlotOutputException() << AMDA::ex_msg(lError.str()));
			}

			// Compute panel XY ratio used for angular conversions
			computePanelPlotXYRatio();

		// Draw fill area between parameter and constant or between parameters
		drawFills (startTime, stopTime);

		if (_iSerieProperties != nullptr)
		{
			// Draw series for parameters.
			ParameterAxes param;
			drawSeries(startTime, stopTime, intervalIndex, _originalParamId,
					*_iSerieProperties, AMDA::Common::ParameterIndexComponent(-1,-1),

					param, false, noData);

		}
		else if (_iSpectroProperties != nullptr)
		{

			drawSpectro(startTime, stopTime, _originalParamId, *_iSpectroProperties, noData);

		}

		// Draw additionnal objects for this series.
		drawAdditionalObjects();

		//Draw parameter legend
		drawParamsLegend();

		//Draw text legends
		drawTextLegends();

		return !noData;

	}

	else {

		_panel->drawEmptyPanel(_pls);

		return true;
	}

}

/**
 * @brief Override drawAdditionalObjects
 * draw additional objects
 */
void InstantPlot::drawAdditionalObjects() {
	if (_iSpectroProperties != nullptr)
	{
		boost::shared_ptr<Axis> lXAxis(_panel->getAxis(_iSpectroProperties->getXAxisId()));
		boost::shared_ptr<Axis> lYAxis(_panel->getAxis(_iSpectroProperties->getYAxisId()));

		if ((lXAxis != nullptr) && (lYAxis != nullptr))
		{
			Range lXRange = lXAxis->getRange();
			Range lYRange = lYAxis->getRange();

			PlWindow lPlWindow = PlWindow(lXRange.getMin(), lXRange.getMax(), lYRange.getMin(), lYRange.getMax());

			if (!lXAxis->_additionalObjDrawn)
				drawXConstantLines (lXAxis, lPlWindow);

			if (!lYAxis->_additionalObjDrawn)
				drawYConstantLines (lYAxis, lPlWindow);

			if (!lXAxis->_additionalObjDrawn || !lYAxis->_additionalObjDrawn)
				drawTextPlots (lXAxis, lYAxis, lPlWindow, _panel->_textPlots);

			lXAxis->_additionalObjDrawn = true;
			lYAxis->_additionalObjDrawn = true;
		}
	}

	if (_iSerieProperties != nullptr)
	{
		boost::shared_ptr<Axis> lXAxis(_panel->getAxis(_iSerieProperties->getXAxisId()));
		boost::shared_ptr<Axis> lYAxis(_panel->getAxis(_iSerieProperties->getYAxisId()));

		if ((lXAxis != nullptr) && (lYAxis != nullptr))
		{
			Range lXRange = lXAxis->getRange();
			Range lYRange = lYAxis->getRange();

			PlWindow lPlWindow = PlWindow(lXRange.getMin(), lXRange.getMax(), lYRange.getMin(), lYRange.getMax());

			if (!lXAxis->_additionalObjDrawn)
				drawXConstantLines (lXAxis, lPlWindow);

			if (!lYAxis->_additionalObjDrawn)
				drawYConstantLines (lYAxis, lPlWindow);

			if (!lXAxis->_additionalObjDrawn || !lYAxis->_additionalObjDrawn)
				drawTextPlots (lXAxis, lYAxis, lPlWindow, _panel->_textPlots);

			lXAxis->_additionalObjDrawn = true;
			lYAxis->_additionalObjDrawn = true;
		}
	}

}

void InstantPlot::writeContext(ContextFileWriter &writer, AMDA::Parameters::TimeIntervalList::iterator currentTimeInterval)
{
	PanelPlotOutput::writeContext(writer, currentTimeInterval);
	if (!isStandalone())
			return;

		writer.startElement("instantTimeNav");
		writer.addAttribute("prevTime", std::to_string(_prevTime).c_str());
		writer.addAttribute("nextTime", std::to_string(_nextTime).c_str());
		writer.endElement();

}

} /* namespace plot */