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drs4settingsmanager.cpp
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drs4settingsmanager.cpp
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/****************************************************************************
**
** DDRS4PALS, a software for the acquisition of lifetime spectra using the
** DRS4 evaluation board of PSI: https://www.psi.ch/drs/evaluation-board
**
** Copyright (C) 2016-2022 Dr. Danny Petschke
**
** This program is free software: you can redistribute it and/or modify
** it under the terms of the GNU General Public License as published by
** the Free Software Foundation, either version 3 of the License, or
** (at your option) any later version.
**
** This program is distributed in the hope that it will be useful,
** but WITHOUT ANY WARRANTY; without even the implied warranty of
** MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
** GNU General Public License for more details.
**
** You should have received a copy of the GNU General Public License
** along with this program. If not, see http://www.gnu.org/licenses/.
**
*****************************************************************************
**
** @author: Dr. Danny Petschke
** @contact: [email protected]
**
*****************************************************************************
**
** related publications:
**
** when using DDRS4PALS for your research purposes please cite:
**
** DDRS4PALS: A software for the acquisition and simulation of lifetime spectra using the DRS4 evaluation board:
** https://www.sciencedirect.com/science/article/pii/S2352711019300676
**
** and
**
** Data on pure tin by Positron Annihilation Lifetime Spectroscopy (PALS) acquired with a semi-analog/digital setup using DDRS4PALS
** https://www.sciencedirect.com/science/article/pii/S2352340918315142?via%3Dihub
**
** when using the integrated simulation tool /DLTPulseGenerator/ of DDRS4PALS for your research purposes please cite:
**
** DLTPulseGenerator: A library for the simulation of lifetime spectra based on detector-output pulses
** https://www.sciencedirect.com/science/article/pii/S2352711018300530
**
** Update (v1.1) to DLTPulseGenerator: A library for the simulation of lifetime spectra based on detector-output pulses
** https://www.sciencedirect.com/science/article/pii/S2352711018300694
**
** Update (v1.2) to DLTPulseGenerator: A library for the simulation of lifetime spectra based on detector-output pulses
** https://www.sciencedirect.com/science/article/pii/S2352711018301092
**
** Update (v1.3) to DLTPulseGenerator: A library for the simulation of lifetime spectra based on detector-output pulses
** https://www.sciencedirect.com/science/article/pii/S235271101930038X
**/
#include "drs4settingsmanager.h"
DRS4PulseShapeFilterData& DRS4PulseShapeFilterData::operator=(const DRS4PulseShapeFilterData ©)
{
m_meanTrace = copy.mean();
m_stdDevTrace = copy.stddev();
m_meanTraceDataX = copy.m_meanTraceDataX;
m_meanTraceDataY = copy.m_meanTraceDataY;
m_stdDevTraceDataX = copy.m_stdDevTraceDataX;
m_stdDevTraceDataY = copy.m_stdDevTraceDataY;
m_meanTraceSpline = copy.m_meanTraceSpline;
m_stddevTraceSpline = copy.m_stddevTraceSpline;
if (m_meanTraceDataXArray) {
delete [] m_meanTraceDataXArray;
m_meanTraceDataXArray = DNULLPTR;
}
if (m_meanTraceDataYArray) {
delete [] m_meanTraceDataYArray;
m_meanTraceDataYArray = DNULLPTR;
}
if (m_stdDevTraceDataXArray) {
delete [] m_stdDevTraceDataXArray;
m_stdDevTraceDataXArray = DNULLPTR;
}
if (m_stdDevTraceDataYArray) {
delete [] m_stdDevTraceDataYArray;
m_stdDevTraceDataYArray = DNULLPTR;
}
m_meanTraceDataXArray = new float[__PULSESHAPEFILTER_SPLINE_TRACE_NUMBER];
m_meanTraceDataYArray = new float[__PULSESHAPEFILTER_SPLINE_TRACE_NUMBER];
m_stdDevTraceDataXArray = new float[__PULSESHAPEFILTER_SPLINE_TRACE_NUMBER];
m_stdDevTraceDataYArray = new float[__PULSESHAPEFILTER_SPLINE_TRACE_NUMBER];
std::fill(m_meanTraceDataXArray, m_meanTraceDataXArray + sizeof(m_meanTraceDataXArray)*m_sizeOfFloat, 0);
std::fill(m_meanTraceDataYArray, m_meanTraceDataYArray + sizeof(m_meanTraceDataYArray)*m_sizeOfFloat, 0);
std::fill(m_stdDevTraceDataXArray, m_stdDevTraceDataXArray + sizeof(m_stdDevTraceDataXArray)*m_sizeOfFloat, 0);
std::fill(m_stdDevTraceDataYArray, m_stdDevTraceDataYArray + sizeof(m_stdDevTraceDataYArray)*m_sizeOfFloat, 0);
if (copy.m_meanTraceDataXArray)
memcpy(m_meanTraceDataXArray, copy.m_meanTraceDataXArray, __PULSESHAPEFILTER_SPLINE_TRACE_NUMBER*sizeof(float));
if (copy.m_meanTraceDataYArray)
memcpy(m_meanTraceDataYArray, copy.m_meanTraceDataYArray, __PULSESHAPEFILTER_SPLINE_TRACE_NUMBER*sizeof(float));
if (copy.m_stdDevTraceDataXArray)
memcpy(m_stdDevTraceDataXArray, copy.m_stdDevTraceDataXArray, __PULSESHAPEFILTER_SPLINE_TRACE_NUMBER*sizeof(float));
if (copy.m_stdDevTraceDataYArray)
memcpy(m_stdDevTraceDataYArray, copy.m_stdDevTraceDataYArray, __PULSESHAPEFILTER_SPLINE_TRACE_NUMBER*sizeof(float));
return *this;
}
void DRS4PulseShapeFilterData::setData(const QVector<QPointF> &mean, const QVector<QPointF> &stddev)
{
setMeanTrace(mean);
setStddevTrace(stddev);
const int size = mean.size();
m_meanTraceDataX.resize(size);
m_meanTraceDataY.resize(size);
m_stdDevTraceDataX.resize(size);
m_stdDevTraceDataY.resize(size);
int cnt = 0;
if (m_meanTraceDataXArray) {
delete [] m_meanTraceDataXArray;
m_meanTraceDataXArray = DNULLPTR;
}
if (m_meanTraceDataYArray) {
delete [] m_meanTraceDataYArray;
m_meanTraceDataYArray = DNULLPTR;
}
if (m_stdDevTraceDataXArray) {
delete [] m_stdDevTraceDataXArray;
m_stdDevTraceDataXArray = DNULLPTR;
}
if (m_stdDevTraceDataYArray) {
delete [] m_stdDevTraceDataYArray;
m_stdDevTraceDataYArray = DNULLPTR;
}
m_meanTraceDataXArray = new float[__PULSESHAPEFILTER_SPLINE_TRACE_NUMBER];
m_meanTraceDataYArray = new float[__PULSESHAPEFILTER_SPLINE_TRACE_NUMBER];
m_stdDevTraceDataXArray = new float[__PULSESHAPEFILTER_SPLINE_TRACE_NUMBER];
m_stdDevTraceDataYArray = new float[__PULSESHAPEFILTER_SPLINE_TRACE_NUMBER];
std::fill(m_meanTraceDataXArray, m_meanTraceDataXArray + sizeof(m_meanTraceDataXArray)*m_sizeOfFloat, 0);
std::fill(m_meanTraceDataYArray, m_meanTraceDataYArray + sizeof(m_meanTraceDataYArray)*m_sizeOfFloat, 0);
std::fill(m_stdDevTraceDataXArray, m_stdDevTraceDataXArray + sizeof(m_stdDevTraceDataXArray)*m_sizeOfFloat, 0);
std::fill(m_stdDevTraceDataYArray, m_stdDevTraceDataYArray + sizeof(m_stdDevTraceDataYArray)*m_sizeOfFloat, 0);
for (QPointF p : m_meanTrace) {
m_meanTraceDataX[cnt] = p.x();
m_meanTraceDataY[cnt] = p.y();
m_stdDevTraceDataX[cnt] = p.x();
m_stdDevTraceDataY[cnt] = m_stdDevTrace.at(cnt).y();
m_meanTraceDataXArray[cnt] = p.x();
m_meanTraceDataYArray[cnt] = p.y();
m_stdDevTraceDataXArray[cnt] = p.x();
m_stdDevTraceDataYArray[cnt] = m_stdDevTrace.at(cnt).y();
cnt ++;
}
m_meanTraceSpline.setType(SplineType::Cubic);
m_stddevTraceSpline.setType(SplineType::Cubic);
m_meanTraceSpline.setPoints(m_meanTraceDataX, m_meanTraceDataY);
m_stddevTraceSpline.setPoints(m_stdDevTraceDataX, m_stdDevTraceDataY);
}
bool DRS4PulseShapeFilterData::isInsideBounding(const double &x, const double &y, const double &lowerFraction, const double& upperFraction) const
{
if (m_meanTrace.isEmpty() || m_stdDevTrace.isEmpty())
return false;
const double mean = m_meanTraceSpline(x);
const double val = m_stddevTraceSpline(x);
const double stddevUpper = upperFraction*val;
const double stddevLower = lowerFraction*val;
const double upperLimit = (mean + stddevUpper);
const double lowerLimit = (mean - stddevLower);
return (y <= upperLimit) && (y >= lowerLimit);
}
static DRS4SettingsManager *__sharedInstanceSettingsManager = DNULLPTR;
DRS4SettingsManager::DRS4SettingsManager() :
m_negativeLifetimes(false),
m_isPositivSignal(false),
m_ignoreBusy(true),
m_cfdLevelA(0.25f),
m_cfdLevelB(0.25f),
m_startCell(0),
m_stopCell(0),
m_burstMode(false),
m_offsetNsAB(5),
m_offsetNsBA(5),
m_offsetNsCoincidence(5),
m_offsetNsMerged(5),
m_scalerNsAB(30),
m_scalerNsBA(30),
m_scalerNsCoincidence(30),
m_scalerNsMerged(30),
m_channelCountAB(4096),
m_channelCountBA(4096),
m_channelCountCoincidence(4096),
m_channelCountMerged(4096),
m_triggerSource(2), //AND logic
m_isTriggerPolarityPositive(false),
m_triggerLevelA(-15),
m_triggerLevelB(-15),
m_triggerDelayInNS(0),
m_comment(""),
m_lastSaveDate(QDateTime::currentDateTime().toString()),
m_channelNumberA(0),
m_channelNumberB(1),
m_startAChannelMin(0),
m_startBChannelMin(0),
m_stopAChannelMin(0),
m_stopBChannelMin(0),
m_startAChannelMax(1024),
m_startBChannelMax(1024),
m_stopAChannelMax(1024),
m_stopBChannelMax(1024),
m_bForceCoincidence(false),
m_meanNs(0.0f),
m_fitIter(40),
m_fitIterMerged(40),
m_fitIterAB(40),
m_fitIterBA(40),
m_sweepInNanoSec(200.0f),
m_freqInGHz(5.12f),
m_bPulseAreaFilterEnabledPlot(true),
m_bPulseAreaFilterEnabled(false),
m_pulseAreaBinningA(500),
m_pulseAreaBinningB(500),
m_pulseAreaNormA(5.0f),
m_pulseAreaNormB(5.0f),
m_pulseAreaLeftUpper_A(250.0f),
m_pulseAreaRightUpper_A(250.0f),
m_pulseAreaLeftLower_A(250.0f),
m_pulseAreaRightLower_A(250.0f),
m_pulseAreaLeftUpper_B(250.0f),
m_pulseAreaRightUpper_B(250.0f),
m_pulseAreaLeftLower_B(250.0f),
m_pulseAreaRightLower_B(250.0f),
m_fileName(""),
m_persistance_leftAInNs(2.0f),
m_persistance_leftBInNs(2.0f),
m_persistance_rightAInNs(2.0f),
m_persistance_rightBInNs(2.0f),
m_persistanceEnabled(false),
m_riseTimeFilterIsPlotEnabled(false),
m_riseTimeFilterIsActivated(false),
m_riseTimeFilter_scaleInNs_A(5.0f),
m_riseTimeFilter_scaleInNs_B(5.0f),
m_riseTimeFilter_scaleBinningCnt_A(1000),
m_riseTimeFilter_scaleBinningCnt_B(1000),
m_riseTimeFilter_leftWindow_A(20),
m_riseTimeFilter_leftWindow_B(20),
m_riseTimeFilter_rightWindow_A(980),
m_riseTimeFilter_rightWindow_B(980),
m_pulseShapeFilter_numberOfPulsesAcq_A(10000),
m_pulseShapeFilter_numberOfPulsesAcq_B(10000),
m_pulseShapeFilter_leftAInNs(2.0f),
m_pulseShapeFilter_leftBInNs(2.0f),
m_pulseShapeFilter_rightAInNs(2.0f),
m_pulseShapeFilter_rightBInNs(2.0f),
m_pulseShapeFilter_ROIleftAInNs(1.2f),
m_pulseShapeFilter_ROIleftBInNs(1.2f),
m_pulseShapeFilter_ROIrightAInNs(1.2f),
m_pulseShapeFilter_ROIrightBInNs(1.2f),
m_pulseShapeFilter_StdDevUpperFractA(3.0f),
m_pulseShapeFilter_StdDevLowerFractA(3.0f),
m_pulseShapeFilter_StdDevUpperFractB(3.0f),
m_pulseShapeFilter_StdDevLowerFractB(3.0f),
m_pulseShapeFilterRecordScheme(DRS4PulseShapeFilterRecordScheme::Scheme::RC_AB),
m_pulseShapeFilterEnabledA(false),
m_pulseShapeFilterEnabledB(false),
m_baseLineCorrectionStartPeakCellA(25),
m_baseLineCorrectionWindowA(5),
m_baselineCorrTypeA(DRS4BaselineCorrectionType::type::fixed),
m_baseLineCorrectionStartCellA(5),
m_baseLineCorrectionRegionA(25),
m_baseLineCorrectionShiftValueA(0.0),
m_baseLineCorrectionEnabledA(false),
m_baseLineCorrectionLimitA(3.0),
m_baseLineCorrectionLimitExceededRejectA(false),
m_baselineCorrTypeB(DRS4BaselineCorrectionType::type::fixed),
m_baseLineCorrectionStartPeakCellB(25),
m_baseLineCorrectionWindowB(5),
m_baseLineCorrectionStartCellB(5),
m_baseLineCorrectionRegionB(25),
m_baseLineCorrectionShiftValueB(0.0),
m_baseLineCorrectionEnabledB(false),
m_baseLineCorrectionLimitB(3.0),
m_baseLineCorrectionLimitExceededRejectB(false) {
m_parentNode = new DSimpleXMLNode("DDRS4PALS");
m_versionNode = new DSimpleXMLNode("file-version");
m_versionNode->setValue((int)VERSION_SETTINGS_FILE);
m_generalSettingsNode = new DSimpleXMLNode("general-board-settings");
m_cfdDeterminationSettingsNode = new DSimpleXMLNode("timing-algorithm-settings");
m_cfdAlgorithmTypeNode = new DSimpleXMLNode("algorithm-type");
m_cfdAlgorithmTypeNode->setValue(DRS4InterpolationType::type::spline);
m_cfdAlgorithmType_polynomialInterpolationNode = new DSimpleXMLNode("type-1-polynomial-interpolation");
m_polynomialIntraSamplingPointsNode = new DSimpleXMLNode("intra-sampling-points");
m_polynomialIntraSamplingPointsNode->setValue(10);
m_cfdAlgorithmType_splineAndFittingInterpolationNode = new DSimpleXMLNode("type-2-spline-interpolation");
m_splineTypeNode = new DSimpleXMLNode("spline-type");
m_splineTypeLinearNode = new DSimpleXMLNode("linear");
m_splineTypeLinearEnabledNode = new DSimpleXMLNode("enabled?");
m_splineTypeLinearEnabledNode->setValue(true);
m_splineTypeCubicNode = new DSimpleXMLNode("alglib-cubic");
m_splineTypeCubicEnabledNode = new DSimpleXMLNode("enabled?");
m_splineTypeCubicEnabledNode->setValue(false);
m_splineTypeAkimaNode = new DSimpleXMLNode("alglib-akima");
m_splineTypeAkimaEnabledNode = new DSimpleXMLNode("enabled?");
m_splineTypeAkimaEnabledNode->setValue(false);
m_splineTypeCatmullRomNode = new DSimpleXMLNode("alglib-catmull-rom");
m_splineTypeCatmullRomEnabledNode = new DSimpleXMLNode("enabled?");
m_splineTypeCatmullRomEnabledNode->setValue(false);
m_splineTypeMonotoneNode = new DSimpleXMLNode("alglib-monotone");
m_splineTypeMonotoneEnabledNode = new DSimpleXMLNode("enabled?");
m_splineTypeMonotoneEnabledNode->setValue(false);
m_splineTypeTKCubicNode = new DSimpleXMLNode("tk-cubic");
m_splineTypeTKCubicEnabledNode = new DSimpleXMLNode("enabled?");
m_splineTypeTKCubicEnabledNode->setValue(false);
m_splineIntraSamplingPointsNode = new DSimpleXMLNode("intra-sampling-points");
m_splineIntraSamplingPointsNode->setValue(10);
m_phsSettingsNode = new DSimpleXMLNode("phs-settings");
m_spectrumSettingsNode = new DSimpleXMLNode("spectrum-settings");
m_abSpecNode = new DSimpleXMLNode("spectrum-AB");
m_baSpecNode = new DSimpleXMLNode("spectrum-BA");
m_mergedSpecNode = new DSimpleXMLNode("spectrum-Merged");
m_promptSpecNode = new DSimpleXMLNode("spectrum-Prompt");
m_areaFilterSettingsNode = new DSimpleXMLNode("area-filter-settings");
m_medianFilterSettingsNode = new DSimpleXMLNode("median-filter-settings");
m_riseTimeFilterSettingsNode = new DSimpleXMLNode("rise-time-filter-settings");
m_pulseShapeFilterSettingsNode = new DSimpleXMLNode("pulse-shape-filter-settings");
m_baseLineFilterSettingsNode = new DSimpleXMLNode("baseline-jitter-correction-settings");
m_persistancePlotSettingsNode = new DSimpleXMLNode("persistance-plot-settings");
m_burstModeNode = new DSimpleXMLNode("burst-mode?");
m_burstModeNode->setValue(false);
m_negativeLifetimesNode = new DSimpleXMLNode("negative-lifetimes?");
m_negativeLifetimesNode->setValue(m_negativeLifetimes);
m_ignoreBusyNode = new DSimpleXMLNode("ignore-busy-state?");
m_ignoreBusyNode->setValue(m_ignoreBusy);
m_cfdLevelANode = new DSimpleXMLNode("CFD-level-detector-A");
m_cfdLevelANode->setValue(m_cfdLevelA);
m_cfdLevelBNode = new DSimpleXMLNode("CFD-level-detector-B");
m_cfdLevelBNode->setValue(m_cfdLevelB);
m_sweepInNanoSecNode = new DSimpleXMLNode("sweep-in-ns");
m_sweepInNanoSecNode->setValue(m_sweepInNanoSec);
m_freqInGHzNode = new DSimpleXMLNode("sample-speed-in-GHz");
m_freqInGHzNode->setValue(m_freqInGHz);
m_startCellNode = new DSimpleXMLNode("ROI-start-cell");
m_startCellNode->setValue(m_startCell);
m_stopCellNode = new DSimpleXMLNode("ROI-stop-cell");
m_stopCellNode->setValue(m_stopCell);
m_offsetNsABNode = new DSimpleXMLNode("offset-AB-spectrum-in-ns");
m_offsetNsABNode->setValue(m_offsetNsAB);
m_offsetNsBANode = new DSimpleXMLNode("offset-BA-spectrum-in-ns");
m_offsetNsBANode->setValue(m_offsetNsBA);
m_offsetNsCoincidenceNode = new DSimpleXMLNode("offset-Prompt-spectrum-in-ns");
m_offsetNsCoincidenceNode->setValue(m_offsetNsCoincidence);
m_offsetNsMergedNode = new DSimpleXMLNode("offset-Merged-spectrum-in-ns");
m_offsetNsMergedNode->setValue(m_offsetNsMerged);
m_scalerNsABNode = new DSimpleXMLNode("scale-AB-spectrum-in-ns");
m_scalerNsABNode->setValue(m_scalerNsAB);
m_scalerNsBANode = new DSimpleXMLNode("scale-BA-spectrum-in-ns");
m_scalerNsBANode->setValue(m_scalerNsBA);
m_scalerNsCoincidenceNode = new DSimpleXMLNode("scale-Prompt-spectrum-in-ns");
m_scalerNsCoincidenceNode->setValue(m_scalerNsCoincidence);
m_scalerNsMergedNode = new DSimpleXMLNode("scale-Merged-spectrum-in-ns");
m_scalerNsMergedNode->setValue(m_scalerNsMerged);
m_channelCountABNode = new DSimpleXMLNode("number-of-channels-AB-spectrum");
m_channelCountABNode->setValue(m_channelCountAB);
m_channelCountBANode = new DSimpleXMLNode("number-of-channels-BA-spectrum");
m_channelCountBANode->setValue(m_channelCountBA);
m_channelCountCoincidenceNode = new DSimpleXMLNode("number-of-channels-Prompt-spectrum");
m_channelCountCoincidenceNode->setValue(m_channelCountCoincidence);
m_channelCountMergedNode = new DSimpleXMLNode("number-of-channels-Merged-spectrum");
m_channelCountMergedNode->setValue(m_channelCountMerged);
m_triggerSourceNode = new DSimpleXMLNode("trigger-source");
m_triggerSourceNode->setValue(m_triggerSource);
m_isPositivSignalNode = new DSimpleXMLNode("positive-signal-polarity?");
m_isPositivSignalNode->setValue(m_isPositivSignal);
m_isTriggerPolarityPositiveNode = new DSimpleXMLNode("trigger-polarity?");
m_isTriggerPolarityPositiveNode->setValue(m_isTriggerPolarityPositive);
m_triggerLevelANode = new DSimpleXMLNode("trigger-level-channel-A-in-mV");
m_triggerLevelANode->setValue(m_triggerLevelA);
m_triggerLevelBNode = new DSimpleXMLNode("trigger-level-channel-B-in-mV");
m_triggerLevelBNode->setValue(m_triggerLevelB);
m_triggerDelayInNSNode = new DSimpleXMLNode("trigger-delay-in-ns");
m_triggerDelayInNSNode->setValue(m_triggerDelayInNS);
m_commentNode = new DSimpleXMLNode("user-comment");
m_commentNode->setValue(m_comment);
m_lastSaveDateNode = new DSimpleXMLNode("last-save-date");
m_lastSaveDateNode->setValue(m_lastSaveDate);
m_channelNumberANode = new DSimpleXMLNode("analog-input-channel-A");
m_channelNumberANode->setValue(m_channelNumberA);
m_channelNumberBNode = new DSimpleXMLNode("analog-input-channel-B");
m_channelNumberBNode->setValue(m_channelNumberB);
m_startAChannelMinNode = new DSimpleXMLNode("phs-start-channel-min-A");
m_startAChannelMinNode->setValue(m_startAChannelMin);
m_startBChannelMinNode = new DSimpleXMLNode("phs-start-channel-min-B");
m_startBChannelMinNode->setValue(m_startBChannelMin);
m_startAChannelMaxNode = new DSimpleXMLNode("phs-start-channel-max-A");
m_startAChannelMaxNode->setValue(m_startAChannelMax);
m_startBChannelMaxNode = new DSimpleXMLNode("phs-start-channel-max-B");
m_startBChannelMaxNode->setValue(m_startBChannelMax);
m_stopAChannelMinNode = new DSimpleXMLNode("phs-stop-channel-min-A");
m_stopAChannelMinNode->setValue(m_stopAChannelMin);
m_stopBChannelMinNode = new DSimpleXMLNode("phs-stop-channel-min-B");
m_stopBChannelMinNode->setValue(m_stopBChannelMin);
m_stopAChannelMaxNode = new DSimpleXMLNode("phs-stop-channel-max-A");
m_stopAChannelMaxNode->setValue(m_stopAChannelMax);
m_stopBChannelMaxNode = new DSimpleXMLNode("phs-stop-channel-max-B");
m_stopBChannelMaxNode->setValue(m_stopBChannelMax);
m_bForceCoincidenceNode = new DSimpleXMLNode("force-stop-stop-Prompt-spectrum");
m_bForceCoincidenceNode->setValue(m_bForceCoincidence);
m_meanNSNode = new DSimpleXMLNode("arrival-time-spread-in-ns");
m_meanNSNode->setValue(m_meanNs);
m_fitIterNode = new DSimpleXMLNode("Prompt-spectrum-fit-iterations");
m_fitIterNode->setValue(m_fitIter);
m_fitIterMergedNode = new DSimpleXMLNode("Merged-spectrum-fit-iterations");
m_fitIterMergedNode->setValue(m_fitIterMerged);
m_fitIterABNode = new DSimpleXMLNode("AB-spectrum-fit-iterations");
m_fitIterABNode->setValue(m_fitIterAB);
m_fitIterBANode = new DSimpleXMLNode("BA-spectrum-fit-iterations");
m_fitIterBANode->setValue(m_fitIterBA);
m_pulseAreaFilerEnabledNode = new DSimpleXMLNode("pulse-area-filter?");
m_pulseAreaFilerEnabledNode->setValue(m_bPulseAreaFilterEnabled);
m_pulseAreaFilerEnabledPlotNode = new DSimpleXMLNode("pulse-area-filter-plot?");
m_pulseAreaFilerEnabledPlotNode->setValue(m_bPulseAreaFilterEnabledPlot);
m_pulseAreaBinningANode = new DSimpleXMLNode("pulse-area-filter-binning-A");
m_pulseAreaBinningANode->setValue(m_pulseAreaBinningA);
m_pulseAreaBinningBNode = new DSimpleXMLNode("pulse-area-filter-binning-B");
m_pulseAreaBinningBNode->setValue(m_pulseAreaBinningB);
m_pulseAreaNormANode = new DSimpleXMLNode("pulse-area-filter-nomalization-fraction-in-%-A");
m_pulseAreaNormANode->setValue(m_pulseAreaNormA);
m_pulseAreaNormBNode = new DSimpleXMLNode("pulse-area-filter-nomalization-fraction-in-%-B");
m_pulseAreaNormBNode->setValue(m_pulseAreaNormB);
m_pulseAreaLeftUpper_A_Node = new DSimpleXMLNode("pulse-area-filter-upper-left-bounding-A");
m_pulseAreaLeftUpper_A_Node->setValue(m_pulseAreaLeftUpper_A);
m_pulseAreaRightUpper_A_Node = new DSimpleXMLNode("pulse-area-filter-upper-right-bounding-A");
m_pulseAreaRightUpper_A_Node->setValue(m_pulseAreaRightUpper_A);
m_pulseAreaLeftLower_A_Node = new DSimpleXMLNode("pulse-area-filter-lower-left-bounding-A");
m_pulseAreaLeftLower_A_Node->setValue(m_pulseAreaLeftLower_A);
m_pulseAreaRightLower_A_Node = new DSimpleXMLNode("pulse-area-filter-lower-right-bounding-A");
m_pulseAreaRightLower_A_Node->setValue(m_pulseAreaRightLower_A);
m_pulseAreaLeftUpper_B_Node = new DSimpleXMLNode("pulse-area-filter-upper-left-bounding-B");
m_pulseAreaLeftUpper_B_Node->setValue(m_pulseAreaLeftUpper_B);
m_pulseAreaRightUpper_B_Node = new DSimpleXMLNode("pulse-area-filter-upper-right-bounding-B");
m_pulseAreaRightUpper_B_Node->setValue(m_pulseAreaRightUpper_B);
m_pulseAreaLeftLower_B_Node = new DSimpleXMLNode("pulse-area-filter-lower-left-bounding-B");
m_pulseAreaLeftLower_B_Node->setValue(m_pulseAreaLeftLower_B);
m_pulseAreaRightLower_B_Node = new DSimpleXMLNode("pulse-area-filter-lower-right-bounding-B");
m_pulseAreaRightLower_B_Node->setValue(m_pulseAreaRightLower_B);
m_medianFilterActivated_A_Node = new DSimpleXMLNode("median-filter-A?");
m_medianFilterWindowSize_A_Node = new DSimpleXMLNode("median-filter-window-size-A");
m_medianFilterActivated_B_Node = new DSimpleXMLNode("median-filter-B?");
m_medianFilterWindowSize_B_Node = new DSimpleXMLNode("median-filter-window-size-B");
m_persistanceEnabled_Node = new DSimpleXMLNode("persistance-plot?");
m_persistanceEnabled_Node->setValue(m_persistanceEnabled);
m_persistanceUsingRefB_A_Node = new DSimpleXMLNode("persistance-plot-using-CFD-B-as-reference-A?");
m_persistanceUsingRefB_A_Node->setValue(false);
m_persistanceUsingRefA_B_Node = new DSimpleXMLNode("persistance-plot-using-CFD-A-as-reference-B?");
m_persistanceUsingRefA_B_Node->setValue(false);
m_persistance_leftAInNs_Node = new DSimpleXMLNode("persistance-plot-left-of-maxValue-in-ns-A");
m_persistance_leftAInNs_Node->setValue(m_persistance_leftAInNs);
m_persistance_leftBInNs_Node = new DSimpleXMLNode("persistance-plot-left-of-maxValue-in-ns-B");
m_persistance_leftBInNs_Node->setValue(m_persistance_leftBInNs);
m_persistance_rightAInNs_Node = new DSimpleXMLNode("persistance-plot-right-of-maxValue-in-ns-A");
m_persistance_rightAInNs_Node->setValue(m_persistance_rightAInNs);
m_persistance_rightBInNs_Node = new DSimpleXMLNode("persistance-plot-right-of-maxValue-in-ns-B");
m_persistance_rightBInNs_Node->setValue(m_persistance_rightBInNs);
m_riseTimeFilterIsPlotEnabled_Node = new DSimpleXMLNode("rise-time-filter-plot?");
m_riseTimeFilterIsPlotEnabled_Node->setValue(m_riseTimeFilterIsPlotEnabled);
m_riseTimeFilterIsActivated_Node = new DSimpleXMLNode("rise-time-filter?");
m_riseTimeFilterIsActivated_Node->setValue(m_riseTimeFilterIsActivated);
m_riseTimeFilter_scaleInNs_A_Node = new DSimpleXMLNode("rise-time-filter-scale-in-ns-A");
m_riseTimeFilter_scaleInNs_A_Node->setValue(m_riseTimeFilter_scaleInNs_A);
m_riseTimeFilter_scaleInNs_B_Node = new DSimpleXMLNode("rise-time-filter-scale-in-ns-B");
m_riseTimeFilter_scaleInNs_B_Node->setValue(m_riseTimeFilter_scaleInNs_B);
m_riseTimeFilter_scaleBinningCnt_A_Node = new DSimpleXMLNode("rise-time-filter-number-of-bins-A");
m_riseTimeFilter_scaleBinningCnt_A_Node->setValue(m_riseTimeFilter_scaleBinningCnt_A);
m_riseTimeFilter_scaleBinningCnt_B_Node = new DSimpleXMLNode("rise-time-filter-number-of-bins-B");
m_riseTimeFilter_scaleBinningCnt_B_Node->setValue(m_riseTimeFilter_scaleBinningCnt_B);
m_riseTimeFilter_leftWindow_A_Node = new DSimpleXMLNode("rise-time-filter-left-bin-A");
m_riseTimeFilter_leftWindow_A_Node->setValue(m_riseTimeFilter_leftWindow_A);
m_riseTimeFilter_leftWindow_B_Node = new DSimpleXMLNode("rise-time-filter-left-bin-B");
m_riseTimeFilter_leftWindow_B_Node->setValue(m_riseTimeFilter_leftWindow_B);
m_riseTimeFilter_rightWindow_A_Node = new DSimpleXMLNode("rise-time-filter-right-bin-A");
m_riseTimeFilter_rightWindow_A_Node->setValue(m_riseTimeFilter_rightWindow_A);
m_riseTimeFilter_rightWindow_B_Node = new DSimpleXMLNode("rise-time-filter-right-bin-B");
m_riseTimeFilter_rightWindow_B_Node->setValue(m_riseTimeFilter_rightWindow_B);
m_pulseShapeFilterEnabledA_Node = new DSimpleXMLNode("pulse-shape-filter-A-enabled?");
m_pulseShapeFilterEnabledA_Node->setValue(m_pulseShapeFilterEnabledA);
m_pulseShapeFilterEnabledB_Node = new DSimpleXMLNode("pulse-shape-filter-B-enabled?");
m_pulseShapeFilterEnabledB_Node->setValue(m_pulseShapeFilterEnabledB);
m_pulseShapeFilterRecordScheme_Node = new DSimpleXMLNode("pulse-shape-filter-record-scheme");
m_pulseShapeFilterRecordScheme_Node->setValue(m_pulseShapeFilterRecordScheme);
m_pulseShapeFilter_numberOfPulsesAcq_A_Node = new DSimpleXMLNode("pulse-shape-filter-number-of-pulses-to-be-recorded-A");
m_pulseShapeFilter_numberOfPulsesAcq_A_Node->setValue(m_pulseShapeFilter_numberOfPulsesAcq_A);
m_pulseShapeFilter_numberOfPulsesAcq_B_Node = new DSimpleXMLNode("pulse-shape-filter-number-of-pulses-to-be-recorded-B");
m_pulseShapeFilter_numberOfPulsesAcq_B_Node->setValue(m_pulseShapeFilter_numberOfPulsesAcq_B);
m_pulseShapeFilter_leftAInNs_Node = new DSimpleXMLNode("pulse-shape-filter-plot-left-of-CFD-in-ns-A");
m_pulseShapeFilter_leftAInNs_Node->setValue(m_pulseShapeFilter_leftAInNs);
m_pulseShapeFilter_leftBInNs_Node = new DSimpleXMLNode("pulse-shape-filter-plot-left-of-CFD-in-ns-B");
m_pulseShapeFilter_leftBInNs_Node->setValue(m_pulseShapeFilter_leftBInNs);
m_pulseShapeFilter_rightAInNs_Node = new DSimpleXMLNode("pulse-shape-filter-plot-right-of-CFD-in-ns-A");
m_pulseShapeFilter_rightAInNs_Node->setValue(m_pulseShapeFilter_rightAInNs);
m_pulseShapeFilter_rightBInNs_Node = new DSimpleXMLNode("pulse-shape-filter-plot-right-of-CFD-in-ns-B");
m_pulseShapeFilter_rightBInNs_Node->setValue(m_pulseShapeFilter_rightBInNs);
m_pulseShapeFilter_ROIleftAInNs_Node = new DSimpleXMLNode("pulse-shape-filter-ROI-left-of-CFD-in-ns-A");
m_pulseShapeFilter_ROIleftAInNs_Node->setValue(m_pulseShapeFilter_ROIleftAInNs);
m_pulseShapeFilter_ROIleftBInNs_Node = new DSimpleXMLNode("pulse-shape-filter-ROI-left-of-CFD-in-ns-B");
m_pulseShapeFilter_ROIleftBInNs_Node->setValue(m_pulseShapeFilter_ROIleftBInNs);
m_pulseShapeFilter_ROIrightAInNs_Node = new DSimpleXMLNode("pulse-shape-filter-ROI-right-of-CFD-in-ns-A");
m_pulseShapeFilter_ROIrightAInNs_Node->setValue(m_pulseShapeFilter_ROIrightAInNs);
m_pulseShapeFilter_ROIrightBInNs_Node = new DSimpleXMLNode("pulse-shape-filter-ROI-right-of-CFD-in-ns-B");
m_pulseShapeFilter_ROIrightBInNs_Node->setValue(m_pulseShapeFilter_ROIrightBInNs);
m_pulseShapeFilter_StdDevUpperFractA_Node = new DSimpleXMLNode("pulse-shape-filter-upper-level-stddev-fraction-A");
m_pulseShapeFilter_StdDevUpperFractA_Node->setValue(m_pulseShapeFilter_StdDevUpperFractA);
m_pulseShapeFilter_StdDevUpperFractB_Node = new DSimpleXMLNode("pulse-shape-filter-upper-level-stddev-fraction-B");
m_pulseShapeFilter_StdDevUpperFractB_Node->setValue(m_pulseShapeFilter_StdDevUpperFractB);
m_pulseShapeFilter_StdDevLowerFractA_Node = new DSimpleXMLNode("pulse-shape-filter-lower-level-stddev-fraction-A");
m_pulseShapeFilter_StdDevLowerFractA_Node->setValue(m_pulseShapeFilter_StdDevLowerFractA);
m_pulseShapeFilter_StdDevLowerFractB_Node = new DSimpleXMLNode("pulse-shape-filter-lower-level-stddev-fraction-B");
m_pulseShapeFilter_StdDevLowerFractB_Node->setValue(m_pulseShapeFilter_StdDevLowerFractB);
m_pulseShapeFilter_contentDataA_Node = new DSimpleXMLNode("pulse-shape-filter-content-A");
m_pulseShapeFilter_contentDataB_Node = new DSimpleXMLNode("pulse-shape-filter-content-B");
m_pulseShapeFilter_meanDataA_Node = new DSimpleXMLNode("pulse-shape-filter-content-mean-trace-A");
m_pulseShapeFilter_meanDataA_Node->setValue("");
m_pulseShapeFilter_stddevDataA_Node = new DSimpleXMLNode("pulse-shape-filter-content-stddev-trace-A");
m_pulseShapeFilter_stddevDataA_Node->setValue("");
m_pulseShapeFilter_meanDataB_Node = new DSimpleXMLNode("pulse-shape-filter-content-mean-trace-B");
m_pulseShapeFilter_meanDataB_Node->setValue("");
m_pulseShapeFilter_stddevDataB_Node = new DSimpleXMLNode("pulse-shape-filter-content-stddev-trace-B");
m_pulseShapeFilter_stddevDataB_Node->setValue("");
m_baseLineCorrectionMethodA_Node = new DSimpleXMLNode("baseline-jitter-correction-method-A");
m_baseLineCorrectionMethodA_Node->setValue(m_baselineCorrTypeA);
m_baseLineCorrectionStartCellPeakA_Node = new DSimpleXMLNode("baseline-jitter-correction-pre-peak-cell-region-A");
m_baseLineCorrectionStartCellPeakA_Node->setValue(m_baseLineCorrectionStartPeakCellA);
m_baseLineCorrectionWindowA_Node = new DSimpleXMLNode("baseline-jitter-correction-cell-window-A");
m_baseLineCorrectionWindowA_Node->setValue(m_baseLineCorrectionWindowA);
m_baseLineCorrectionStartCellA_Node = new DSimpleXMLNode("baseline-jitter-correction-start-cell-A");
m_baseLineCorrectionStartCellA_Node->setValue(m_baseLineCorrectionStartCellA);
m_baseLineCorrectionRegionA_Node = new DSimpleXMLNode("baseline-jitter-correction-cell-region-A");
m_baseLineCorrectionRegionA_Node->setValue(m_baseLineCorrectionRegionA);
m_baseLineCorrectionShiftValueA_Node = new DSimpleXMLNode("baseline-jitter-correction-baseline-value-in-mV-A");
m_baseLineCorrectionShiftValueA_Node->setValue(m_baseLineCorrectionShiftValueA);
m_baseLineCorrectionEnabledA_Node = new DSimpleXMLNode("baseline-jitter-correction-enabled-A?");
m_baseLineCorrectionEnabledA_Node->setValue(m_baseLineCorrectionEnabledA);
m_baseLineCorrectionLimitA_Node = new DSimpleXMLNode("baseline-filter-rejection-limit-in-%-A");
m_baseLineCorrectionLimitA_Node->setValue(m_baseLineCorrectionLimitA);
m_baseLineCorrectionLimitExceededRejectA_Node = new DSimpleXMLNode("baseline-filter-enabled-A?");
m_baseLineCorrectionLimitExceededRejectA_Node->setValue(m_baseLineCorrectionLimitExceededRejectA);
m_baseLineCorrectionMethodB_Node = new DSimpleXMLNode("baseline-jitter-correction-method-B");
m_baseLineCorrectionMethodB_Node->setValue(m_baselineCorrTypeB);
m_baseLineCorrectionStartCellPeakB_Node = new DSimpleXMLNode("baseline-jitter-correction-pre-peak-cell-region-B");
m_baseLineCorrectionStartCellPeakB_Node->setValue(m_baseLineCorrectionStartPeakCellB);
m_baseLineCorrectionWindowB_Node = new DSimpleXMLNode("baseline-jitter-correction-cell-window-B");
m_baseLineCorrectionWindowB_Node->setValue(m_baseLineCorrectionWindowB);
m_baseLineCorrectionStartCellB_Node = new DSimpleXMLNode("baseline-jitter-correction-start-cell-B");
m_baseLineCorrectionStartCellB_Node->setValue(m_baseLineCorrectionStartCellB);
m_baseLineCorrectionRegionB_Node = new DSimpleXMLNode("baseline-jitter-correction-cell-region-B");
m_baseLineCorrectionRegionB_Node->setValue(m_baseLineCorrectionRegionB);
m_baseLineCorrectionShiftValueB_Node = new DSimpleXMLNode("baseline-jitter-correction-baseline-value-in-mV-B");
m_baseLineCorrectionShiftValueB_Node->setValue(m_baseLineCorrectionShiftValueB);
m_baseLineCorrectionEnabledB_Node = new DSimpleXMLNode("baseline-jitter-correction-enabled-B?");
m_baseLineCorrectionEnabledB_Node->setValue(m_baseLineCorrectionEnabledB);
m_baseLineCorrectionLimitB_Node = new DSimpleXMLNode("baseline-filter-rejection-limit-in-%-B");
m_baseLineCorrectionLimitB_Node->setValue(m_baseLineCorrectionLimitB);
m_baseLineCorrectionLimitExceededRejectB_Node = new DSimpleXMLNode("baseline-filter-enabled-B?");
m_baseLineCorrectionLimitExceededRejectB_Node->setValue(m_baseLineCorrectionLimitExceededRejectB);
(*m_baseLineFilterSettingsNode) << m_baseLineCorrectionEnabledA_Node << m_baseLineCorrectionEnabledB_Node
<< m_baseLineCorrectionMethodA_Node << m_baseLineCorrectionMethodB_Node
<< m_baseLineCorrectionStartCellPeakA_Node << m_baseLineCorrectionStartCellPeakB_Node
<< m_baseLineCorrectionWindowA_Node << m_baseLineCorrectionWindowB_Node
<< m_baseLineCorrectionStartCellA_Node << m_baseLineCorrectionStartCellB_Node
<< m_baseLineCorrectionRegionA_Node << m_baseLineCorrectionRegionB_Node
<< m_baseLineCorrectionShiftValueA_Node << m_baseLineCorrectionShiftValueB_Node
<< m_baseLineCorrectionLimitA_Node << m_baseLineCorrectionLimitB_Node
<< m_baseLineCorrectionLimitExceededRejectA_Node << m_baseLineCorrectionLimitExceededRejectB_Node;
(*m_pulseShapeFilter_contentDataA_Node) << m_pulseShapeFilter_meanDataA_Node << m_pulseShapeFilter_stddevDataA_Node;
(*m_pulseShapeFilter_contentDataB_Node) << m_pulseShapeFilter_meanDataB_Node << m_pulseShapeFilter_stddevDataB_Node;
(*m_pulseShapeFilterSettingsNode) << m_pulseShapeFilterEnabledA_Node
<< m_pulseShapeFilterEnabledB_Node
<< m_pulseShapeFilterRecordScheme_Node
<< m_pulseShapeFilter_numberOfPulsesAcq_A_Node
<< m_pulseShapeFilter_numberOfPulsesAcq_B_Node
<< m_pulseShapeFilter_leftAInNs_Node
<< m_pulseShapeFilter_leftBInNs_Node
<< m_pulseShapeFilter_rightAInNs_Node
<< m_pulseShapeFilter_rightBInNs_Node
<< m_pulseShapeFilter_ROIleftAInNs_Node
<< m_pulseShapeFilter_ROIleftBInNs_Node
<< m_pulseShapeFilter_ROIrightAInNs_Node
<< m_pulseShapeFilter_ROIrightBInNs_Node
<< m_pulseShapeFilter_StdDevUpperFractA_Node
<< m_pulseShapeFilter_StdDevUpperFractB_Node
<< m_pulseShapeFilter_StdDevLowerFractA_Node
<< m_pulseShapeFilter_StdDevLowerFractB_Node
<< m_pulseShapeFilter_contentDataA_Node
<< m_pulseShapeFilter_contentDataB_Node;
(*m_riseTimeFilterSettingsNode) << m_riseTimeFilterIsActivated_Node
<< m_riseTimeFilterIsPlotEnabled_Node
<< m_riseTimeFilter_scaleInNs_A_Node
<< m_riseTimeFilter_scaleBinningCnt_A_Node
<< m_riseTimeFilter_leftWindow_A_Node
<< m_riseTimeFilter_rightWindow_A_Node
<< m_riseTimeFilter_scaleInNs_B_Node
<< m_riseTimeFilter_scaleBinningCnt_B_Node
<< m_riseTimeFilter_leftWindow_B_Node
<< m_riseTimeFilter_rightWindow_B_Node;
(*m_parentNode) << m_lastSaveDateNode
<< m_versionNode
<< m_burstModeNode
<< m_negativeLifetimesNode
<< m_bForceCoincidenceNode
<< m_commentNode;
(*m_generalSettingsNode) << m_channelNumberANode
<< m_channelNumberBNode
<< m_ignoreBusyNode
<< m_triggerSourceNode
<< m_isTriggerPolarityPositiveNode
<< m_triggerLevelANode
<< m_triggerLevelBNode
<< m_triggerDelayInNSNode
<< m_isPositivSignalNode
<< m_startCellNode
<< m_stopCellNode
<< m_sweepInNanoSecNode
<< m_freqInGHzNode;
(*m_phsSettingsNode) << m_startAChannelMinNode
<< m_startBChannelMinNode
<< m_startAChannelMaxNode
<< m_startBChannelMaxNode
<< m_stopAChannelMinNode
<< m_stopBChannelMinNode
<< m_stopAChannelMaxNode
<< m_stopBChannelMaxNode;
(*m_abSpecNode) << m_offsetNsABNode << m_scalerNsABNode << m_channelCountABNode << m_fitIterABNode;
(*m_baSpecNode) << m_offsetNsBANode << m_scalerNsBANode << m_channelCountBANode << m_fitIterBANode;
(*m_mergedSpecNode) << m_offsetNsMergedNode << m_scalerNsMergedNode << m_channelCountMergedNode << m_fitIterMergedNode << m_meanNSNode;
(*m_promptSpecNode) << m_offsetNsCoincidenceNode << m_scalerNsCoincidenceNode << m_channelCountCoincidenceNode << m_fitIterNode;
(*m_spectrumSettingsNode) << m_abSpecNode
<< m_baSpecNode
<< m_mergedSpecNode
<< m_promptSpecNode;
(*m_cfdAlgorithmType_polynomialInterpolationNode) << m_polynomialIntraSamplingPointsNode;
(*m_splineTypeLinearNode) << m_splineTypeLinearEnabledNode;
(*m_splineTypeCubicNode) << m_splineTypeCubicEnabledNode;
(*m_splineTypeAkimaNode) << m_splineTypeAkimaEnabledNode;
(*m_splineTypeCatmullRomNode) << m_splineTypeCatmullRomEnabledNode;
(*m_splineTypeMonotoneNode) << m_splineTypeMonotoneEnabledNode;
(*m_splineTypeTKCubicNode) << m_splineTypeTKCubicEnabledNode;
(*m_splineTypeNode) << m_splineTypeLinearNode
<< m_splineTypeCubicNode
<< m_splineTypeAkimaNode
<< m_splineTypeCatmullRomNode
<< m_splineTypeMonotoneNode
<< m_splineTypeTKCubicNode;
(*m_cfdAlgorithmType_splineAndFittingInterpolationNode) << m_splineTypeNode
<< m_splineIntraSamplingPointsNode;
(*m_cfdDeterminationSettingsNode) << m_cfdLevelANode
<< m_cfdLevelBNode
<< m_cfdAlgorithmTypeNode
<< m_cfdAlgorithmType_polynomialInterpolationNode
<< m_cfdAlgorithmType_splineAndFittingInterpolationNode;
(*m_areaFilterSettingsNode) << m_pulseAreaFilerEnabledNode
<< m_pulseAreaFilerEnabledPlotNode
<< m_pulseAreaBinningANode
<< m_pulseAreaBinningBNode
<< m_pulseAreaNormANode
<< m_pulseAreaNormBNode
<< m_pulseAreaLeftUpper_A_Node
<< m_pulseAreaRightUpper_A_Node
<< m_pulseAreaLeftLower_A_Node
<< m_pulseAreaRightLower_A_Node
<< m_pulseAreaLeftUpper_B_Node
<< m_pulseAreaRightUpper_B_Node
<< m_pulseAreaLeftLower_B_Node
<< m_pulseAreaRightLower_B_Node;
(*m_medianFilterSettingsNode) << m_medianFilterActivated_A_Node
<< m_medianFilterWindowSize_A_Node
<< m_medianFilterActivated_B_Node
<< m_medianFilterWindowSize_B_Node;
(*m_persistancePlotSettingsNode) << m_persistanceEnabled_Node
<< m_persistanceUsingRefB_A_Node
<< m_persistanceUsingRefA_B_Node
<< m_persistance_leftAInNs_Node
<< m_persistance_leftBInNs_Node
<< m_persistance_rightAInNs_Node
<< m_persistance_rightBInNs_Node;
(*m_parentNode) << m_generalSettingsNode
<< m_cfdDeterminationSettingsNode
<< m_phsSettingsNode
<< m_spectrumSettingsNode
<< m_areaFilterSettingsNode
<< m_medianFilterSettingsNode
<< m_riseTimeFilterSettingsNode
<< m_pulseShapeFilterSettingsNode
<< m_baseLineFilterSettingsNode
<< m_persistancePlotSettingsNode;
}
DRS4SettingsManager::~DRS4SettingsManager()
{
DDELETE_SAFETY(m_parentNode);
DDELETE_SAFETY(__sharedInstanceSettingsManager);
}
DRS4SettingsManager *DRS4SettingsManager::sharedInstance()
{
if ( !__sharedInstanceSettingsManager )
__sharedInstanceSettingsManager = new DRS4SettingsManager;
return __sharedInstanceSettingsManager;
}
bool DRS4SettingsManager::load(const QString &path)
{
#ifndef __DISABLE_MUTEX_LOCKER
QMutexLocker locker(&m_mutex);
#endif
DSimpleXMLReader reader(path);
DSimpleXMLTag tag;
reader.readFromFile(&tag, false);
bool ok = false;
const DSimpleXMLTag pTag = tag.getTag("DDRS4PALS", &ok);
if ( !ok )
return false;
const DSimpleXMLTag pGeneralSettingsTag = pTag.getTag(m_generalSettingsNode, &ok);
if ( !ok )
return false;
const DSimpleXMLTag pPHSSettingsTag = pTag.getTag(m_phsSettingsNode, &ok);
if ( !ok )
return false;
const DSimpleXMLTag pCFDSettingsTag = pTag.getTag(m_cfdDeterminationSettingsNode, &ok);
if ( !ok )
return false;
const DSimpleXMLTag pCFDAlgorithmPolynomialTag = pCFDSettingsTag.getTag(m_cfdAlgorithmType_polynomialInterpolationNode, &ok);
if ( !ok )
return false;
const DSimpleXMLTag pCFDAlgorithmSplineTag = pCFDSettingsTag.getTag(m_cfdAlgorithmType_splineAndFittingInterpolationNode, &ok);
if ( !ok )
return false;
const DSimpleXMLTag pCFDAlgorithmSplineLinearTag = pCFDAlgorithmSplineTag.getTag(m_splineTypeLinearNode, &ok);
if ( !ok )
return false;
const DSimpleXMLTag pCFDAlgorithmSplineCubicTag = pCFDAlgorithmSplineTag.getTag(m_splineTypeCubicNode, &ok);
if ( !ok )
return false;
const DSimpleXMLTag pCFDAlgorithmSplineAkimaTag = pCFDAlgorithmSplineTag.getTag(m_splineTypeAkimaNode, &ok);
if ( !ok )
return false;
const DSimpleXMLTag pCFDAlgorithmSplineCatmullRomTag = pCFDAlgorithmSplineTag.getTag(m_splineTypeCatmullRomNode, &ok);
if ( !ok )
return false;
const DSimpleXMLTag pCFDAlgorithmSplineMonotoneTag = pCFDAlgorithmSplineTag.getTag(m_splineTypeMonotoneNode, &ok);
if ( !ok )
return false;
const DSimpleXMLTag pCFDAlgorithmSplineTKCubicTag = pCFDAlgorithmSplineTag.getTag(m_splineTypeTKCubicNode, &ok);
if ( !ok )
return false;
const DSimpleXMLTag pSpectrumSettingsTag = pTag.getTag(m_spectrumSettingsNode, &ok);
if ( !ok )
return false;
const DSimpleXMLTag pMergedSpectrumSettingsTag = pSpectrumSettingsTag.getTag(m_mergedSpecNode, &ok);
if ( !ok )
return false;
const DSimpleXMLTag pABSpectrumSettingsTag = pSpectrumSettingsTag.getTag(m_abSpecNode, &ok);
if ( !ok )
return false;
const DSimpleXMLTag pBASpectrumSettingsTag = pSpectrumSettingsTag.getTag(m_baSpecNode, &ok);
if ( !ok )
return false;
const DSimpleXMLTag pPromptSpectrumSettingsTag = pSpectrumSettingsTag.getTag(m_promptSpecNode, &ok);
if ( !ok )
return false;
const DSimpleXMLTag pAreaFilterSettingsTag = pTag.getTag(m_areaFilterSettingsNode, &ok);
if ( !ok )
return false;
const DSimpleXMLTag pMedianFilterSettingsTag = pTag.getTag(m_medianFilterSettingsNode, &ok);
if ( !ok )
return false;
const DSimpleXMLTag pPersistanceSettingsTag = pTag.getTag(m_persistancePlotSettingsNode, &ok);
if ( !ok )
return false;
QVariant version = pTag.getValueAt(m_versionNode, &ok);
if (!ok) {
m_versionNode->setValue((int)VERSION_SETTINGS_FILE);
}
else {
const int versionInt = version.toInt(&ok);
if (!ok) {
m_versionNode->setValue((int)VERSION_SETTINGS_FILE);
}
else {
if ( versionInt >= 2 ) {
/* rise time filter (since version 1.05 / settings version 2.0) */
const DSimpleXMLTag pRiseTimeFilterSettingsTag = pTag.getTag(m_riseTimeFilterSettingsNode, &ok);
if ( !ok )
return false;
m_riseTimeFilterIsActivated_Node->setValue(pRiseTimeFilterSettingsTag.getValueAt(m_riseTimeFilterIsActivated_Node, &ok));
if (!ok) m_riseTimeFilterIsActivated_Node->setValue(m_riseTimeFilterIsActivated);
m_riseTimeFilterIsPlotEnabled_Node->setValue(pRiseTimeFilterSettingsTag.getValueAt(m_riseTimeFilterIsPlotEnabled_Node, &ok));
if (!ok) m_riseTimeFilterIsPlotEnabled_Node->setValue(m_riseTimeFilterIsPlotEnabled);
m_riseTimeFilter_scaleInNs_A_Node->setValue(pRiseTimeFilterSettingsTag.getValueAt(m_riseTimeFilter_scaleInNs_A_Node, &ok));
if (!ok) m_riseTimeFilter_scaleInNs_A_Node->setValue(m_riseTimeFilter_scaleInNs_A);
m_riseTimeFilter_scaleInNs_B_Node->setValue(pRiseTimeFilterSettingsTag.getValueAt(m_riseTimeFilter_scaleInNs_B_Node, &ok));
if (!ok) m_riseTimeFilter_scaleInNs_B_Node->setValue(m_riseTimeFilter_scaleInNs_B);
m_riseTimeFilter_scaleBinningCnt_A_Node->setValue(pRiseTimeFilterSettingsTag.getValueAt(m_riseTimeFilter_scaleBinningCnt_A_Node, &ok));
if (!ok) m_riseTimeFilter_scaleBinningCnt_A_Node->setValue(m_riseTimeFilter_scaleBinningCnt_A);
m_riseTimeFilter_scaleBinningCnt_B_Node->setValue(pRiseTimeFilterSettingsTag.getValueAt(m_riseTimeFilter_scaleBinningCnt_B_Node, &ok));
if (!ok) m_riseTimeFilter_scaleBinningCnt_B_Node->setValue(m_riseTimeFilter_scaleBinningCnt_B);