QString VESPERSSingleElementVortexDetector::details() const
{
return QString("%1\nAcquisition Time: %2 seconds\nMaximum Energy: %3 keV\nPeaking Time: %4 us\n\n")
.arg(description())
.arg(acquisitionTime())
.arg(maximumEnergy())
.arg(peakingTime());
}
QMap<double, double> SGMFluxOptimization::curve(QList<QVariant> stateParameters, AMRegionsList* contextParameters){
double _maxenergy = maximumEnergy(contextParameters);
double _minenergy = minimumEnergy(contextParameters);
double _maxflux = 0;
double _minflux = 0;
double _maximum = 0;
double _minimum = 1;
double _slit = stateParameters.at(0).toDouble();
SGMBeamlineInfo::sgmGrating _grating = (SGMBeamlineInfo::sgmGrating)stateParameters.at(1).toInt();
SGMBeamlineInfo::sgmHarmonic _harmonic = (SGMBeamlineInfo::sgmHarmonic)stateParameters.at(2).toInt();
if(!SGMBeamlineInfo::sgmInfo()->energyRangeValidForSettings(_grating, _harmonic, _minenergy, _maxenergy))
{
}
else if((_harmonic == 3) && (_grating == 2)){
_maxflux = 1.2;
_minflux = 1.05;
_maximum = 1600;
_minimum = 1100;
}
else{
if( (_grating == 0) && SGMBeamlineInfo::sgmInfo()->energyRangeValidForSettings(_grating, _harmonic, _minenergy, _maxenergy) ){
_maxflux = 5.75;
_minflux = 0.5;
_maximum = 475;
_minimum = 200;
}
else if( (_grating == 1) && SGMBeamlineInfo::sgmInfo()->energyRangeValidForSettings(_grating, _harmonic, _minenergy, _maxenergy) ){
_maxflux = 3.25;
_minflux = 0.5;
_maximum = 815;
_minimum = 450;
}
else if( (_grating == 2) && SGMBeamlineInfo::sgmInfo()->energyRangeValidForSettings(_grating, _harmonic, _minenergy, _maxenergy) ){
_maxflux = 1.1;
_minflux = 0.5;
_maximum = 1075;
_minimum = 800;
}
}
QMap<double, double> rCurve;
double tmpStart, tmpEnd, tmpDelta;
for( int x = 0; x < contextParameters->count(); x++){
tmpStart = contextParameters->start(x);
tmpDelta = contextParameters->delta(x);
tmpEnd = contextParameters->end(x);
if( tmpStart >= 250 && tmpStart <= 2000 && tmpEnd >= 250 && tmpEnd <= 2000 ){
for( double y = tmpStart; ((tmpDelta > 0) ? (y <= tmpEnd) : (y >= tmpEnd)); y += tmpDelta ){
rCurve[y] = !SGMBeamlineInfo::sgmInfo()->energyValidForSettings(_grating, _harmonic, y) ? 0.0 : (_slit/62500)*(500-_slit)* ( ((_minflux-_maxflux)/((_minimum-_maximum)*(_minimum-_maximum)))*(y-_maximum)*(y-_maximum)+_maxflux );
}
}
else
rCurve[250] = 0;
}
return rCurve;
}
QMap<double, double> SGMResolutionOptimization::curve(QList<QVariant> stateParameters, AMRegionsList* contextParameters){
double _maxenergy = maximumEnergy(contextParameters);
double _minenergy = minimumEnergy(contextParameters);
double _slit = stateParameters.at(0).toDouble();
double _y1, _y2, _y3, _x1, _x2, _x3;
double _maxRes = 0;
SGMBeamlineInfo::sgmGrating _grating = (SGMBeamlineInfo::sgmGrating)stateParameters.at(1).toInt();
SGMBeamlineInfo::sgmHarmonic _harmonic = (SGMBeamlineInfo::sgmHarmonic)stateParameters.at(2).toInt();
if(!SGMBeamlineInfo::sgmInfo()->energyRangeValidForSettings(_grating, _harmonic, _minenergy, _maxenergy))
{
}
else if((_harmonic == 3) && (_grating == 2)){
_y1 = (0.95)*(0.5229*log(_slit)+1.4221);
_y2 = (0.95)*(0.4391*log(_slit)+1.2617);
_y3 = (0.95)*(0.421*log(_slit)+0.9037);
_x1 = 2000;
_x2 = 1200;
_x3 = 800;
_maxRes = 12500;
}
else{
if( (_grating == 0) && SGMBeamlineInfo::sgmInfo()->energyRangeValidForSettings(_grating, _harmonic, _minenergy, _maxenergy) ){
_y1 = 0.4568*log(_slit)+1.0199;
_y2 = 0.4739*log(_slit)+0.605;
_y3 = 0.4257*log(_slit)+0.4438;
_x1 = 600;
_x2 = 400;
_x3 = 250;
_maxRes = 17500;
}
else if( (_grating == 1) && SGMBeamlineInfo::sgmInfo()->energyRangeValidForSettings(_grating, _harmonic, _minenergy, _maxenergy) ){
_y1 = 0.425*log(_slit)+1.4936;
_y2 = 0.4484*log(_slit)+1.0287;
_y3 = 0.4029*log(_slit)+0.7914;
_x1 = 1200;
_x2 = 800;
_x3 = 500;
_maxRes = 15000;
}
else if( (_grating == 2) && SGMBeamlineInfo::sgmInfo()->energyRangeValidForSettings(_grating, _harmonic, _minenergy, _maxenergy) ){
_y1 = 0.5229*log(_slit)+1.4221;
_y2 = 0.4391*log(_slit)+1.2617;
_y3 = 0.421*log(_slit)+0.9037;
_x1 = 2000;
_x2 = 1200;
_x3 = 800;
_maxRes = 13750;
}
}
int i, n;
double xi, yi, ei, chisq;
gsl_matrix *X, *cov;
gsl_vector *y, *w, *c;
n = 3;
X = gsl_matrix_alloc (n, 3);
y = gsl_vector_alloc (n);
w = gsl_vector_alloc (n);
c = gsl_vector_alloc (3);
cov = gsl_matrix_alloc (3, 3);
double ix[3];
double iy[3];
double ie[3];
ix[0] = _x1;
ix[1] = _x2;
ix[2] = _x3;
iy[0] = _y1;
iy[1] = _y2;
iy[2] = _y3;
ie[0] = 0.1*iy[0];
ie[1] = 0.1*iy[1];
ie[2] = 0.1*iy[2];
for (i = 0; i < n; i++)
{
xi = ix[i];
yi = iy[i];
ei = ie[i];
gsl_matrix_set (X, i, 0, 1.0);
gsl_matrix_set (X, i, 1, xi);
gsl_matrix_set (X, i, 2, xi*xi);
gsl_vector_set (y, i, yi);
gsl_vector_set (w, i, 1.0/(ei*ei));
}
gsl_multifit_linear_workspace * work
= gsl_multifit_linear_alloc (n, 3);
gsl_multifit_wlinear (X, w, y, c, cov,
&chisq, work);
gsl_multifit_linear_free (work);
#define C(i) (gsl_vector_get(c,(i)))
#define COV(i,j) (gsl_matrix_get(cov,(i),(j)))
QMap<double, double> rCurve;
double tmpStart, tmpEnd, tmpDelta;//, tmpVal;
for( int x = 0; x < contextParameters->count(); x++){
tmpStart = contextParameters->start(x);
tmpDelta = contextParameters->delta(x);
tmpEnd = contextParameters->end(x);
if( tmpStart >= 250 && tmpStart <= 2000 && tmpEnd >= 250 && tmpEnd <= 2000 ){
for( double y = tmpStart; ((tmpDelta > 0) ? (y <= tmpEnd) : (y >= tmpEnd)); y += tmpDelta ){
//rCurve[y] = !SGMBeamline::sgm()->energyValidForSettings(_grating, _harmonic, y) ? 0.0 :y/(pow(10, C(2)*y*y + C(1)*y + C(0))*1e-3);
if(!SGMBeamlineInfo::sgmInfo()->energyValidForSettings(_grating, _harmonic, y))
rCurve[y] = 0.0;
else{
rCurve[y] = y/(pow(10, C(2)*y*y + C(1)*y + C(0))*1e-3);
}
}
}
else
rCurve[250] = 0;
}
gsl_matrix_free (X);
gsl_vector_free (y);
gsl_vector_free (w);
gsl_vector_free (c);
gsl_matrix_free (cov);
return rCurve;
}