bool
QuanConfigForm::getContents( adcontrols::QuanMethod& m )
{
ui_accessor accessor( ui );
if ( auto combo = dynamic_cast<QComboBox *>(accessor( idComboPolynomials )) ) {
uint32_t idEq = combo->currentIndex();
if ( idEq == 0 )
m.equation( adcontrols::QuanMethod::idCalibOnePoint );
else if ( idEq == 1 )
m.equation( adcontrols::QuanMethod::idCalibLinear_origin );
else if ( idEq == 2 )
m.equation( adcontrols::QuanMethod::idCalibLinear );
else if ( idEq >= 3 ) {
m.equation( adcontrols::QuanMethod::idCalibPolynomials );
m.polynomialOrder( idEq - 3 + 2 );
}
}
if ( auto radioButton = dynamic_cast<QRadioButton *>(accessor( idRadioChromatogram )) )
if ( radioButton->isChecked() )
m.isChromatogram( true );
if ( auto radioButton = dynamic_cast<QRadioButton *>(accessor( idRadioInfusion )) ) {
if ( radioButton->isChecked() )
m.isChromatogram( false );
}
if ( auto gbx = dynamic_cast<QGroupBox *>(accessor( idCbxWeighting )) ) {
m.isWeighting( gbx->isChecked() );
}
do {
static const idItem items[] = { idRadio_C1, idRadio_C2, idRadio_C3, idRadio_Y1, idRadio_Y2, idRadio_Y3 };
for ( auto& id : items ) {
if ( auto radio = dynamic_cast<QRadioButton *>(accessor( id )) ) {
if ( radio->isChecked() ) {
m.weighting( static_cast<adcontrols::QuanMethod::CalibWeighting>(id - items[ 0 ]) );
break;
}
}
}
} while ( 0 );
if ( auto radioButton = dynamic_cast<QRadioButton *>(accessor( idRadioInternalStandard )) ) {
if ( radioButton->isChecked() )
m.isInternalStandard( true );
else
m.isInternalStandard( false );
}
if ( auto spin = dynamic_cast< QSpinBox *>( accessor(idSpinLevel))) {
int value = spin->value();
m.levels( value );
}
if ( auto spin = dynamic_cast< QSpinBox *>( accessor(idSpinReplicates))) {
m.replicates( spin->value() );
}
return true;
}
bool
QuanConfigForm::setContents( const adcontrols::QuanMethod& m )
{
ui_accessor accessor(ui);
QWidget * w = 0;
if ( auto combo = dynamic_cast<QComboBox *>(accessor( idComboPolynomials )) ) {
uint32_t order = m.polynomialOrder() - 2;
switch( m.equation() ) {
case adcontrols::QuanMethod::idCalibOnePoint: combo->setCurrentIndex( 0 ); break;
case adcontrols::QuanMethod::idCalibLinear_origin: combo->setCurrentIndex( 1 ); break;
case adcontrols::QuanMethod::idCalibLinear: combo->setCurrentIndex( 2 ); break;
case adcontrols::QuanMethod::idCalibPolynomials: combo->setCurrentIndex( 3 + order ); break;
}
}
if ( m.isChromatogram() ) {
if ( auto radioButton = dynamic_cast< QRadioButton * >( accessor( idRadioChromatogram ) ) )
radioButton->setChecked( true );
} else {
if ( auto radioButton = dynamic_cast< QRadioButton * >( accessor( idRadioInfusion ) ) )
radioButton->setChecked( true );
}
if ( auto gbx = dynamic_cast<QGroupBox *>(accessor( idCbxWeighting )) ) {
if ( m.isWeighting() )
gbx->setChecked( true );
else
gbx->setChecked( false );
}
w = 0;
switch ( m.weighting() ) {
case adcontrols::QuanMethod::idWeight_C1: w = accessor( idRadio_C1 ); break;
case adcontrols::QuanMethod::idWeight_C2: w = accessor( idRadio_C2 ); break;
case adcontrols::QuanMethod::idWeight_C3: w = accessor( idRadio_C3 ); break;
case adcontrols::QuanMethod::idWeight_Y1: w = accessor( idRadio_Y1 ); break;
case adcontrols::QuanMethod::idWeight_Y2: w = accessor( idRadio_Y2 ); break;
case adcontrols::QuanMethod::idWeight_Y3: w = accessor( idRadio_Y3 ); break;
}
if ( auto radioButton = dynamic_cast<QRadioButton *>(w) ) {
radioButton->setChecked( true );
}
if ( m.isInternalStandard() ) {
if ( auto radioButton = dynamic_cast<QRadioButton *>(accessor( idRadioInternalStandard )) )
radioButton->setChecked( true );
} else {
if ( auto radioButton = dynamic_cast<QRadioButton *>(accessor( idRadioExternalStandard )) )
radioButton->setChecked( true );
}
if ( auto spin = dynamic_cast< QSpinBox *>( accessor(idSpinLevel))) {
spin->setValue( m.levels());
}
if ( auto spin = dynamic_cast< QSpinBox *>( accessor(idSpinReplicates))) {
spin->setValue( m.replicates() );
}
return true;
}