本文整理汇总了C++中SignalProperties::SetName方法的典型用法代码示例。如果您正苦于以下问题：C++ SignalProperties::SetName方法的具体用法？C++ SignalProperties::SetName怎么用？C++ SignalProperties::SetName使用的例子？那么, 这里精选的方法代码示例或许可以为您提供帮助。您也可以进一步了解该方法所在类SignalProperties的用法示例。
在下文中一共展示了SignalProperties::SetName方法的6个代码示例，这些例子默认根据受欢迎程度排序。您可以为喜欢或者感觉有用的代码点赞，您的评价将有助于系统推荐出更棒的C++代码示例。
示例1: Parameter
void
ARThread::OnPreflight( const SignalProperties& Input,
SignalProperties& Output ) const
{
if( Input.Elements() < Parameter( "ModelOrder" ) )
bcierr << "WindowLength parameter must be large enough"
<< " for the number of samples to exceed the model order"
<< endl;
if( Parameter( "OutputType" ) == Coefficients )
{
Output = Input;
Output.SetName( "AR Coefficients" );
Output.SetElements( Parameter( "ModelOrder" ) );
Output.ElementUnit().SetSymbol( "" )
.SetOffset( 0 )
.SetGain( 1 )
.SetRawMin( 0 )
.SetRawMax( Output.Elements() - 1 );
}
else
{
SpectrumThread::OnPreflight( Input, Output );
Output.SetName( "AR " + Output.Name() );
}
}示例2: Parameter
void
TSWFilter::Preflight( const SignalProperties& Input,
SignalProperties& Output ) const
{
#if 0
if( Parameter( "YMean" ) != 0 )
bciout << "YMean should be set to zero for Slow Waves" << endl;
if( Parameter( "YGain" ) < 300 || Parameter( "YGain" ) > 400 )
bciout << "YGain should be set to 327.68 for Slow Waves" << endl;
#endif
Parameter( "FeedbackEnd" );
State( itiStateName );
if( Parameter( "SWOutChList" )->NumValues() != Parameter( "SWInChList" )->NumValues() )
bcierr << "The number of entries in SWOutChList must match that in SWInChList"
<< endl;
for( int i = 0; i < Parameter( "SWInChList" )->NumValues(); ++i )
PreflightCondition( Parameter( "SWInChList" )( i ) > 0 && Parameter( "SWInChList" )( i ) <= Input.Channels() );
for( int i = 0; i < Parameter( "SWOutChList" )->NumValues(); ++i )
PreflightCondition( Parameter( "SWOutChList" )( i ) > 0 && Parameter( "SWOutChList" )( i ) <= Input.Channels() );
PreflightCondition( Parameter( "Tc" ).InSampleBlocks() >= 0.0 );
PreflightCondition( Parameter( "SpatialFilteredChannels" ) == Input.Channels() );
Output = SignalProperties( Input.Channels(), 1 );
Output.SetName( "SWFiltered" );
}示例3: std_logic_error
void
FFTFilter::DetermineSignalProperties( SignalProperties& ioProperties, int inFFTType ) const
{
int numChannels = Parameter( "FFTInputChannels" )->NumValues(),
fftWindowLength = static_cast<int>( ioProperties.Elements() * Parameter( "FFTWindowLength" ).InSampleBlocks() );
if( numChannels > 0 && fftWindowLength == 0 )
bcierr << "FFTWindowLength must exceed a single sample's duration" << endl;
double freqRange = ioProperties.SamplingRate() / 2.0;
switch( inFFTType )
{
case eInput:
break;
case ePower:
{
ioProperties.SetName( "FFT Power Spectrum" )
.SetChannels( numChannels )
.SetElements( fftWindowLength / 2 + 1 );
ioProperties.ElementUnit().SetOffset( 0.0 )
.SetGain( freqRange / ( ioProperties.Elements() - 1 ) )
.SetSymbol( "Hz" );
double amplitude = ioProperties.ValueUnit().RawMax() - ioProperties.ValueUnit().RawMin();
ioProperties.ValueUnit().SetRawMin( 0 )
.SetRawMax( amplitude * amplitude );
ioProperties.ElementUnit().SetRawMin( 0 )
.SetRawMax( ioProperties.Elements() - 1 );
} break;
case eHalfcomplex:
ioProperties.SetName( "FFT Coefficients" )
.SetChannels( numChannels )
.SetElements( fftWindowLength );
ioProperties.ElementUnit().SetRawMin( 0 )
.SetRawMax( fftWindowLength - 1 )
.SetOffset( 0 )
.SetGain( 1 )
.SetSymbol( "" );
break;
default:
throw std_logic_error( "Unknown value of FFT type" );
}
}示例4: PreflightCondition
void
TFBArteCorrection::Preflight( const SignalProperties& inSignalProperties,
SignalProperties& outSignalProperties ) const
{
for( int i = 0; i < Parameter( "ArteChList" )->NumValues(); ++i )
{
PreflightCondition( Parameter( "ArteChList" )( i ) >= 0 );
PreflightCondition( Parameter( "ArteChList" )( i ) <= inSignalProperties.Channels() );
}
outSignalProperties = inSignalProperties;
outSignalProperties.SetName( "Artifact Filtered" );
}示例5: Parameter
void
FFTFilter::DetermineSignalProperties( SignalProperties& ioProperties, int inFFTType ) const
{
int numChannels = Parameter( "FFTInputChannels" )->NumValues(),
fftWindowLength = Parameter( "SampleBlockSize" )
* MeasurementUnits::ReadAsTime( Parameter( "FFTWindowLength" ) );
if( numChannels > 0 && fftWindowLength == 0 )
bcierr << "FFTWindowLength must exceed a single sample's duration" << endl;
switch( inFFTType )
{
case eInput:
break;
case ePower:
{
ioProperties.SetName( "FFT Power Spectrum" )
.SetChannels( numChannels )
.SetElements( fftWindowLength / 2 + 1 );
float freqScale = Parameter( "SamplingRate" ) / 2.0 / ioProperties.Elements();
ioProperties.ElementUnit().SetOffset( freqScale / 2 )
.SetGain( freqScale )
.SetSymbol( "Hz" );
float amplitude = ioProperties.ValueUnit().RawMax() - ioProperties.ValueUnit().RawMin();
ioProperties.ValueUnit().SetRawMin( 0 )
.SetRawMax( amplitude * amplitude );
} break;
case eHalfcomplex:
ioProperties.SetName( "FFT Coefficients" )
.SetChannels( numChannels )
.SetElements( fftWindowLength );
break;
default:
assert( false );
}
}示例6: Parameter
void
ARFilter::Preflight( const SignalProperties& Input,
SignalProperties& Output ) const
{
// Parameter consistency checks.
float windowLength = MeasurementUnits::ReadAsTime( Parameter( "WindowLength" ) );
int samplesInWindow = windowLength * Parameter( "SampleBlockSize" );
if( samplesInWindow < Parameter( "ModelOrder" ) )
bcierr << "WindowLength parameter must be large enough"
<< " for the number of samples to exceed the model order"
<< endl;
Output = Input;
switch( int( Parameter( "OutputType" ) ) )
{
case SpectralAmplitude:
case SpectralPower:
{
float firstBinCenter = MeasurementUnits::ReadAsFreq( Parameter( "FirstBinCenter" ) ),
lastBinCenter = MeasurementUnits::ReadAsFreq( Parameter( "LastBinCenter" ) ),
binWidth = MeasurementUnits::ReadAsFreq( Parameter( "BinWidth" ) );
if( firstBinCenter > 0.5 || firstBinCenter < 0
|| lastBinCenter > 0.5 || lastBinCenter < 0 )
bcierr << "FirstBinCenter and LastBinCenter must be greater zero and"
<< " less than half the sampling rate"
<< endl;
if( firstBinCenter >= lastBinCenter )
bcierr << "FirstBinCenter must be less than LastBinCenter" << endl;
if( binWidth <= 0 )
bcierr << "BinWidth must be greater zero" << endl;
else
{
int numBins = ::floor( ( lastBinCenter - firstBinCenter + eps ) / binWidth + 1 );
Output.SetElements( numBins );
}
Output.ElementUnit().SetOffset( firstBinCenter / binWidth )
.SetGain( binWidth * Parameter( "SamplingRate" ) )
.SetSymbol( "Hz" );
Output.ValueUnit().SetRawMin( 0 );
float inputAmplitude = Input.ValueUnit().RawMax() - Input.ValueUnit().RawMin(),
whiteNoisePowerPerBin = inputAmplitude * inputAmplitude / binWidth / 10;
switch( int( Parameter( "OutputType" ) ) )
{
case SpectralAmplitude:
Output.SetName( "AR Amplitude Spectrum" );
Output.ValueUnit().SetOffset( 0 )
.SetGain( 1e-6 )
.SetSymbol( "V/sqrt(Hz)" )
.SetRawMax( ::sqrt( whiteNoisePowerPerBin ) );
break;
case SpectralPower:
{
Output.SetName( "AR Power Spectrum" );
Output.ValueUnit().SetOffset( 0 )
.SetGain( 1 )
.SetSymbol( "(muV)^2/Hz" )
.SetRawMax( whiteNoisePowerPerBin );
} break;
}
} break;
case ARCoefficients:
Output.SetName( "AR Coefficients" );
Output.SetElements( Parameter( "ModelOrder" ) );
Output.ElementUnit().SetOffset( 0 )
.SetGain( 1 )
.SetSymbol( "" );
Output.ValueUnit().SetOffset( 0 )
.SetGain( 1 )
.SetSymbol( "" )
.SetRawMin( -1 )
.SetRawMax( 1 );
break;
default:
bcierr << "Unknown OutputType" << endl;
}
Output.ElementUnit().SetRawMin( 0 )
.SetRawMax( Output.Elements() - 1 );
}