Uses of Class
agi.foundation.communications.Signal

Packages that use Signal

Package	Description
agi.foundation.communications	Contains types for representing electromagnetic signals and propagating them along communication links.
agi.foundation.communications.antennas	Contains types for representing antennas, defining gain patterns, and processing electromagnetic signals.
agi.foundation.communications.signalprocessing	Contains types for representing communication hardware and processing electromagnetic signals.
agi.foundation.radar	Contains types that perform radar system performance analysis.

Uses of Signal in agi.foundation.communications

Methods in agi.foundation.communications that return Signal

Modifier and Type	Method and Description
<T> Signal	Signal.addAndRemoveExistingData(TypeLiteral<T> typeLiteralT, T additionalData) Creates a new signal by adding data in addition to the data existing on this signal.
Signal	Signal.addData(Object additionalData) Creates a new signal by adding data in addition to the data existing on this signal.
Signal	Signal.addNoiseTemperature(double noiseTemperature) Creates a new signal by adding noise temperature (such as thermal noise), in kelvin.
Signal	Signal.applyGain(double gain) Create a new signal by applying a gain to this signal.
Signal	SphericalTabularMonostaticCrossSectionScatteringCoefficient.applyScatteringCoefficient(UnitCartesian incidentDirection, UnitCartesian reflectedDirection, UnitQuaternion sourceToSinkRotation, Signal inputSignal) Applies the scattering coefficient to the input signal.
abstract Signal	ScatteringCoefficient.applyScatteringCoefficient(UnitCartesian incidentDirection, UnitCartesian reflectedDirection, UnitQuaternion sourceToSinkRotation, Signal inputSignal) Applies the scattering coefficient to the input signal.
Signal	ConstantCrossSectionScatteringCoefficient.applyScatteringCoefficient(UnitCartesian incidentDirection, UnitCartesian reflectedDirection, UnitQuaternion sourceToSinkRotation, Signal inputSignal) Applies the scattering coefficient to the input signal.
static Signal	Signal.createSignal(double power, double frequency, double lowerBandwidthLimit, double upperBandwidthLimit) Create a new noiseless signal based on the given properties.
static Signal	Signal.createSignal(double power, double frequency, double lowerBandwidthLimit, double upperBandwidthLimit, double noiseTemperature, double lowerNoiseBandwidthLimit, double upperNoiseBandwidthLimit) Create a new signal based on the given properties.
static Signal	Signal.createSignal(double power, double frequency, double lowerBandwidthLimit, double upperBandwidthLimit, double noiseTemperature, double lowerNoiseBandwidthLimit, double upperNoiseBandwidthLimit, Iterable<? extends Object> signalData) Create a new signal based on the given properties.
static Signal	Signal.createSignal(double power, double frequency, double lowerBandwidthLimit, double upperBandwidthLimit, Iterable<? extends Object> signalData) Create a new noiseless signal based on the given properties.
Signal	SignalCollection.find(Predicate<Signal> match) Searches for a signal that matches the conditions defined by the specified predicate, and returns the first occurrence within the collection.
Signal	SignalCollection.get(int index) Gets the constituent signal at the given index.
static Signal	Signal.getBaseSignal() Gets an instance of a signal with zero power, zero frequency, and infinite bandwidth.
Signal	ComplexAnalogTransmitter.getSignalToTransmit() Gets the Signal to transmit.
abstract Signal	SignalModificationMethod.invoke(Signal originalSignal) A delegate defining a method of modifying a signal.
Signal	SignalModificationMethod.Function.invoke(Signal originalSignal) A delegate defining a method of modifying a signal.
Signal	Signal.modifyBandwidth(double lowerBandwidthLimit, double upperBandwidthLimit) Create a new signal by modifying the bandwidth limits of this signal.
Signal	Signal.modifyFrequency(double frequency) Create a new signal by modifying the frequency of this signal.
Signal	Signal.modifyNoiseTemperature(double noiseTemperature) Create a new signal by modifying the NoiseTemperature (get) of this signal.
Signal	Signal.modifyNoiseTemperature(double noiseTemperature, double lowerNoiseBandwidthLimit, double upperNoiseBandwidthLimit) Create a new signal by modifying the NoiseTemperature (get) of this signal.
Signal	Signal.modifyPower(double power) Create a new signal by modifying the power of this signal.
Signal	Signal.modifySignalProperties(double power, double frequency, double lowerBandwidthLimit, double upperBandwidthLimit, double noiseTemperature, double lowerNoiseBandwidthLimit, double upperNoiseBandwidthLimit) Create a new signal by modifying the properties of this signal.
<T> Signal	Signal.removeData(TypeLiteral<T> typeLiteralT) Creates a new signal by removing all data of the given type existing on this signal.

Methods in agi.foundation.communications that return types with arguments of type Signal

Modifier and Type	Method and Description
Iterator<Signal>	SignalCollection.iterator() Get an enumerator for the signals in the collections.

Methods in agi.foundation.communications with parameters of type Signal

Modifier and Type	Method and Description
boolean	SignalCollection.__remove(Signal item)
boolean	SignalCollection.add(Signal item)
SignalCollection	SignalCollection.addSignals(Signal... signals) Creates a new SignalCollection by adding signals.
Signal	SphericalTabularMonostaticCrossSectionScatteringCoefficient.applyScatteringCoefficient(UnitCartesian incidentDirection, UnitCartesian reflectedDirection, UnitQuaternion sourceToSinkRotation, Signal inputSignal) Applies the scattering coefficient to the input signal.
abstract Signal	ScatteringCoefficient.applyScatteringCoefficient(UnitCartesian incidentDirection, UnitCartesian reflectedDirection, UnitQuaternion sourceToSinkRotation, Signal inputSignal) Applies the scattering coefficient to the input signal.
Signal	ConstantCrossSectionScatteringCoefficient.applyScatteringCoefficient(UnitCartesian incidentDirection, UnitCartesian reflectedDirection, UnitQuaternion sourceToSinkRotation, Signal inputSignal) Applies the scattering coefficient to the input signal.
SignalCollection	SphericalTabularMonostaticCrossSectionScatteringCoefficient.applyScatteringCoefficient(UnitCartesian incidentDirection, UnitCartesian reflectedDirection, UnitQuaternion sourceToSinkRotation, Signal primaryPolarizationInputSignal, Signal orthogonalPolarizationInputSignal) Applies the scattering coefficient to the input signals.
SignalCollection	ScatteringCoefficient.applyScatteringCoefficient(UnitCartesian incidentDirection, UnitCartesian reflectedDirection, UnitQuaternion sourceToSinkRotation, Signal primaryPolarizationInputSignal, Signal orthogonalPolarizationInputSignal) Applies the scattering coefficient to the input signals.
void	SignalCollection.copyTo(Signal[] array, int arrayIndex) Copy the constituent signals to the given array, starting at the given index.
boolean	Signal.equalsType(Signal other) Indicates whether another instance of this type is exactly equal to this instance.
abstract Polarization	SignalPolarizationEvaluator.evaluate(JulianDate date, Signal signal) Given a signal and a time of interest, produces a signal polarization.
int	SignalCollection.indexOf(Signal signal) Searches for the specified signal and returns the zero-based index of the first occurrence within the collection.
abstract Signal	SignalModificationMethod.invoke(Signal originalSignal) A delegate defining a method of modifying a signal.
Signal	SignalModificationMethod.Function.invoke(Signal originalSignal) A delegate defining a method of modifying a signal.
void	ComplexAnalogTransmitter.setSignalToTransmit(Signal value) Sets the Signal to transmit.

Method parameters in agi.foundation.communications with type arguments of type Signal

Modifier and Type	Method and Description
boolean	SignalCollection.addAll(Collection<? extends Signal> c)
SignalCollection	SignalCollection.addSignals(Iterable<? extends Signal> signals) Creates a new SignalCollection by adding signals.
Signal	SignalCollection.find(Predicate<Signal> match) Searches for a signal that matches the conditions defined by the specified predicate, and returns the first occurrence within the collection.
SignalCollection	SignalCollection.removeSignals(Predicate<Signal> match) Creates a new SignalCollection by removing signals based on a predicate.
SignalCollection	SignalCollection.selectSignals(Predicate<Signal> match) Creates a new SignalCollection by selecting signals based on a predicate.
boolean	SignalCollection.trueForAll(Predicate<Signal> match) Determines whether every signal in the collection matches the conditions defined by the specified predicate.

Constructors in agi.foundation.communications with parameters of type Signal

Constructor and Description
ComplexAnalogTransmitter(String name, Point locationPoint, Axes orientationAxes, RadioFrequencyGainPattern antennaGainPattern, Signal signalToTransmit) Creates a new instance, specifying all parameters.
ComplexAnalogTransmitter(String name, Point locationPoint, Axes orientationAxes, RadioFrequencyGainPattern antennaGainPattern, Signal signalToTransmit, PolarizationSource polarizationSource) Creates a new instance, specifying all parameters.
ComplexAnalogTransmitter(String name, Point locationPoint, RadioFrequencyGainPattern antennaGainPattern, Signal signalToTransmit) Creates a new instance using the specified Name (get / set), LocationPoint (get / set), AntennaGainPattern (get / set), and SignalToTransmit (get / set).
Signal(Signal existingInstance) Create a new instance by copying an existing instance.
SignalCollection(Signal... signals) Create a new instance which consists of the provided signals.
SignalCollection(Signal signal) Create a new instance which consists of a single signal.

Constructor parameters in agi.foundation.communications with type arguments of type Signal

Constructor and Description
SignalCollection(Collection<Signal> signals) Create a new instance which consists of a set of signals.

Uses of Signal in agi.foundation.communications.antennas

Methods in agi.foundation.communications.antennas with parameters of type Signal

Modifier and Type	Method and Description
Evaluator<Double>	IsotropicGainPattern.getAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, Signal sampleSignal) Get an evaluator for the gain that would be applied to the given sample signal.
Evaluator<Double>	IAntennaGainService.getAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, Signal sampleSignal) Get an evaluator for the gain that would be applied to the given sample signal.
Evaluator<Double>	BaseGainPattern.getAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, Signal sampleSignal) Get an evaluator for the gain that would be applied to the given sample signal based on the given geometry.
Evaluator<Double>	BaseGainPattern.getAntennaGainEvaluator(Vector linkDirection, Axes antennaAxes, Signal sampleSignal) Get an evaluator for the gain that would be applied to the given sample signal based on the given geometry.

Uses of Signal in agi.foundation.communications.signalprocessing

Methods in agi.foundation.communications.signalprocessing that return Signal

Modifier and Type	Method and Description
Signal	IntendedReferenceSignal.getReferenceSignal() Gets the reference signal which is produced as the intended signal.
Signal	SignalSource.getSignalToTransmit() Gets the signal to transmit as the output of this signal processor.

Methods in agi.foundation.communications.signalprocessing that return types with arguments of type Signal

Modifier and Type	Method and Description
Evaluator<Signal>	IntendedSignalStrategy.getIntendedSignalEvaluator(EvaluatorGroup group, SignalPropagationGraph graph, ISignalSource signalSource) Get an evaluator which produces a single Signal as the intended signal from the given ISignalSource.

Methods in agi.foundation.communications.signalprocessing with parameters of type Signal

Modifier and Type	Method and Description
double	ModulationOok.computeBitErrorRate(Signal intendedSignal) A method to decode the digital signal and produce the probability that any given bit will be incorrect.
double	DigitalModulation.computeBitErrorRate(Signal intendedSignal) A method to decode the digital signal and produce the probability that any given bit will be incorrect.
void	IntendedReferenceSignal.setReferenceSignal(Signal value) Sets the reference signal which is produced as the intended signal.
void	SignalSource.setSignalToTransmit(Signal value) Sets the signal to transmit as the output of this signal processor.

Constructors in agi.foundation.communications.signalprocessing with parameters of type Signal

Constructor and Description
IntendedReferenceSignal(Signal referenceSignal, SignalCollection referenceUnintendedSignals) Initialize a new instance based on the given reference intended and unintended signals.
SignalSource(Signal signalToTransmit, TimeIntervalCollection generationTimes) Create a new source which transmits the given signal at certain times.

Uses of Signal in agi.foundation.radar

Methods in agi.foundation.radar that return Signal

Modifier and Type	Method and Description
Signal	ProcessedRadarWaveform.getReceivedSignal() Gets the received signal which represents the waveform before it was processed.

Constructors in agi.foundation.radar with parameters of type Signal

Constructor and Description
ProcessedRadarWaveform(double integrationGain, double integrationTime, int numberOfPulsesIntegrated, Signal receivedSignal, SignalCollection interferenceSignals) Initializes a new instance.
ProcessedRadarWaveform(double integrationGain, double integrationTime, int numberOfPulsesIntegrated, Signal receivedSignal, SignalCollection interferenceSignals, Iterable<? extends Object> dataList) Initializes a new instance.