Uses of Class
agi.foundation.geometry.Vector

Packages that use Vector

Package	Description
agi.foundation.celestial	Contains types used in modeling characteristics of celestial objects and celestial phenomena.
agi.foundation.cesium	Contains types used for defining graphical properties of definitional objects to be written out as CZML.
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.geometry	Contains types for expressing the motion of fundamental geometric objects such as points, axes, and reference frames; the manner in which they are related; and transformations between representations.
agi.foundation.graphics	Provides commonly used and instantiated graphics types related to 3D scene management, terrain and imagery, and more.
agi.foundation.navigation	Contains types useful in modeling navigation processes which utilize the Global Positioning System (GPS).
agi.foundation.platforms	Contains types used in modeling various mechanical platforms such as satellites, facilities, aircraft, etc.
agi.foundation.propagators	Contains types used in producing the state of an object from a known element set.
agi.foundation.segmentpropagation	Contains types for modeling a trajectory in segments, where the type of propagation varies for each segment.

Uses of Vector in agi.foundation.celestial

Subclasses of Vector in agi.foundation.celestial

Modifier and Type	Class and Description
class	InternationalGeomagneticReferenceFieldVector Represents the magnetic field vector at a TargetPoint (get / set) due to the Earth's magnetic field, as modeled by an IGRF model.
class	MagneticFieldVector Represents the magnetic field vector at a TargetPoint (get / set) due to a planetary magnetic field.
class	VectorRefractedDisplacement A vector representing the refracted displacement from an initial point to a final point as both points move over time.
class	WorldMagneticModelVector Represents the magnetic field vector at a TargetPoint (get / set) due to the Earth's magnetic field, as modeled by a WMM model.

Methods in agi.foundation.celestial that return Vector

Modifier and Type	Method and Description
static Vector	ContinuousThrustForceModel.createIspThrustVector(Scalar isp, Scalar massFlowRate, Axes burnAxes, Cartesian thrustDirection) Creates a thrust Vector where the thrust is computed from the isp, and massFlowRate pointing in the thrustDirection in the specified burnAxes.
static Vector	ContinuousThrustForceModel.createVeThrustVector(Scalar exhaustSpeed, Scalar massFlowRate, Axes burnAxes, Vector thrustDirection) Creates a thrust Vector where the thrust is computed from the exhaustSpeed, and massFlowRate pointing in the thrustDirection in the specified burnAxes.
Vector	IersTechnicalNote36RelativisticCorrectionForce.getCentralBodyAngularMomentumPerUnitMass() Gets a vector that describes the angular momentum per unit mass of the CentralBody (get / set).
Vector	MagneticCoilTorque.getDirectedArea() Gets the area of the coil multiplied by the unit vector that is normal to the plane of the coil such that a positive current traveling through the coil obeys the right hand rule.
Vector	ForceModel.getForceVector() Gets the Vector representation of this force.
Vector	MagneticCoilTorque.getMagneticFieldVector() Gets a vector describing the magnetic field that the coil is subjected to.
Vector	OffAxisTorque.getThrustVector() Gets the thrust vector.
Vector	ContinuousThrustForceModel.getThrustVector() Gets the thrust vector.
Vector	TorqueModel.getTorqueVector() Gets the Vector representation of this torque.
Vector	SolarRadiationTwoDofSolarPanelPlate.getUnitNormalVector(Axes bodyAxes, Vector toSunVector) Gets the unit normal vector of the plate that describes its pointing and is used to determine how much of the plate's ReferenceArea (get / set) is directed toward the Sun (for SolarRadiationPlates) or toward the incoming atmosphere (for DragPlates).
Vector	SolarRadiationOneDofSolarPanelPlate.getUnitNormalVector(Axes bodyAxes, Vector toSunVector) Gets the unit normal vector of the plate that describes its pointing and is used to determine how much of the plate's ReferenceArea (get / set) is directed toward the Sun (for SolarRadiationPlates) or toward the incoming atmosphere (for DragPlates).
Vector	SolarRadiationBodyPlate.getUnitNormalVector(Axes bodyAxes, Vector toSunVector) Gets the unit normal vector of the plate that describes its pointing and is used to determine how much of the plate's ReferenceArea (get / set) is directed toward the Sun (for SolarRadiationPlates) or toward the incoming atmosphere (for DragPlates).
abstract Vector	IndividualPlateModel.getUnitNormalVector(Axes bodyAxes, Vector toSunVector) Gets the unit normal vector of the plate that describes its pointing and is used to determine how much of the plate's ReferenceArea (get / set) is directed toward the Sun (for SolarRadiationPlates) or toward the incoming atmosphere (for DragPlates).
Vector	DragTwoDofSolarPanelPlate.getUnitNormalVector(Axes bodyAxes, Vector toSunVector) Gets the unit normal vector of the plate that describes its pointing and is used to determine how much of the plate's ReferenceArea (get / set) is directed toward the Sun (for SolarRadiationPlates) or toward the incoming atmosphere (for DragPlates).
Vector	DragOneDofSolarPanelPlate.getUnitNormalVector(Axes bodyAxes, Vector toSunVector) Gets the unit normal vector of the plate that describes its pointing and is used to determine how much of the plate's ReferenceArea (get / set) is directed toward the Sun (for SolarRadiationPlates) or toward the incoming atmosphere (for DragPlates).
Vector	DragBodyPlate.getUnitNormalVector(Axes bodyAxes, Vector toSunVector) Gets the unit normal vector of the plate that describes its pointing and is used to determine how much of the plate's ReferenceArea (get / set) is directed toward the Sun (for SolarRadiationPlates) or toward the incoming atmosphere (for DragPlates).
Vector	ScalarAtmosphericDensity.getVectorToSun() Gets the vector to the sun to use for modeling the effects of solar radiation on the atmosphere.
static Vector	IersTechnicalNote36RelativisticCorrectionForce.routhsRuleAngularMomentumPerUnitMass(CentralBody centralBody) A static helper method that computes a CentralBodyAngularMomentumPerUnitMass (get / set) vector for the input centralBody.
static Vector	IersTechnicalNote36RelativisticCorrectionForce.scaledAngularVelocityAngularMomentumPerUnitMass(CentralBody centralBody, double scale) A static helper method that computes a CentralBodyAngularMomentumPerUnitMass (get / set) vector for the input centralBody.

Methods in agi.foundation.celestial with parameters of type Vector

Modifier and Type	Method and Description
protected boolean	MagneticFieldVector.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
static MagneticCoilTorque	MagneticCoilTorque.createMagneticCoilTorqueUsingIgrfCofModel(String filename, Point bodyCenterOfMass, double numberOfLoops, Scalar current, Vector directedArea, Axes bodyAxes) Creates a new magnetic coil torque that uses an InternationalGeomagneticReferenceFieldVector to describe the magnetic field and a Point to describe the position of the spacecraft.
static MagneticCoilTorque	MagneticCoilTorque.createMagneticCoilTorqueUsingIgrfTxtModel(String filename, Point bodyCenterOfMass, double numberOfLoops, Scalar current, Vector directedArea, Axes bodyAxes) Creates a new magnetic coil torque that uses an InternationalGeomagneticReferenceFieldVector to describe the magnetic field and a Point to describe the position of the spacecraft.
static MagneticCoilTorque	MagneticCoilTorque.createMagneticCoilTorqueUsingWmmModel(String filename, Point bodyCenterOfMass, double numberOfLoops, Scalar current, Vector directedArea, Axes bodyAxes) Creates a new magnetic coil torque that uses a WorldMagneticModelVector to describe the magnetic field and a Point to describe the position of the spacecraft.
static Vector	ContinuousThrustForceModel.createVeThrustVector(Scalar exhaustSpeed, Scalar massFlowRate, Axes burnAxes, Vector thrustDirection) Creates a thrust Vector where the thrust is computed from the exhaustSpeed, and massFlowRate pointing in the thrustDirection in the specified burnAxes.
MotionEvaluator1<AzimuthElevationRange>	CentralBody.getAzimuthElevationRangeEvaluator(Vector vector, Point observingPoint) Gets an evaluator to find the azimuth, elevation, and range of a vector as observed from a given point.
MotionEvaluator1<AzimuthElevationRange>	CentralBody.getAzimuthElevationRangeEvaluator(Vector vector, Point observingPoint, EvaluatorGroup group) Gets an evaluator to find the azimuth, elevation, and range of a vector as observed from a given point, and associates the evaluator with the specified evaluator group.
Scalar	SolarRadiationPlate.getSwitchingScalar(Axes bodyAxes, Vector toSunVector) Gets a scalar that is used to determine whether this plate is facing a direction within 90 degrees of the incident sunlight direction at a given time.
Scalar	DragTwoDofSolarPanelPlate.getSwitchingScalar(Axes bodyAxes, Vector toSunVector, Vector velocity) Gets a scalar that is used to determine whether this plate is facing a direction within 90 degrees of the incident atmosphere direction at a given time.
abstract Scalar	DragPlate.getSwitchingScalar(Axes bodyAxes, Vector toSunVector, Vector velocity) Gets a scalar that is used to determine whether this plate is facing a direction within 90 degrees of the incident atmosphere direction at a given time.
Scalar	DragOneDofSolarPanelPlate.getSwitchingScalar(Axes bodyAxes, Vector toSunVector, Vector velocity) Gets a scalar that is used to determine whether this plate is facing a direction within 90 degrees of the incident atmosphere direction at a given time.
Scalar	DragBodyPlate.getSwitchingScalar(Axes bodyAxes, Vector toSunVector, Vector velocity) Gets a scalar that is used to determine whether this plate is facing a direction within 90 degrees of the incident atmosphere direction at a given time.
Vector	SolarRadiationTwoDofSolarPanelPlate.getUnitNormalVector(Axes bodyAxes, Vector toSunVector) Gets the unit normal vector of the plate that describes its pointing and is used to determine how much of the plate's ReferenceArea (get / set) is directed toward the Sun (for SolarRadiationPlates) or toward the incoming atmosphere (for DragPlates).
Vector	SolarRadiationOneDofSolarPanelPlate.getUnitNormalVector(Axes bodyAxes, Vector toSunVector) Gets the unit normal vector of the plate that describes its pointing and is used to determine how much of the plate's ReferenceArea (get / set) is directed toward the Sun (for SolarRadiationPlates) or toward the incoming atmosphere (for DragPlates).
Vector	SolarRadiationBodyPlate.getUnitNormalVector(Axes bodyAxes, Vector toSunVector) Gets the unit normal vector of the plate that describes its pointing and is used to determine how much of the plate's ReferenceArea (get / set) is directed toward the Sun (for SolarRadiationPlates) or toward the incoming atmosphere (for DragPlates).
abstract Vector	IndividualPlateModel.getUnitNormalVector(Axes bodyAxes, Vector toSunVector) Gets the unit normal vector of the plate that describes its pointing and is used to determine how much of the plate's ReferenceArea (get / set) is directed toward the Sun (for SolarRadiationPlates) or toward the incoming atmosphere (for DragPlates).
Vector	DragTwoDofSolarPanelPlate.getUnitNormalVector(Axes bodyAxes, Vector toSunVector) Gets the unit normal vector of the plate that describes its pointing and is used to determine how much of the plate's ReferenceArea (get / set) is directed toward the Sun (for SolarRadiationPlates) or toward the incoming atmosphere (for DragPlates).
Vector	DragOneDofSolarPanelPlate.getUnitNormalVector(Axes bodyAxes, Vector toSunVector) Gets the unit normal vector of the plate that describes its pointing and is used to determine how much of the plate's ReferenceArea (get / set) is directed toward the Sun (for SolarRadiationPlates) or toward the incoming atmosphere (for DragPlates).
Vector	DragBodyPlate.getUnitNormalVector(Axes bodyAxes, Vector toSunVector) Gets the unit normal vector of the plate that describes its pointing and is used to determine how much of the plate's ReferenceArea (get / set) is directed toward the Sun (for SolarRadiationPlates) or toward the incoming atmosphere (for DragPlates).
void	IersTechnicalNote36RelativisticCorrectionForce.setCentralBodyAngularMomentumPerUnitMass(Vector value) Sets a vector that describes the angular momentum per unit mass of the CentralBody (get / set).
void	MagneticCoilTorque.setDirectedArea(Vector value) Sets the area of the coil multiplied by the unit vector that is normal to the plane of the coil such that a positive current traveling through the coil obeys the right hand rule.
void	MagneticCoilTorque.setMagneticFieldVector(Vector value) Sets a vector describing the magnetic field that the coil is subjected to.
void	OffAxisTorque.setThrustVector(Vector value) Sets the thrust vector.
void	ContinuousThrustForceModel.setThrustVector(Vector value) Sets the thrust vector.
void	ScalarAtmosphericDensity.setVectorToSun(Vector value) Sets the vector to the sun to use for modeling the effects of solar radiation on the atmosphere.

Constructors in agi.foundation.celestial with parameters of type Vector

Constructor and Description
ContinuousThrustForceModel(Vector thrustVector, Axes integrationAxes) Initialize a new instance.
ContinuousThrustForceModel(Vector thrustVector, Axes integrationAxes, boolean ignorePartials) Initialize a new instance.
IersTechnicalNote36RelativisticCorrectionForce(Point targetPoint, CentralBody centralBody, CentralBody solarCentralBody, Vector centralBodyAngularMomentumPerUnitMass, double centralBodyGravitationalParameter, double solarGravitationalParameter, boolean useLenseThirringCorrection, boolean useDeSitterCorrection) Initializes the correction force with the specified parameters.
MagneticCoilTorque(Vector magneticFieldVector, double numberOfLoops, Scalar current, Cartesian directedArea, Axes bodyAxes) Initializes the magnetic coil torque model.
MagneticCoilTorque(Vector magneticFieldVector, double numberOfLoops, Scalar current, Vector directedArea, Axes bodyAxes) Initializes the magnetic coil torque model.
OffAxisTorque(Vector thrustVector, Cartesian offset, Axes bodyAxes) Initializes a model of the torque generated by a thruster that is not aligned with the center of mass of a vehicle.
ScalarAtmosphericDensity(Point targetPoint, SolarGeophysicalData solarGeophysicalData, CentralBody centralBody, Vector sunVector) Initializes a Scalar representing atmospheric density using the target point and solar-geophysical data.
ScalarDensityJacchia1970(Point targetPoint, SolarGeophysicalData solarGeophysicalData, CentralBody earth, Vector sunVector, boolean useApproximateAltitude) Initializes a Scalar representing the Jacchia 1970 model of atmospheric density using the target point and solar-geophysical data.
ScalarDensityJacchiaRoberts(Point targetPoint, SolarGeophysicalData solarGeophysicalData, CentralBody earth, Vector sunVector, boolean useApproximateAltitude) Initializes a Scalar representing the Jacchia-Roberts model of atmospheric density using the target point and solar-geophysical data.

Uses of Vector in agi.foundation.cesium

Methods in agi.foundation.cesium that return Vector

Modifier and Type	Method and Description
Vector	VectorCesiumProperty.getVector() Gets the vector.
Vector	UnitVectorCesiumProperty.getVector() Gets the vector.
Vector	GraphicalVector.getVector() Gets the vector.

Methods in agi.foundation.cesium with parameters of type Vector

Modifier and Type	Method and Description
void	VectorCesiumProperty.setVector(Vector value) Sets the vector.
void	UnitVectorCesiumProperty.setVector(Vector value) Sets the vector.
void	GraphicalVector.setVector(Vector value) Sets the vector.
static UnitVectorCesiumProperty	UnitVectorCesiumProperty.toUnitVectorCesiumProperty(Vector value) Converts a Vector to a UnitVectorCesiumProperty.
static VectorCesiumProperty	VectorCesiumProperty.toVectorCesiumProperty(Vector value) Converts a Vector to a VectorCesiumProperty.

Constructors in agi.foundation.cesium with parameters of type Vector

Constructor and Description
GraphicalVector(Vector vector, VectorGraphics vectorGraphics, Point locationPoint) Initializes a new instance specifying all parameters.
UnitVectorCesiumProperty(Vector vector) Initializes a new instance with the provided Vector.
VectorCesiumProperty(Vector vector) Initializes a new instance with the provided Vector.

Uses of Vector in agi.foundation.communications

Methods in agi.foundation.communications that return Vector

Modifier and Type	Method and Description
Vector	CommunicationSystem.getDefaultReferenceVector() Gets the default reference vector used by CommunicationSystem.configureAntennaTargeting() when automatically orienting links.

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

Modifier and Type	Method and Description
abstract SignalPolarizationEvaluator	PolarizationSource.getPolarizationEvaluator(EvaluatorGroup group, Vector linkGeometry, Axes polarizationAxes) Gets an evaluator for evaluating polarization based on link geometry and polarization axes.
SignalPolarizationEvaluator	OrthogonalPolarizationSource.getPolarizationEvaluator(EvaluatorGroup group, Vector linkGeometry, Axes polarizationAxes) Gets an evaluator for evaluating polarization based on link geometry and polarization axes.
SignalPolarizationEvaluator	Ieee1979PolarizationSource.getPolarizationEvaluator(EvaluatorGroup group, Vector linkGeometry, Axes polarizationAxes) Gets an evaluator for evaluating polarization based on link geometry and polarization axes.
SignalPolarizationEvaluator	FrequencyDependentElectricFieldPolarizationSource.getPolarizationEvaluator(EvaluatorGroup group, Vector linkGeometry, Axes polarizationAxes) Gets an evaluator for evaluating polarization based on link geometry and polarization axes.
SignalPolarizationEvaluator	ConstantPolarizationSource.getPolarizationEvaluator(EvaluatorGroup group, Vector linkGeometry, Axes polarizationAxes) Gets an evaluator for evaluating polarization based on link geometry and polarization axes.
SignalEvaluator	PointScattererExtension.getSignalTransmissionEvaluator(EvaluatorGroup group, Vector reflectedVector, SignalPropagationGraph graph) Get an evaluator which can produce a reflected signal which is the incident signal multiplied by the scattering coefficient computed for the incident and reflected link geometry.
void	CommunicationSystem.setDefaultReferenceVector(Vector value) Sets the default reference vector used by CommunicationSystem.configureAntennaTargeting() when automatically orienting links.

Uses of Vector in agi.foundation.communications.antennas

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

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.
SignalEvaluator	GpsSatelliteAntennaPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	FrpaGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	UniformRectangularApertureGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	UniformCircularApertureGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	SquareHornGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	SincExponentRectangularApertureGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	SincExponentCircularApertureGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	RectangularBeamGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	PhasedArrayGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of input signals based on link geometry and the gain pattern.
SignalEvaluator	PencilBeamGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	ParabolicGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	ItuRS731Version1GainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	ItuRS672Version4GainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	ItuRS580Version6GainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	ItuRS465Version6GainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	ItuRS465Version5GainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	ItuRS1528R13GainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	ItuRS1528R12GainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	ItuRF1245Version3GainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	ItuRF1245Version1GainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	ItuRBO1213Version1CrossPolarGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	ItuRBO1213Version1CoPolarGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	IsotropicGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Gets the evaluator for the specified inputSignal since no gain is applied.
SignalEvaluator	IAntennaGainService.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of input signals based on link geometry and the gain pattern.
SignalEvaluator	HemisphericalGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	HelicalGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	GaussianOpticalGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	GaussianGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	FrequencyDependentElectricFieldGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	DipoleGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	CustomGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	CosineSquaredRectangularApertureGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	CosineSquaredPedestalRectangularApertureGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	CosineSquaredPedestalCircularApertureGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	CosineSquaredCircularApertureGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	CosineRectangularApertureGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	CosinePedestalRectangularApertureGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	CosinePedestalCircularApertureGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	CosineCircularApertureGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	BesselEnvelopeCircularApertureGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
SignalEvaluator	BesselCircularApertureGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of signals based on link geometry and this gain pattern.
abstract SignalEvaluator	BaseGainPattern.getApplyAntennaGainEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes, ISignalSource inputSignal, SignalPropagationGraph graph) Get an evaluator which can modify a set of input signals based on link geometry and the gain pattern.
abstract BeamformerWeightsEvaluator	PhasedArrayBeamformer.getBeamWeightsEvaluator(EvaluatorGroup group, ISignalSource inputSignal, Vector linkDirection, Axes antennaAxes, List<PhasedArrayElement> elementPattern) Gets a BeamformerWeightsEvaluator which when evaluated produces a ComplexMatrix of element weights.
BeamformerWeightsEvaluator	MinimumVarianceDistortionlessResponseBeamformer.getBeamWeightsEvaluator(EvaluatorGroup group, ISignalSource inputSignal, Vector linkDirection, Axes antennaAxes, List<PhasedArrayElement> elementPattern) Gets a BeamformerWeightsEvaluator which when evaluated produces a ComplexMatrix of element weights.
DirectionsEvaluator	StaticDirectionsProvider.getDirectionsEvaluator(EvaluatorGroup group, ISignalSource inputSignal, Vector linkDirection, Axes antennaAxes) Gets an evaluator for evaluating directions based on an input signal, link direction vector, and antenna axes.
DirectionsEvaluator	LinkDirectionsProvider.getDirectionsEvaluator(EvaluatorGroup group, ISignalSource inputSignal, Vector linkDirection, Axes antennaAxes) Gets an evaluator for evaluating directions based on an input signal, link direction vector, and antenna axes.
abstract DirectionsEvaluator	DirectionsProvider.getDirectionsEvaluator(EvaluatorGroup group, ISignalSource inputSignal, Vector linkDirection, Axes antennaAxes) Gets an evaluator for evaluating directions based on an input signal, link direction vector, and antenna axes.
abstract ScalarEvaluator	PhasedArrayElementFactor.getEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes) Gets a ScalarEvaluator for evaluating the element factor based on the link direction vector and the antenna axes.
ScalarEvaluator	CosineExponentElementFactor.getEvaluator(EvaluatorGroup group, Vector linkDirection, Axes antennaAxes) Gets a ScalarEvaluator which computes an element factor using the equation 4 * PI * elementArea * direction.Z^(cosineExponent), where direction.Z is the z component of the unit vector in the link direction and cosineExponent and elementArea are given by the CosineExponent (get / set) and ElementArea (get / set) properties, respectively.
SignalEvaluator	ISignalTransmissionService.getSignalTransmissionEvaluator(EvaluatorGroup group, Vector reflectedVector, SignalPropagationGraph graph) Get an evaluator which can produce the signal after transmission.
SignalEvaluator	BaseTransmittingAntennaExtension.getSignalTransmissionEvaluator(EvaluatorGroup group, Vector reflectedVector, SignalPropagationGraph graph) Gets an evaluator which produces the transmitted signal after applying the gain in the link direction.
SignalEvaluator	BaseDualPolarizedTransmittingAntennaExtension.getSignalTransmissionEvaluator(EvaluatorGroup group, Vector reflectedVector, SignalPropagationGraph graph) Gets an evaluator which produces a set of transmit signals for both the primary and orthogonal polarization channels.

Uses of Vector in agi.foundation.geometry

Subclasses of Vector in agi.foundation.geometry

Modifier and Type	Class and Description
class	ParameterizedOnStateVector A vector that is defined by a TimeBasedStateParameter at the time of evaluation.
class	ParameterizedVector A vector that is defined by a CartesianParameter at the time of evaluation.
class	VectorAcceleration A Vector representing the acceleration of a given Point (get / set) derived in a given ReferenceFrame (get / set).
class	VectorAngularAcceleration A Vector defined as the angular acceleration of a given set of axes as the axes rotate with time.
class	VectorAngularVelocity A Vector defined as the angular velocity of a given set of axes as the axes rotate with time.
class	VectorApparentDisplacement A vector representing the apparent directed displacement from an initial point to a final point as the points move over time.
class	VectorBPlane A vector computing the B-Plane vector of a Point relative to a CentralBody (get / set).
class	VectorCrossProduct A Vector defined by the cross product of two vectors which may vary with time.
class	VectorDerivative A Vector (get / set) representing the derivative of the specified Order (get / set) of a given Vector (get / set) derived in a given Axes (get / set).
class	VectorDifferentiator A Vector that can provide higher-order derivatives by finite-differencing another vector.
class	VectorDisplacement The base class for a vector representing the directed displacement from an initial point to a final point as the two points move over time.
class	VectorEllipsoidSurfaceNormal A vector representing the surface normal at a point projected onto an ellipsoid surface as the point moves through time.
class	VectorFixed A Vector whose components do not change with respect to the axes in which it is defined.
class	VectorFixedAtJulianDate A Vector which is defined by the instantaneous value of another vector at a specified JulianDate.
class	VectorInAxes A vector that is observed in a given axes.
class	VectorInPointsAxes A vector observed in the axes in which a point is defined.
class	VectorInterpolator A vector with its value, derivative, etc.
class	VectorInVectorsAxes A vector observed in the axes in which another vector is defined.
class	VectorInverted A vector which inverts another vector.
class	VectorNormalized A vector representing a normalized version of another vector.
class	VectorPropagationParameter Represents a Vector which in turn represents the value and derivatives of a coordinate vector in an integration state.
class	VectorScaled A vector which represents another vector scaled by a given factor which can change over time.
class	VectorSum Represents the addition of a number of independent Vectors, summed together and observed in a common Axes.
class	VectorTrueDisplacement A vector representing the true directed displacement from an initial point to a final point as both points move over time.
class	VectorVelocity A Vector representing the velocity of a given Point (get / set) derived in a given ReferenceFrame (get / set).

Methods in agi.foundation.geometry that return Vector

Modifier and Type	Method and Description
Vector	Vector.add(Vector vector) Add a vector to this one.
static Vector	Vector.add(Vector left, Vector right) Add two vectors together.
Vector	VectorDependentOnServiceProvider.applyServiceProvider(IServiceProvider serviceProvider) Gets a Vector that can be used to find the value of this vector function at a given JulianDate.
Vector	Point.createVectorAcceleration(ReferenceFrame frame) Constructs a vector which represents the second derivative of this point's position.
Vector	AxesPropagationParameter.createVectorAngularVelocity(Axes axes) Constructs a vector which represents the angular velocity of this axes with respect to another axes.
Vector	Vector.createVectorDerivative(int order, Axes axes) Constructs a vector which represents a derivative of this vector.
Vector	Point.createVectorDerivative(ReferenceFrame frame, int order) Constructs a vector which represents the requested order of the derivative of this point's position.
Vector	PointPropagationParameter.createVectorVelocity(ReferenceFrame frame) Constructs a vector which represents the derivative of this point's position.
Vector	Point.createVectorVelocity(ReferenceFrame frame) Constructs a vector which represents the derivative of this point's position.
Vector	Vector.cross(Vector vector) Produce the vector cross product between this vector and another one.
Vector	Vector.divide(double factor) Divide this vector by a scale factor.
Vector	Vector.divide(Scalar factor) Divide this vector by a scale factor.
static Vector	Vector.divide(Vector vector, double factor) Divide a vector by a scalar.
static Vector	Vector.divide(Vector vector, Scalar factor) Divide a vector by a scalar.
Vector	VectorInVectorsAxes.getAxesOwner() Gets the vector whose axes will be used to observe the ObservedVector (get / set).
Vector	VectorDifferentiator.getDifferentiatedVector() Gets the point whose highest order derivative is being differentiated
Vector	PointCentralBodyProjection.getDirection() Gets the direction of the ray to project onto the central body.
Vector	PointVectorToPoint.getDisplacementVector() Gets the vector with which to displace the BasePoint (get / set).
Vector	VectorFixedAtJulianDate.getFixedVector() Gets the Vector that will be evaluated at the FixedAt (get / set) date.
Vector	VectorInVectorsAxes.getObservedVector() Gets the vector observed in the AxesOwner (get / set)'s axes.
Vector	AxesAlignedConstrained.getPrincipal() Gets the principal direction vector with which the X-axis of this set of axes will be aligned.
Vector	AxesTargetingLink.getReference() Gets the reference direction vector.
Vector	AxesAlignedConstrained.getReference() Gets the reference direction vector.
Vector	ScalarVectorElement.getReferenceVector() Gets the Vector to use.
Vector	VectorScaled.getVector() Gets the vector which is scaled by ScaleFactor (get / set).
Vector	VectorMagnitude.getVector() Gets vector of which to calculate the magnitude.
Vector	VectorDerivative.getVector() Gets the vector.
Vector	IVectorService.getVector() Gets the vector.
Vector	AxesInVectorsAxes.getVector() Gets the vector.
Vector	ScalarDihedralAngle.getVectorAxis() Gets the axis about which to measure the dihedral angle.
Vector	Axes.getVectorElement(CartesianElement element) Creates a Vector representing the X, Y or Z of this axes.
Vector	Axes.getVectorElement(CartesianElement element, int order) Creates a Vector representing the X, Y or Z of this axes.
Vector	ScalarDihedralAngle.getVectorFrom() Gets the vector to measure the angle from.
Vector	VectorCrossProduct.getVectorOne() Gets the vector to cross with VectorTwo (get / set).
Vector	ScalarDotProduct.getVectorOne() Gets the first vector in the dot product.
Vector	ScalarAngleBetweenVectors.getVectorOne() Gets the vector which forms an angle with VectorTwo (get / set).
Vector	ScalarDihedralAngle.getVectorTo() Gets the vector to measure the angle to.
Vector	VectorInverted.getVectorToInvert() Gets the vector to invert.
Vector	VectorNormalized.getVectorToNormalize() Gets the vector to be normalized.
Vector	VectorInPointsAxes.getVectorToObserve() Gets the vector to observe.
Vector	VectorInAxes.getVectorToObserve() Gets the vector to observe.
Vector	VectorCrossProduct.getVectorTwo() Gets the vector with which VectorOne (get / set) is crossed.
Vector	ScalarDotProduct.getVectorTwo() Gets the second vector in the dot product.
Vector	ScalarAngleBetweenVectors.getVectorTwo() Gets the vector which forms an angle with VectorOne (get / set).
Vector	Vector.multiply(double factor) Multiply this vector by a scale factor.
static Vector	Vector.multiply(double factor, Vector vector) Multiply a vector by a scalar.
Vector	Vector.multiply(Scalar factor) Multiply this vector by a scale factor.
static Vector	Vector.multiply(Scalar factor, Vector vector) Multiply a vector by a scalar.
static Vector	Vector.multiply(Vector vector, double factor) Multiply a vector by a scalar.
static Vector	Vector.multiply(Vector vector, Scalar factor) Multiply a vector by a scalar.
Vector	Vector.subtract(Vector vector) Subtract a vector from this one.
static Vector	Vector.subtract(Vector left, Vector right) Subtract one vector from another.
static Vector	GeometryTransformer.Advanced.unwrap(Vector vector) Unwraps a VectorInAxes.

Methods in agi.foundation.geometry that return types with arguments of type Vector

Modifier and Type	Method and Description
DefinitionalObjectCollection<Vector>	VectorSum.getVectorsToAdd() Gets the list of vectors to sum together.

Methods in agi.foundation.geometry with parameters of type Vector

Modifier and Type	Method and Description
Vector	Vector.add(Vector vector) Add a vector to this one.
static Vector	Vector.add(Vector left, Vector right) Add two vectors together.
protected boolean	VectorPropagationParameter.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	VectorBPlane.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	VectorVelocity.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	VectorSum.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	VectorScaled.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	VectorNormalized.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	VectorInverted.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	VectorInVectorsAxes.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	VectorInterpolator.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	VectorInPointsAxes.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	VectorInAxes.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	VectorFixedAtJulianDate.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	VectorFixed.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	VectorEllipsoidSurfaceNormal.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	VectorDisplacement.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	VectorDifferentiator.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	VectorDerivative.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	VectorCrossProduct.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	VectorAngularVelocity.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	VectorAngularAcceleration.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	VectorAcceleration.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected abstract boolean	Vector.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	ParameterizedVector.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
protected boolean	ParameterizedOnStateVector.checkForSameDefinition(Vector other) Checks to determine if another instance has the same definition as this instance and returns true if it does.
Vector	Vector.cross(Vector vector) Produce the vector cross product between this vector and another one.
static Vector	Vector.divide(Vector vector, double factor) Divide a vector by a scalar.
static Vector	Vector.divide(Vector vector, Scalar factor) Divide a vector by a scalar.
Scalar	Vector.dot(Vector vector) Produce the vector dot product between this vector and another one.
static AxesEvaluator	GeometryTransformer.Advanced.getTransformationFromVectorsAxes(Vector fromVector, Axes to) Gets an evaluator that can be used to find the transformation from the axes in which a vector is defined to a given axes.
static AxesEvaluator	GeometryTransformer.Advanced.getTransformationFromVectorsAxes(Vector fromVector, Axes to, EvaluatorGroup group) Gets an evaluator that can be used to find the transformation from the axes in which a vector is defined to a given axes.
static Vector	Vector.multiply(double factor, Vector vector) Multiply a vector by a scalar.
static Vector	Vector.multiply(Scalar factor, Vector vector) Multiply a vector by a scalar.
static Vector	Vector.multiply(Vector vector, double factor) Multiply a vector by a scalar.
static Vector	Vector.multiply(Vector vector, Scalar factor) Multiply a vector by a scalar.
static VectorEvaluator	GeometryTransformer.observeVector(Vector vector, Axes inAxes) Gets an evaluator that can be used to find the Motion<Cartesian> of this vector in a given axes at a given JulianDate.
static VectorEvaluator	GeometryTransformer.observeVector(Vector vector, Axes inAxes, EvaluatorGroup group) Gets an evaluator that can be used to find the Motion<Cartesian> of this vector in a given axes at a given JulianDate.
static VectorEvaluator	GeometryTransformer.Advanced.observeVectorInOtherVectorsAxes(Vector vectorToObserve, Vector axesOwner) Gets an evaluator to observe the Motion<Cartesian> of a vector in the axes in which another vector is defined.
static VectorEvaluator	GeometryTransformer.Advanced.observeVectorInOtherVectorsAxes(Vector vectorToObserve, Vector axesOwner, EvaluatorGroup group) Gets an evaluator to observe the Motion<Cartesian> of a vector in the axes in which another vector is defined.
static VectorEvaluator	GeometryTransformer.Advanced.observeVectorInPointsAxes(Vector vector, Point point) Gets an evaluator to observe the Motion<Cartesian> representation of a vector in the axes in which a point is defined.
static VectorEvaluator	GeometryTransformer.Advanced.observeVectorInPointsAxes(Vector vector, Point point, EvaluatorGroup group) Gets an evaluator to observe the Motion<Cartesian> representation of a vector in the axes in which a point is defined.
void	VectorInVectorsAxes.setAxesOwner(Vector value) Sets the vector whose axes will be used to observe the ObservedVector (get / set).
void	VectorDifferentiator.setDifferentiatedVector(Vector value) Sets the point whose highest order derivative is being differentiated
void	PointCentralBodyProjection.setDirection(Vector value) Sets the direction of the ray to project onto the central body.
void	PointVectorToPoint.setDisplacementVector(Vector value) Sets the vector with which to displace the BasePoint (get / set).
void	VectorFixedAtJulianDate.setFixedVector(Vector value) Sets the Vector that will be evaluated at the FixedAt (get / set) date.
void	VectorInVectorsAxes.setObservedVector(Vector value) Sets the vector observed in the AxesOwner (get / set)'s axes.
void	AxesAlignedConstrained.setPrincipal(Vector value) Sets the principal direction vector with which the X-axis of this set of axes will be aligned.
void	AxesTargetingLink.setReference(Vector value) Sets the reference direction vector.
void	AxesAlignedConstrained.setReference(Vector value) Sets the reference direction vector.
void	ScalarVectorElement.setReferenceVector(Vector value) Sets the Vector to use.
void	VectorScaled.setVector(Vector value) Sets the vector which is scaled by ScaleFactor (get / set).
void	VectorMagnitude.setVector(Vector value) Sets vector of which to calculate the magnitude.
void	VectorDerivative.setVector(Vector value) Sets the vector.
void	AxesInVectorsAxes.setVector(Vector value) Sets the vector.
void	ScalarDihedralAngle.setVectorAxis(Vector value) Sets the axis about which to measure the dihedral angle.
void	ScalarDihedralAngle.setVectorFrom(Vector value) Sets the vector to measure the angle from.
void	VectorCrossProduct.setVectorOne(Vector value) Sets the vector to cross with VectorTwo (get / set).
void	ScalarDotProduct.setVectorOne(Vector value) Sets the first vector in the dot product.
void	ScalarAngleBetweenVectors.setVectorOne(Vector value) Sets the vector which forms an angle with VectorTwo (get / set).
void	ScalarDihedralAngle.setVectorTo(Vector value) Sets the vector to measure the angle to.
void	VectorInverted.setVectorToInvert(Vector value) Sets the vector to invert.
void	VectorNormalized.setVectorToNormalize(Vector value) Sets the vector to be normalized.
void	VectorInPointsAxes.setVectorToObserve(Vector value) Sets the vector to observe.
void	VectorInAxes.setVectorToObserve(Vector value) Sets the vector to observe.
void	VectorCrossProduct.setVectorTwo(Vector value) Sets the vector with which VectorOne (get / set) is crossed.
void	ScalarDotProduct.setVectorTwo(Vector value) Sets the second vector in the dot product.
void	ScalarAngleBetweenVectors.setVectorTwo(Vector value) Sets the vector which forms an angle with VectorOne (get / set).
Vector	Vector.subtract(Vector vector) Subtract a vector from this one.
static Vector	Vector.subtract(Vector left, Vector right) Subtract one vector from another.
static VectorDependentOnServiceProvider	VectorDependentOnServiceProvider.toVectorDependentOnServiceProvider(Vector value) Creates a VectorDependentOnServiceProvider object wrapping a Vector value.
static Vector	GeometryTransformer.Advanced.unwrap(Vector vector) Unwraps a VectorInAxes.

Constructors in agi.foundation.geometry with parameters of type Vector

Constructor and Description
AxesAlignedConstrained(Vector principal, AxisIndicator principalAxis, Vector reference, AxisIndicator referenceAxis) Initializes a new instance.
AxesAlignedConstrained(Vector principal, Vector reference) Initializes a new instance.
AxesInVectorsAxes(Axes axesToObserve, Vector vector) Initializes a new instance.
AxesTargetingLink(IServiceProvider link, LinkRole observer, Vector reference) Initializes a new instance specifying all parameters.
PointCentralBodyProjection(CentralBody centralBody, Point origin, Vector direction) Initializes a new instance from a body, a ray origin, and a ray direction.
PointVectorToPoint(Vector displacementVector, Point basePoint) Initializes a new instance.
ScalarAngleBetweenVectors(Vector one, Vector two) Constructs the scalar that will represent the angle between the two given vectors.
ScalarDihedralAngle(Vector from, Vector to, Vector axis) Constructs the angle between the two given angles about the given axis.
ScalarDotProduct(Vector one, Vector two) Constructs the dot product from two existing vectors.
ScalarVectorElement(Vector vector, CartesianElement element, Axes referenceAxes) Initializes a new instance.
Vector(Vector existingInstance, CopyContext context) Initializes a new instance as a copy of an existing instance.
VectorCrossProduct(Vector vectorOne, Vector vectorTwo) Initializes a new instance of the VectorCrossProduct class using the provided vectors.
VectorDerivative(Vector vector, int order, Axes axes) Initializes a new instance of the VectorVelocity class to represent the velocity of a given point in a given reference frame.
VectorDifferentiator(Vector vector, double increment) Initializes a new instance.
VectorDifferentiator(Vector vector, double increment, int derivativeToCompute) Initializes a new instance.
VectorFixedAtJulianDate(Vector fixedVector, Axes fixedWithRespectTo, ValueDefinition<JulianDate> fixedAt) Initializes a new instance.
VectorFixedAtJulianDate(Vector fixedVector, ValueDefinition<JulianDate> fixedAt) Initializes a new instance.
VectorInAxes(Vector vectorToObserve, Axes inAxes) Initializes a new instance.
VectorInPointsAxes(Vector vectorToObserve, Point point) Initializes an instance.
VectorInVectorsAxes(Vector observedVector, Vector axesOwner) Initializes a new instance.
VectorInverted(Vector vectorToInvert) Initializes a new instance.
VectorMagnitude(Vector vector) Initializes a new instance based on a given vector.
VectorNormalized(Vector vectorToNormalize) Construct a new unit vector based on an existing vector.
VectorScaled(Vector vectorToScale, double scaleFactor) Construct a new vector scaled by the given factor.
VectorScaled(Vector vectorToScale, Scalar scaleFactor) Construct a new vector scaled by the given factor.
VectorSum(Vector... vectors) Initializes a new instance.

Constructor parameters in agi.foundation.geometry with type arguments of type Vector

Constructor and Description
VectorSum(Iterable<? extends Vector> vectors) Initializes a new instance.

Uses of Vector in agi.foundation.graphics

Methods in agi.foundation.graphics with parameters of type Vector

Modifier and Type	Method and Description
void	Camera.viewDirection(Axes axes, Point cameraPosition, Vector direction) Views from a point to a direction.
void	Camera.viewDirection(Axes axes, Point cameraPosition, Vector direction, UnitCartesian upAxis) Views from a point to a direction.
void	Camera.viewOffsetDirection(Axes axes, Point referencePoint, Vector direction) Sets the camera's reference point - the point the camera is looking at.
void	Camera.viewOffsetDirection(Axes axes, Point referencePoint, Vector direction, UnitCartesian upAxis) Sets the camera's reference point - the point the camera is looking at.

Constructors in agi.foundation.graphics with parameters of type Vector

Constructor and Description
VectorPrimitive(ReferenceFrame sys, Vector dir, GraphicsFont font) Initializes a vector primitive with the specified ISystem sys as its source and pointing in direction dir.

Uses of Vector in agi.foundation.navigation

Subclasses of Vector in agi.foundation.navigation

Modifier and Type	Class and Description
class	GpsLineOfSightVector A vector describing the line-of-sight from a GPS satellite to a GPS receiver at the time of reception according to IS-GPS-200D.

Uses of Vector in agi.foundation.platforms

Methods in agi.foundation.platforms that return Vector

Modifier and Type	Method and Description
Vector	VectorGraphicsParameter.getVector() Gets the Vector (get / set) to use.
Vector	GraphicalVector.getVector() Gets the vector.

Methods in agi.foundation.platforms with parameters of type Vector

Modifier and Type	Method and Description
void	VectorGraphicsParameter.setVector(Vector value) Sets the Vector (get / set) to use.
void	GraphicalVector.setVector(Vector value) Sets the vector.

Constructors in agi.foundation.platforms with parameters of type Vector

Constructor and Description
GraphicalVector(Vector vector, Point locationPoint, VectorGraphics graphics) Initializes a new instance specifying all parameters.
VectorGraphicsParameter(Vector vector, Axes inAxes) Initializes a new instance with the specified vector.

Uses of Vector in agi.foundation.propagators

Methods in agi.foundation.propagators that return Vector

Modifier and Type	Method and Description
Vector	PropagationNewtonianPoint.getAccelerationVector() Gets a Vector representing the acceleration according to Newton's second law of motion in the given inertial IntegrationFrame (get / set).
Vector	AuxiliaryStateVector.getAuxiliaryVector() Gets the vector to include as an auxiliary state in the propagation output.
Vector	PropagationVector.getIntegrationValue() Gets a Vector object that is parameterized on a vector value in the state during integration.
Vector	PropagationVector.getVectorDerivative() Gets the derivative of the highest Order (get) which specifies the motion of this vector parameter over time.

Methods in agi.foundation.propagators with parameters of type Vector

Modifier and Type	Method and Description
void	AuxiliaryStateVector.setAuxiliaryVector(Vector value) Sets the vector to include as an auxiliary state in the propagation output.
void	PropagationVector.setVectorDerivative(Vector value) Sets the derivative of the highest Order (get) which specifies the motion of this vector parameter over time.

Constructors in agi.foundation.propagators with parameters of type Vector

Constructor and Description
AuxiliaryStateVector(Vector value) Initializes a new instance based on the given Vector.

Uses of Vector in agi.foundation.segmentpropagation

Methods in agi.foundation.segmentpropagation that return Vector

Modifier and Type	Method and Description
Vector	ImpulsiveManeuverInformation.getCostateVector() Gets the Vector that can optionally be used to construct geometry types (such as the Orientation (get / set)) that represent the CostateElementIdentification (get / set) at propagation time.