public class TimeStampedPVCoordinatesHermiteInterpolator extends AbstractTimeInterpolator<TimeStampedPVCoordinates>
As this implementation of interpolation is polynomial, it should be used only with small number of interpolation points (about 10-20 points) in order to avoid Runge's phenomenon and numerical problems (including NaN appearing).
HermiteInterpolator
,
TimeStampedPVCoordinates
AbstractTimeInterpolator.InterpolationData
DEFAULT_EXTRAPOLATION_THRESHOLD_SEC, DEFAULT_INTERPOLATION_POINTS
Constructor and Description |
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TimeStampedPVCoordinatesHermiteInterpolator()
Constructor with :
Default number of interpolation points of
DEFAULT_INTERPOLATION_POINTS
Default extrapolation threshold value (DEFAULT_EXTRAPOLATION_THRESHOLD_SEC s)
Use of position and both time derivatives for attitude interpolation
As this implementation of interpolation is polynomial, it should be used only with small number of interpolation
points (about 10-20 points) in order to avoid Runge's
phenomenon and numerical problems (including NaN appearing). |
TimeStampedPVCoordinatesHermiteInterpolator(int interpolationPoints)
Constructor with :
Default extrapolation threshold value (
DEFAULT_EXTRAPOLATION_THRESHOLD_SEC s)
Use of position and both time derivatives for attitude interpolation
As this implementation of interpolation is polynomial, it should be used only with small number of interpolation
points (about 10-20 points) in order to avoid Runge's
phenomenon and numerical problems (including NaN appearing). |
TimeStampedPVCoordinatesHermiteInterpolator(int interpolationPoints,
CartesianDerivativesFilter filter)
Constructor with :
Default extrapolation threshold value (
DEFAULT_EXTRAPOLATION_THRESHOLD_SEC s)
As this implementation of interpolation is polynomial, it should be used only with small number of interpolation
points (about 10-20 points) in order to avoid Runge's
phenomenon and numerical problems (including NaN appearing). |
TimeStampedPVCoordinatesHermiteInterpolator(int interpolationPoints,
double extrapolationThreshold,
CartesianDerivativesFilter filter)
Constructor.
|
Modifier and Type | Method and Description |
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CartesianDerivativesFilter |
getFilter()
Get filter for derivatives from the sample to use in interpolation.
|
protected TimeStampedPVCoordinates |
interpolate(AbstractTimeInterpolator.InterpolationData interpolationData)
Interpolate instance from given interpolation data.
|
addOptionalSubInterpolatorIfDefined, checkInterpolatorCompatibilityWithSampleSize, getCentralDate, getExtrapolationThreshold, getNbInterpolationPoints, getSubInterpolators, getTimeParameter, interpolate, interpolate
public TimeStampedPVCoordinatesHermiteInterpolator()
DEFAULT_INTERPOLATION_POINTS
DEFAULT_EXTRAPOLATION_THRESHOLD_SEC
s)public TimeStampedPVCoordinatesHermiteInterpolator(int interpolationPoints)
DEFAULT_EXTRAPOLATION_THRESHOLD_SEC
s)interpolationPoints
- number of interpolation pointspublic TimeStampedPVCoordinatesHermiteInterpolator(int interpolationPoints, CartesianDerivativesFilter filter)
DEFAULT_EXTRAPOLATION_THRESHOLD_SEC
s)interpolationPoints
- number of interpolation pointsfilter
- filter for derivatives from the sample to use in interpolationpublic TimeStampedPVCoordinatesHermiteInterpolator(int interpolationPoints, double extrapolationThreshold, CartesianDerivativesFilter filter)
As this implementation of interpolation is polynomial, it should be used only with small number of interpolation points (about 10-20 points) in order to avoid Runge's phenomenon and numerical problems (including NaN appearing).
interpolationPoints
- number of interpolation pointsextrapolationThreshold
- extrapolation threshold beyond which the propagation will failfilter
- filter for derivatives from the sample to use in interpolationpublic CartesianDerivativesFilter getFilter()
protected TimeStampedPVCoordinates interpolate(AbstractTimeInterpolator.InterpolationData interpolationData)
The interpolated instance is created by polynomial Hermite interpolation ensuring velocity remains the exact derivative of position.
Note that even if first time derivatives (velocities) from sample can be ignored, the interpolated instance always includes interpolated derivatives. This feature can be used explicitly to compute these derivatives when it would be too complex to compute them from an analytical formula: just compute a few sample points from the explicit formula and set the derivatives to zero in these sample points, then use interpolation to add derivatives consistent with the positions.
interpolate
in class AbstractTimeInterpolator<TimeStampedPVCoordinates>
interpolationData
- interpolation dataCopyright © 2002-2023 CS GROUP. All rights reserved.