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Advanced Methods

Methods
  NameDescription
Public methodStatic memberGetTransformationFromPointsAxes(Point, Axes)
Gets an evaluator that can be used to find the transformation from the axes in which a point is defined to a given axes. The transformation is represented by a Motion<UnitQuaternion, Cartesian> at a given JulianDate.
Public methodStatic memberGetTransformationFromPointsAxes(Point, Axes, EvaluatorGroup)
Gets an evaluator that can be used to find the transformation from the axes in which a point is defined to a given axes. The transformation is represented by a Motion<UnitQuaternion, Cartesian> at a given JulianDate.
Public methodStatic memberGetTransformationFromVectorsAxes(Vector, Axes)
Gets an evaluator that can be used to find the transformation from the axes in which a vector is defined to a given axes. The transformation is represented by a Motion<UnitQuaternion, Cartesian> at a given JulianDate.
Public methodStatic memberGetTransformationFromVectorsAxes(Vector, Axes, EvaluatorGroup)
Gets an evaluator that can be used to find the transformation from the axes in which a vector is defined to a given axes. The transformation is represented by a Motion <UnitQuaternion, Cartesian> at a given JulianDate.
Public methodStatic memberObservePointInOtherPointsFrame(Point, Point)
Gets an evaluator that can be used to observe the Motion<Cartesian> of a point at a given JulianDate in the reference frame in which another point is defined.
Public methodStatic memberObservePointInOtherPointsFrame(Point, Point, EvaluatorGroup)
Gets an evaluator that can be used to observe the Motion<Cartesian> of a point at a given JulianDate in the reference frame in which another point is defined.
Public methodStatic memberObserveVectorInOtherVectorsAxes(Vector, Vector)
Gets an evaluator to observe the Motion<Cartesian> of a vector in the axes in which another vector is defined. Note that this will not account for any translational effects and the axes are considered to be the vector's basis. So if the vector is representing a velocity or boresight vector, observing the vector in the axes of a reference frame which is rotating and translating with respect to the vector's axes will only take into account the relative rotation as if the two basis axes were colocated when computing the vector's derivatives. To obtain a vector and its derivatives in a different frame, the vector needs to be created in that frame.
Public methodStatic memberObserveVectorInOtherVectorsAxes(Vector, Vector, EvaluatorGroup)
Gets an evaluator to observe the Motion<Cartesian> of a vector in the axes in which another vector is defined. Note that this will not account for any translational effects and the axes are considered to be the vector's basis. So if the vector is representing a velocity or boresight vector, observing the vector in the axes of a reference frame which is rotating and translating with respect to the vector's axes will only take into account the relative rotation as if the two basis axes were colocated when computing the vector's derivatives. To obtain a vector and its derivatives in a different frame, the vector needs to be created in that frame.
Public methodStatic memberObserveVectorInPointsAxes(Vector, Point)
Gets an evaluator to observe the Motion<Cartesian> representation of a vector in the axes in which a point is defined. Note that this will not account for any translational effects and the axes are considered to be the vector's basis. So if the vector is representing a velocity or boresight vector, observing the vector in the axes of a reference frame which is rotating and translating with respect to the vector's axes will only take into account the relative rotation as if the two basis axes were co-located when computing the vector's derivatives. To obtain a vector and its derivatives in a different frame, the vector needs to be created in that frame.
Public methodStatic memberObserveVectorInPointsAxes(Vector, Point, EvaluatorGroup)
Gets an evaluator to observe the Motion<Cartesian> representation of a vector in the axes in which a point is defined. Note that this will not account for any translational effects and the axes are considered to be the vector's basis. So if the vector is representing a velocity or boresight vector, observing the vector in the axes of a reference frame which is rotating and translating with respect to the vector's axes will only take into account the relative rotation as if the two basis axes were co-located when computing the vector's derivatives. To obtain a vector and its derivatives in a different frame, the vector needs to be created in that frame.
Public methodStatic memberUnwrap(Axes)
Unwraps an AxesInAxes, AxesInVectorsAxes, or AxesInPointsAxes, returning the simple underlying Axes. If the specified axes is not one of these types, it is returned unmodified.
Public methodStatic memberUnwrap(Point)
Unwraps a PointInReferenceFrame or PointInPointsFrame, returning the simple underlying Point. If the specified point is not one of these types, it is returned unmodified.
Public methodStatic memberUnwrap(ReferenceFrame)
Unwraps both the Origin and Axes of a ReferenceFrame, returning a reference frame composed of the simple underlying Point and Axes.
Public methodStatic memberUnwrap(Vector)
Unwraps a VectorInAxes. VectorInPointsAxes, or VectorInVectorsAxes, returning the simple underlying Vector. If the specified vector is not one of these types, it is returned unmodified.
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