VectorApparentDisplacement Class

Initializes a new instance. The user must set InertialFrame, InitialPoint, FinalPoint so that the apparent displacement accounting for light travel time can be modeled. Optionally, the user must set the VelocityOfMovingFrame in order to model the affect of aberration on the apparent displacement. LightTravelTimeConvergenceTolerance is initialized to 5E-5. Direction is initialized to Receive. VelocityOfMovingFrame is uninitialized.

Initializes a new instance as a copy of an existing instance.

Initializes a new instance of the VectorApparentDisplacement class which only accounts for light travel time.

Initializes a new instance of the VectorApparentDisplacement class which accounts for aberration in addition to light travel time.

Initializes a new instance of the VectorApparentDisplacement class which only accounts for light travel time.

Initializes a new instance of the VectorApparentDisplacement class which accounts for aberration in addition to light travel time.

Gets or sets a value indicating whether to only correct for the direction of the vector and not its magnitude when computing the aberration due to relative motion of the observer with respect to the target.

Gets or sets the direction in which the signal travels with respect to the initial point.

Gets or sets the point which defines the ending of the displacement vector.

Gets or sets the inertial frame in which the light path is modeled.

Gets or sets the point which defines the beginning of the displacement vector.

Gets a value indicating whether this object is frozen. A frozen object cannot be modified and an ObjectFrozenException will be thrown if an attempt is made to do so.

Gets or sets the tolerance required to indicate convergence of the light travel time adjustment.

Gets or sets the velocity of the moving frame in which the affect of aberration is to be determined.

Add a vector to this one.

Checks to determine if another instance has the same definition as this instance and returns if it does. Derived classes MUST override this method and check all new fields introduced by the derived class for definitional equivalence. It is NOT necessary to check base class fields because the base class will already have done that. When overriding this method, you should NOT call the base implementation because it will return for all derived-class instances. Derived classes should check the type of other to preserve the symmetric nature of IsSameDefinition(Object).

Checks to determine if another instance has the same definition as this instance and returns if it does. Derived classes MUST override this method and check all new fields introduced by the derived class for definitional equivalence. It is NOT necessary to check base class fields because the base class will already have done that. When overriding this method, you should NOT call the base implementation because it will return for all derived-class instances. Derived classes should check the type of other to preserve the symmetric nature of IsSameDefinition(Object).

Checks to determine if another instance has the same definition as this instance and returns if it does. Derived classes MUST override this method and check all new fields introduced by the derived class for definitional equivalence. It is NOT necessary to check base class fields because the base class will already have done that. When overriding this method, you should NOT call the base implementation because it will return for all derived-class instances. Derived classes should check the type of other to preserve the symmetric nature of IsSameDefinition(Object).

Checks to determine if another instance has the same definition as this instance and returns if it does. Derived classes MUST override this method and check all new fields introduced by the derived class for definitional equivalence. It is NOT necessary to check base class fields because the base class will already have done that. When overriding this method, you should NOT call the base implementation because it will return for all derived-class instances. Derived classes should check the type of other to preserve the symmetric nature of IsSameDefinition(Object).

Clones this object using the specified context.

Computes a hash code based on the current properties of this object. Derived classes MUST override this method and compute a hash code that combines: a unique hash code seed, the base implementation result, and the hash codes of all new fields introduced by the derived class which are used in the CheckForSameDefinition(DefinitionalObject) method.

Constructs a vector which represents a derivative of this vector.

Produce the vector cross product between this vector and another one.

Divide this vector by a scale factor.

Divide this vector by a scale factor.

Produce the vector dot product between this vector and another one.

Enumerates the dependencies of this object by calling EnumerateT(T) for each object that this object directly depends upon. Derived classes which contain additional dependencies MUST override this method, call the base implementation, and enumerate dependencies introduced by the derived class.

Determines whether the specified object is equal to the current object.

Allows an object to try to free resources and perform other cleanup operations before it is reclaimed by garbage collection.

Freezes this object. Further attempts to modify it will result in an ObjectFrozenException.

Called by Freeze to also freeze any objects that are considered to be a part of this object. Derived classes which contain additional aggregated objects MUST override this method, call the base implementation, and freeze aggregated objects introduced by the derived class. The objects that need to be frozen in this method are frequently created in this object's constructor and are not settable via properties.

Gets a hash code representing the definition of this object.

Gets an evaluator that can be used to find the Motion<Cartesian> of this vector at a given date with respect to the axes in which it is defined. See GetEvaluator(EvaluatorGroup) for details.

Gets an evaluator that can be used to find the relative Motion<Cartesian> between the InitialPoint and FinalPoint in InitialPoint's ReferenceFrame at a given JulianDate.

Serves as the default hash function.

Gets an evaluator that evaluates the light travel time between the two points involved in this displacement vector. If the input JulianDate to the evaluator represents the moment of an event at the InitialPoint, the returned Duration is the time until the event will be observed at the FinalPoint.

Gets an evaluator that evaluates the light travel time between the two points involved in this displacement vector. If the input JulianDate to the evaluator represents the moment of an event at the InitialPoint, the returned Duration is the time until the event will be observed at the FinalPoint.

Gets a Scalar representing the X, Y, Z, or Magnitude of this vector.

Gets a Scalar representing the X, Y, Z, or Magnitude of this vector, or any derivative of those elements.

Gets the service object of the specified type.

Gets the Type of the current instance.

Determines if this object has the same definition as another object.

Creates a shallow copy of the current Object.

Multiply this vector by a scale factor.

Multiply this vector by a scale factor.

Subtract a vector from this one.

Throws ObjectFrozenException if this object IsFrozen. This method should be called from any method or property that modifies this object.

Returns a string that represents the current object.

The default tolerance required to indicate convergence of the light travel time adjustment.