Transform Methods |
The Transform type exposes the following members.
Methods| Name | Description | |
|---|---|---|
 | Affineize |
Replaces the last row with (0 0 0 1), discarding any perspective part of this transform
|
 | ChangeBasis(Plane, Plane) |
Gets a change of basis transformation.
The change of basis transformation is not the same as the rotation transformation that rotates one orthonormal frame to another.
If you have geometry defined with respect to planes, this method takes two planes and computes the transformation to change coordinates from one plane to another.
|
| ChangeBasis(Vector3d, Vector3d, Vector3d, Vector3d, Vector3d, Vector3d) |
Gets a change of basis transformation.
The change of basis transformation is not the same as the rotation transformation that rotates one orthonormal frame to another.
|
| ChangeBasis(Point3d, Vector3d, Vector3d, Vector3d, Point3d, Vector3d, Vector3d, Vector3d) |
Gets a change of basis transformation.
The change of basis transformation is not the same as the rotation transformation that rotates one orthonormal frame to another.
|
| Clone |
Returns a deep copy of the transform. For languages that treat structures as value types, this can
be accomplished by a simple assignment.
|
| CompareTo |
Compares this transform with another transform.
M33 has highest value, then M32, etc.. |
| DecomposeAffine(Transform, Vector3d) |
Decomposes an affine transformation.
A transformation is affine if it is valid and its last row is [0, 0, 0, 1].
An affine transformation can be broken into a linear transformation and a translation.
Note, a perspective transformation is not affine.
|
| DecomposeAffine(Vector3d, Transform) |
Decomposes an affine transformation.
A transformation is affine if it is valid and its last row is [0, 0, 0, 1].
An affine transformation can be broken into a linear transformation and a translation.
Note, a perspective transformation is not affine.
|
| DecomposeAffine(Vector3d, Transform, Transform, Vector3d) |
An affine transformation can be decomposed into a Symmetric, Rotation and Translation.
Then the Symmetric component may be further decomposed as non-uniform scale in an orthonormal
coordinate system.
|
| DecomposeRigid |
Decomposes a rigid transformation. The transformation must be affine.
|
| DecomposeSimilarity |
Decomposes a similarity transformation. The transformation must be affine.
A similarity transformation can be broken into a sequence of a dilation, translation, rotation, and a reflection.
|
| DecomposeSymmetric |
A Symmetric linear transformation can be decomposed A = Q * Diag * Q ^ T, where Diag is a diagonal
transformation. Diag[i][i] is an eigenvalue of A and the i-th column of Q is a corresponding
unit length eigenvector. Note, this transformation must be Linear and Symmetric.
|
| DecomposeTextureMapping |
Decomposition of a uvw transform into components
|
| Diagonal(Vector3d) |
Constructs a new transformation with diagonal (d0,d1,d2,1.0).
|
| Diagonal(Double, Double, Double) |
Constructs a new transformation with diagonal (d0,d1,d2,1.0).
|
| Equals(Object) |
Determines if another object is a transform and its value equals this transform value.
(Overrides ValueTypeEquals(Object).) |
| Equals(Transform) |
Determines if another transform equals this transform value.
|
| GetEulerZYZ |
Find the Euler angles for a rotation transformation.
|
| GetHashCode |
Gets a non-unique hashing code for this transform.
(Overrides ValueTypeGetHashCode.) |
| GetQuaternion |
If this transform is a proper rotation, then find the equivalent quaternion.
|
| GetType | Gets the Type of the current instance. (Inherited from Object.) |
| GetYawPitchRoll |
Find the Tait-Byran angles (also loosely called Euler angles) for a rotation transformation.
|
| IsRigid |
Gets a value indicating whether or not the Transform is rigid.
A rigid transformation can be broken into a proper rotation and a translation,
while an isometry transformation could also include a reflection.
|
| IsSimilarity |
Gets a value indicating whether or not the Transform maintains similarity.
A similarity transformation can be broken into a sequence of a dilation, translation, rotation, and a reflection.
|
| IsZeroTransformationWithTolerance |
True if all values are 0 within tolerance, except for M33 which is exactly 1.
|
| Linearize |
Affinitize() and replaces the last column with (0 0 0 1)^T, discarding any translation part of this transform.
|
| Mirror(Plane) |
Constructs a new Mirror transformation.
|
| Mirror(Point3d, Vector3d) |
Create mirror transformation matrix
The mirror transform maps a point Q to
Q - (2*(Q-P)oN)*N, where
P = pointOnMirrorPlane and N = normalToMirrorPlane.
|
| Multiply |
Multiplies (combines) two transformations.
This is the same as the * operator between two transformations. |
| Orthogonalize |
Force the linear part of this transformation to be a rotation (or a rotation with reflection).
Use DecomposeRigid(T,R) to find the nearest rotation.
|
| PlanarProjection |
Constructs a projection transformation.
|
| PlaneToPlane |
Create a rotation transformation that orients plane0 to plane1. If you want to orient objects from
one plane to another, use this form of transformation.
|
| ProjectAlong |
Construct a projection onto a plane along a specific direction.
|
| Rotation(Double, Point3d) |
Constructs a new rotation transformation with specified angle and rotation center. The axis of rotation is ZAxis.
|
| Rotation(Double, Vector3d, Point3d) |
Constructs a new rotation transformation with specified angle, rotation center and rotation axis.
|
| Rotation(Vector3d, Vector3d, Point3d) |
Constructs a new rotation transformation with start and end directions and rotation center.
|
| Rotation(Double, Double, Vector3d, Point3d) |
Constructs a new rotation transformation with specified angle, rotation center and rotation axis.
|
| Rotation(Vector3d, Vector3d, Vector3d, Vector3d, Vector3d, Vector3d) |
Constructs a transformation that maps X0 to X1, Y0 to Y1, Z0 to Z1.
The frames should be right hand orthonormal frames (unit vectors with Z = X x Y).
The resulting rotation fixes the origin (0,0,0), maps initial X to final X,
initial Y to final Y, and initial Z to final Z.
|
| RotationZYX |
Create rotation transformation From Tait-Byran angles (also loosely known as Euler angles).
|
| RotationZYZ |
Create rotation transformation From Euler angles.
|
| Scale(Point3d, Double) |
Constructs a new uniform scaling transformation with a specified scaling anchor point.
|
| Scale(Plane, Double, Double, Double) |
Constructs a new non-uniform scaling transformation with a specified scaling anchor point.
|
| Shear |
Constructs a Shear transformation.
|
| TextureMapping |
Construct a UVW Transform from components.
|
| ToDoubleArray |
Return the matrix as a linear array of 16 double values.
|
| ToFloatArray |
Return the matrix as a linear array of 16 float values.
|
| ToString |
Returns a string representation of this transform.
(Overrides ValueTypeToString.) |
| TransformBoundingBox |
Computes a new bounding box that is the smallest axis aligned
bounding box that contains the transformed result of its 8 original corner
points.
|
| TransformList |
Given a list, an array or any enumerable set of points, computes a new array of transformed points.
|
 | Translation(Vector3d) |
Constructs a new translation (move) transformation.
|
| Translation(Double, Double, Double) |
Constructs a new translation (move) transformation.
Right column is (dx, dy, dz, 1.0).
|
| Transpose |
Flip row/column values
|
| TryGetInverse |
Attempts to get the inverse transform of this transform.
|
See Also