Package | Description |
---|---|
bdv.viewer.animate | |
ini.trakem2.display | |
mpicbg.models | |
mpicbg.panorama | |
mpicbg.spim.mpicbg | |
mpicbg.spim.registration.bead.laplace | |
mpicbg.trakem2.transform | |
mpicbg.util |
Modifier and Type | Method and Description |
---|---|
double[] |
SimilarityModel3D.applyInverse(double[] l) |
void |
SimilarityModel3D.applyInverseInPlace(double[] l) |
Modifier and Type | Method and Description |
---|---|
Coordinate<Patch> |
Layer.toPatchCoordinate(double world_x,
double world_y)
Transfer the world coordinate specified by
world_x ,world_y
in pixels, to the local coordinate of the Patch immediately present under it. |
Modifier and Type | Method and Description |
---|---|
double[] |
TransformMesh.applyInverse(double[] location) |
double[] |
SimilarityModel3D.applyInverse(double[] l) |
double[] |
RigidModel3D.applyInverse(double[] l) |
double[] |
InvertibleInterpolatedModel.applyInverse(double[] point) |
double[] |
InvertibleCoordinateTransformList.applyInverse(double[] location) |
double[] |
InvertibleConstantModel.applyInverse(double[] location) |
double[] |
InverseCoordinateTransformList.applyInverse(double[] location) |
double[] |
InverseCoordinateTransform.applyInverse(double[] point)
Apply the inverse of the model to a point location
|
double[] |
InterpolatedAffineModel3D.applyInverse(double[] point) |
double[] |
InterpolatedAffineModel2D.applyInverse(double[] point) |
double[] |
InterpolatedAffineModel1D.applyInverse(double[] point) |
double[] |
HomographyModel2D.applyInverse(double[] point) |
double[] |
AffineModel3D.applyInverse(double[] l) |
double[] |
AffineModel2D.applyInverse(double[] l) |
double[] |
AffineModel1D.applyInverse(double[] l) |
void |
Point.applyInverse(InverseCoordinateTransform t)
Apply the inverse of an
InvertibleCoordinateTransform to the Point . |
static void |
Point.applyInverse(InverseCoordinateTransform t,
Iterable<Point> points)
|
void |
TransformMesh.applyInverseInPlace(double[] location) |
void |
SimilarityModel3D.applyInverseInPlace(double[] l) |
void |
RigidModel3D.applyInverseInPlace(double[] l) |
void |
InvertibleInterpolatedModel.applyInverseInPlace(double[] point) |
void |
InvertibleCoordinateTransformList.applyInverseInPlace(double[] location) |
void |
InvertibleConstantModel.applyInverseInPlace(double[] location) |
void |
InverseCoordinateTransformList.applyInverseInPlace(double[] location) |
void |
InverseCoordinateTransform.applyInverseInPlace(double[] point)
apply the inverse of the model to a point location
|
void |
InterpolatedAffineModel3D.applyInverseInPlace(double[] point) |
void |
InterpolatedAffineModel2D.applyInverseInPlace(double[] point) |
void |
InterpolatedAffineModel1D.applyInverseInPlace(double[] point) |
void |
HomographyModel2D.applyInverseInPlace(double[] point) |
void |
AffineModel3D.applyInverseInPlace(double[] l) |
void |
AffineModel2D.applyInverseInPlace(double[] l) |
void |
AffineModel1D.applyInverseInPlace(double[] l) |
void |
TranslationModel3D.estimateInverseBounds(double[] min,
double[] max) |
void |
InvertibleCoordinateTransformList.estimateInverseBounds(double[] min,
double[] max)
Estimate the bounds of an n-dimensional interval [min,max] with min and
max being n-dimensional vectors.
|
void |
InverseCoordinateTransformList.estimateInverseBounds(double[] min,
double[] max)
Estimate the bounds of an n-dimensional interval [min,max] with min and
max being n-dimensional vectors.
|
void |
InverseBoundable.estimateInverseBounds(double[] min,
double[] max)
Estimate the bounds of an n-dimensional interval [min,max] with min and
max being n-dimensional vectors.
|
void |
InterpolatedAffineModel3D.estimateInverseBounds(double[] min,
double[] max) |
void |
InterpolatedAffineModel2D.estimateInverseBounds(double[] min,
double[] max) |
void |
InterpolatedAffineModel1D.estimateInverseBounds(double[] min,
double[] max) |
void |
HomographyModel2D.estimateInverseBounds(double[] min,
double[] max) |
void |
ConstantAffineModel1D.estimateInverseBounds(double[] min,
double[] max) |
void |
AbstractAffineModel3D.estimateInverseBounds(double[] min,
double[] max)
TODO not yet tested!
|
void |
AbstractAffineModel2D.estimateInverseBounds(double[] min,
double[] max) |
void |
AbstractAffineModel1D.estimateInverseBounds(double[] min,
double[] max)
TODO not yet tested!
|
Modifier and Type | Method and Description |
---|---|
double[] |
RectlinearCamera.applyInverse(double[] point) |
double[] |
EquirectangularProjection.applyInverse(double[] point) |
void |
RectlinearCamera.applyInverseInPlace(double[] point) |
void |
EquirectangularProjection.applyInverseInPlace(double[] point) |
Modifier and Type | Method and Description |
---|---|
static void |
Java3d.applyInverseInPlace(AbstractAffineModel3D<?> m,
Point3d p) |
static void |
Java3d.applyInverseInPlace(AbstractAffineModel3D<?> m,
Point3d p,
double[] tmp) |
Modifier and Type | Method and Description |
---|---|
static void |
LaPlaceFunctions.invert(double[] a) |
Modifier and Type | Method and Description |
---|---|
void |
TransformMesh.applyInverseInPlace(double[] location)
Catch non-invertible locations outside of the meshes boundaries and
transfer them with the affine defined by the `closest' affine (the affine
whose summed up control points distances to location are smallest).
|
Modifier and Type | Method and Description |
---|---|
static double[] |
Matrix3x3.createInverse(double m00,
double m01,
double m02,
double m10,
double m11,
double m12,
double m20,
double m21,
double m22) |
static float[] |
Matrix3x3.createInverse(float m00,
float m01,
float m02,
float m10,
float m11,
float m12,
float m20,
float m21,
float m22) |
void |
Matrix3x3.invert() |
static void |
Matrix3x3.invert(double[] m) |
static void |
Matrix3x3.invert(float[] m) |
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