51 #ifndef vtkHyperStreamline_h
52 #define vtkHyperStreamline_h
54 #include "vtkFiltersGeneralModule.h"
57 #define VTK_INTEGRATE_FORWARD 0
58 #define VTK_INTEGRATE_BACKWARD 1
59 #define VTK_INTEGRATE_BOTH_DIRECTIONS 2
61 #define VTK_INTEGRATE_MAJOR_EIGENVECTOR 0
62 #define VTK_INTEGRATE_MEDIUM_EIGENVECTOR 1
63 #define VTK_INTEGRATE_MINOR_EIGENVECTOR 2
86 void SetStartLocation(
vtkIdType cellId,
int subId,
double pcoords[3]);
92 void SetStartLocation(
vtkIdType cellId,
int subId,
double r,
double s,
99 vtkIdType GetStartLocation(
int& subId,
double pcoords[3]);
106 void SetStartPosition(
double x[3]);
113 void SetStartPosition(
double x,
double y,
double z);
118 double *GetStartPosition();
125 vtkSetClampMacro(MaximumPropagationDistance,
double,0.0,
VTK_DOUBLE_MAX);
126 vtkGetMacro(MaximumPropagationDistance,
double);
140 vtkSetClampMacro(IntegrationEigenvector,
int,
143 vtkGetMacro(IntegrationEigenvector,
int);
158 {this->SetIntegrationEigenvectorToMajor();};
167 {this->SetIntegrationEigenvectorToMedium();};
175 {this->SetIntegrationEigenvectorToMinor();};
182 vtkSetClampMacro(IntegrationStepLength,
double,0.001,0.5);
183 vtkGetMacro(IntegrationStepLength,
double);
192 vtkSetClampMacro(StepLength,
double,0.000001,1.0);
193 vtkGetMacro(StepLength,
double);
200 vtkSetClampMacro(IntegrationDirection,
int,
202 vtkGetMacro(IntegrationDirection,
int);
217 vtkGetMacro(TerminalEigenvalue,
double);
226 vtkGetMacro(NumberOfSides,
int);
237 vtkGetMacro(Radius,
double);
246 vtkGetMacro(LogScaling,
int);
258 int FillInputPortInformation(
int port, vtkInformation *
info) VTK_OVERRIDE;
266 double StartPCoords[3];
269 double StartPosition[3];
272 vtkHyperArray *Streamers;
273 int NumberOfStreamers;
276 double MaximumPropagationDistance;
279 int IntegrationDirection;
282 double IntegrationStepLength;
288 double TerminalEigenvalue;
300 int IntegrationEigenvector;
void IntegrateMinorEigenvector()
Use the minor eigenvector field as the vector field through which to integrate.
void SetIntegrationEigenvectorToMinor()
Set / get the eigenvector field through which to ingrate.
abstract class to specify dataset behavior
void SetIntegrationDirectionToForward()
Specify the direction in which to integrate the hyperstreamline.
void SetIntegrationDirectionToBackward()
Specify the direction in which to integrate the hyperstreamline.
concrete dataset represents vertices, lines, polygons, and triangle strips
#define VTK_INTEGRATE_MAJOR_EIGENVECTOR
#define VTK_INTEGRATE_MEDIUM_EIGENVECTOR
static vtkPolyDataAlgorithm * New()
Superclass for algorithms that produce only polydata as output.
#define VTK_INTEGRATE_MINOR_EIGENVECTOR
a simple class to control print indentation
#define VTK_INTEGRATE_FORWARD
void SetIntegrationEigenvectorToMedium()
Set / get the eigenvector field through which to ingrate.
void SetIntegrationEigenvectorToMajor()
Set / get the eigenvector field through which to ingrate.
#define VTK_INTEGRATE_BACKWARD
vtkSetMacro(IgnoreDriverBugs, bool)
When set known driver bugs are ignored during driver feature detection.
void SetIntegrationDirectionToIntegrateBothDirections()
Specify the direction in which to integrate the hyperstreamline.
vtkBooleanMacro(IgnoreDriverBugs, bool)
When set known driver bugs are ignored during driver feature detection.
void IntegrateMediumEigenvector()
Use the medium eigenvector field as the vector field through which to integrate.
void IntegrateMajorEigenvector()
Use the major eigenvector field as the vector field through which to integrate.
#define VTK_INTEGRATE_BOTH_DIRECTIONS
void PrintSelf(ostream &os, vtkIndent indent) override
Methods invoked by print to print information about the object including superclasses.
generate hyperstreamline in arbitrary dataset