true if object can be accurately modified with "squishy" transformations like projections, shears, and non-uniform scaling.
Gets a values indicating whether a surface is solid.
Tests an object to see if it is valid.
...
Useful for switch statements that need to differentiate between basic object types like points, curves, surfaces, and so on.
Gets the amount of user strings.
An object of the same type as this, with the same properties and behavior.
Constructs a deep (full) copy of this object.
A first parameter.
A second parameter.
[boolean, Plane] (boolean) true if this operation succeeded; otherwise false. (Plane) A frame plane that will be computed during this call.
Computes the orient plane on a surface given a U and V parameter. This is the simple evaluation call with no error handling.
If true, a physically accurate bounding box will be computed. If not, a bounding box estimate will be computed. For some geometry types there is no difference between the estimate and the accurate bounding box. Estimated bounding boxes can be computed much (much) faster than accurate (or "tight") bounding boxes. Estimated bounding boxes are always similar to or larger than accurate bounding boxes.
The bounding box of the geometry in world coordinates or BoundingBox.Empty if not bounding box could be found.
Bounding box solver. Gets the world axis aligned bounding box for the geometry.
The parameter in the S, or sometimes U, direction, of this surface.
The parameter in the T, or sometimes V, direction of this surface.
[boolean, number, number] (boolean) True if the operation succeeded; otherwise, false. (number) S on the NURBS form. (number) T on the NURBS form.
Translates a parameter from the current surface to the parameter space of the surface returned by .
The parameter in the S, or sometimes U, direction of the NURBS form surface.
The parameter in the T, or sometimes V, direction of the NURBS form surface.
[boolean, number, number] (boolean) True if the operation succeeded; otherwise, false. (number) S on this surface. (number) T o n this surface.
Translates a parameter from a value on the surface returned by to the current surface.
Surface u parameter to test.
Surface v parameter to test.
0 if not a seam, 1 if u == Domain(0)[i] and srf(u, v) == srf(Domain(0)[1-i], v) 2 if v == Domain(1)[i] and srf(u, v) == srf(u, Domain(1)[1-i]) 3 if 1 and 2 are true.
Tests if a surface parameter value is at a seam.
Surface u parameter to test.
Surface v parameter to test.
If true, test if (u,v) is exactly at a singularity. If false, test if close enough to cause numerical problems.
true if surface is singular at (s,t)
Tests if a surface parameter value is at a singularity.
0 first parameter varies and second parameter is constant e.g., point on IsoCurve(0,c) at t is srf(t,c) This is a horizontal line from left to right 1 first parameter is constant and second parameter varies e.g., point on IsoCurve(1,c) at t is srf(c,t This is a vertical line from bottom to top.
The parameter that was constant on the original surface.
An isoparametric curve or null on error.
Gets isoparametric curve.
false if object cannot be converted to a deformable object. true if object was already deformable or was converted into a deformable object.
If possible, converts the object into a form that can be accurately modified with "squishy" transformations like projections, shears, an non-uniform scaling.
Angle of rotation in radians.
Direction of the axis of rotation.
Point on the axis of rotation.
true if geometry successfully rotated.
Rotates the object about the specified axis. A positive rotation angle results in a counter-clockwise rotation about the axis (right hand rule).
NurbsSurface on success, null on failure.
Gets a NURBS surface representation of this surface. Default tolerance of 0.0 is used.
Transformation to apply to geometry.
true if geometry successfully transformed.
Transforms the geometry. If the input Transform has a SimilarityType of OrientationReversing, you may want to consider flipping the transformed geometry after calling this function when it makes sense. For example, you may want to call Flip() on a Brep after transforming it.
Static createA new surface of revolution, or null if any of the inputs is invalid or on error.
Constructs a new surface of revolution from a generatrix curve and an axis. This overload accepts a slice start and end angles.
Static decodeA json formatted object in the following format (values are orientative):
{
version: 10000,
archive3dm: 60,
opennurbs: -1877964208,
data: 'encoded 3dm object data'
}
Decodes a Rhino Object
Generated using TypeDoc
Returns true if the Brep.TryConvertBrep function will be successful for this object