BH.oM.Geometry.Pipe¶
A constant circular cross section surface, following a defined curve path.
Class structure¶
Implemented interfaces and base types¶
The Pipe is inheriting from the following base type(s) and implements the following interfaces:
Properties¶
Defining properties¶
The following properties are defined on the class
Name | Type | Description | Quantity |
---|---|---|---|
Centreline | ICurve | Defines the central axis perpendicular to the circular cross sections, and thus the path along which the tubular surface follows. | - |
Radius | double | The distance from the Curve Centreline to a point on the Pipe surface. | Length [m] |
Capped | bool | Defines the Pipe as closed and therfore a solid volume. | - |
Derived properties¶
The following properties are defined as extension methods in one of the BHoM_Engines
Name | Type | Description | Quantity | Engine |
---|---|---|---|---|
Bounds | BoundingBox | Returns the global world axis oriented enclosing BoundingBox for all points on the surface, i.e. the box with the smallest volume within which all the surface points lie. | - | Geometry_Engine |
Edges | List<ICurve> | - | - | Geometry_Engine |
ExternalEdges | List<ICurve> | Gets the external edge curves of the Pipe. If the Pipe is capped, this returns a circle at each end of the centre curve. If the pipe is uncapped, this method returns an empty list. | - | Geometry_Engine |
GeometryHash | string | Returns a signature of the input geometry, useful for diffing. The hash is computed as a serialised array representing the coordinate of significant points taken on the geometry. The number of points is reduced to the minimum essential to determine uniquely any geometry. Additionally, the resulting points are transformed based on the source geometry type, to remove or minimize collisions. (Any transformation so performed is translational only, in order to support geometrical tolerance, i.e. numerical distance, when comparing GeometryHashes downstream). |
- | Geometry_Engine |
IArea | double | Calculates the area of the provided geometry. | Area [m²] | Geometry_Engine |
IBounds | BoundingBox | Returns the global world axis oriented enclosing BoundingBox for all points of the geometry, i.e. the box with the smallest volume within which all the points on the geometry lie. | - | Geometry_Engine |
IExternalEdges | List<ICurve> | Gets the external edge curves of the ISurface. | - | Geometry_Engine |
IHashArray | double[] | Returns a signature of the input geometry, useful for distance-based comparisons and diffing. The hash is computed as an array representing the coordinate of significant points taken on the geometry. The number of points is reduced to the minimum essential to determine uniquely any geometry. Additionally, the resulting points are transformed based on the source geometry type, to remove or minimize collisions. (Any transformation so performed is translational only, in order to support geometrical tolerance, i.e. numerical distance, when comparing GeometryHashes downstream). |
- | Geometry_Engine |
IInternalEdges | List<ICurve> | - | - | Geometry_Engine |
IIsPlanar | bool | Checks if the IGeometry is planar, i.e. all of its parts fit in a single plane. | - | Geometry_Engine |
IIsValid | bool | - | - | Geometry_Engine |
INormals | List<Vector> | Interface method that returns the list of vectors normal to any IGeometry. | - | Geometry_Engine |
InternalEdges | List<ICurve> | - | - | Geometry_Engine |
IsNull | bool | Checks if a Geometry is null and outputs relevant error message. | - | Geometry_Engine |
IsPlanar | bool | Checks if the Pipe is planar, i.e. all of its parts fit in a single plane. This is true if the Centreline has a length lower than the tolerance, or if the radiues is smaller than the tolerance. | - | Geometry_Engine |
ISubParts | IEnumerable<ISurface> | - | - | Geometry_Engine |
ISubParts | IEnumerable<IGeometry> | - | - | Geometry_Engine |
IsValid | bool | - | - | Geometry_Engine |
Code and Schema¶
C# implementation¶
Assembly: Geometry_oM.dll
The C# class definition is available on github:
All history and changes of the class can be found by inspection the history.
JSON Schema implementation¶
The object is defined as a JSON schema. You can validate a JSON instance against this schema by reference. To do this, use the schema reference below in a validator like this one.
JSON Schema
{
"$ref" : "https://raw.githubusercontent.com/BHoM/BHoM_JSONSchema/develop/Geometry_oM/Pipe.json"
}
The JSON Schema is available on github here:
Example JSON instance¶
Example JSON instance of type Pipe.
Example JSON
{
"_t": "BH.oM.Geometry.Pipe",
"Centreline": {
"_t": "BH.oM.Geometry.Line",
"Start": {
"_t": "BH.oM.Geometry.Point",
"X": 0.0,
"Y": 0.0,
"Z": 0.0
},
"End": {
"_t": "BH.oM.Geometry.Point",
"X": 0.0,
"Y": 0.0,
"Z": 10.0
},
"Infinite": false
},
"Radius": 2.0,
"Capped": true,
"_bhomVersion": "8.2"
}