Struct parry3d::shape::Cylinder

#[repr(C)]
pub struct Cylinder {
    pub half_height: Real,
    pub radius: Real,
}

Cylinder shape with its principal axis aligned with the y axis.

Fields

half_height: Real

The half-height of the cylinder.

radius: Real

The radius fo the cylinder.

Implementations

impl Cylinder

pub fn aabb(&self, pos: &Isometry<Real>) -> Aabb

Computes the world-space Aabb of this cylinder, transformed by pos.

pub fn local_aabb(&self) -> Aabb

Computes the local-space Aabb of this cylinder.

impl Cylinder

pub fn bounding_sphere(&self, pos: &Isometry<Real>) -> BoundingSphere

Computes the world-space bounding sphere of this cylinder, transformed by pos.

pub fn local_bounding_sphere(&self) -> BoundingSphere

Computes the local-space bounding sphere of this cylinder.

impl Cylinder

pub fn new(half_height: Real, radius: Real) -> Cylinder

Creates a new cylinder.

Arguments:

• half_height - the half length of the cylinder along the y axis.
• radius - the length of the cylinder along all other axis.

pub fn scaled( self, scale: &Vector<Real>, nsubdivs: u32 ) -> Option<Either<Self, ConvexPolyhedron>>

Computes a scaled version of this cylinder.

If the scaling factor is non-uniform, then it can’t be represented as cylinder. Instead, a convex polyhedral approximation (with nsubdivs subdivisions) is returned. Returns None if that approximation had degenerate normals (for example if the scaling factor along one axis is zero).

impl Cylinder

pub fn to_outline(&self, nsubdiv: u32) -> (Vec<Point3<Real>>, Vec<[u32; 2]>)

Outlines this cylinder’s shape using polylines.

impl Cylinder

pub fn to_trimesh(&self, nsubdiv: u32) -> (Vec<Point3<Real>>, Vec<[u32; 3]>)

Discretize the boundary of this cylinder as a triangle-mesh.

Trait Implementations

impl Clone for Cylinder

fn clone(&self) -> Cylinder

Returns a copy of the value.

fn clone_from(&mut self, source: &Self)

Performs copy-assignment from source.

impl Debug for Cylinder

fn fmt(&self, f: &mut Formatter<'_>) -> Result

Formats the value using the given formatter.

impl PartialEq for Cylinder

fn eq(&self, other: &Cylinder) -> bool

This method tests for self and other values to be equal, and is used by ==.

fn ne(&self, other: &Rhs) -> bool

This method tests for !=. The default implementation is almost always sufficient, and should not be overridden without very good reason.

impl PointQuery for Cylinder

fn project_local_point(&self, pt: &Point<Real>, solid: bool) -> PointProjection

Projects a point on self.

fn project_local_point_and_get_feature( &self, pt: &Point<Real> ) -> (PointProjection, FeatureId)

Projects a point on the boundary of self and returns the id of the feature the point was projected on.

fn project_local_point_with_max_dist( &self, pt: &Point<Real>, solid: bool, max_dist: Real ) -> Option<PointProjection>

Projects a point on self, unless the projection lies further than the given max distance.

fn project_point_with_max_dist( &self, m: &Isometry<Real>, pt: &Point<Real>, solid: bool, max_dist: Real ) -> Option<PointProjection>

Projects a point on self transformed by m, unless the projection lies further than the given max distance.

fn distance_to_local_point(&self, pt: &Point<Real>, solid: bool) -> Real

Computes the minimal distance between a point and self.

fn contains_local_point(&self, pt: &Point<Real>) -> bool

Tests if the given point is inside of self.

fn project_point( &self, m: &Isometry<Real>, pt: &Point<Real>, solid: bool ) -> PointProjection

Projects a point on self transformed by m.

fn distance_to_point( &self, m: &Isometry<Real>, pt: &Point<Real>, solid: bool ) -> Real

Computes the minimal distance between a point and self transformed by m.

fn project_point_and_get_feature( &self, m: &Isometry<Real>, pt: &Point<Real> ) -> (PointProjection, FeatureId)

Projects a point on the boundary of self transformed by m and returns the id of the feature the point was projected on.

fn contains_point(&self, m: &Isometry<Real>, pt: &Point<Real>) -> bool

Tests if the given point is inside of self transformed by m.

impl PolygonalFeatureMap for Cylinder

fn local_support_feature( &self, dir: &Unit<Vector<Real>>, out_features: &mut PolygonalFeature )

Compute the support polygonal face of self towards the dir.

fn is_convex_polyhedron(&self) -> bool

Is this shape a ConvexPolyhedron?

impl RayCast for Cylinder

fn cast_local_ray_and_get_normal( &self, ray: &Ray, max_time_of_impact: Real, solid: bool ) -> Option<RayIntersection>

Computes the time of impact, and normal between this transformed shape and a ray.

fn cast_local_ray( &self, ray: &Ray, max_time_of_impact: Real, solid: bool ) -> Option<Real>

Computes the time of impact between this transform shape and a ray.

fn intersects_local_ray(&self, ray: &Ray, max_time_of_impact: Real) -> bool

Tests whether a ray intersects this transformed shape.

fn cast_ray( &self, m: &Isometry<Real>, ray: &Ray, max_time_of_impact: Real, solid: bool ) -> Option<Real>

Computes the time of impact between this transform shape and a ray.

fn cast_ray_and_get_normal( &self, m: &Isometry<Real>, ray: &Ray, max_time_of_impact: Real, solid: bool ) -> Option<RayIntersection>

Computes the time of impact, and normal between this transformed shape and a ray.

fn intersects_ray( &self, m: &Isometry<Real>, ray: &Ray, max_time_of_impact: Real ) -> bool

Tests whether a ray intersects this transformed shape.

impl Shape for Cylinder

fn clone_box(&self) -> Box<dyn Shape>

Clones this shape into a boxed trait-object.

fn compute_local_aabb(&self) -> Aabb

Computes the Aabb of this shape.

fn compute_local_bounding_sphere(&self) -> BoundingSphere

Computes the bounding-sphere of this shape.

fn compute_aabb(&self, position: &Isometry<Real>) -> Aabb

Computes the Aabb of this shape with the given position.

fn mass_properties(&self, density: Real) -> MassProperties

Compute the mass-properties of this shape given its uniform density.

fn is_convex(&self) -> bool

Is this shape known to be convex?

fn shape_type(&self) -> ShapeType

Gets the type tag of this shape.

fn as_typed_shape(&self) -> TypedShape<'_>

Gets the underlying shape as an enum.

fn ccd_thickness(&self) -> Real

fn ccd_angular_thickness(&self) -> Real

fn as_support_map(&self) -> Option<&dyn SupportMap>

Convents this shape into its support mapping, if it has one.

fn as_polygonal_feature_map(&self) -> Option<(&dyn PolygonalFeatureMap, Real)>

Converts this shape to a polygonal feature-map, if it is one.

fn compute_bounding_sphere(&self, position: &Isometry<Real>) -> BoundingSphere

Computes the bounding-sphere of this shape with the given position.

fn as_composite_shape(&self) -> Option<&dyn SimdCompositeShape>

fn feature_normal_at_point( &self, _feature: FeatureId, _point: &Point<Real> ) -> Option<Unit<Vector<Real>>>

The shape’s normal at the given point located on a specific feature.

fn compute_swept_aabb( &self, start_pos: &Isometry<Real>, end_pos: &Isometry<Real> ) -> Aabb

Computes the swept Aabb of this shape, i.e., the space it would occupy by moving from the given start position to the given end position.

impl SupportMap for Cylinder

fn local_support_point(&self, dir: &Vector<Real>) -> Point<Real>

fn local_support_point_toward(&self, dir: &Unit<Vector<Real>>) -> Point<Real>

Same as self.local_support_point except that dir is normalized.

fn support_point( &self, transform: &Isometry<Real>, dir: &Vector<Real> ) -> Point<Real>

fn support_point_toward( &self, transform: &Isometry<Real>, dir: &Unit<Vector<Real>> ) -> Point<Real>

Same as self.support_point except that dir is normalized.

impl Copy for Cylinder

impl StructuralPartialEq for Cylinder