Struct rhusics_core::CollisionShape

pub struct CollisionShape<P, T, B, Y = ()> where
    P: Primitive,  {
    pub enabled: bool,
    // some fields omitted
}

Collision shape describing a complete collision object in the collision world.

Can handle both convex shapes, and concave shapes, by subdividing the concave shapes into multiple convex shapes. This task is up to the user of the library to perform, no subdivision is done automatically in the library.

Contains cached information about the base bounding box containing all primitives, in model space coordinates. Also contains a cached version of the transformed bounding box, in world space coordinates.

Also have details about what collision strategy/mode to use for contact resolution with this shape.

Type parameters:

• P: Primitive type
• T: Transform type
• B: Bounding volume type
• Y: Shape type (see Collider)

Fields

enabled: bool

Enable/Disable collision detection for this shape

Methods

impl<P, T, B, Y> CollisionShape<P, T, B, Y> where     P: Primitive + ComputeBound<B>,     B: Bound<Point = P::Point> + Union<B, Output = B> + Clone,     T: Transform<P::Point>,     Y: Default,

pub fn new_complex(     strategy: CollisionStrategy,     mode: CollisionMode,     primitives: Vec<(P, T)>,     ty: Y ) -> Self

Create a new collision shape, with multiple collision primitives.

Will compute and cache the base bounding box that contains all the given primitives, in model space coordinates.

Parameters

• strategy: The collision strategy to use for this shape.
• primitives: List of all primitives that make up this shape.
• ty: The shape type, use () if not needed

pub fn new_simple(     strategy: CollisionStrategy,     mode: CollisionMode,     primitive: P ) -> Self

Convenience function to create a simple collision shape with only a single given primitive, with no local-to-model transform.

Parameters

• strategy: The collision strategy to use for this shape.
• primitive: The collision primitive.

pub fn new_simple_with_type(     strategy: CollisionStrategy,     mode: CollisionMode,     primitive: P,     ty: Y ) -> Self

Convenience function to create a simple collision shape with only a single given primitive, and a shape type, with no local-to-model transform.

Parameters

• strategy: The collision strategy to use for this shape.
• primitive: The collision primitive.

pub fn new_simple_offset(     strategy: CollisionStrategy,     mode: CollisionMode,     primitive: P,     transform: T ) -> Self

Convenience function to create a simple collision shape with only a single given primitive, with a given local-to-model transform.

Parameters

• strategy: The collision strategy to use for this shape.
• primitive: The collision primitive.
• transform: Local-to-model transform of the primitive.

pub fn update(&mut self, start: &T, end: Option<&T>)

Update the cached transformed bounding box in world space coordinates.

If the end transform is given, that will always be used. If the collision mode of the shape is Continuous, both the start and end transforms will be added to the transformed bounding box. This will make broad phase detect collisions for the whole transformation path.

Parameters

• start: Current model-to-world transform of the shape at the start of the frame.
• end: Optional model-to-world transform of the shaped at the end of the frame.

Important traits for &'a mut R

impl<'a, R> Read for &'a mut R where
    R: Read + ?Sized, impl<'a, W> Write for &'a mut W where
    W: Write + ?Sized, impl<'a, I> Iterator for &'a mut I where
    I: Iterator + ?Sized,  type Item = <I as Iterator>::Item;

pub fn bound(&self) -> &B

Return the current transformed bound for the shape

Important traits for Vec<u8>

impl Write for Vec<u8>

pub fn primitives(&self) -> &Vec<(P, T)>

Borrow the primitives of the shape

Trait Implementations

impl<P: Debug, T: Debug, B: Debug, Y: Debug> Debug for CollisionShape<P, T, B, Y> where     P: Primitive,

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

Formats the value using the given formatter.

impl<P: Clone, T: Clone, B: Clone, Y: Clone> Clone for CollisionShape<P, T, B, Y> where     P: Primitive,

fn clone(&self) -> CollisionShape<P, T, B, Y>

Returns a copy of the value.

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

Performs copy-assignment from source.

impl<P, T, B, Y> HasBound for CollisionShape<P, T, B, Y> where     P: Primitive + ComputeBound<B>,     B: Bound<Point = P::Point> + Union<B, Output = B> + Clone,     T: Transform<P::Point>,     Y: Default,

type Bound = B

Bounding volume type

fn bound(&self) -> &Self::Bound

Borrow the bounding volume

impl<S, P, T, B, Y> Volume<S, S> for CollisionShape<P, T, B, Y> where     S: BaseFloat + Inertia,     P: Volume<S, S> + Primitive<Point = Point2<S>> + ComputeBound<B>,     B: Bound<Point = Point2<S>> + Clone + Union<B, Output = B>,     T: Transform<Point2<S>>,     Y: Default,

fn get_mass(&self, material: &Material) -> Mass<S, S>

Compute the mass of the shape based on its material

impl<S, P, T, B, Y> Volume<S, Matrix3<S>> for CollisionShape<P, T, B, Y> where     S: BaseFloat,     P: Volume<S, Matrix3<S>> + Primitive<Point = Point3<S>> + ComputeBound<B>,     B: Bound<Point = Point3<S>> + Clone + Union<B, Output = B>,     T: Transform<Point3<S>>,     Y: Default,

fn get_mass(&self, material: &Material) -> Mass<S, Matrix3<S>>

Compute the mass of the shape based on its material