Libraries.Game.Collision.CollisionPoint3D

This class stores one of the points of contact during a collision. This class is used by LocalCollisionPoints3D.

This action compares two object hash codes and returns an integer. The result is larger if this hash code is larger than the object passed as a parameter, smaller, or equal. In this case, -1 means smaller, 0 means equal, and 1 means larger. This action was changed in Quorum 7 to return an integer, instead of a CompareResult object, because the previous implementation was causing efficiency issues.

Example Code

Object o
        Object t
        integer result = o:Compare(t) //1 (larger), 0 (equal), or -1 (smaller)

This action determines if two objects are equal based on their hash code values.

Example Code

use Libraries.Language.Object
        use Libraries.Language.Types.Text
        Object o
        Text t
        boolean result = o:Equals(t)

This action returns the amount of linear impulse that is applied to this CollisionPoint3D.

This action returns the impulse that is applied to simulate friction at this CollisionPoint3D to object A.

This action returns the impulse that is applied to simulate friction at this CollisionPoint3D to object B.

This action returns the friction between the surfaces of objects A and B.

This action returns the restitution between the surfaces of objects A and B.

This action gets the distance between objects A and B.

This action gets the hash code for an object.

Example Code

Object o
        integer hash = o:GetHashCode()

This action returns a number that is not 0 if object A is also getting split into triangle shapes. The number that this action returns identifies which triangle of object A we are referring to.

This action returns a number that is not 0 if object B is also getting split into triangle shapes. The number that this action returns identifies which triangle of object B we are referring to.

This action returns which direction the friction impulse is applied to object A.

This action returns which direction the friction impulse is applied to object B.

This action returns how many physics simulation iterations that this CollisionPoint3D has been in.

This action returns the contact point on object A in local coordinates to A.

This action returns the contact point on object B in local coordinates to B.

This action returns a number that is not 0 if object A is an convex piece of a concave shape because we have to split the concave shape into convex pieces in order to make the calculation for the collision between two objects quicker. The number that is action returns would be used to identify which convex piece of object A we are referring to.

This action returns a number that is not 0 if object B is an convex piece of a concave shape because we have to split the concave shape into convex pieces in order to make the calculation for the collision between two objects quicker. The number that is action returns would be used to identify which convex piece of object B we are referring to.

This action returns a data holder, which is the class CollisionPersistentData, that records all of the forces, impulses, friction, penetration, and other information about this CollisionPoint3D.

This action returns the contact point on object A in world coordinates.

This action returns the contact point on object B in world coordinates.

This action returns the normal vector from B to A that an impulse will be applied to to resolve the collision.

This action returns the contact point on object A in world coordinates but also allows you to change the contact point on object A in world coordinates stored in this class is you used actions such as SetX() on the returned point.

This action returns the contact point on object B in world coordinates but also allows you to change the contact point on object B in world coordinates stored in this class is you used actions such as SetX() on the returned point.

This action changes the values stored inside this CollisionPoint3D class using the points passed in.

This action returns true if the friction at this CollisionPoint3D is set. This action is used in the CollisionSolver3D class.

This action sets the current CollisionPoint3D using another CollisionPoint3D.

This action sets the amount of linear impulse that is applied to this CollisionPoint3D.

This action sets the impulse that is applied to simulate friction at this CollisionPoint3D to object A.

This action sets the impulse that is applied to simulate friction at this CollisionPoint3D to object B.

This action sets the friction between the surfaces of objects A and B.

This action sets the restitution between the surfaces of objects A and B.

This action sets the distance between objects A and B.

This action sets a number that is not 0 if object A is also getting split into triangle shapes.

This action returns a number that is not 0 if object B is also getting split into triangle shapes.

This action sets which direction the friction impulse is applied to object A.

This action sets which direction the friction impulse is applied to object B.

This action either turns on or off the friction at this CollisionPoint3D.

This action sets how many physics simulation iterations that this CollisionPoint3D has been in. When this CollisionPoint3D is no longer a collision point between objects A and B, its life time will degrade to 0. This action is used by the action "RefreshCollisionPoints" inside the LocalCollisionPoints3D class.

This action sets the contact point on object A in local coordinates to A.

This action sets the contact point on object B in local coordinates to B.

This action sets a number that is not 0 if object A is an convex piece of a concave shape because we have to split the concave shape into convex pieces in order to make the calculation for the collision between two objects quicker.

This action sets a number that is not 0 if object B is an convex piece of a concave shape because we have to split the concave shape into convex pieces in order to make the calculation for the collision between two objects quicker.

This action sets a data holder, which is the class CollisionPersistentData.

This action sets the normal vector from B to A that an impulse will be applied to to resolve the collision.

This action sets the contact point on object A in world coordinates.

This action sets the contact point on object B in world coordinates.