void Update()
{
switch (Cast)
{
case CastType.OverlapCircle:
if (CastAll)
{
RBPhysics2D.OverlapCircleAll(transform.position, Radius, castLayers.value);
}
else
{
RBPhysics2D.OverlapCircle(transform.position, Radius, castLayers.value);
}
break;
case CastType.OverlapArea:
Vector2 cornerA = (Vector2)transform.position + CornerAOffset;
Vector2 cornerB = (Vector2)transform.position + CornerBOffset;
if (CastAll)
{
RBPhysics2D.OverlapAreaAll(cornerA, cornerB, castLayers.value);
}
else
{
RBPhysics2D.OverlapArea(cornerA, cornerB, castLayers.value);
}
break;
}
}
void Update()
{
switch (Method)
{
case CastMethod.Single:
RBPhysics2D.CircleCast(transform.position, Radius, transform.up, Distance, castLayers);
break;
case CastMethod.CastAll:
RBPhysics2D.CircleCastAll(transform.position, Radius, transform.up, Distance, castLayers);
break;
case CastMethod.NonAlloc:
RBPhysics2D.CircleCastNonAlloc(transform.position, Radius, transform.up, results, Distance, castLayers);
break;
}
}
void Update()
{
Vector3 start = transform.position;
Vector3 direction = transform.up;
if (Cast == CastType.Linecast)
{
Vector3 end = start + (Distance * direction);
switch (Method)
{
case CastMethod.Single:
RBPhysics2D.LineCast(start, end, castLayers);
break;
case CastMethod.All:
RBPhysics2D.LineCastAll(start, end, castLayers);
break;
case CastMethod.NonAlloc:
RBPhysics2D.LineCastNonAlloc(start, end, results, castLayers);
break;
}
}
else
{
switch (Method)
{
case CastMethod.Single:
RBPhysics2D.RayCast(start, direction, Distance, castLayers);
break;
case CastMethod.All:
RBPhysics2D.RayCastAll(start, direction, Distance, castLayers);
break;
case CastMethod.NonAlloc:
RBPhysics2D.RayCastNonAlloc(start, direction, results, Distance, castLayers);
break;
}
}
}
