Share btGjkPairDetector, btGjkEpa2, btVoronoiSimplexSolver with SPU/Multithreaded implementation (remove duplicate code)
Make btTypedConstraint and btPersistentManifold both derive from btTypedObject to make SPU-side generic constraint solver easier. Note: all build systems need to be updated: remove SpuVoronoiSimplexSolver.cpp, SpuGjkPairDetector.cpp, SpuEpaPenetrationDepthSolver.cpp, SpuGjkEpa2.cpp
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@@ -96,7 +96,7 @@ bool btContinuousConvexCollision::calcTimeOfImpact(
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{
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btGjkPairDetector gjk(m_convexA,m_convexB,m_simplexSolver,m_penetrationDepthSolver);
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btGjkPairDetector gjk(m_convexA,m_convexB,m_convexA->getShapeType(),m_convexB->getShapeType(),m_convexA->getMargin(),m_convexB->getMargin(),m_simplexSolver,m_penetrationDepthSolver);
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btGjkPairDetector::ClosestPointInput input;
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//we don't use margins during CCD
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@@ -14,8 +14,8 @@ subject to the following restrictions:
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*/
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#ifndef CONVEX_PENETRATION_DEPTH_H
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#define CONVEX_PENETRATION_DEPTH_H
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#ifndef __CONVEX_PENETRATION_DEPTH_H
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#define __CONVEX_PENETRATION_DEPTH_H
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class btStackAlloc;
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class btVector3;
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@@ -68,7 +68,43 @@ namespace gjkepa2_impl
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const btConvexShape* m_shapes[2];
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btMatrix3x3 m_toshape1;
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btTransform m_toshape0;
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#ifdef __SPU__
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bool m_enableMargin;
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#else
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btVector3 (btConvexShape::*Ls)(const btVector3&) const;
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#endif//__SPU__
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MinkowskiDiff()
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{
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}
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#ifdef __SPU__
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void EnableMargin(bool enable)
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{
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m_enableMargin = enable;
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}
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inline btVector3 Support0(const btVector3& d) const
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{
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if (m_enableMargin)
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{
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return m_shapes[0]->localGetSupportVertexNonVirtual(d);
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} else
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{
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return m_shapes[0]->localGetSupportVertexWithoutMarginNonVirtual(d);
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}
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}
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inline btVector3 Support1(const btVector3& d) const
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{
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if (m_enableMargin)
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{
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return m_toshape0*(m_shapes[1]->localGetSupportVertexNonVirtual(m_toshape1*d));
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} else
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{
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return m_toshape0*(m_shapes[1]->localGetSupportVertexWithoutMarginNonVirtual(m_toshape1*d));
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}
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}
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#else
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void EnableMargin(bool enable)
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{
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if(enable)
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@@ -84,6 +120,8 @@ namespace gjkepa2_impl
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{
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return(m_toshape0*((m_shapes[1])->*(Ls))(m_toshape1*d));
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}
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#endif //__SPU__
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inline btVector3 Support(const btVector3& d) const
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{
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return(Support0(d)-Support1(-d));
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@@ -858,6 +896,7 @@ bool btGjkEpaSolver2::Penetration( const btConvexShape* shape0,
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return(false);
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}
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#ifndef __SPU__
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//
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btScalar btGjkEpaSolver2::SignedDistance(const btVector3& position,
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btScalar margin,
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@@ -923,6 +962,7 @@ bool btGjkEpaSolver2::SignedDistance(const btConvexShape* shape0,
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else
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return(true);
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}
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#endif //__SPU__
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/* Symbols cleanup */
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@@ -25,6 +25,10 @@ class btGjkEpaPenetrationDepthSolver : public btConvexPenetrationDepthSolver
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{
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public :
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btGjkEpaPenetrationDepthSolver()
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{
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}
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bool calcPenDepth( btSimplexSolverInterface& simplexSolver,
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const btConvexShape* pConvexA, const btConvexShape* pConvexB,
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const btTransform& transformA, const btTransform& transformB,
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@@ -38,20 +38,48 @@ int gNumDeepPenetrationChecks = 0;
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int gNumGjkChecks = 0;
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btGjkPairDetector::btGjkPairDetector(const btConvexShape* objectA,const btConvexShape* objectB,btSimplexSolverInterface* simplexSolver,btConvexPenetrationDepthSolver* penetrationDepthSolver)
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:m_penetrationDepthSolver(penetrationDepthSolver),
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m_simplexSolver(simplexSolver),
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m_minkowskiA(objectA),
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m_minkowskiB(objectB),
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m_shapeTypeA(objectA->getShapeType()),
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m_shapeTypeB(objectB->getShapeType()),
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m_marginA(objectA->getMargin()),
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m_marginB(objectB->getMargin()),
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m_ignoreMargin(false),
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m_lastUsedMethod(-1),
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m_catchDegeneracies(1)
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{
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}
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btGjkPairDetector::btGjkPairDetector(const btConvexShape* objectA,const btConvexShape* objectB,int shapeTypeA,int shapeTypeB,btScalar marginA, btScalar marginB, btSimplexSolverInterface* simplexSolver,btConvexPenetrationDepthSolver* penetrationDepthSolver)
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:m_cachedSeparatingAxis(btScalar(0.),btScalar(0.),btScalar(1.)),
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m_penetrationDepthSolver(penetrationDepthSolver),
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m_simplexSolver(simplexSolver),
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m_minkowskiA(objectA),
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m_minkowskiB(objectB),
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m_shapeTypeA(shapeTypeA),
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m_shapeTypeB(shapeTypeB),
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m_marginA(marginA),
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m_marginB(marginB),
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m_ignoreMargin(false),
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m_lastUsedMethod(-1),
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m_catchDegeneracies(1)
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{
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}
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void btGjkPairDetector::getClosestPoints(const ClosestPointInput& input,Result& output,class btIDebugDraw* debugDraw,bool swapResults)
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void btGjkPairDetector::getClosestPoints(const ClosestPointInput& input,Result& output,class btIDebugDraw* debugDraw,bool swapResults)
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{
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(void)swapResults;
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getClosestPointsNonVirtual(input,output,debugDraw);
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}
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#ifdef __SPU__
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void btGjkPairDetector::getClosestPointsNonVirtual(const ClosestPointInput& input,Result& output,class btIDebugDraw* debugDraw)
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#else
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void btGjkPairDetector::getClosestPointsNonVirtual(const ClosestPointInput& input,Result& output,class btIDebugDraw* debugDraw)
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#endif
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{
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m_cachedSeparatingDistance = 0.f;
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@@ -64,21 +92,9 @@ void btGjkPairDetector::getClosestPoints(const ClosestPointInput& input,Result&
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localTransA.getOrigin() -= positionOffset;
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localTransB.getOrigin() -= positionOffset;
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#ifdef __SPU__
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btScalar marginA = m_minkowskiA->getMarginNonVirtual();
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btScalar marginB = m_minkowskiB->getMarginNonVirtual();
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#else
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btScalar marginA = m_minkowskiA->getMargin();
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btScalar marginB = m_minkowskiB->getMargin();
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#ifdef TEST_NON_VIRTUAL
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btScalar marginAv = m_minkowskiA->getMarginNonVirtual();
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btScalar marginBv = m_minkowskiB->getMarginNonVirtual();
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btAssert(marginA == marginAv);
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btAssert(marginB == marginBv);
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#endif //TEST_NON_VIRTUAL
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#endif
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btScalar marginA = m_marginA;
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btScalar marginB = m_marginB;
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gNumGjkChecks++;
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@@ -123,6 +139,15 @@ void btGjkPairDetector::getClosestPoints(const ClosestPointInput& input,Result&
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btVector3 seperatingAxisInA = (-m_cachedSeparatingAxis)* input.m_transformA.getBasis();
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btVector3 seperatingAxisInB = m_cachedSeparatingAxis* input.m_transformB.getBasis();
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#if 1
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btVector3 pInA = m_minkowskiA->localGetSupportVertexWithoutMarginNonVirtual(seperatingAxisInA);
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btVector3 qInB = m_minkowskiB->localGetSupportVertexWithoutMarginNonVirtual(seperatingAxisInB);
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// btVector3 pInA = localGetSupportingVertexWithoutMargin(m_shapeTypeA, m_minkowskiA, seperatingAxisInA,input.m_convexVertexData[0]);//, &featureIndexA);
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// btVector3 qInB = localGetSupportingVertexWithoutMargin(m_shapeTypeB, m_minkowskiB, seperatingAxisInB,input.m_convexVertexData[1]);//, &featureIndexB);
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#else
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#ifdef __SPU__
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btVector3 pInA = m_minkowskiA->localGetSupportVertexWithoutMarginNonVirtual(seperatingAxisInA);
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btVector3 qInB = m_minkowskiB->localGetSupportVertexWithoutMarginNonVirtual(seperatingAxisInB);
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@@ -136,6 +161,8 @@ void btGjkPairDetector::getClosestPoints(const ClosestPointInput& input,Result&
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btAssert((qInBv-qInB).length() < 0.0001);
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#endif //
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#endif //__SPU__
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#endif
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btVector3 pWorld = localTransA(pInA);
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btVector3 qWorld = localTransB(qInB);
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@@ -291,7 +318,7 @@ void btGjkPairDetector::getClosestPoints(const ClosestPointInput& input,Result&
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if (checkPenetration && (!isValid || catchDegeneratePenetrationCase ))
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{
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//penetration case
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//if there is no way to handle penetrations, bail out
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if (m_penetrationDepthSolver)
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{
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@@ -373,6 +400,7 @@ void btGjkPairDetector::getClosestPoints(const ClosestPointInput& input,Result&
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}
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}
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}
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}
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@@ -36,6 +36,11 @@ class btGjkPairDetector : public btDiscreteCollisionDetectorInterface
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btSimplexSolverInterface* m_simplexSolver;
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const btConvexShape* m_minkowskiA;
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const btConvexShape* m_minkowskiB;
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int m_shapeTypeA;
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int m_shapeTypeB;
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btScalar m_marginA;
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btScalar m_marginB;
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bool m_ignoreMargin;
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btScalar m_cachedSeparatingDistance;
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@@ -50,10 +55,14 @@ public:
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btGjkPairDetector(const btConvexShape* objectA,const btConvexShape* objectB,btSimplexSolverInterface* simplexSolver,btConvexPenetrationDepthSolver* penetrationDepthSolver);
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btGjkPairDetector(const btConvexShape* objectA,const btConvexShape* objectB,int shapeTypeA,int shapeTypeB,btScalar marginA, btScalar marginB, btSimplexSolverInterface* simplexSolver,btConvexPenetrationDepthSolver* penetrationDepthSolver);
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virtual ~btGjkPairDetector() {};
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virtual void getClosestPoints(const ClosestPointInput& input,Result& output,class btIDebugDraw* debugDraw,bool swapResults=false);
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void getClosestPointsNonVirtual(const ClosestPointInput& input,Result& output,class btIDebugDraw* debugDraw);
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void setMinkowskiA(btConvexShape* minkA)
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{
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m_minkowskiA = minkA;
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@@ -25,7 +25,8 @@ ContactProcessedCallback gContactProcessedCallback = 0;
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btPersistentManifold::btPersistentManifold()
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:m_body0(0),
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:btTypedObject(BT_PERSISTENT_MANIFOLD_TYPE),
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m_body0(0),
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m_body1(0),
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m_cachedPoints (0),
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m_index1a(0)
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@@ -32,7 +32,11 @@ typedef bool (*ContactProcessedCallback)(btManifoldPoint& cp,void* body0,void* b
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extern ContactDestroyedCallback gContactDestroyedCallback;
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enum btContactManifoldTypes
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{
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BT_PERSISTENT_MANIFOLD_TYPE = 1,
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MAX_CONTACT_MANIFOLD_TYPE
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};
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#define MANIFOLD_CACHE_SIZE 4
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@@ -43,7 +47,7 @@ extern ContactDestroyedCallback gContactDestroyedCallback;
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///reduces the cache to 4 points, when more then 4 points are added, using following rules:
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///the contact point with deepest penetration is always kept, and it tries to maximuze the area covered by the points
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///note that some pairs of objects might have more then one contact manifold.
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ATTRIBUTE_ALIGNED16( class) btPersistentManifold
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ATTRIBUTE_ALIGNED16( class) btPersistentManifold : public btTypedObject
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{
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btManifoldPoint m_pointCache[MANIFOLD_CACHE_SIZE];
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@@ -72,11 +76,11 @@ public:
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btPersistentManifold();
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btPersistentManifold(void* body0,void* body1,int , btScalar contactBreakingThreshold,btScalar contactProcessingThreshold)
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: m_body0(body0),m_body1(body1),m_cachedPoints(0),
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: btTypedObject(BT_PERSISTENT_MANIFOLD_TYPE),
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m_body0(body0),m_body1(body1),m_cachedPoints(0),
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m_contactBreakingThreshold(contactBreakingThreshold),
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m_contactProcessingThreshold(contactProcessingThreshold)
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{
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}
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SIMD_FORCE_INLINE void* getBody0() { return m_body0;}
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