dev0/PhysX4.1
1
0
Fork 0
Code Issues Pull Requests Actions Packages Projects Releases Wiki Activity
Files
main
PhysX4.1/physx/samples/samplebase/PhysXSample.cpp
dev0 a3a8e79709 Init
2025-11-28 23:13:44 +05:30

2596 lines
72 KiB
C++
Raw Permalink Blame History

//
// Redistribution and use in source and binary forms, with or without
// modification, are permitted provided that the following conditions
// are met:
// * Redistributions of source code must retain the above copyright
// notice, this list of conditions and the following disclaimer.
// * Redistributions in binary form must reproduce the above copyright
// notice, this list of conditions and the following disclaimer in the
// documentation and/or other materials provided with the distribution.
// * Neither the name of NVIDIA CORPORATION nor the names of its
// contributors may be used to endorse or promote products derived
// from this software without specific prior written permission.
//
// THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS ''AS IS'' AND ANY
// EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE
// IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR
// PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
// CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
// EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
// PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
// PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY
// OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
// (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
// OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
//
// Copyright (c) 2008-2021 NVIDIA Corporation. All rights reserved.
#include "PxPhysXConfig.h"
#include "foundation/PxMemory.h"
#include "SamplePreprocessor.h"
#include "PhysXSampleApplication.h"
#include "PhysXSample.h"
#include "SampleCommandLine.h"
#include "PxTkFile.h"
#include "PsString.h"
#include "PsFPU.h"
#include "PxToolkit.h"
#include "extensions/PxDefaultStreams.h"
#include "RenderBoxActor.h"
#include "RenderSphereActor.h"
#include "RenderCapsuleActor.h"
#include "RenderMeshActor.h"
#include "RenderGridActor.h"
#include "RenderMaterial.h"
#include "RenderTexture.h"
#include "RenderPhysX3Debug.h"
#include <SamplePlatform.h>
#include "SampleBaseInputEventIds.h"
#include <SampleUserInputIds.h>
#include "SampleUserInputDefines.h"
#include <SampleInputAsset.h>
#include "SampleInputMappingAsset.h"
#include <algorithm>
#include <ctype.h>
#include "Picking.h"
#include "TestGroup.h"
#if PX_WINDOWS
// Starting with Release 302 drivers, application developers can direct the Optimus driver at runtime to use the High Performance
// Graphics to render any application; even those applications for which there is no existing application profile.
// They can do this by exporting a global variable named PxOptimusEnablement.
// A value of 0x00000001 indicates that rendering should be performed using High Performance Graphics.
// A value of 0x00000000 indicates that this method should be ignored.
extern "C"
{
_declspec(dllexport) DWORD PxOptimusEnablement = 0x00000001;
}
#endif
using namespace SampleFramework;
using namespace SampleRenderer;
static bool gRecook = false;
PxDefaultAllocator gDefaultAllocatorCallback;
enum MaterialID
{
MATERIAL_CLOTH = 444,
};
///////////////////////////////////////////////////////////////////////////////
PX_FORCE_INLINE PxSimulationFilterShader getSampleFilterShader()
{
return PxDefaultSimulationFilterShader;
}
///////////////////////////////////////////////////////////////////////////////
PX_FORCE_INLINE void SetupDefaultRigidDynamic(PxRigidDynamic& body, bool kinematic=false)
{
body.setActorFlag(PxActorFlag::eVISUALIZATION, true);
body.setAngularDamping(0.5f);
body.setRigidBodyFlag(PxRigidBodyFlag::eKINEMATIC, kinematic);
}
void PhysXSample::unlink(RenderBaseActor* renderActor, PxShape* shape, PxRigidActor* actor)
{
PhysXShape theShape(actor, shape);
mPhysXShapeToRenderActorMap.erase(theShape);
PX_UNUSED(renderActor);
}
void PhysXSample::link(RenderBaseActor* renderActor, PxShape* shape, PxRigidActor* actor)
{
PhysXShape theShape(actor, shape);
mPhysXShapeToRenderActorMap[theShape] = renderActor;
renderActor->setPhysicsShape(shape, actor);
}
RenderBaseActor* PhysXSample::getRenderActor(PxRigidActor* actor, PxShape* shape)
{
PhysXShape theShape(actor, shape);
PhysXShapeToRenderActorMap::iterator it = mPhysXShapeToRenderActorMap.find(theShape);
if (mPhysXShapeToRenderActorMap.end() != it)
return it->second;
return NULL;
}
SampleDirManager& PhysXSample::getSampleOutputDirManager()
{
static SampleDirManager gSampleOutputDirManager(SAMPLE_OUTPUT_PATH, false);
return gSampleOutputDirManager;
}
PxToolkit::BasicRandom& getSampleRandom()
{
static PxToolkit::BasicRandom gRandom(42);
return gRandom;
}
PxErrorCallback& getSampleErrorCallback()
{
static PxDefaultErrorCallback gDefaultErrorCallback;
return gDefaultErrorCallback;
}
// sschirm: same here: would be good to have a place for platform independent path manipulation
// shared for all apps
const char* getFilenameFromPath(const char* filePath, char* buffer)
{
const char* ptr = strrchr(filePath, '/');
if (!ptr)
ptr = strrchr(filePath, '\\');
if (ptr)
{
strcpy(buffer, ptr + 1);
}
else
{
strcpy(buffer, filePath);
}
return buffer;
}
const char* PhysXSample::getSampleOutputFilePath(const char* inFilePath, const char* outExtension)
{
static char sBuffer[1024];
char tmpBuffer[1024];
const char* inFilename = getFilenameFromPath(inFilePath, sBuffer);
sprintf(tmpBuffer, "cached/%s%s", inFilename, outExtension);
return getSampleOutputDirManager().getFilePath(tmpBuffer, sBuffer, false);
}
static void GenerateCirclePts(unsigned int nb, PxVec3* pts, float scale, float z)
{
for(unsigned int i=0;i<nb;i++)
{
const PxF32 angle = 6.28f*PxF32(i)/PxF32(nb);
pts[i].x = cosf(angle)*scale;
pts[i].y = z;
pts[i].z = sinf(angle)*scale;
}
}
static PxConvexMesh* GenerateConvex(PxPhysics& sdk, PxCooking& cooking, PxU32 nbVerts, const PxVec3* verts, bool recenterVerts=false)
{
PxVec3Alloc* tmp = NULL;
if(recenterVerts)
{
PxVec3 center(0);
for(PxU32 i=0;i<nbVerts;i++)
center += verts[i];
center /= PxReal(nbVerts);
tmp = SAMPLE_NEW(PxVec3Alloc)[nbVerts];
PxVec3* recentered = tmp;
for(PxU32 i=0;i<nbVerts;i++)
recentered[i] = verts[i] - center;
}
PxConvexMesh* convexMesh = PxToolkit::createConvexMesh(sdk, cooking, recenterVerts ? tmp : verts, nbVerts, PxConvexFlag::eCOMPUTE_CONVEX);
DELETEARRAY(tmp);
return convexMesh;
}
static PxConvexMesh* GenerateConvex(PxPhysics& sdk, PxCooking& cooking, float scale, bool large=false, bool randomize=true)
{
const PxI32 minNb = large ? 16 : 3;
const PxI32 maxNb = large ? 32 : 8;
const int nbInsideCirclePts = !randomize ? 3 : getSampleRandom().rand(minNb, maxNb);
const int nbOutsideCirclePts = !randomize ? 8 : getSampleRandom().rand(minNb, maxNb);
const int nbVerts = nbInsideCirclePts + nbOutsideCirclePts;
// Generate random vertices
PxVec3Alloc* verts = SAMPLE_NEW(PxVec3Alloc)[nbVerts];
// Two methods
if(randomize && getSampleRandom().rand(0, 100) > 50)
{
for(int i=0;i<nbVerts;i++)
{
verts[i].x = scale * getSampleRandom().rand(-2.5f, 2.5f);
verts[i].y = scale * getSampleRandom().rand(-2.5f, 2.5f);
verts[i].z = scale * getSampleRandom().rand(-2.5f, 2.5f);
}
}
else
{
GenerateCirclePts(nbInsideCirclePts, verts, scale, 0.0f);
GenerateCirclePts(nbOutsideCirclePts, verts+nbInsideCirclePts, scale*3.0f, 10.0f*scale);
}
PxConvexMesh* convexMesh = GenerateConvex(sdk, cooking, nbVerts, verts);
DELETEARRAY(verts);
return convexMesh;
}
#if 0
static PxConvexMesh* GenerateConvex(PxPhysics& sdk, PxCooking& cooking, int nbInsideCirclePts, int nbOutsideCirclePts, float scale0, float scale1, float z)
{
const int nbVerts = nbInsideCirclePts + nbOutsideCirclePts;
// Generate random vertices
PxVec3Alloc* verts = SAMPLE_NEW(PxVec3Alloc)[nbVerts];
GenerateCirclePts(nbInsideCirclePts, verts, scale0, 0.0f);
GenerateCirclePts(nbOutsideCirclePts, verts+nbInsideCirclePts, scale1, z);
PxConvexMesh* convexMesh = GenerateConvex(sdk, cooking, nbVerts, verts);
DELETEARRAY(verts);
return convexMesh;
}
#endif
static PxRigidDynamic* GenerateCompound(PxPhysics& sdk, PxScene* scene, PxMaterial* defaultMat, const PxVec3& pos, const PxQuat& rot, const std::vector<PxTransform>& poses, const std::vector<const PxGeometry*>& geometries, bool kinematic=false, PxReal density = 1.0f)
{
PxRigidDynamic* actor = sdk.createRigidDynamic(PxTransform(pos, rot));
SetupDefaultRigidDynamic(*actor);
PX_ASSERT(poses.size() == geometries.size());
for(PxU32 i=0;i<poses.size();i++)
{
const PxTransform& currentPose = poses[i];
const PxGeometry* currentGeom = geometries[i];
PxShape* shape = PxRigidActorExt::createExclusiveShape(*actor, *currentGeom, *defaultMat);
shape->setLocalPose(currentPose);
PX_ASSERT(shape);
}
if(actor)
{
PxRigidBodyExt::updateMassAndInertia(*actor, density);
scene->addActor(*actor);
}
return actor;
}
//////////////////////////////////////////////////////////////////////////
void PhysXSample::onRelease(const PxBase* observed, void* userData, PxDeletionEventFlag::Enum deletionEvent)
{
PX_UNUSED(userData);
PX_UNUSED(deletionEvent);
if(observed->is<PxRigidActor>())
{
const PxRigidActor* actor = static_cast<const PxRigidActor*>(observed);
removeRenderActorsFromPhysicsActor(actor);
std::vector<PxRigidActor*>::iterator actorIter = std::find(mPhysicsActors.begin(), mPhysicsActors.end(), actor);
if(actorIter != mPhysicsActors.end())
{
mPhysicsActors.erase(actorIter);
}
}
}
///////////////////////////////////////////////////////////////////////////////
RenderMeshActor* PhysXSample::createRenderMeshFromRawMesh(const RAWMesh& data, PxShape* shape)
{
// Create render mesh from raw mesh
const PxU32 nbTris = data.mNbFaces;
const PxU32* src = data.mIndices;
PxU16* indices = (PxU16*)SAMPLE_ALLOC(sizeof(PxU16)*nbTris*3);
for(PxU32 i=0;i<nbTris;i++)
{
indices[i*3+0] = src[i*3+0];
indices[i*3+1] = src[i*3+2];
indices[i*3+2] = src[i*3+1];
}
RenderMeshActor* meshActor = SAMPLE_NEW(RenderMeshActor)(*getRenderer(), data.mVerts, data.mNbVerts, data.mVertexNormals, data.mUVs, indices, NULL, nbTris);
SAMPLE_FREE(indices);
if(data.mMaterialID!=0xffffffff)
{
size_t nbMaterials = mRenderMaterials.size();
for(PxU32 i=0;i<nbMaterials;i++)
{
if(mRenderMaterials[i]->mID==data.mMaterialID)
{
meshActor->setRenderMaterial(mRenderMaterials[i]);
break;
}
}
}
meshActor->setTransform(data.mTransform);
if(data.mName)
strcpy(meshActor->mName, data.mName);
mRenderActors.push_back(meshActor);
return meshActor;
}
///////////////////////////////////////////////////////////////////////////////
RenderTexture* PhysXSample::createRenderTextureFromRawTexture(const RAWTexture& data)
{
RenderTexture* texture;
if(!data.mPixels)
{
// PT: the pixel data is not included in the RAW file so we use the asset manager to load the texture
SampleAsset* t = getAsset(getSampleMediaFilename(data.mName), SampleAsset::ASSET_TEXTURE);
PX_ASSERT(t->getType()==SampleAsset::ASSET_TEXTURE);
mManagedAssets.push_back(t);
SampleTextureAsset* textureAsset = static_cast<SampleTextureAsset*>(t);
texture = SAMPLE_NEW(RenderTexture)(*getRenderer(), data.mID, textureAsset->getTexture());
}
else
{
// PT: the pixel data is directly included in the RAW file
texture = SAMPLE_NEW(RenderTexture)(*getRenderer(), data.mID, data.mWidth, data.mHeight, data.mPixels);
}
if(data.mName)
strcpy(texture->mName, data.mName);
mRenderTextures.push_back(texture);
return texture;
}
///////////////////////////////////////////////////////////////////////////////
void PhysXSample::newMaterial(const RAWMaterial& data)
{
RenderTexture* diffuse = NULL;
if(data.mDiffuseID!=0xffffffff)
{
size_t nbTextures = mRenderTextures.size();
for(PxU32 i=0;i<nbTextures;i++)
{
if(mRenderTextures[i]->mID==data.mDiffuseID)
{
diffuse = mRenderTextures[i];
break;
}
}
}
RenderMaterial* newRM = SAMPLE_NEW(RenderMaterial)(*getRenderer(), data.mDiffuseColor, data.mOpacity, data.mDoubleSided, data.mID, diffuse);
// strcpy(newRM->mName, data.mName);
mRenderMaterials.push_back(newRM);
}
void PhysXSample::newMesh(const RAWMesh& data)
{
// PT: the mesh name should capture the scale value as well, to make sure different scales give birth to different cooked files
const PxU32 scaleTag = PX_IR(mScale);
PX_ASSERT(mFilename);
char extension[256];
sprintf(extension, "_%d_%x.cooked", mMeshTag, scaleTag);
const char* filePathCooked = getSampleOutputFilePath(mFilename, extension);
PX_ASSERT(NULL != filePathCooked);
bool ok = false;
if(!gRecook)
{
SampleFramework::File* fp = NULL;
PxToolkit::fopen_s(&fp, filePathCooked, "rb");
if(fp)
{
fclose(fp);
ok = true;
}
}
if(!ok)
{
PxTriangleMeshDesc meshDesc;
meshDesc.points.count = data.mNbVerts;
meshDesc.triangles.count = data.mNbFaces;
meshDesc.points.stride = 4*3;
meshDesc.triangles.stride = 4*3;
meshDesc.points.data = data.mVerts;
meshDesc.triangles.data = data.mIndices;
//
shdfnd::printFormatted("Cooking object... %s",filePathCooked);
PxDefaultFileOutputStream stream(filePathCooked);
ok = mCooking->cookTriangleMesh(meshDesc, stream);
shdfnd::printFormatted(" - Done\n");
}
if(ok)
{
PxDefaultFileInputData stream(filePathCooked);
PxTriangleMesh* triangleMesh = mPhysics->createTriangleMesh(stream);
if(triangleMesh)
{
PxTriangleMeshGeometry triGeom;
triGeom.triangleMesh = triangleMesh;
PxRigidStatic* actor = mPhysics->createRigidStatic(data.mTransform);
PxShape* shape = PxRigidActorExt::createExclusiveShape(*actor, triGeom, *mMaterial);
PX_UNUSED(shape);
mScene->addActor(*actor);
addPhysicsActors(actor);
if(0)
{
// Create render mesh from PhysX mesh
PxU32 nbVerts = triangleMesh->getNbVertices();
const PxVec3* verts = triangleMesh->getVertices();
PxU32 nbTris = triangleMesh->getNbTriangles();
const void* tris = triangleMesh->getTriangles();
bool s = triangleMesh->getTriangleMeshFlags() & PxTriangleMeshFlag::e16_BIT_INDICES ? true : false;
PX_ASSERT(s);
PX_UNUSED(s);
const PxU16* src = (const PxU16*)tris;
PxU16* indices = (PxU16*)SAMPLE_ALLOC(sizeof(PxU16)*nbTris*3);
for(PxU32 i=0;i<nbTris;i++)
{
indices[i*3+0] = src[i*3+0];
indices[i*3+1] = src[i*3+2];
indices[i*3+2] = src[i*3+1];
}
RenderMeshActor* meshActor = SAMPLE_NEW(RenderMeshActor)(*getRenderer(), verts, nbVerts, verts, NULL, indices, NULL, nbTris);
if(data.mName)
strcpy(meshActor->mName, data.mName);
PxShape* shape;
actor->getShapes(&shape, 1);
link(meshActor, shape, actor);
mRenderActors.push_back(meshActor);
meshActor->setEnableCameraCull(true);
SAMPLE_FREE(indices);
}
else
{
PxShape* shape;
actor->getShapes(&shape, 1);
RenderMeshActor* meshActor = createRenderMeshFromRawMesh(data, shape);
link(meshActor, shape, actor);
meshActor->setEnableCameraCull(true);
}
mMeshTag++;
}
}
}
void PhysXSample::newShape(const RAWShape&)
{
}
void PhysXSample::newHelper(const RAWHelper&)
{
}
void PhysXSample::newTexture(const RAWTexture& data)
{
createRenderTextureFromRawTexture(data);
}
///////////////////////////////////////////////////////////////////////////////
void PhysXSample::togglePvdConnection()
{
if(mPvd == NULL) return;
if (mPvd->isConnected())
mPvd->disconnect();
else
mPvd->connect(*mTransport,mPvdFlags);
}
void PhysXSample::createPvdConnection()
{
#if PX_SUPPORT_PVD
//Create a pvd connection that writes data straight to the filesystem. This is
//the fastest connection on windows for various reasons. First, the transport is quite fast as
//pvd writes data in blocks and filesystems work well with that abstraction.
//Second, you don't have the PVD application parsing data and using CPU and memory bandwidth
//while your application is running.
//physx::PxPvdTransport* transport = physx::PxDefaultPvdFileTransportCreate( "c:\\mywork\\sample.pxd2" );
//The normal way to connect to pvd. PVD needs to be running at the time this function is called.
//We don't worry about the return value because we are already registered as a listener for connections
//and thus our onPvdConnected call will take care of setting up our basic connection state.
mTransport = physx::PxDefaultPvdSocketTransportCreate(mPvdParams.ip, mPvdParams.port, mPvdParams.timeout);
if(mTransport == NULL)
return;
//The connection flags state overall what data is to be sent to PVD. Currently
//the Debug connection flag requires support from the implementation (don't send
//the data when debug isn't set) but the other two flags, profile and memory
//are taken care of by the PVD SDK.
//Use these flags for a clean profile trace with minimal overhead
mPvdFlags = physx::PxPvdInstrumentationFlag::eALL;
if (!mPvdParams.useFullPvdConnection )
{
mPvdFlags = physx::PxPvdInstrumentationFlag::ePROFILE;
}
mPvd = physx::PxCreatePvd( *mFoundation );
mPvd->connect(*mTransport,mPvdFlags);
#endif
}
///////////////////////////////////////////////////////////////////////////////
//
// default implemententions for PhysXSample interface
//
void PhysXSample::onPointerInputEvent(const InputEvent& ie, physx::PxU32 x, physx::PxU32 y, physx::PxReal dx, physx::PxReal dy, bool pressed)
{
switch (ie.m_Id)
{
case CAMERA_MOUSE_LOOK:
{
if(mPicking)
mPicking->moveCursor(x,y);
}
break;
case PICKUP:
{
if(mPicking)
{
mPicked = !mPicked;;
if(mPicked)
mPicking->lazyPick();
else
mPicking->letGo();
}
}
break;
}
}
void PhysXSample::onResize(PxU32 width, PxU32 height)
{
mApplication.baseResize(width, height);
}
PhysXSample::~PhysXSample()
{
for (size_t i = mDeletedRenderActors.size(); i--;)
{
mDeletedRenderActors[i]->release();
}
mDeletedRenderActors.clear();
PX_ASSERT(!mRenderActors.size());
PX_ASSERT(!mRenderTextures.size());
PX_ASSERT(!mRenderMaterials.size());
PX_ASSERT(!mPhysicsActors.size());
PX_ASSERT(!mManagedAssets.size());
PX_ASSERT(!mBufferedActiveActors);
PX_ASSERT(!mScene);
PX_ASSERT(!mCpuDispatcher);
// PX_ASSERT(!mMaterial);
#if PX_SUPPORT_GPU_PHYSX
PX_ASSERT(!mCudaContextManager);
#endif
PX_ASSERT(!mCooking);
PX_ASSERT(!mPhysics);
PX_ASSERT(!mFoundation);
if(SCRATCH_BLOCK_SIZE)
SAMPLE_FREE(mScratchBlock);
delete mPicking;
}
PhysXSample::PhysXSample(PhysXSampleApplication& app, PxU32 maxSubSteps) :
mInitialDebugRender(false),
mCreateCudaCtxManager(true),
mCreateGroundPlane(true),
mStepperType(FIXED_STEPPER),
mMaxNumSubSteps(maxSubSteps),
mNbThreads(1),
mDefaultDensity(20.0f),
mDisplayFPS(true),
mPause(app.mPause),
mOneFrameUpdate(app.mOneFrameUpdate),
mShowHelp(app.mShowHelp),
mShowDescription(app.mShowDescription),
mShowExtendedHelp(app.mShowExtendedHelp),
mHideGraphics(false),
mEnableAutoFlyCamera(false),
mCameraController(app.mCameraController),
mPvdParams(app.mPvdParams),
mApplication(app),
mFoundation(NULL),
mPhysics(NULL),
mCooking(NULL),
mScene(NULL),
mMaterial(NULL),
mCpuDispatcher(NULL),
mPvd(NULL),
mTransport(NULL),
#if PX_SUPPORT_GPU_PHYSX
mCudaContextManager(NULL),
#endif
mManagedMaterials(app.mManagedMaterials),
mSampleInputAsset(NULL),
mBufferedActiveActors(NULL),
mActiveTransformCount(0),
mActiveTransformCapacity(0),
mIsFlyCamera(false),
mMeshTag(0),
mFilename(NULL),
mScale(1.0f),
mDebugRenderScale(1.0f),
mWaitForResults(false),
mSavedCameraController(NULL),
mDebugStepper(0.016666660f),
mFixedStepper(0.016666660f, maxSubSteps),
mVariableStepper(1.0f / 80.0f, 1.0f / 40.0f, maxSubSteps),
mWireFrame(false),
mSimulationTime(0.0f),
mPicked(false),
mExtendedHelpPage(0),
mDebugObjectType(DEBUG_OBJECT_BOX)//,
{
mDebugStepper.setSample(this);
mFixedStepper.setSample(this);
mVariableStepper.setSample(this);
mScratchBlock = SCRATCH_BLOCK_SIZE ? SAMPLE_ALLOC(SCRATCH_BLOCK_SIZE) : 0;
mFlyCameraController.init(PxVec3(0.0f, 10.0f, 0.0f), PxVec3(0.0f, 0.0f, 0.0f));
mPicking = new physx::Picking(*this);
mDeletedActors.clear();
}
void PhysXSample::render()
{
PxU32 nbVisible = 0;
if(!mHideGraphics)
{
PX_PROFILE_ZONE("Renderer.CullObjects", 0);
Camera& camera = getCamera();
Renderer* renderer = getRenderer();
for(PxU32 i = 0; i < mRenderActors.size(); ++i)
{
RenderBaseActor* renderActor = mRenderActors[i];
if(camera.mPerformVFC &&
renderActor->getEnableCameraCull() &&
getCamera().cull(renderActor->getWorldBounds())==PLANEAABB_EXCLUSION)
continue;
renderActor->render(*renderer, mManagedMaterials[MATERIAL_GREY], mWireFrame);
++nbVisible;
}
//if(camera.mPerformVFC)
//shdfnd::printFormatted("Nb visible: %d\n", nbVisible);
}
RenderPhysX3Debug* debugRender = getDebugRenderer();
if(debugRender)
debugRender->queueForRenderTriangle();
}
void PhysXSample::displayFPS()
{
if(!mDisplayFPS)
return;
char fpsText[512];
sprintf(fpsText, "%0.2f fps", mFPS.getFPS());
Renderer* renderer = getRenderer();
const PxU32 yInc = 18;
renderer->print(10, getCamera().getScreenHeight() - yInc*2, fpsText);
// sprintf(fpsText, "%d visible objects", mNbVisible);
// renderer->print(10, mCamera.getScreenHeight() - yInc*3, fpsText);
}
void PhysXSample::onShutdown()
{
//mScene->fetchResults(true);
releaseAll(mRenderActors);
releaseAll(mRenderTextures);
releaseAll(mRenderMaterials);
{
PxSceneWriteLock scopedLock(*mScene);
releaseAll(mPhysicsActors);
}
SAMPLE_FREE(mBufferedActiveActors);
mFixedStepper.shutdown();
mDebugStepper.shutdown();
mVariableStepper.shutdown();
const size_t nbManagedAssets = mManagedAssets.size();
if(nbManagedAssets)
{
SampleAssetManager* assetManager = mApplication.getAssetManager();
for(PxU32 i=0; i<nbManagedAssets; i++)
assetManager->returnAsset(*mManagedAssets[i]);
}
mManagedAssets.clear();
mApplication.getPlatform()->getSampleUserInput()->shutdown();
if(mSampleInputAsset)
{
mApplication.getAssetManager()->returnAsset(*mSampleInputAsset);
mSampleInputAsset = NULL;
}
mPhysics->unregisterDeletionListener(*this);
SAFE_RELEASE(mScene);
SAFE_RELEASE(mCpuDispatcher);
// SAFE_RELEASE(mMaterial);
SAFE_RELEASE(mCooking);
PxCloseExtensions();
SAFE_RELEASE(mPhysics);
#if PX_SUPPORT_GPU_PHYSX
SAFE_RELEASE(mCudaContextManager);
#endif
SAFE_RELEASE(mPvd);
SAFE_RELEASE(mTransport);
SAFE_RELEASE(mFoundation);
}
//#define USE_MBP
#ifdef USE_MBP
static void setupMBP(PxScene& scene)
{
const float range = 1000.0f;
const PxU32 subdiv = 4;
// const PxU32 subdiv = 1;
// const PxU32 subdiv = 2;
// const PxU32 subdiv = 8;
const PxVec3 min(-range);
const PxVec3 max(range);
const PxBounds3 globalBounds(min, max);
PxBounds3 bounds[256];
const PxU32 nbRegions = PxBroadPhaseExt::createRegionsFromWorldBounds(bounds, globalBounds, subdiv);
for(PxU32 i=0;i<nbRegions;i++)
{
PxBroadPhaseRegion region;
region.bounds = bounds[i];
region.userData = (void*)i;
scene.addBroadPhaseRegion(region);
}
}
#endif
void PhysXSample::onInit()
{
//Recording memory allocations is necessary if you want to
//use the memory facilities in PVD effectively. Since PVD isn't necessarily connected
//right away, we add a mechanism that records all outstanding memory allocations and
//forwards them to PVD when it does connect.
//This certainly has a performance and memory profile effect and thus should be used
//only in non-production builds.
bool recordMemoryAllocations = true;
const bool useCustomTrackingAllocator = true;
PxAllocatorCallback* allocator = &gDefaultAllocatorCallback;
if(useCustomTrackingAllocator)
allocator = getSampleAllocator(); //optional override that will track memory allocations
mFoundation = PxCreateFoundation(PX_PHYSICS_VERSION, *allocator, getSampleErrorCallback());
if(!mFoundation)
fatalError("PxCreateFoundation failed!");
#if PX_SUPPORT_GPU_PHYSX
if(mCreateCudaCtxManager)
{
PxCudaContextManagerDesc cudaContextManagerDesc;
#if defined(RENDERER_ENABLE_CUDA_INTEROP)
if (!mApplication.getCommandLine().hasSwitch("nointerop"))
{
switch(getRenderer()->getDriverType())
{
case Renderer::DRIVER_DIRECT3D11:
cudaContextManagerDesc.interopMode = PxCudaInteropMode::D3D11_INTEROP;
break;
case Renderer::DRIVER_OPENGL:
cudaContextManagerDesc.interopMode = PxCudaInteropMode::OGL_INTEROP;
break;
}
cudaContextManagerDesc.graphicsDevice = getRenderer()->getDevice();
}
#endif
mCudaContextManager = PxCreateCudaContextManager(*mFoundation, cudaContextManagerDesc, PxGetProfilerCallback());
if( mCudaContextManager )
{
if( !mCudaContextManager->contextIsValid() )
{
mCudaContextManager->release();
mCudaContextManager = NULL;
}
}
}
#endif
createPvdConnection();
PxTolerancesScale scale;
customizeTolerances(scale);
mPhysics = PxCreatePhysics(PX_PHYSICS_VERSION, *mFoundation, scale, recordMemoryAllocations, mPvd);
if(!mPhysics)
fatalError("PxCreatePhysics failed!");
if(!PxInitExtensions(*mPhysics, mPvd))
fatalError("PxInitExtensions failed!");
PxCookingParams params(scale);
params.meshWeldTolerance = 0.001f;
params.meshPreprocessParams = PxMeshPreprocessingFlags(PxMeshPreprocessingFlag::eWELD_VERTICES);
params.buildGPUData = true; //Enable GRB data being produced in cooking.
mCooking = PxCreateCooking(PX_PHYSICS_VERSION, *mFoundation, params);
if(!mCooking)
fatalError("PxCreateCooking failed!");
mPhysics->registerDeletionListener(*this, PxDeletionEventFlag::eUSER_RELEASE);
// setup default material...
mMaterial = mPhysics->createMaterial(0.5f, 0.5f, 0.1f);
if(!mMaterial)
fatalError("createMaterial failed!");
PX_ASSERT(NULL == mScene);
PxSceneDesc sceneDesc(mPhysics->getTolerancesScale());
sceneDesc.gravity = PxVec3(0.0f, -9.81f, 0.0f);
getDefaultSceneDesc(sceneDesc);
if(!sceneDesc.cpuDispatcher)
{
mCpuDispatcher = PxDefaultCpuDispatcherCreate(mNbThreads);
if(!mCpuDispatcher)
fatalError("PxDefaultCpuDispatcherCreate failed!");
sceneDesc.cpuDispatcher = mCpuDispatcher;
}
if(!sceneDesc.filterShader)
sceneDesc.filterShader = getSampleFilterShader();
#if PX_SUPPORT_GPU_PHYSX
if(!sceneDesc.cudaContextManager)
sceneDesc.cudaContextManager = mCudaContextManager;
#endif
//sceneDesc.frictionType = PxFrictionType::eTWO_DIRECTIONAL;
//sceneDesc.frictionType = PxFrictionType::eONE_DIRECTIONAL;
//sceneDesc.flags |= PxSceneFlag::eENABLE_GPU_DYNAMICS;
sceneDesc.flags |= PxSceneFlag::eENABLE_PCM;
//sceneDesc.flags |= PxSceneFlag::eENABLE_AVERAGE_POINT;
sceneDesc.flags |= PxSceneFlag::eENABLE_STABILIZATION;
//sceneDesc.flags |= PxSceneFlag::eADAPTIVE_FORCE;
sceneDesc.flags |= PxSceneFlag::eENABLE_ACTIVE_ACTORS;
sceneDesc.sceneQueryUpdateMode = PxSceneQueryUpdateMode::eBUILD_ENABLED_COMMIT_DISABLED;
//sceneDesc.flags |= PxSceneFlag::eDISABLE_CONTACT_CACHE;
//sceneDesc.broadPhaseType = PxBroadPhaseType::eGPU;
//sceneDesc.broadPhaseType = PxBroadPhaseType::eSAP;
sceneDesc.gpuMaxNumPartitions = 8;
//sceneDesc.solverType = PxSolverType::eTGS;
#ifdef USE_MBP
sceneDesc.broadPhaseType = PxBroadPhaseType::eMBP;
#endif
customizeSceneDesc(sceneDesc);
mScene = mPhysics->createScene(sceneDesc);
if(!mScene)
fatalError("createScene failed!");
PxSceneWriteLock scopedLock(*mScene);
PxSceneFlags flag = mScene->getFlags();
PX_UNUSED(flag);
mScene->setVisualizationParameter(PxVisualizationParameter::eSCALE, mInitialDebugRender ? mDebugRenderScale : 0.0f);
mScene->setVisualizationParameter(PxVisualizationParameter::eCOLLISION_SHAPES, 1.0f);
PxPvdSceneClient* pvdClient = mScene->getScenePvdClient();
if(pvdClient)
{
pvdClient->setScenePvdFlag(PxPvdSceneFlag::eTRANSMIT_CONSTRAINTS, true);
pvdClient->setScenePvdFlag(PxPvdSceneFlag::eTRANSMIT_CONTACTS, true);
pvdClient->setScenePvdFlag(PxPvdSceneFlag::eTRANSMIT_SCENEQUERIES, true);
}
#ifdef USE_MBP
setupMBP(*mScene);
#endif
mApplication.refreshVisualizationMenuState(PxVisualizationParameter::eCOLLISION_SHAPES);
mApplication.applyDefaultVisualizationSettings();
mApplication.setMouseCursorHiding(false);
mApplication.setMouseCursorRecentering(false);
mCameraController.setMouseLookOnMouseButton(false);
mCameraController.setMouseSensitivity(1.0f);
if(mCreateGroundPlane)
createGrid();
LOG_INFO("PhysXSample", "Init sample ok!");
}
RenderMaterial* PhysXSample::getMaterial(PxU32 materialID)
{
for(PxU32 i = 0; i < mRenderMaterials.size(); ++i)
{
if(mRenderMaterials[i]->mID == materialID)
{
return mRenderMaterials[i];
}
}
return NULL;
}
Stepper* PhysXSample::getStepper()
{
switch(mStepperType)
{
case DEFAULT_STEPPER:
return &mDebugStepper;
case FIXED_STEPPER:
return &mFixedStepper;
default:
return &mVariableStepper;
};
}
// ### PT: TODO: refactor this with onTickPreRender
void PhysXSample::freeDeletedActors()
{
getRenderer()->finishRendering();
// delete buffered render actors
for (size_t i = mDeletedRenderActors.size(); i--;)
{
mDeletedRenderActors[i]->release();
}
mDeletedRenderActors.clear();
}
void PhysXSample::onTickPreRender(float dtime)
{
// delete buffered render actors
for (size_t i = mDeletedRenderActors.size(); i--;)
{
mDeletedRenderActors[i]->release();
}
mDeletedRenderActors.clear();
#if PX_PROFILE
{
#endif
PxSceneWriteLock scopedLock(*mScene);
mApplication.baseTickPreRender(dtime);
mFPS.update();
#if PX_PROFILE
}
#endif
if(!isPaused())
{
Stepper* stepper = getStepper();
mWaitForResults = false;
if(mScene)
{
updateRenderObjectsAsync(dtime);
#if !PX_PROFILE
mWaitForResults = stepper->advance(mScene, dtime, mScratchBlock, SCRATCH_BLOCK_SIZE);
// tells the stepper shape data is not going to be accessed until next frame
// (frame ends with stepper->wait(mScene))
stepper->renderDone();
#else
// in profile builds we run the whole frame sequentially
// simulate, wait, update render objects, render
{
mWaitForResults = stepper->advance(mScene, dtime, mScratchBlock, SCRATCH_BLOCK_SIZE);
stepper->renderDone();
if (mWaitForResults)
{
stepper->wait(mScene);
mSimulationTime = stepper->getSimulationTime();
}
}
// update render objects immediately
if (mWaitForResults)
{
bufferActiveTransforms();
updateRenderObjectsSync(dtime);
if (mOneFrameUpdate)
updateRenderObjectsAsync(dtime);
}
#endif
}
}
// profile builds should update render actors
// and debug draw immediately to avoid one frame lag
#if PX_PROFILE
RenderPhysX3Debug* debugRenderer = getDebugRenderer();
if(debugRenderer && mScene)
{
const PxRenderBuffer& debugRenderable = mScene->getRenderBuffer();
debugRenderer->update(debugRenderable);
updateRenderObjectsDebug(dtime);
}
#endif
if(mPicking)
{
mPicking->tick();
}
}
void PhysXSample::onTickPostRender(float dtime)
{
#if !PX_PROFILE
if(!isPaused())
{
if(mScene && mWaitForResults)
{
Stepper* stepper = getStepper();
stepper->wait(mScene);
mSimulationTime = stepper->getSimulationTime();
bufferActiveTransforms();
// make sure that in single step mode, the render objects get updated immediately
if (mOneFrameUpdate)
{
updateRenderObjectsSync(dtime);
updateRenderObjectsAsync(dtime);
}
else
updateRenderObjectsSync(dtime);
}
}
#else
if(!isPaused() && mScene && mWaitForResults )
{
Stepper* stepper = getStepper();
//stepper->wait(mScene);
stepper->postRender(dtime);
}
#endif
RenderPhysX3Debug* debugRenderer = getDebugRenderer();
if(debugRenderer && mScene)
{
const PxRenderBuffer& debugRenderable = mScene->getRenderBuffer();
PX_UNUSED(debugRenderable);
debugRenderer->clear();
#if !PX_PROFILE
debugRenderer->update(debugRenderable);
updateRenderObjectsDebug(dtime);
#endif
renderScene();
}
if(mOneFrameUpdate)
{
mOneFrameUpdate = false;
if (!isPaused()) togglePause();
}
#ifdef PRINT_BLOCK_COUNTERS
static PxU32 refMax = -1;
PxU32 newMax = getActiveScene().getMaxNbContactDataBlocksUsed();
if(refMax != newMax)
shdfnd::printFormatted("max blocks used: %d\n",newMax);
refMax = newMax;
#endif // PRINT_BLOCK_COUNTERS
}
void PhysXSample::saveUserInputs()
{
char name[256];
char sBuffer[512];
const char* sampleName = mApplication.mRunning->getName();
SampleUserInput* sampleUserInput = mApplication.getPlatform()->getSampleUserInput();
if(!sampleUserInput)
return;
strcpy(name,"input");
strcat(name,"/UserInputList.txt");
if(getSampleOutputDirManager().getFilePath(name, sBuffer, false))
{
sprintf(name, "input/%s/%sUserInputList.txt", sampleName,mApplication.getPlatform()->getPlatformName());
if(getSampleOutputDirManager().getFilePath(name, sBuffer, false))
{
SampleFramework::File* file = NULL;
PxToolkit::fopen_s(&file, sBuffer, "w");
if(file)
{
fputs("UserInputList:\n",file);
fputs("----------------------------------------\n",file);
const std::vector<UserInput>& ilist = sampleUserInput->getUserInputList();
for (size_t i = 0; i < ilist.size(); i++)
{
const UserInput& ui = ilist[i];
fputs(ui.m_IdName,file);
fputs("\n",file);
}
fclose(file);
}
}
}
}
void PhysXSample::saveInputEvents(const std::vector<const InputEvent*>& inputEvents)
{
char name[256];
char sBuffer[512];
const char* sampleName = mApplication.mRunning->getName();
SampleUserInput* sampleUserInput = mApplication.getPlatform()->getSampleUserInput();
if(!sampleUserInput)
return;
strcpy(name,"input");
strcat(name,"/InputEventList.txt");
if(getSampleOutputDirManager().getFilePath(name, sBuffer, false))
{
sprintf(name, "input/%s/%sInputEventList.txt", sampleName,mApplication.getPlatform()->getPlatformName());
if(getSampleOutputDirManager().getFilePath(name, sBuffer, false))
{
SampleFramework::File* file = NULL;
PxToolkit::fopen_s(&file, sBuffer, "w");
if(file)
{
fputs("InputEventList:\n",file);
fputs("----------------------------------------\n",file);
for (size_t i = 0; i < inputEvents.size(); i++)
{
const InputEvent* inputEvent = inputEvents[i];
if(!inputEvent)
continue;
const std::vector<size_t>* userInputs = sampleUserInput->getUserInputs(inputEvent->m_Id);
const char* name = sampleUserInput->translateInputEventIdToName(inputEvent->m_Id);
if(userInputs && !userInputs->empty() && name)
{
fputs(name,file);
fputs("\n",file);
}
}
fclose(file);
}
}
}
}
void PhysXSample::parseSampleOutputAsset(const char* sampleName,PxU32 userInputCS, PxU32 inputEventCS)
{
char name[256];
char sBuffer[512];
SampleUserInput* sampleUserInput = mApplication.getPlatform()->getSampleUserInput();
if(!sampleUserInput)
return;
sprintf(name, "input/%s/%sInputMapping.ods", sampleName,mApplication.getPlatform()->getPlatformName());
if(getSampleOutputDirManager().getFilePath(name, sBuffer, false))
{
SampleInputMappingAsset* inputAsset = NULL;
SampleFramework::File* fp = NULL;
PxToolkit::fopen_s(&fp, sBuffer, "r");
if(fp)
{
inputAsset = SAMPLE_NEW(SampleInputMappingAsset)(fp,sBuffer, false, userInputCS, inputEventCS);
if(!inputAsset->isOk())
{
DELETESINGLE(inputAsset);
fp = NULL;
}
}
if(inputAsset)
{
std::vector<SampleInputMapping> inputMappings;
for (size_t i = inputAsset->getSampleInputData().size();i--;)
{
const SampleInputData& data = inputAsset->getSampleInputData()[i];
size_t userInputIndex;
PxI32 userInputId = sampleUserInput->translateUserInputNameToId(data.m_UserInputName,userInputIndex);
size_t inputEventIndex;
PxI32 inputEventId = sampleUserInput->translateInputEventNameToId(data.m_InputEventName, inputEventIndex);
if(userInputId >= 0 && inputEventId >= 0)
{
SampleInputMapping mapping;
mapping.m_InputEventId = inputEventId;
mapping.m_InputEventIndex = inputEventIndex;
mapping.m_UserInputId = userInputId;
mapping.m_UserInputIndex = userInputIndex;
inputMappings.push_back(mapping);
}
else
{
//if we get here we read a command mapping from file that is no longer supported in code ... it should be ignored.
}
}
for (size_t i = inputMappings.size(); i--;)
{
const SampleInputMapping& mapping = inputMappings[i];
sampleUserInput->unregisterInputEvent(mapping.m_InputEventId);
}
//now I have the default keys definition left, save it to the mapping
const std::vector<UserInput>& userInputs = sampleUserInput->getUserInputList();
const std::map<physx::PxU16, std::vector<size_t> >& inputEventUserInputMap = sampleUserInput->getInputEventUserInputMap();
std::map<physx::PxU16, std::vector<size_t> >::const_iterator it = inputEventUserInputMap.begin();
std::map<physx::PxU16, std::vector<size_t> >::const_iterator itEnd = inputEventUserInputMap.end();
while (it != itEnd)
{
PxU16 inputEventId = it->first;
const std::vector<size_t>& uis = it->second;
for (size_t j = 0; j < uis.size(); j++)
{
const UserInput& ui = userInputs[uis[j]];
const char* eventName = sampleUserInput->translateInputEventIdToName(inputEventId);
if(eventName)
{
inputAsset->addMapping(ui.m_IdName, eventName);
}
}
++it;
}
for (size_t i = inputMappings.size(); i--;)
{
const SampleInputMapping& mapping = inputMappings[i];
sampleUserInput->registerInputEvent(mapping);
}
}
else
{
// the file does not exist create one
SampleFramework::File* fp = NULL;
PxToolkit::fopen_s(&fp, sBuffer, "w");
if(fp)
{
inputAsset = SAMPLE_NEW(SampleInputMappingAsset)(fp,sBuffer,true,userInputCS, inputEventCS);
const std::vector<UserInput>& userInputs = sampleUserInput->getUserInputList();
const std::map<physx::PxU16, std::vector<size_t> >& inputEventUserInputMap = sampleUserInput->getInputEventUserInputMap();
std::map<physx::PxU16, std::vector<size_t> >::const_iterator it = inputEventUserInputMap.begin();
std::map<physx::PxU16, std::vector<size_t> >::const_iterator itEnd = inputEventUserInputMap.end();
while (it != itEnd)
{
PxU16 inputEventId = it->first;
const std::vector<size_t>& uis = it->second;
for (size_t j = 0; j < uis.size(); j++)
{
const UserInput& ui = userInputs[uis[j]];
const char* eventName = sampleUserInput->translateInputEventIdToName(inputEventId);
if(eventName)
{
inputAsset->addMapping(ui.m_IdName, eventName);
}
}
++it;
}
}
}
if(inputAsset)
{
inputAsset->saveMappings();
DELETESINGLE(inputAsset);
}
}
}
void PhysXSample::prepareInputEventUserInputInfo(const char* sampleName,PxU32 &userInputCS, PxU32 &inputEventCS)
{
SampleUserInput* sampleUserInput = mApplication.getPlatform()->getSampleUserInput();
if(!sampleUserInput)
return;
saveUserInputs();
std::vector<const InputEvent*> inputEvents;
mApplication.collectInputEvents(inputEvents);
for (size_t i = inputEvents.size(); i--;)
{
const InputEvent* ie = inputEvents[i];
inputEventCS += ie->m_Id;
const std::vector<size_t>* userInputs = sampleUserInput->getUserInputs(ie->m_Id);
if(userInputs)
{
for (size_t j = userInputs->size(); j--;)
{
const UserInput& ui = sampleUserInput->getUserInputList()[ (*userInputs)[j] ];
userInputCS += (ui.m_Id + ie->m_Id);
}
}
}
inputEventCS = inputEventCS + ((PxU16)sampleUserInput->getInputEventList().size() << 16);
userInputCS = userInputCS + ((PxU16)sampleUserInput->getUserInputList().size() << 16);
saveInputEvents(inputEvents);
char name[256];
strcpy(name,"input/");
strcat(name,mApplication.getPlatform()->getPlatformName());
strcat(name,"/");
strcat(name,sampleName);
strcat(name,"InputMapping.ods");
// load the additional mapping file
mSampleInputAsset = (SampleInputAsset*)getAsset(name, SampleAsset::ASSET_INPUT, false);
}
void PhysXSample::unregisterInputEvents()
{
mApplication.getPlatform()->getSampleUserInput()->shutdown();
}
void PhysXSample::registerInputEvents(bool ignoreSaved)
{
const char* sampleName = mApplication.mRunning->getName();
SampleUserInput* sampleUserInput = mApplication.getPlatform()->getSampleUserInput();
if(!sampleUserInput)
return;
PxU32 inputEventCS = 0;
PxU32 userInputCS = 0;
prepareInputEventUserInputInfo(sampleName, inputEventCS, userInputCS);
// register the additional mapping
if(mSampleInputAsset)
{
std::vector<SampleInputMapping> inputMappings;
for (size_t i = mSampleInputAsset->GetSampleInputData().size();i--;)
{
const SampleInputData& data = mSampleInputAsset->GetSampleInputData()[i];
size_t userInputIndex;
PxI32 userInputId = sampleUserInput->translateUserInputNameToId(data.m_UserInputName,userInputIndex);
size_t inputEventIndex;
PxI32 inputEventId = sampleUserInput->translateInputEventNameToId(data.m_InputEventName, inputEventIndex);
if(userInputId >= 0 && inputEventId >= 0)
{
SampleInputMapping mapping;
mapping.m_InputEventId = inputEventId;
mapping.m_InputEventIndex = inputEventIndex;
mapping.m_UserInputId = userInputId;
mapping.m_UserInputIndex = userInputIndex;
inputMappings.push_back(mapping);
}
else
{
PX_ASSERT(0);
}
}
for (size_t i = inputMappings.size(); i--;)
{
const SampleInputMapping& mapping = inputMappings[i];
sampleUserInput->registerInputEvent(mapping);
}
}
if (!ignoreSaved)
parseSampleOutputAsset(sampleName, inputEventCS, userInputCS);
}
void PhysXSample::onKeyDownEx(SampleFramework::SampleUserInput::KeyCode keyCode, PxU32 param)
{
}
void PhysXSample::collectInputEvents(std::vector<const SampleFramework::InputEvent*>& inputEvents)
{
//digital keyboard events
DIGITAL_INPUT_EVENT_DEF(SPAWN_DEBUG_OBJECT, WKEY_1, OSXKEY_1, LINUXKEY_1 );
DIGITAL_INPUT_EVENT_DEF(PAUSE_SAMPLE, WKEY_P, OSXKEY_P, LINUXKEY_P );
DIGITAL_INPUT_EVENT_DEF(STEP_ONE_FRAME, WKEY_O, OSXKEY_O, LINUXKEY_O );
DIGITAL_INPUT_EVENT_DEF(TOGGLE_VISUALIZATION, WKEY_V, OSXKEY_V, LINUXKEY_V );
DIGITAL_INPUT_EVENT_DEF(DECREASE_DEBUG_RENDER_SCALE, WKEY_F7, OSXKEY_F7, LINUXKEY_F7 );
DIGITAL_INPUT_EVENT_DEF(INCREASE_DEBUG_RENDER_SCALE, WKEY_F8, OSXKEY_F8, LINUXKEY_F8 );
DIGITAL_INPUT_EVENT_DEF(HIDE_GRAPHICS, WKEY_G, OSXKEY_G, LINUXKEY_G );
DIGITAL_INPUT_EVENT_DEF(WIREFRAME, WKEY_N, OSXKEY_N, LINUXKEY_N );
DIGITAL_INPUT_EVENT_DEF(TOGGLE_PVD_CONNECTION, WKEY_F5, OSXKEY_F5, LINUXKEY_F5 );
DIGITAL_INPUT_EVENT_DEF(SHOW_HELP, WKEY_H, OSXKEY_H, LINUXKEY_H );
DIGITAL_INPUT_EVENT_DEF(SHOW_DESCRIPTION, WKEY_F, OSXKEY_F, LINUXKEY_F );
DIGITAL_INPUT_EVENT_DEF(VARIABLE_TIMESTEP, WKEY_T, OSXKEY_T, LINUXKEY_T );
DIGITAL_INPUT_EVENT_DEF(NEXT_PAGE, WKEY_NEXT, OSXKEY_RIGHT, LINUXKEY_NEXT );
DIGITAL_INPUT_EVENT_DEF(PREVIOUS_PAGE, WKEY_PRIOR, OSXKEY_LEFT, LINUXKEY_PRIOR );
DIGITAL_INPUT_EVENT_DEF(PROFILE_ONLY_PVD, WKEY_9, OSXKEY_UNKNOWN, LINUXKEY_UNKNOWN);
//DIGITAL_INPUT_EVENT_DEF(PAUSE_SAMPLE, WKEY_P, OSXKEY_UNKNOWN, LINUXKEY_UNKNOWN);
//DIGITAL_INPUT_EVENT_DEF(STEP_ONE_FRAME, WKEY_O, OSXKEY_UNKNOWN, LINUXKEY_UNKNOWN);
//digital gamepad events
DIGITAL_INPUT_EVENT_DEF(SHOW_HELP, GAMEPAD_SELECT, GAMEPAD_SELECT, LINUXKEY_UNKNOWN);
DIGITAL_INPUT_EVENT_DEF(SPAWN_DEBUG_OBJECT, GAMEPAD_NORTH, GAMEPAD_NORTH, LINUXKEY_UNKNOWN);
//digital mouse events (are registered in the individual samples as needed)
}
void PhysXSample::onAnalogInputEvent(const SampleFramework::InputEvent& , float val)
{
}
void PhysXSample::onDigitalInputEvent(const SampleFramework::InputEvent& ie, bool val)
{
if (!mScene) return;
if (val)
{
if (mShowExtendedHelp)
{
switch (ie.m_Id)
{
case NEXT_PAGE:
{
mExtendedHelpPage++;
}
break;
case PREVIOUS_PAGE:
{
if(mExtendedHelpPage)
mExtendedHelpPage--;
}
break;
}
return;
}
switch (ie.m_Id)
{
case SPAWN_DEBUG_OBJECT:
spawnDebugObject();
break;
case PAUSE_SAMPLE:
togglePause();
break;
case STEP_ONE_FRAME:
mOneFrameUpdate = !mOneFrameUpdate;
break;
case TOGGLE_VISUALIZATION:
toggleVisualizationParam(*mScene, PxVisualizationParameter::eSCALE);
break;
case DECREASE_DEBUG_RENDER_SCALE:
{
mDebugRenderScale -= 0.1f;
mDebugRenderScale = PxMax(mDebugRenderScale, 0.f);
mScene->setVisualizationParameter(PxVisualizationParameter::eSCALE, mDebugRenderScale);
break;
}
case INCREASE_DEBUG_RENDER_SCALE:
{
mDebugRenderScale += 0.1f;
mScene->setVisualizationParameter(PxVisualizationParameter::eSCALE, mDebugRenderScale);
break;
}
case HIDE_GRAPHICS:
mHideGraphics = !mHideGraphics;
break;
case WIREFRAME:
{
mWireFrame = !mWireFrame;
break;
}
case TOGGLE_PVD_CONNECTION:
{
togglePvdConnection();
break;
}
case SHOW_HELP:
mShowHelp = !mShowHelp;
if(mShowHelp) mShowDescription=false;
break;
case SHOW_DESCRIPTION:
mShowDescription = !mShowDescription;
if(mShowDescription) mShowHelp=false;
break;
case VARIABLE_TIMESTEP:
mStepperType = (mStepperType == VARIABLE_STEPPER) ? FIXED_STEPPER : VARIABLE_STEPPER;
//mUseFixedStepper = !mUseFixedStepper;
mFixedStepper.reset();
mVariableStepper.reset();
break;
case DELETE_PICKED:
if(mPicked && mPicking)
{
PxActor* pickedActor = mPicking->letGo();
if(pickedActor)
pickedActor->release();
}
break;
case PICKUP:
{
if(mPicking)
{
mPicked = true;
PxU32 width;
PxU32 height;
mApplication.getPlatform()->getWindowSize(width, height);
mPicking->moveCursor(width/2,height/2);
mPicking->lazyPick();
}
}
break;
case PROFILE_ONLY_PVD:
if (mPvdParams.useFullPvdConnection)
{
if(mPvd)
{
mPvd->disconnect();
mPvdParams.useFullPvdConnection = false;
mPvd->connect(*mTransport,physx::PxPvdInstrumentationFlag::ePROFILE);
}
}
break;
default: break;
}
}
else
{
if (mShowExtendedHelp)
{
return;
}
if (ie.m_Id == PICKUP)
{
if(mPicking)
{
mPicked = false;
mPicking->letGo();
}
}
}
}
void PhysXSample::toggleFlyCamera()
{
mIsFlyCamera = !mIsFlyCamera;
if (mIsFlyCamera)
{
mSavedCameraController = getCurrentCameraController();
mApplication.saveCameraState();
mFlyCameraController.init(getCamera().getViewMatrix());
mFlyCameraController.setMouseLookOnMouseButton(false);
mFlyCameraController.setMouseSensitivity(0.2f);
setCameraController(&mFlyCameraController);
}
else
{
mApplication.restoreCameraState();
setCameraController(mSavedCameraController);
}
}
void PhysXSample::togglePause()
{
//unregisterInputEvents();
mPause = !mPause;
if (mEnableAutoFlyCamera)
{
if (mPause)
{
mSavedCameraController = getCurrentCameraController();
mApplication.saveCameraState();
mFlyCameraController.init(getCamera().getViewMatrix());
setCameraController(&mFlyCameraController);
}
else
{
mApplication.restoreCameraState();
setCameraController(mSavedCameraController);
}
}
//registerInputEvents(true);
}
void PhysXSample::showExtendedInputEventHelp(PxU32 x, PxU32 y)
{
const PxReal scale = 0.5f;
const PxReal shadowOffset = 6.0f;
const RendererColor textColor(255, 255, 255, 255);
Renderer* renderer = getRenderer();
const PxU32 yInc = 18;
char message[512];
PxU32 width = 0;
PxU32 height = 0;
renderer->getWindowSize(width, height);
y += yInc;
PxU16 numIe = (height - y)/yInc - 8;
const std::vector<InputEvent> inputEventList = getApplication().getPlatform()->getSampleUserInput()->getInputEventList();
const std::vector<InputEventName> inputEventNameList = getApplication().getPlatform()->getSampleUserInput()->getInputEventNameList();
size_t maxHelpPage = inputEventList.size()/numIe;
if(maxHelpPage < mExtendedHelpPage)
mExtendedHelpPage = (PxU8) maxHelpPage;
PxU16 printed = 0;
PxU16 startPrint = 0;
for (size_t i = 0; i < inputEventList.size(); i++)
{
const InputEvent& ie = inputEventList[i];
const char* msg = mApplication.inputInfoMsg("Press "," to ", ie.m_Id, -1);
if(msg)
{
startPrint++;
if(startPrint <= numIe*mExtendedHelpPage)
continue;
strcpy(message,msg);
strcat(message, inputEventNameList[i].m_Name);
renderer->print(x, y, message, scale, shadowOffset, textColor);
y += yInc;
printed++;
if(printed >= numIe)
{
break;
}
}
}
if(printed == 0)
{
if(mExtendedHelpPage)
mExtendedHelpPage--;
}
y += yInc;
const char* msg = mApplication.inputInfoMsg("Press "," to show next/previous page", NEXT_PAGE, PREVIOUS_PAGE);
if(msg)
renderer->print(x, y += yInc, msg, scale, shadowOffset, textColor);
}
///////////////////////////////////////////////////////////////////////////////
RenderBaseActor* PhysXSample::createRenderBoxFromShape(PxRigidActor* actor, PxShape* shape, RenderMaterial* material, const PxReal* uvs)
{
RenderBaseActor* shapeRenderActor = NULL;
Renderer* renderer = getRenderer();
PX_ASSERT(renderer);
PxGeometryType::Enum geomType = shape->getGeometryType();
PX_ASSERT(geomType==PxGeometryType::eBOX);
switch(geomType)
{
case PxGeometryType::eBOX:
{
// Get physics geometry
PxBoxGeometry geometry;
bool status = shape->getBoxGeometry(geometry);
PX_ASSERT(status);
PX_UNUSED(status);
// Create render object
shapeRenderActor = SAMPLE_NEW(RenderBoxActor)(*renderer, geometry.halfExtents, uvs);
}
break;
default: {}
};
if(shapeRenderActor)
{
link(shapeRenderActor, shape, actor);
mRenderActors.push_back(shapeRenderActor);
shapeRenderActor->setRenderMaterial(material);
shapeRenderActor->setEnableCameraCull(true);
}
return shapeRenderActor;
}
RenderBaseActor* PhysXSample::createRenderObjectFromShape(PxRigidActor* actor, PxShape* shape, RenderMaterial* material)
{
PX_ASSERT(getRenderer());
RenderBaseActor* shapeRenderActor = NULL;
Renderer& renderer = *getRenderer();
PxGeometryHolder geom = shape->getGeometry();
switch(geom.getType())
{
case PxGeometryType::eSPHERE:
shapeRenderActor = SAMPLE_NEW(RenderSphereActor)(renderer, geom.sphere().radius);
break;
case PxGeometryType::ePLANE:
shapeRenderActor = SAMPLE_NEW(RenderGridActor)(renderer, 50, 1.f, PxShapeExt::getGlobalPose(*shape, *actor).q);
break;
case PxGeometryType::eCAPSULE:
shapeRenderActor = SAMPLE_NEW(RenderCapsuleActor)(renderer, geom.capsule().radius, geom.capsule().halfHeight);
break;
case PxGeometryType::eBOX:
shapeRenderActor = SAMPLE_NEW(RenderBoxActor)(renderer, geom.box().halfExtents);
break;
case PxGeometryType::eCONVEXMESH:
{
PxConvexMesh* convexMesh = geom.convexMesh().convexMesh;
// ### doesn't support scale
PxU32 nbVerts = convexMesh->getNbVertices();
PX_UNUSED(nbVerts);
const PxVec3* convexVerts = convexMesh->getVertices();
const PxU8* indexBuffer = convexMesh->getIndexBuffer();
PxU32 nbPolygons = convexMesh->getNbPolygons();
PxU32 totalNbTris = 0;
PxU32 totalNbVerts = 0;
for(PxU32 i=0;i<nbPolygons;i++)
{
PxHullPolygon data;
bool status = convexMesh->getPolygonData(i, data);
PX_ASSERT(status);
PX_UNUSED(status);
totalNbVerts += data.mNbVerts;
totalNbTris += data.mNbVerts - 2;
}
PxVec3Alloc* allocVerts = SAMPLE_NEW(PxVec3Alloc)[totalNbVerts];
PxVec3Alloc* allocNormals = SAMPLE_NEW(PxVec3Alloc)[totalNbVerts];
PxReal* UVs = (PxReal*)SAMPLE_ALLOC(sizeof(PxReal)*(totalNbVerts * 2));
PxU16* faces = (PxU16*)SAMPLE_ALLOC(sizeof(PxU16)*totalNbTris*3);
PxU16* triangles = faces;
PxVec3* vertices = allocVerts,
* normals = allocNormals;
PxU32 offset = 0;
for(PxU32 i=0;i<nbPolygons;i++)
{
PxHullPolygon face;
bool status = convexMesh->getPolygonData(i, face);
PX_ASSERT(status);
PX_UNUSED(status);
const PxU8* faceIndices = indexBuffer+face.mIndexBase;
for(PxU32 j=0;j<face.mNbVerts;j++)
{
vertices[offset+j] = convexVerts[faceIndices[j]];
normals[offset+j] = PxVec3(face.mPlane[0], face.mPlane[1], face.mPlane[2]);
}
for(PxU32 j=2;j<face.mNbVerts;j++)
{
*triangles++ = PxU16(offset);
*triangles++ = PxU16(offset+j);
*triangles++ = PxU16(offset+j-1);
}
offset += face.mNbVerts;
}
// prepare UVs for convex:
// filling like this
// vertice #0 - 0,0
// vertice #1 - 0,1
// vertice #2 - 1,0
// vertice #3 - 0,0
// ...
for(PxU32 i = 0; i < totalNbVerts; ++i)
{
PxU32 c = i % 3;
if(c == 0)
{
UVs[2 * i] = 0.0f;
UVs[2 * i + 1] = 0.0f;
}
else if(c == 1)
{
UVs[2 * i] = 0.0f;
UVs[2 * i + 1] = 1.0f;
}
else if(c == 2)
{
UVs[2 * i] = 1.0f;
UVs[2 * i + 1] = 0.0f;
}
}
PX_ASSERT(offset==totalNbVerts);
shapeRenderActor = SAMPLE_NEW(RenderMeshActor)(renderer, vertices, totalNbVerts, normals, UVs, faces, NULL, totalNbTris);
shapeRenderActor->setMeshScale(geom.convexMesh().scale);
SAMPLE_FREE(faces);
SAMPLE_FREE(UVs);
DELETEARRAY(allocVerts);
DELETEARRAY(allocNormals);
}
break;
case PxGeometryType::eTRIANGLEMESH:
{
// Get physics geometry
PxTriangleMesh* tm = geom.triangleMesh().triangleMesh;
const PxU32 nbVerts = tm->getNbVertices();
const PxVec3* verts = tm->getVertices();
const PxU32 nbTris = tm->getNbTriangles();
const void* tris = tm->getTriangles();
const bool has16bitIndices = tm->getTriangleMeshFlags() & PxTriangleMeshFlag::e16_BIT_INDICES ? true : false;
const PxU16* faces16 = has16bitIndices ? (const PxU16*)tris : NULL;
const PxU32* faces32 = has16bitIndices ? NULL : (const PxU32*)tris;
shapeRenderActor = SAMPLE_NEW(RenderMeshActor)(renderer, verts, nbVerts, NULL, NULL, faces16, faces32, nbTris, true);
shapeRenderActor->setMeshScale(geom.triangleMesh().scale);
if (!material)
material = mManagedMaterials[MATERIAL_FLAT];
}
break;
case PxGeometryType::eHEIGHTFIELD:
{
// Get physics geometry
const PxHeightFieldGeometry& geometry = geom.heightField();
const PxReal rs = geometry.rowScale;
const PxReal hs = geometry.heightScale;
const PxReal cs = geometry.columnScale;
// Create render object
PxHeightField* hf = geometry.heightField;
const PxU32 nbCols = hf->getNbColumns();
const PxU32 nbRows = hf->getNbRows();
const PxU32 nbVerts = nbRows * nbCols;
const PxU32 nbFaces = (nbCols - 1) * (nbRows - 1) * 2;
PxHeightFieldSample* sampleBuffer = new PxHeightFieldSample[nbVerts];
hf->saveCells(sampleBuffer, nbVerts * sizeof(PxHeightFieldSample));
PxVec3* vertexes = new PxVec3[nbVerts];
for(PxU32 i = 0; i < nbRows; i++)
{
for(PxU32 j = 0; j < nbCols; j++)
{
vertexes[i * nbCols + j] = PxVec3(PxReal(i) * rs, PxReal(sampleBuffer[j + (i*nbCols)].height) * hs, PxReal(j) * cs);
}
}
PxU32* indices = (PxU32*)SAMPLE_ALLOC(sizeof(PxU32) * nbFaces * 3);
for(PxU32 i = 0; i < (nbCols - 1); ++i)
{
for(PxU32 j = 0; j < (nbRows - 1); ++j)
{
PxU8 tessFlag = sampleBuffer[i+j*nbCols].tessFlag();
PxU32 i0 = j*nbCols + i;
PxU32 i1 = j*nbCols + i + 1;
PxU32 i2 = (j+1) * nbCols + i;
PxU32 i3 = (j+1) * nbCols + i+ 1;
// i2---i3
// | |
// | |
// i0---i1
// this is really a corner vertex index, not triangle index
PxU32 mat0 = hf->getTriangleMaterialIndex((j*nbCols+i)*2);
PxU32 mat1 = hf->getTriangleMaterialIndex((j*nbCols+i)*2+1);
bool hole0 = (mat0 == PxHeightFieldMaterial::eHOLE);
bool hole1 = (mat1 == PxHeightFieldMaterial::eHOLE);
// first triangle
indices[6 * (i * (nbRows - 1) + j) + 0] = hole0 ? i0 : i2; // duplicate i0 to make a hole
indices[6 * (i * (nbRows - 1) + j) + 1] = i0;
indices[6 * (i * (nbRows - 1) + j) + 2] = tessFlag ? i3 : i1;
// second triangle
indices[6 * (i * (nbRows - 1) + j) + 3] = hole1 ? i1 : i3; // duplicate i1 to make a hole
indices[6 * (i * (nbRows - 1) + j) + 4] = tessFlag ? i0 : i2;
indices[6 * (i * (nbRows - 1) + j) + 5] = i1;
}
}
PxU16* indices_16bit = (PxU16*)SAMPLE_ALLOC(sizeof(PxU16) * nbFaces * 3);
for(PxU32 i=0; i< nbFaces; i++)
{
indices_16bit[i*3+0] = indices[i*3+0];
indices_16bit[i*3+1] = indices[i*3+2];
indices_16bit[i*3+2] = indices[i*3+1];
}
shapeRenderActor = SAMPLE_NEW(RenderMeshActor)(renderer, vertexes, nbVerts, NULL, NULL, indices_16bit, NULL, nbFaces);
SAMPLE_FREE(indices_16bit);
SAMPLE_FREE(indices);
DELETEARRAY(sampleBuffer);
DELETEARRAY(vertexes);
if (!material)
material = mManagedMaterials[MATERIAL_FLAT];
}
break;
default: {}
};
if(shapeRenderActor)
{
link(shapeRenderActor, shape, actor);
mRenderActors.push_back(shapeRenderActor);
shapeRenderActor->setRenderMaterial(material);
shapeRenderActor->setEnableCameraCull(true);
}
return shapeRenderActor;
}
void PhysXSample::updateRenderObjectsFromRigidActor(PxRigidActor& actor, RenderMaterial* mat)
{
PxU32 nbShapes = actor.getNbShapes();
if(nbShapes > 0)
{
const PxU32 nbShapesOnStack = 8;
PxShape* shapesOnStack[nbShapesOnStack], **shapes = &shapesOnStack[0];
if(nbShapes > nbShapesOnStack)
shapes = new PxShape*[nbShapes];
actor.getShapes(shapes, nbShapes);
for(PxU32 i = 0; i < nbShapes; ++i)
{
RenderBaseActor* renderActor = getRenderActor(&actor, shapes[i]);
if(renderActor != NULL)
{
renderActor->mActive = true;
if (mat != NULL)
renderActor->setRenderMaterial(mat);
}
else
createRenderObjectFromShape(&actor, shapes[i], mat);
}
if(nbShapes > nbShapesOnStack)
delete[] shapes;
}
}
void PhysXSample::createRenderObjectsFromScene()
{
PxScene& scene = getActiveScene();
PxActorTypeFlags types = PxActorTypeFlag::eRIGID_STATIC | PxActorTypeFlag::eRIGID_DYNAMIC;
PxU32 nbActors = scene.getNbActors(types);
if(nbActors)
{
PxActor** actors = new PxActor* [nbActors];
scene.getActors(types, actors, nbActors);
for(PxU32 i = 0; i < nbActors; ++i)
{
switch (actors[i]->getType())
{
case PxActorType::eRIGID_STATIC:
case PxActorType::eRIGID_DYNAMIC:
updateRenderObjectsFromRigidActor(*reinterpret_cast<PxRigidActor*>(actors[i]));
break;
default:
break;
}
}
delete[] actors;
}
PxU32 nbArticulations = scene.getNbArticulations();
if(nbArticulations > 0)
{
PxArticulationBase** articulations = new PxArticulationBase* [nbArticulations];
scene.getArticulations(articulations, nbArticulations);
for(PxU32 i=0; i < nbArticulations; i++)
{
updateRenderObjectsFromArticulation(*articulations[i]);
}
delete[] articulations;
}
}
void PhysXSample::updateRenderObjectsFromArticulation(PxArticulationBase& articulation)
{
SampleInlineArray<PxArticulationLink*,20> links;
links.resize(articulation.getNbLinks());
articulation.getLinks(links.begin(), links.size());
for(PxU32 i=0; i < links.size(); i++)
{
updateRenderObjectsFromRigidActor(*links[i]);
}
}
void PhysXSample::createRenderObjectsFromActor(PxRigidActor* rigidActor, RenderMaterial* material)
{
PX_ASSERT(rigidActor);
PxU32 nbShapes = rigidActor->getNbShapes();
if(!nbShapes)
return;
PxShape** shapes = (PxShape**)SAMPLE_ALLOC(sizeof(PxShape*)*nbShapes);
PxU32 nb = rigidActor->getShapes(shapes, nbShapes);
PX_ASSERT(nb==nbShapes);
PX_UNUSED(nb);
for(PxU32 i=0;i<nbShapes;i++)
{
createRenderObjectFromShape(rigidActor, shapes[i], material);
}
SAMPLE_FREE(shapes);
}
void PhysXSample::updateRenderObjectsDebug(float dtime)
{
RenderPhysX3Debug* debugRenderer = getDebugRenderer();
if(debugRenderer && mScene)
{
for(PxU32 i = 0; i < mRenderActors.size(); ++i)
{
if (mRenderActors[i]->getEnableDebugRender())
mRenderActors[i]->drawDebug(debugRenderer);
}
getCamera().drawDebug(debugRenderer);
#ifdef VISUALIZE_PICKING_RAYS
if(mPicking)
{
const std::vector<Picking::Ray>& rays = mPicking->getRays();
PxU32 nbRays = rays.size();
const RendererColor color(255, 0, 0);
for(PxU32 i=0;i<nbRays;i++)
{
debugRenderer->addLine(rays[i].origin, rays[i].origin + rays[i].dir * 1000.0f, color);
}
}
#endif
#ifdef VISUALIZE_PICKING_TRIANGLES
if(mPicking && mPicking->pickedTriangleIsValid())
{
PxTriangle touchedTri = mPicking->getPickedTriangle();
RendererColor color(255, 255, 255);
debugRenderer->addLine(touchedTri.verts[0], touchedTri.verts[1], color);
debugRenderer->addLine(touchedTri.verts[1], touchedTri.verts[2], color);
debugRenderer->addLine(touchedTri.verts[2], touchedTri.verts[0], color);
for(PxU32 i=0;i<3;i++)
{
if(mPicking->pickedTriangleAdjacentIsValid(i))
{
touchedTri = mPicking->getPickedTriangleAdjacent(i);
if(i==0)
color = RendererColor(255, 0, 0);
else if(i==1)
color = RendererColor(0, 255, 0);
else if(i==2)
color = RendererColor(0, 0, 255);
debugRenderer->addLine(touchedTri.verts[0], touchedTri.verts[1], color);
debugRenderer->addLine(touchedTri.verts[1], touchedTri.verts[2], color);
debugRenderer->addLine(touchedTri.verts[2], touchedTri.verts[0], color);
}
}
}
#endif
}
}
void PhysXSample::initRenderObjects()
{
PxSceneWriteLock scopedLock(*mScene);
for (PxU32 i = 0; i < mRenderActors.size(); ++i)
{
mRenderActors[i]->update(0.0f);
}
}
void PhysXSample::updateRenderObjectsSync(float dtime)
{
PxSceneWriteLock scopedLock(*mScene);
}
void PhysXSample::updateRenderObjectsAsync(float dtime)
{
PX_PROFILE_ZONE("updateRenderObjectsAsync", 0);
if(mActiveTransformCount)
{
PxSceneWriteLock scopedLock(*mScene);
PxU32 nbActiveTransforms = mActiveTransformCount;
PxActor** currentActor = mBufferedActiveActors;
while(nbActiveTransforms--)
{
PxActor* actor = *currentActor++;
// Check that actor is not a deleted actor
bool isDeleted = false;
for (PxU32 i=0; i < mDeletedActors.size(); i++)
{
if (mDeletedActors[i] == actor)
{
isDeleted = true;
break;
}
}
if (isDeleted) continue;
const PxType actorType = actor->getConcreteType();
if(actorType==PxConcreteType::eRIGID_DYNAMIC || actorType==PxConcreteType::eRIGID_STATIC
|| actorType == PxConcreteType::eARTICULATION_LINK || actorType == PxConcreteType::eARTICULATION_JOINT)
{
PxRigidActor* rigidActor = static_cast<PxRigidActor*>(actor);
PxU32 nbShapes = rigidActor->getNbShapes();
for(PxU32 i=0;i<nbShapes;i++)
{
PxShape* shape;
PxU32 n = rigidActor->getShapes(&shape, 1, i);
PX_ASSERT(n==1);
PX_UNUSED(n);
RenderBaseActor* renderActor = getRenderActor(rigidActor, shape);
if (NULL != renderActor)
renderActor->update(dtime);
}
}
}
mActiveTransformCount = 0;
mDeletedActors.clear();
}
}
void PhysXSample::bufferActiveTransforms()
{
PxSceneReadLock scopedLock(*mScene);
// buffer active transforms to perform render object update parallel to simulation
PxActor** activeTransforms = mScene->getActiveActors(mActiveTransformCount);
if(mActiveTransformCapacity < mActiveTransformCount)
{
SAMPLE_FREE(mBufferedActiveActors);
mActiveTransformCapacity = (PxU32)(mActiveTransformCount * 1.5f);
mBufferedActiveActors = (PxActor**)SAMPLE_ALLOC(sizeof(PxActor*) * mActiveTransformCapacity);
}
if(mActiveTransformCount)
PxMemCopy(mBufferedActiveActors, activeTransforms, sizeof(PxActor*) * mActiveTransformCount);
}
///////////////////////////////////////////////////////////////////////////////
RenderMaterial* PhysXSample::createRenderMaterialFromTextureFile(const char* filename)
{
RenderMaterial* material = NULL;
if (!filename)
return NULL;
RAWTexture data;
data.mName = filename;
RenderTexture* texture = createRenderTextureFromRawTexture(data);
material = SAMPLE_NEW(RenderMaterial)(*getRenderer(), PxVec3(0.7f, 0.7f, 0.7f), 1.0f, true, MATERIAL_CLOTH, texture);
mRenderMaterials.push_back(material);
return material;
}
///////////////////////////////////////////////////////////////////////////////
PxRigidActor* PhysXSample::createGrid(RenderMaterial* material)
{
PxSceneWriteLock scopedLock(*mScene);
Renderer* renderer = getRenderer();
PX_ASSERT(renderer);
PxRigidStatic* plane = PxCreatePlane(*mPhysics, PxPlane(PxVec3(0,1,0), 0), *mMaterial);
if(!plane)
fatalError("create plane failed!");
mScene->addActor(*plane);
PxShape* shape;
plane->getShapes(&shape, 1);
RenderGridActor* actor = SAMPLE_NEW(RenderGridActor)(*renderer, 20, 10.0f);
link(actor, shape, plane);
actor->setTransform(PxTransform(PxIdentity));
mRenderActors.push_back(actor);
actor->setRenderMaterial(material);
return plane;
}
///////////////////////////////////////////////////////////////////////////////
void PhysXSample::spawnDebugObject()
{
PxSceneWriteLock scopedLock(*mScene);
PxU32 types = getDebugObjectTypes();
if (!types)
return;
//select legal type
while ((mDebugObjectType & types) == 0)
mDebugObjectType = (mDebugObjectType << 1) ? 0 : 1;
if ((mDebugObjectType & DEBUG_OBJECT_ALL) == 0)
return;
const PxVec3 pos = getCamera().getPos();
const PxVec3 vel = getCamera().getViewDir() * getDebugObjectsVelocity();
PxRigidDynamic* actor = NULL;
switch (mDebugObjectType)
{
case DEBUG_OBJECT_SPHERE:
actor = createSphere(pos, getDebugSphereObjectRadius(), &vel, mManagedMaterials[MATERIAL_GREEN], mDefaultDensity);
break;
case DEBUG_OBJECT_BOX:
actor = createBox(pos, getDebugBoxObjectExtents(), &vel, mManagedMaterials[MATERIAL_RED], mDefaultDensity);
break;
case DEBUG_OBJECT_CAPSULE:
actor = createCapsule(pos, getDebugCapsuleObjectRadius(), getDebugCapsuleObjectHalfHeight(), &vel, mManagedMaterials[MATERIAL_BLUE], mDefaultDensity);
break;
case DEBUG_OBJECT_CONVEX:
actor = createConvex(pos, &vel, mManagedMaterials[MATERIAL_YELLOW], mDefaultDensity);
break;
case DEBUG_OBJECT_COMPOUND:
actor = createTestCompound(pos, 320, 0.1f, 2.0f, &vel, NULL, mDefaultDensity, true);
break;
}
actor->setWakeCounter(1000000);
if (actor)
onDebugObjectCreation(actor);
//switch type
mDebugObjectType = mDebugObjectType << 1;
while ((mDebugObjectType & types) == 0)
mDebugObjectType = (mDebugObjectType << 1) ? 0 : 1;
}
///////////////////////////////////////////////////////////////////////////////
PxRigidDynamic* PhysXSample::createBox(const PxVec3& pos, const PxVec3& dims, const PxVec3* linVel, RenderMaterial* material, PxReal density)
{
PxSceneWriteLock scopedLock(*mScene);
PxRigidDynamic* box = PxCreateDynamic(*mPhysics, PxTransform(pos), PxBoxGeometry(dims), *mMaterial, density);
PX_ASSERT(box);
SetupDefaultRigidDynamic(*box);
mScene->addActor(*box);
addPhysicsActors(box);
if(linVel)
box->setLinearVelocity(*linVel);
createRenderObjectsFromActor(box, material);
return box;
}
///////////////////////////////////////////////////////////////////////////////
PxRigidDynamic* PhysXSample::createSphere(const PxVec3& pos, PxReal radius, const PxVec3* linVel, RenderMaterial* material, PxReal density)
{
PxSceneWriteLock scopedLock(*mScene);
PxRigidDynamic* sphere = PxCreateDynamic(*mPhysics, PxTransform(pos), PxSphereGeometry(radius), *mMaterial, density);
PX_ASSERT(sphere);
SetupDefaultRigidDynamic(*sphere);
mScene->addActor(*sphere);
addPhysicsActors(sphere);
if(linVel)
sphere->setLinearVelocity(*linVel);
createRenderObjectsFromActor(sphere, material);
return sphere;
}
///////////////////////////////////////////////////////////////////////////////
PxRigidDynamic* PhysXSample::createCapsule(const PxVec3& pos, PxReal radius, PxReal halfHeight, const PxVec3* linVel, RenderMaterial* material, PxReal density)
{
PxSceneWriteLock scopedLock(*mScene);
const PxQuat rot = PxQuat(PxIdentity);
PX_UNUSED(rot);
PxRigidDynamic* capsule = PxCreateDynamic(*mPhysics, PxTransform(pos), PxCapsuleGeometry(radius, halfHeight), *mMaterial, density);
PX_ASSERT(capsule);
SetupDefaultRigidDynamic(*capsule);
mScene->addActor(*capsule);
addPhysicsActors(capsule);
if(linVel)
capsule->setLinearVelocity(*linVel);
createRenderObjectsFromActor(capsule, material);
return capsule;
}
///////////////////////////////////////////////////////////////////////////////
PxRigidDynamic* PhysXSample::createConvex(const PxVec3& pos, const PxVec3* linVel, RenderMaterial* material, PxReal density)
{
PxSceneWriteLock scopedLock(*mScene);
PxConvexMesh* convexMesh = GenerateConvex(*mPhysics, *mCooking, getDebugConvexObjectScale(), false, true);
PX_ASSERT(convexMesh);
PxRigidDynamic* convex = PxCreateDynamic(*mPhysics, PxTransform(pos), PxConvexMeshGeometry(convexMesh), *mMaterial, density);
PX_ASSERT(convex);
SetupDefaultRigidDynamic(*convex);
mScene->addActor(*convex);
addPhysicsActors(convex);
if(linVel)
convex->setLinearVelocity(*linVel);
createRenderObjectsFromActor(convex, material);
return convex;
}
///////////////////////////////////////////////////////////////////////////////
PxRigidDynamic* PhysXSample::createCompound(const PxVec3& pos, const std::vector<PxTransform>& localPoses, const std::vector<const PxGeometry*>& geometries, const PxVec3* linVel, RenderMaterial* material, PxReal density)
{
PxSceneWriteLock scopedLock(*mScene);
PxRigidDynamic* compound = GenerateCompound(*mPhysics, mScene, mMaterial, pos, PxQuat(PxIdentity), localPoses, geometries, false, density);
addPhysicsActors(compound);
if(linVel)
compound->setLinearVelocity(*linVel);
createRenderObjectsFromActor(compound, material);
return compound;
}
PxRigidDynamic* PhysXSample::createTestCompound(const PxVec3& pos, PxU32 nbBoxes, float boxSize, float amplitude, const PxVec3* vel, RenderMaterial* material, PxReal density, bool makeSureVolumeEmpty)
{
PxSceneWriteLock scopedLock(*mScene);
if (makeSureVolumeEmpty)
{
// Kai: a little bigger than amplitude + boxSize * sqrt(3)
PxSphereGeometry geometry(amplitude + boxSize + boxSize);
PxTransform pose(pos);
PxOverlapBuffer buf;
getActiveScene().overlap(geometry, pose, buf,
PxQueryFilterData(PxQueryFlag::eANY_HIT|PxQueryFlag::eSTATIC|PxQueryFlag::eDYNAMIC));
if (buf.hasBlock) {
// shdfnd::printFormatted("desination volume is not empty!!!\n");
return NULL;
}
}
std::vector<PxTransform> localPoses;
std::vector<const PxGeometry*> geometries;
PxToolkit::BasicRandom rnd(42);
PxBoxGeometryAlloc* geoms = SAMPLE_NEW(PxBoxGeometryAlloc)[nbBoxes];
for(PxU32 i=0;i<nbBoxes;i++)
{
geoms[i].halfExtents = PxVec3(boxSize);
PxTransform localPose;
rnd.unitRandomPt(localPose.p);
localPose.p.normalize();
localPose.p *= amplitude;
rnd.unitRandomQuat(localPose.q);
localPoses.push_back(localPose);
geometries.push_back(&geoms[i]);
}
PxRigidDynamic* actor = createCompound(pos, localPoses, geometries, vel, material, density);
DELETEARRAY(geoms);
return actor;
}
///////////////////////////////////////////////////////////////////////////////
struct FindRenderActor
{
FindRenderActor(PxShape* pxShape): mPxShape(pxShape) {}
bool operator() (const RenderBaseActor* actor) { return actor->getPhysicsShape() == mPxShape; }
PxShape* mPxShape;
};
void PhysXSample::removeRenderObject(RenderBaseActor* renderActor)
{
std::vector<RenderBaseActor*>::iterator renderIter = std::find(mRenderActors.begin(), mRenderActors.end(), renderActor);
if(renderIter != mRenderActors.end())
{
// ######### PT: TODO: unlink call missing here!!!
mDeletedRenderActors.push_back((*renderIter));
mRenderActors.erase(renderIter);
}
}
//////////////////////////////////////////////////////////////////////////
void PhysXSample::removeRenderActorsFromPhysicsActor(const PxRigidActor* actor)
{
const PxU32 numShapes = actor->getNbShapes();
PxShape** shapes = (PxShape**)SAMPLE_ALLOC(sizeof(PxShape*)*numShapes);
actor->getShapes(shapes, numShapes);
for(PxU32 i = 0; i < numShapes; i++)
{
PxShape* shape = shapes[i];
FindRenderActor findRenderActor(shape);
std::vector<RenderBaseActor*>::iterator renderIter = std::find_if(mRenderActors.begin(), mRenderActors.end(), findRenderActor);
if(renderIter != mRenderActors.end())
{
unlink((*renderIter), shape, const_cast<PxRigidActor*>(actor));
mDeletedRenderActors.push_back((*renderIter));
mRenderActors.erase(renderIter);
}
}
// check if the actor is in the active transform list and remove
if(actor->getType() == PxActorType::eRIGID_DYNAMIC)
{
for(PxU32 i=0; i < mActiveTransformCount; i++)
{
if(mBufferedActiveActors[i] == actor)
{
mBufferedActiveActors[i] = mBufferedActiveActors[mActiveTransformCount-1];
mActiveTransformCount--;
break;
}
}
mDeletedActors.push_back(const_cast<PxRigidActor*>(actor));
}
SAMPLE_FREE(shapes);
}
//////////////////////////////////////////////////////////////////////////
void PhysXSample::removeActor(PxRigidActor* actor)
{
removeRenderActorsFromPhysicsActor(actor);
std::vector<PxRigidActor*>::iterator actorIter = std::find(mPhysicsActors.begin(), mPhysicsActors.end(), actor);
if(actorIter != mPhysicsActors.end())
{
mPhysicsActors.erase(actorIter);
actor->release();
}
}
///////////////////////////////////////////////////////////////////////////////
SampleFramework::SampleAsset* PhysXSample::getAsset(const char* relativePath, SampleFramework::SampleAsset::Type type, bool abortOnError)
{
SampleFramework::SampleAsset* asset = mApplication.getAssetManager()->getAsset(relativePath, type);
if (NULL == asset && abortOnError)
{
std::string msg = "Error while getting material asset ";
msg += relativePath;
msg += "\n";
fatalError(msg.c_str());
}
return asset;
}
void PhysXSample::importRAWFile(const char* relativePath, PxReal scale, bool recook)
{
mMeshTag = 0;
mFilename = relativePath;
mScale = scale;
const bool saved = gRecook;
if(!gRecook && recook)
gRecook = true;
bool status = loadRAWfile(getSampleMediaFilename(mFilename), *this, scale);
if (!status)
{
std::string msg = "Sample can not load file ";
msg += getSampleMediaFilename(mFilename);
msg += "\n";
fatalError(msg.c_str());
}
gRecook = saved;
}
Reference in New Issue View Git Blame Copy Permalink