// Handle OnCreation events
//-----------------------------------------------------------------------------
void MySample::Create()
{
CPUTAssetLibrary *pAssetLibrary = CPUTAssetLibrary::GetAssetLibrary();
gLightDir.normalize();
// TODO: read from cmd line, using these as defaults
//pAssetLibrary->SetMediaDirectoryName( _L("Media"));
CPUTGuiControllerDX11 *pGUI = CPUTGetGuiController();
// create some controls
CPUTButton *pButton = NULL;
pGUI->CreateButton(_L("Fullscreen"), ID_FULLSCREEN_BUTTON, ID_MAIN_PANEL, &pButton);
pGUI->CreateDropdown( L"Rasterizer Technique: SCALAR", ID_RASTERIZE_TYPE, ID_MAIN_PANEL, &mpTypeDropDown);
mpTypeDropDown->AddSelectionItem( L"Rasterizer Technique: SSE" );
mpTypeDropDown->SetSelectedItem(mSOCType + 1);
wchar_t string[CPUT_MAX_STRING_LENGTH];
pGUI->CreateText( _L("Occluders \t"), ID_OCCLUDERS, ID_MAIN_PANEL, &mpOccludersText);
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("\tNumber of Models: \t%d"), mNumOccluders);
pGUI->CreateText(string, ID_NUM_OCCLUDERS, ID_MAIN_PANEL, &mpNumOccludersText);
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("\tDepth rasterized models: %d"), mNumOccludersR2DB);
pGUI->CreateText(string, ID_NUM_OCCLUDERS_RASTERIZED_TO_DB, ID_MAIN_PANEL, &mpOccludersR2DBText);
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("\tNumber of tris: \t\t%f"), mNumOccluderTris);
pGUI->CreateText(string, ID_NUM_OCCLUDER_TRIS, ID_MAIN_PANEL, &mpOccluderTrisText);
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("\tDepth rasterized tris: \t%f"), mNumOccluderRasterizedTris);
pGUI->CreateText(string, ID_NUM_OCCLUDER_RASTERIZED_TRIS, ID_MAIN_PANEL, &mpOccluderRasterizedTrisText);
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("\tDepth raterizer time: \t%f"), mRasterizeTime);
pGUI->CreateText(string, ID_RASTERIZE_TIME, ID_MAIN_PANEL, &mpRasterizeTimeText);
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("Occluder Size Threshold: %0.4f"), mOccluderSizeThreshold);
pGUI->CreateSlider(string, ID_OCCLUDER_SIZE, ID_MAIN_PANEL, &mpOccluderSizeSlider);
mpOccluderSizeSlider->SetScale(0, 5.0, 51);
mpOccluderSizeSlider->SetValue(mOccluderSizeThreshold);
mpOccluderSizeSlider->SetTickDrawing(false);
pGUI->CreateText(_L("Occludees \t"), ID_OCCLUDEES, ID_MAIN_PANEL, &mpOccludeesText);
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("\tNumber of Models: \t%d"), mNumOccludees);
pGUI->CreateText(string, ID_NUM_OCCLUDEES, ID_MAIN_PANEL, &mpNumOccludeesText);
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("\tModels culled: \t%d"), mNumCulled);
pGUI->CreateText(string, ID_NUM_CULLED, ID_MAIN_PANEL, &mpCulledText);
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("\tModels visible: \t%d"), mNumVisible);
pGUI->CreateText(string, ID_NUM_VISIBLE, ID_MAIN_PANEL, &mpVisibleText);
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("\tNumber of tris: \t%d"), (int)mNumOccludeeTris);
pGUI->CreateText(string, ID_NUM_OCCLUDEE_TRIS, ID_MAIN_PANEL, &mpOccludeeTrisText);
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("\tCulled Triangles: \t%d"), (int)mNumOccludeeCulledTris);
pGUI->CreateText(string, ID_NUM_OCCLUDEE_CULLED_TRIS, ID_MAIN_PANEL, &mpCulledTrisText);
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("\tVisible Triangles: \t%d"), (int)mNumOccludeeVisibleTris);
pGUI->CreateText(string, ID_NUM_OCCLUDEE_VISIBLE_TRIS, ID_MAIN_PANEL, &mpVisibleTrisText);
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("\tVisible Triangles: \t%0.2f ms"), mDepthTestTime);
pGUI->CreateText(string, ID_DEPTHTEST_TIME, ID_MAIN_PANEL, &mpDepthTestTimeText);
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("Occludee Size Threshold: %0.4f"), mOccludeeSizeThreshold);
pGUI->CreateSlider(string, ID_OCCLUDEE_SIZE, ID_MAIN_PANEL, &mpOccludeeSizeSlider);
mpOccludeeSizeSlider->SetScale(0, 0.1f, 41);
mpOccludeeSizeSlider->SetValue(mOccludeeSizeThreshold);
mpOccludeeSizeSlider->SetTickDrawing(false);
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("Total Cull time: %0.2f"), mTotalCullTime);
pGUI->CreateText(string, ID_TOTAL_CULL_TIME, ID_MAIN_PANEL, &mpTotalCullTimeText);
pGUI->CreateCheckbox(_L("Depth Test Culling"), ID_ENABLE_CULLING, ID_MAIN_PANEL, &mpCullingCheckBox);
pGUI->CreateCheckbox(_L("Frustum Culling"), ID_ENABLE_FCULLING, ID_MAIN_PANEL, &mpFCullingCheckBox);
pGUI->CreateCheckbox(_L("View Depth Buffer"), ID_DEPTH_BUFFER_VISIBLE, ID_MAIN_PANEL, &mpDBCheckBox);
pGUI->CreateCheckbox(_L("View Bounding Box"), ID_BOUNDING_BOX_VISIBLE, ID_MAIN_PANEL, &mpBBCheckBox);
pGUI->CreateCheckbox(_L("Multi Tasking"), ID_ENABLE_TASKS, ID_MAIN_PANEL, &mpTasksCheckBox);
pGUI->CreateCheckbox(_L("Vsync"), ID_VSYNC_ON_OFF, ID_MAIN_PANEL, &mpVsyncCheckBox);
pGUI->CreateCheckbox(_L("Pipeline"), ID_PIPELINE, ID_MAIN_PANEL, &mpPipelineCheckBox);
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("Number of draw calls: \t%d"), mNumDrawCalls);
pGUI->CreateText(string, ID_NUM_DRAW_CALLS, ID_MAIN_PANEL, &mpDrawCallsText),
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("Depth Test Tasks: \t\t%d"), mNumDepthTestTasks);
pGUI->CreateSlider(string, ID_DEPTH_TEST_TASKS, ID_MAIN_PANEL, &mpDepthTestTaskSlider);
mpDepthTestTaskSlider->SetScale(1, (float)NUM_DT_TASKS, 11);
mpDepthTestTaskSlider->SetValue((float)mNumDepthTestTasks);
mpDepthTestTaskSlider->SetTickDrawing(false);
mpAABB->SetDepthTestTasks(mNumDepthTestTasks);
//
// Create Static text
//
pGUI->CreateText( _L("F1 for Help"), ID_IGNORE_CONTROL_ID, ID_SECONDARY_PANEL);
pGUI->CreateText( _L("[Escape] to quit application"), ID_IGNORE_CONTROL_ID, ID_SECONDARY_PANEL);
pGUI->CreateText( _L("A,S,D,F - move camera position"), ID_IGNORE_CONTROL_ID, ID_SECONDARY_PANEL);
pGUI->CreateText( _L("Q - camera position up"), ID_IGNORE_CONTROL_ID, ID_SECONDARY_PANEL);
pGUI->CreateText( _L("E - camera position down"), ID_IGNORE_CONTROL_ID, ID_SECONDARY_PANEL);
pGUI->CreateText( _L("mouse + right click - camera look location"), ID_IGNORE_CONTROL_ID, ID_SECONDARY_PANEL);
pGUI->CreateText( _L("size thresholds : computed using screen space metris"), ID_IGNORE_CONTROL_ID, ID_SECONDARY_PANEL);
pGUI->SetActivePanel(ID_MAIN_PANEL);
pGUI->DrawFPS(true);
// Add our programatic (and global) material parameters
CPUTMaterial::mGlobalProperties.AddValue( _L("cbPerFrameValues"), _L("$cbPerFrameValues") );
CPUTMaterial::mGlobalProperties.AddValue( _L("cbPerModelValues"), _L("$cbPerModelValues") );
CPUTMaterial::mGlobalProperties.AddValue( _L("_Shadow"), _L("$shadow_depth") );
// Creating a render target to view the CPU rasterized depth buffer
mpCPUDepthBuf[0] = new char[SCREENW*SCREENH*4];
mpCPUDepthBuf[1] = new char[SCREENW*SCREENH*4];
mpGPUDepthBuf = new char[SCREENW*SCREENH*4];
CD3D11_TEXTURE2D_DESC cpuRenderTargetDescSSE
(
DXGI_FORMAT_R8G8B8A8_UNORM,
SCREENW * 2, // TODO: round up to full tile sizes
SCREENH / 2,
1, // Array Size
1, // MIP Levels
D3D11_BIND_SHADER_RESOURCE,
D3D11_USAGE_DEFAULT,
0
);
HRESULT hr;
hr = mpD3dDevice->CreateTexture2D(&cpuRenderTargetDescSSE, NULL, &mpCPURenderTargetSSE[0]);
ASSERT(SUCCEEDED(hr), _L("Failed creating render target."));
hr = mpD3dDevice->CreateTexture2D(&cpuRenderTargetDescSSE, NULL, &mpCPURenderTargetSSE[1]);
ASSERT(SUCCEEDED(hr), _L("Failed creating render target."));
hr = mpD3dDevice->CreateShaderResourceView(mpCPURenderTargetSSE[0], NULL, &mpCPUSRVSSE[0]);
ASSERT(SUCCEEDED(hr), _L("Failed creating shader resource view."));
hr = mpD3dDevice->CreateShaderResourceView(mpCPURenderTargetSSE[1], NULL, &mpCPUSRVSSE[1]);
ASSERT(SUCCEEDED(hr), _L("Failed creating shader resource view."));
// Corresponding texture object
CPUTTextureDX11 *pDummyTex0 = new CPUTTextureDX11;
pDummyTex0->SetTextureAndShaderResourceView(mpCPURenderTargetSSE[0], mpCPUSRVSSE[0]);
pAssetLibrary->AddTexture( _L("$depthbuf_tex_SSE"), pDummyTex0 );
SAFE_RELEASE(pDummyTex0);
CPUTTextureDX11 *pDummyTex1 = new CPUTTextureDX11;
pDummyTex1->SetTextureAndShaderResourceView(mpCPURenderTargetSSE[1], mpCPUSRVSSE[1]);
pAssetLibrary->AddTexture( _L("$depthbuf_tex_SSE"), pDummyTex1 );
SAFE_RELEASE(pDummyTex1);
CD3D11_TEXTURE2D_DESC cpuRenderTargetDescScalar
(
DXGI_FORMAT_R8G8B8A8_UNORM,
SCREENW, // TODO: round up to full tile sizes
SCREENH,
1, // Array Size
1, // MIP Levels
D3D11_BIND_SHADER_RESOURCE,
D3D11_USAGE_DEFAULT,
0
);
hr = mpD3dDevice->CreateTexture2D(&cpuRenderTargetDescScalar, NULL, &mpCPURenderTargetScalar[0]);
ASSERT(SUCCEEDED(hr), _L("Failed creating render target."));
hr = mpD3dDevice->CreateTexture2D(&cpuRenderTargetDescScalar, NULL, &mpCPURenderTargetScalar[1]);
ASSERT(SUCCEEDED(hr), _L("Failed creating render target."));
hr = mpD3dDevice->CreateShaderResourceView(mpCPURenderTargetScalar[0], NULL, &mpCPUSRVScalar[0]);
ASSERT(SUCCEEDED(hr), _L("Failed creating shader resource view."));
hr = mpD3dDevice->CreateShaderResourceView(mpCPURenderTargetScalar[1], NULL, &mpCPUSRVScalar[1]);
ASSERT(SUCCEEDED(hr), _L("Failed creating shader resource view."));
// Corresponding texture object
CPUTTextureDX11 *pDummyTex2 = new CPUTTextureDX11;
pDummyTex2->SetTextureAndShaderResourceView(mpCPURenderTargetScalar[0], mpCPUSRVScalar[0]);
pAssetLibrary->AddTexture( _L("$depthbuf_tex_Scalar"), pDummyTex2 );
SAFE_RELEASE(pDummyTex2);
CPUTTextureDX11 *pDummyTex3 = new CPUTTextureDX11;
pDummyTex3->SetTextureAndShaderResourceView(mpCPURenderTargetScalar[1], mpCPUSRVScalar[1]);
pAssetLibrary->AddTexture( _L("$depthbuf_tex_Scalar"), pDummyTex3 );
SAFE_RELEASE(pDummyTex3);
// Create default shaders
CPUTPixelShaderDX11 *pPS = CPUTPixelShaderDX11::CreatePixelShaderFromMemory( _L("$DefaultShader"), CPUT_DX11::mpD3dDevice, _L("PSMain"), _L("ps_4_0"), gpDefaultShaderSource );
CPUTPixelShaderDX11 *pPSNoTex = CPUTPixelShaderDX11::CreatePixelShaderFromMemory( _L("$DefaultShaderNoTexture"), CPUT_DX11::mpD3dDevice, _L("PSMainNoTexture"), _L("ps_4_0"), gpDefaultShaderSource );
CPUTVertexShaderDX11 *pVS = CPUTVertexShaderDX11::CreateVertexShaderFromMemory( _L("$DefaultShader"), CPUT_DX11::mpD3dDevice, _L("VSMain"), _L("vs_4_0"), gpDefaultShaderSource );
CPUTVertexShaderDX11 *pVSNoTex = CPUTVertexShaderDX11::CreateVertexShaderFromMemory( _L("$DefaultShaderNoTexture"), CPUT_DX11::mpD3dDevice, _L("VSMainNoTexture"), _L("vs_4_0"), gpDefaultShaderSource );
// We just want to create them, which adds them to the library. We don't need them any more so release them, leaving refCount at 1 (only library owns a ref)
SAFE_RELEASE(pPS);
SAFE_RELEASE(pPSNoTex);
SAFE_RELEASE(pVS);
SAFE_RELEASE(pVSNoTex);
// load shadow casting material+sprite object
cString ExecutableDirectory;
CPUTOSServices::GetOSServices()->GetExecutableDirectory(&ExecutableDirectory);
pAssetLibrary->SetMediaDirectoryName( ExecutableDirectory+_L("..\\..\\Media\\"));
mpShadowRenderTarget = new CPUTRenderTargetDepth();
mpShadowRenderTarget->CreateRenderTarget( cString(_L("$shadow_depth")), SHADOW_WIDTH_HEIGHT, SHADOW_WIDTH_HEIGHT, DXGI_FORMAT_D32_FLOAT );
mpDebugSprite = new CPUTSprite();
mpDebugSprite->CreateSprite( -1.0f, -1.0f, 0.5f, 0.5f, _L("Sprite") );
int width, height;
CPUTOSServices::GetOSServices()->GetClientDimensions(&width, &height);
// Depth buffer visualization material
mpShowDepthBufMtrlScalar = (CPUTMaterialDX11*)CPUTAssetLibraryDX11::GetAssetLibrary()->GetMaterial( _L("showDepthBufScalar"));
mpShowDepthBufMtrlSSE = (CPUTMaterialDX11*)CPUTAssetLibraryDX11::GetAssetLibrary()->GetMaterial( _L("showDepthBufSSE"));
if(mSOCType == SCALAR_TYPE)
{
mpCPURenderTarget[0] = mpCPURenderTargetScalar[0];
mpCPURenderTarget[1] = mpCPURenderTargetScalar[1];
mpCPUSRV[0] = mpCPUSRVScalar[0];
mpCPUSRV[1] = mpCPUSRVScalar[1];
mpShowDepthBufMtrl = mpShowDepthBufMtrlScalar;
rowPitch = SCREENW * 4;
}
else
{
mpCPURenderTarget[0] = mpCPURenderTargetSSE[0];
mpCPURenderTarget[1] = mpCPURenderTargetSSE[1];
mpCPUSRV[0] = mpCPUSRVSSE[0];
mpCPUSRV[1] = mpCPUSRVSSE[1];
mpShowDepthBufMtrl = mpShowDepthBufMtrlSSE;
rowPitch = 2 * SCREENW * 4;
}
// Call ResizeWindow() because it creates some resources that our blur material needs (e.g., the back buffer)
ResizeWindow(width, height);
CPUTRenderStateBlockDX11 *pBlock = new CPUTRenderStateBlockDX11();
CPUTRenderStateDX11 *pStates = pBlock->GetState();
// Override default sampler desc for our default shadowing sampler
pStates->SamplerDesc[1].Filter = D3D11_FILTER_COMPARISON_MIN_MAG_LINEAR_MIP_POINT;
pStates->SamplerDesc[1].AddressU = D3D11_TEXTURE_ADDRESS_BORDER;
pStates->SamplerDesc[1].AddressV = D3D11_TEXTURE_ADDRESS_BORDER;
pStates->SamplerDesc[1].ComparisonFunc = D3D11_COMPARISON_GREATER;
pBlock->CreateNativeResources();
CPUTAssetLibrary::GetAssetLibrary()->AddRenderStateBlock( _L("$DefaultRenderStates"), pBlock );
pBlock->Release(); // We're done with it. The library owns it now.
//
// Load .set files to load the castle scene
//
pAssetLibrary->SetMediaDirectoryName(_L("..\\..\\Media\\Castle\\"));
#ifdef DEBUG
mpAssetSetDBR[0] = pAssetLibrary->GetAssetSet(_L("castleLargeOccluders"));
ASSERT(mpAssetSetDBR[0], _L("Failed loading castle."));
mpAssetSetDBR[1] = pAssetLibrary->GetAssetSet(_L("groundDebug"));
ASSERT(mpAssetSetDBR[1], _L("Failed loading ground."));
mpAssetSetAABB[0] = pAssetLibrary->GetAssetSet(_L("marketStallsDebug"));
ASSERT(mpAssetSetAABB, _L("Failed loading marketStalls"));
mpAssetSetAABB[1] = pAssetLibrary->GetAssetSet(_L("castleSmallDecorationsDebug"));
ASSERT(mpAssetSetAABB, _L("Failed loading castleSmallDecorations"));
#else
mpAssetSetDBR[0] = pAssetLibrary->GetAssetSet(_L("castleLargeOccluders"));
ASSERT(mpAssetSetDBR[0], _L("Failed loading castle."));
mpAssetSetDBR[1] = pAssetLibrary->GetAssetSet(_L("ground"));
ASSERT(mpAssetSetDBR[1], _L("Failed loading ground."));
mpAssetSetAABB[0] = pAssetLibrary->GetAssetSet(_L("marketStalls"));
ASSERT(mpAssetSetAABB, _L("Failed loading marketStalls"));
mpAssetSetAABB[1] = pAssetLibrary->GetAssetSet(_L("castleSmallDecorations"));
ASSERT(mpAssetSetAABB, _L("Failed loading castleSmallDecorations"));
#endif
mpAssetSetSky = pAssetLibrary->GetAssetSet(_L("sky"));
ASSERT(mpAssetSetSky, _L("Failed loading sky"));
// For every occluder model in the sene create a place holder
// for the CPU transformed vertices of the model.
mpDBR->CreateTransformedModels(mpAssetSetDBR, OCCLUDER_SETS);
// Get number of occluders in the scene
mNumOccluders = mpDBR->GetNumOccluders();
// Get number of occluder triangles in the scene
mNumOccluderTris = mpDBR->GetNumTriangles();
// For every occludee model in the scene create a place holder
// for the triangles that make up the model axis aligned bounding box
mpAssetSetAABB[2] = mpAssetSetDBR[0];
mpAssetSetAABB[3] = mpAssetSetDBR[1];
mpAABB->CreateTransformedAABBoxes(mpAssetSetAABB, OCCLUDEE_SETS);
// Get number of occludees in the scene
mNumOccludees = mpAABB->GetNumOccludees();
// Get number of occluddee triangles in the scene
mNumOccludeeTris = mpAABB->GetNumTriangles();
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("\tNumber of Models: \t%d"), mNumOccluders);
mpNumOccludersText->SetText(string);
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("\tNumber of tris: \t\t%d"), mNumOccluderTris);
mpOccluderTrisText->SetText(string);
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("\tNumber of Model: \t%d"), mNumOccludees);
mpNumOccludeesText->SetText(string);
swprintf_s(&string[0], CPUT_MAX_STRING_LENGTH, _L("\tNumber of tris: \t\t%d"), mNumOccludeeTris);
mpOccludeeTrisText->SetText(string);
CPUTCheckboxState state;
if(mEnableCulling)
{
state = CPUT_CHECKBOX_CHECKED;
}
else
{
state = CPUT_CHECKBOX_UNCHECKED;
}
mpCullingCheckBox->SetCheckboxState(state);
if(mEnableFCulling)
{
state = CPUT_CHECKBOX_CHECKED;
}
else
{
state = CPUT_CHECKBOX_UNCHECKED;
}
mpFCullingCheckBox->SetCheckboxState(state);
mpDBR->SetEnableFCulling(mEnableFCulling);
mpAABB->SetEnableFCulling(mEnableFCulling);
if(mViewDepthBuffer)
{
state = CPUT_CHECKBOX_CHECKED;
}
else
{
state = CPUT_CHECKBOX_UNCHECKED;
}
mpDBCheckBox->SetCheckboxState(state);
if(mEnableTasks)
{
state = CPUT_CHECKBOX_CHECKED;
}
else
{
state = CPUT_CHECKBOX_UNCHECKED;
}
mpTasksCheckBox->SetCheckboxState(state);
if(mSyncInterval)
{
state = CPUT_CHECKBOX_CHECKED;
}
else
{
state = CPUT_CHECKBOX_UNCHECKED;
}
mpVsyncCheckBox->SetCheckboxState(state);
if(mPipeline)
{
state = CPUT_CHECKBOX_CHECKED;
}
else
{
state = CPUT_CHECKBOX_UNCHECKED;
}
mpPipelineCheckBox->SetCheckboxState(state);
// Setting occluder size threshold in DepthBufferRasterizer
mpDBR->SetOccluderSizeThreshold(mOccluderSizeThreshold);
// Setting occludee size threshold in AABBoxRasterizer
mpAABB->SetOccludeeSizeThreshold(mOccludeeSizeThreshold);
//
// If no cameras were created from the model sets then create a default simple camera
// and add it to the camera array.
//
if( mpAssetSetDBR[0] && mpAssetSetDBR[0]->GetCameraCount() )
{
mpCamera = mpAssetSetDBR[0]->GetFirstCamera();
mpCamera->AddRef();
} else
{
mpCamera = new CPUTCamera();
CPUTAssetLibraryDX11::GetAssetLibrary()->AddCamera( _L("SampleStart Camera"), mpCamera );
mpCamera->SetPosition( 0.0f, 0.0f, 5.0f );
// Set the projection matrix for all of the cameras to match our window.
// TODO: this should really be a viewport matrix. Otherwise, all cameras will have the same FOV and aspect ratio, etc instead of just viewport dimensions.
mpCamera->SetAspectRatio(((float)width)/((float)height));
}
mpCamera->SetFov(XMConvertToRadians(60.0f)); // TODO: Fix converter's FOV bug (Maya generates cameras for which fbx reports garbage for fov)
mpCamera->SetFarPlaneDistance(gFarClipDistance);
mpCamera->SetPosition(27.0f, 2.0f, 47.0f);
mpCamera->LookAt(41.0f, 8.0f, -50.0f);
mpCamera->Update();
// Set up the shadow camera (a camera that sees what the light sees)
float3 lookAtPoint(0.0f, 0.0f, 0.0f);
float3 half(1.0f, 1.0f, 1.0f);
if( mpAssetSetDBR[0] )
{
mpAssetSetDBR[0]->GetBoundingBox( &lookAtPoint, &half );
}
float length = half.length();
mpShadowCamera = new CPUTCamera();
mpShadowCamera->SetFov(XMConvertToRadians(45));
mpShadowCamera->SetAspectRatio(1.0f);
float fov = mpShadowCamera->GetFov();
float tanHalfFov = tanf(fov * 0.5f);
float cameraDistance = length/tanHalfFov;
float nearDistance = cameraDistance * 0.1f;
mpShadowCamera->SetNearPlaneDistance(nearDistance);
mpShadowCamera->SetFarPlaneDistance(2.0f * cameraDistance);
CPUTAssetLibraryDX11::GetAssetLibrary()->AddCamera( _L("ShadowCamera"), mpShadowCamera );
float3 shadowCameraPosition = lookAtPoint - gLightDir * cameraDistance;
mpShadowCamera->SetPosition( shadowCameraPosition );
mpShadowCamera->LookAt( lookAtPoint.x, lookAtPoint.y, lookAtPoint.z );
mpShadowCamera->Update();
mpCameraController = new CPUTCameraControllerFPS();
mpCameraController->SetCamera(mpCamera);
mpCameraController->SetLookSpeed(0.004f);
mpCameraController->SetMoveSpeed(2.5f);
gLightDir = float3(-40.48f, -142.493f, -3.348f);
gLightDir = gLightDir.normalize();
QueryPerformanceFrequency(&glFrequency);
}
// Load the set file definition of this object
// 1. Parse the block of name/parent/transform info for model block
// 2. Load the model's binary payload (i.e., the meshes)
// 3. Assert the # of meshes matches # of materials
// 4. Load each mesh's material
//-----------------------------------------------------------------------------
CPUTResult CPUTModelOGL::LoadModel(CPUTConfigBlock *pBlock, int *pParentID, CPUTModel *pMasterModel, int numSystemMaterials, cString *pSystemMaterialNames)
{
CPUTResult result = CPUT_SUCCESS;
CPUTAssetLibraryOGL *pAssetLibrary = (CPUTAssetLibraryOGL*)CPUTAssetLibrary::GetAssetLibrary();
cString modelSuffix = ptoc(this);
// set the model's name
mName = pBlock->GetValueByName(_L("name"))->ValueAsString();
mName = mName + _L(".mdl");
// resolve the full path name
cString modelLocation;
cString resolvedPathAndFile;
modelLocation = ((CPUTAssetLibraryOGL*)CPUTAssetLibrary::GetAssetLibrary())->GetModelDirectoryName();
modelLocation = modelLocation+mName;
CPUTFileSystem::ResolveAbsolutePathAndFilename(modelLocation, &resolvedPathAndFile);
// Get the parent ID. Note: the caller will use this to set the parent.
*pParentID = pBlock->GetValueByName(_L("parent"))->ValueAsInt();
LoadParentMatrixFromParameterBlock( pBlock );
// Get the bounding box information
float3 center(0.0f), half(0.0f);
pBlock->GetValueByName(_L("BoundingBoxCenter"))->ValueAsFloatArray(center.f, 3);
pBlock->GetValueByName(_L("BoundingBoxHalf"))->ValueAsFloatArray(half.f, 3);
mBoundingBoxCenterObjectSpace = center;
mBoundingBoxHalfObjectSpace = half;
mMeshCount = pBlock->GetValueByName(_L("meshcount"))->ValueAsInt();
mpMesh = new CPUTMesh*[mMeshCount];
mpLayoutCount = new UINT[mMeshCount];
mpRootMaterial = new CPUTMaterial*[mMeshCount];
memset( mpRootMaterial, 0, mMeshCount * sizeof(CPUTMaterial*) );
mpMaterialEffect = new CPUTMaterialEffect**[mMeshCount];
memset( mpMaterialEffect, 0, mMeshCount * sizeof(CPUTMaterialEffect*) );
// get the material names, load them, and match them up with each mesh
cString materialName,shadowMaterialName;
char pNumber[4];
cString materialValueName;
CPUTModelOGL *pMasterModelDX = (CPUTModelOGL*)pMasterModel;
for(UINT ii=0; ii<mMeshCount; ii++)
{
if(pMasterModelDX)
{
// Reference the master model's mesh. Don't create a new one.
mpMesh[ii] = pMasterModelDX->mpMesh[ii];
mpMesh[ii]->AddRef();
}
else
{
mpMesh[ii] = new CPUTMeshOGL();
}
}
if( !pMasterModelDX )
{
// Not a clone/instance. So, load the model's binary payload (i.e., vertex and index buffers)
// TODO: Change to use GetModel()
result = LoadModelPayload(resolvedPathAndFile);
ASSERT( CPUTSUCCESS(result), _L("Failed loading model") );
}
for(UINT ii=0; ii<mMeshCount; ii++)
{
// get the right material number ('material0', 'material1', 'material2', etc)
materialValueName = _L("material");
snprintf(pNumber, 4, "%d", ii);
// _itoa(ii, pNumber, 4, 10);
materialValueName.append(s2ws(pNumber));
materialName = pBlock->GetValueByName(materialValueName)->ValueAsString();
shadowMaterialName = pBlock->GetValueByName(_L("shadowCast") + materialValueName)->ValueAsString();
bool isSkinned = pBlock->GetValueByName(_L("skeleton")) != &CPUTConfigEntry::sNullConfigValue;
if( shadowMaterialName.length() == 0 )
{
if(!isSkinned)
{
shadowMaterialName = _L("%shadowCast");
}
else
{
shadowMaterialName = _L("%shadowCastSkinned");
}
}
// Get/load material for this mesh
UINT totalNameCount = numSystemMaterials + NUM_GLOBAL_SYSTEM_MATERIALS;
cString *pFinalSystemNames = new cString[totalNameCount];
// Copy "global" system materials to caller-supplied list
for( int jj=0; jj<numSystemMaterials; jj++ )
{
pFinalSystemNames[jj] = pSystemMaterialNames[jj];
}
pFinalSystemNames[totalNameCount + CPUT_MATERIAL_INDEX_SHADOW_CAST] = shadowMaterialName;
// pFinalSystemNames[totalNameCount + CPUT_MATERIAL_INDEX_BOUNDING_BOX] = _L("%BoundingBox");
int finalNumSystemMaterials = numSystemMaterials + NUM_GLOBAL_SYSTEM_MATERIALS;
CPUTMaterial *pMaterial = pAssetLibrary->GetMaterial(materialName, false, this, ii, NULL, finalNumSystemMaterials, pFinalSystemNames);
ASSERT( pMaterial, _L("Couldn't find material.") );
delete []pFinalSystemNames;
mpLayoutCount[ii] = pMaterial->GetMaterialEffectCount();
SetMaterial(ii, pMaterial);
// Release the extra refcount we're holding from the GetMaterial operation earlier
// now the asset library, and this model have the only refcounts on that material
pMaterial->Release();
// Create two ID3D11InputLayout objects, one for each material.
// mpMesh[ii]->BindVertexShaderLayout( mpMaterial[ii], mpShadowCastMaterial);
// mpShadowCastMaterial->Release()
}
return result;
}
fixed
GlidePolar::GetVTakeoff() const
{
return half(GetVMin());
}
void Cowichan::main (int argc, char* argv[], bool use_randmat, bool use_thresh)
{
if ((argc == 1) || (strcmp (argv[1], CHAIN) == 0)) {
chain (use_randmat, use_thresh);
}
else {
INT64 start, end;
if (strcmp (argv[1], MANDEL) == 0) {
// set up
nr = MANDEL_NR;
nc = MANDEL_NC;
mandelX0 = MANDEL_X0;
mandelY0 = MANDEL_Y0;
mandelDx = MANDEL_DX;
mandelDy = MANDEL_DY;
// initialize
IntMatrix matrix = NULL;
try {
matrix = NEW_MATRIX_RECT(INT_TYPE);
}
catch (...) {out_of_memory();}
// execute
end = get_ticks ();
mandel (matrix);
timeInfo(&start, &end, MANDEL);
print_rect_matrix<INT_TYPE> (matrix);
// clean up
delete [] matrix;
}
else if (strcmp (argv[1], RANDMAT) == 0) {
// set up
nr = RANDMAT_NR;
nc = RANDMAT_NC;
seed = RAND_SEED;
// initialize
IntMatrix matrix = NULL;
try {
matrix = NEW_MATRIX_RECT(INT_TYPE);
}
catch (...) {out_of_memory();}
// execute
end = get_ticks ();
randmat (matrix);
timeInfo(&start, &end, RANDMAT);
print_rect_matrix<INT_TYPE> (matrix);
// clean up
delete [] matrix;
}
else if (strcmp (argv[1], HALF) == 0) {
// set up
nr = HALF_NR;
nc = HALF_NC;
srand(RAND_SEED);
// initialize
IntMatrix matrixIn = NULL;
IntMatrix matrixOut = NULL;
try {
matrixIn = NEW_MATRIX_RECT(INT_TYPE);
matrixOut = NEW_MATRIX_RECT(INT_TYPE);
}
catch (...) {out_of_memory();}
index_t r, c;
for (r = 0; r < nr; r++) {
for (c = 0; c < nc; c++) {
MATRIX_RECT(matrixIn, r, c) = rand () % RAND_M;
}
}
// execute
end = get_ticks ();
half (matrixIn, matrixOut);
timeInfo(&start, &end, HALF);
print_rect_matrix<INT_TYPE> (matrixOut);
// clean up
delete [] matrixIn;
delete [] matrixOut;
}
else if (strcmp (argv[1], INVPERC) == 0) {
// set up
nr = INVPERC_NR;
nc = INVPERC_NC;
invpercNFill = INVPERC_NFILL;
srand(RAND_SEED);
// initialize
IntMatrix matrix = NULL;
BoolMatrix mask = NULL;
try {
matrix = NEW_MATRIX_RECT(INT_TYPE);
mask = NEW_MATRIX_RECT(bool);
}
catch (...) {out_of_memory();}
index_t r, c;
for (r = 0; r < nr; r++) {
for (c = 0; c < nc; c++) {
MATRIX_RECT(matrix, r, c) = rand () % RAND_M;
MATRIX_RECT(mask, r, c) = false;
}
}
// execute
end = get_ticks ();
invperc (matrix, mask);
timeInfo(&start, &end, INVPERC);
print_bool_rect_matrix (mask);
// clean up
delete [] matrix;
delete [] mask;
}
else if (strcmp (argv[1], THRESH) == 0) {
int
main(
int argc, /* arg count */
char * argv[] /* arg vector */
){
static char * context = "main(chain)";
char * stem = NULL; /* dump filename stem */
char * suffix = NULL; /* dump filename suffix */
char * suff2 = NULL; /* last half of suffix */
int nr, nc; /* integer matrix sizes */
int n; /* square matrix/vector size */
real base_x, base_y; /* base of Mandelbrot */
real ext_x, ext_y; /* extent of Mandelbrot */
int limit, seed; /* randmat controls */
real fraction; /* invperc/thresh filling */
int itersLife; /* life iterations */
int itersElastic, relax; /* elastic controls */
int2D i2D; /* integer matrix */
bool2D b2D; /* boolean matrix */
pt1D cities; /* cities point vector */
int n_cities; /* number of cities */
pt1D net; /* net point vector */
int n_net; /* number of net points */
real2D r2D_gauss; /* real matrix for Gaussian */
real2D r2D_sor; /* real matrix for SOR */
real1D r1D_gauss_v; /* real vector input for Gaussian */
real1D r1D_sor_v; /* real vector input for SOR */
real1D r1D_gauss_a; /* real vector answer for Gaussian */
real1D r1D_sor_a; /* real vector answer for SOR */
real1D r1D_gauss_c; /* real vector check for Gaussian */
real1D r1D_sor_c; /* real vector check for SOR */
real tol; /* SOR tolerance */
real realDiff; /* vector difference */
bool choicesSet = FALSE; /* path choices set? */
bool doMandel = TRUE; /* mandel vs. randmat */
bool doInvperc = TRUE; /* invperc vs. thresholding */
bool doDump = FALSE; /* dump intermediate results? */
int argd = 1; /* argument index */
/* arguments */
#if NUMA
MAIN_INITENV(,32000000)
#endif
while (argd < argc){
CHECK(argv[argd][0] == '-',
fail(context, "bad argument", "index", "%d", argd, NULL));
switch(argv[argd][1]){
case 'E' : /* elastic */
itersElastic = arg_int(context, argc, argv, argd+1, argv[argd]);
relax = arg_int(context, argc, argv, argd+2, argv[argd]);
argd += 3;
break;
case 'F' : /* fraction (invperc/thresh) */
fraction = arg_real(context, argc, argv, argd+1, argv[argd]);
argd += 2;
break;
case 'L' : /* life */
itersLife = arg_int(context, argc, argv, argd+1, argv[argd]);
argd += 2;
break;
case 'M' : /* mandel */
base_x = arg_real(context, argc, argv, argd+1, argv[argd]);
base_y = arg_real(context, argc, argv, argd+2, argv[argd]);
ext_x = arg_real(context, argc, argv, argd+3, argv[argd]);
ext_y = arg_real(context, argc, argv, argd+4, argv[argd]);
argd += 5;
break;
case 'N' : /* winnow */
n_cities = arg_int(context, argc, argv, argd+1, argv[argd]);
argd += 2;
break;
case 'R' : /* randmat */
limit = arg_int(context, argc, argv, argd+1, argv[argd]);
seed = arg_int(context, argc, argv, argd+2, argv[argd]);
argd += 3;
break;
case 'S' : /* matrix size */
nr = arg_int(context, argc, argv, argd+1, argv[argd]);
nc = arg_int(context, argc, argv, argd+2, argv[argd]);
argd += 3;
break;
case 'T' : /* SOR tolerance */
tol = arg_real(context, argc, argv, argd+1, argv[argd]);
argd += 2;
break;
case 'c' : /* choice */
CHECK(!choicesSet,
fail(context, "choices already set", NULL));
suffix = arg_str(context, argc, argv, argd+1, argv[argd]);
argd += 2;
switch(suffix[0]){
case 'i' : doInvperc = TRUE; break;
case 't' : doInvperc = FALSE; break;
default :
fail(context, "unknown choice(s)", "choice", "%s", suffix, NULL);
}
switch(suffix[1]){
case 'm' : doMandel = TRUE; break;
case 'r' : doMandel = FALSE; break;
default :
fail(context, "unknown choice(s)", "choice", "%s", suffix, NULL);
}
suff2 = suffix+1;
choicesSet = TRUE;
break;
case 'd' : /* dump */
doDump = TRUE;
argd += 1;
if ((argd < argc) && (argv[argd][0] != '-')){
stem = arg_str(context, argc, argv, argd, argv[argd-1]);
argd += 1;
}
break;
#if GRAPHICS
case 'g' :
gfx_open(app_chain, arg_gfxCtrl(context, argc, argv, argd+1, argv[argd]));
argd += 2;
break;
#endif
#if MIMD
case 'p' :
DataDist = arg_dataDist(context, argc, argv, argd+1, argv[argd]);
ParWidth = arg_int(context, argc, argv, argd+2, argv[argd]);
argd += 3;
break;
#endif
case 'u' :
io_init(FALSE);
argd += 1;
break;
default :
fail(context, "unknown flag", "flag", "%s", argv[argd], NULL);
break;
}
}
CHECK(choicesSet,
fail("context", "choices not set using -c flag", NULL));
/* initialize */
#if MIMD
sch_init(DataDist);
#endif
/* mandel vs. randmat */
if (doMandel){
mandel(i2D, nr, nc, base_x, base_y, ext_x, ext_y);
if (doDump) io_wrInt2D(context, mkfname(stem, NULL, suff2, "i2"), i2D, nr, nc);
} else {
randmat(i2D, nr, nc, limit, seed);
if (doDump) io_wrInt2D(context, mkfname(stem, NULL, suff2, "i2"), i2D, nr, nc);
}
/* half */
half(i2D, nr, nc);
if (doDump) io_wrInt2D(context, mkfname(stem, "h", suff2, "i2"), i2D, nr, nc);
/* invperc vs. thresh */
if (doInvperc){
invperc(i2D, b2D, nr, nc, fraction);
if (doDump) io_wrBool2D(context, mkfname(stem, NULL, suffix, "b2"), b2D, nr, nc);
} else {
thresh(i2D, b2D, nr, nc, fraction);
if (doDump) io_wrBool2D(context, mkfname(stem, NULL, suffix, "b2"), b2D, nr, nc);
}
/* life */
life(b2D, nr, nc, itersLife);
if (doDump) io_wrBool2D(context, mkfname(stem, "l", suffix, "b2"), b2D, nr, nc);
/* winnow */
winnow(i2D, b2D, nr, nc, cities, n_cities);
if (doDump) io_wrPt1D(context, mkfname(stem, "w", suffix, "p1"), cities, n_cities);
/* norm */
norm(cities, n_cities);
if (doDump) io_wrPt1D(context, mkfname(stem, "n", suffix, "p1"), cities, n_cities);
/* elastic */
n_net = (int)(ELASTIC_RATIO * n_cities);
CHECK(n_net <= MAXEXT,
fail(context, "too many net points required",
"number of net points", "%d", n_net, NULL));
elastic(cities, n_cities, net, n_net, itersElastic, relax);
if (doDump) io_wrPt1D(context, mkfname(stem, "e", suffix, "p1"), net, n_net);
/* outer */
n = n_net;
outer(net, r2D_gauss, r1D_gauss_v, n);
if (doDump){
io_wrReal2D(context, mkfname(stem, "o", suffix, "r2"), r2D_gauss, n, n);
io_wrReal1D(context, mkfname(stem, "o", suffix, "r1"), r1D_gauss_v, n);
}
cpReal2D(r2D_gauss, r2D_sor, n, n);
cpReal1D(r1D_gauss_v, r1D_sor_v, n);
/* gauss */
gauss(r2D_gauss, r1D_gauss_v, r1D_gauss_a, n);
if (doDump) io_wrReal1D(context, mkfname(stem, "g", suffix, "r1"), r1D_gauss_a, n);
/* product (gauss) */
product(r2D_gauss, r1D_gauss_a, r1D_gauss_c, n, n);
if (doDump) io_wrReal1D(context, mkfname(stem, "pg", suffix, "r1"), r1D_gauss_c, n);
/* sor */
sor(r2D_sor, r1D_sor_v, r1D_sor_a, n, tol);
if (doDump) io_wrReal1D(context, mkfname(stem, "s", suffix, "r1"), r1D_gauss_a, n);
/* product (sor) */
product(r2D_sor, r1D_sor_a, r1D_sor_c, n, n);
if (doDump) io_wrReal1D(context, mkfname(stem, "ps", suffix, "r1"), r1D_gauss_c, n);
/* difference */
vecdiff(r1D_gauss_a, r1D_sor_a, n, &realDiff);
if (doDump) io_wrReal0D(context, mkfname(stem, "v", suffix, "r0"), realDiff);
#if IEEE
ieee_retrospective(stderr);
#endif
#if NUMA
MAIN_END;
#endif
return 0;
}
