VertexDeclarationParameters::VertexDeclarationParameters(const std::vector<VertexElement>& vertexElements)
{
for (uint32_t i = 0; i < vertexElements.size(); i++)
{
_elements.push_back (VertexElement(vertexElements[i]));
}
}
VertexDeclarationParameters::VertexDeclarationParameters (const VertexDeclarationParameters& in)
{
for (uint32_t i = 0; i < in._elements.size(); i++)
{
_elements.push_back (VertexElement(in._elements[i]));
}
};
//-----------------------------------------------------------------------------
void VertexDeclaration::modifyElement(unsigned short elem_index,
unsigned short source, size_t offset, VertexElementType theType,
VertexElementSemantic semantic, unsigned short index)
{
assert(elem_index < mElementList.size() && "Index out of bounds");
VertexElementList::iterator i = mElementList.begin();
std::advance(i, elem_index);
(*i) = VertexElement(source, offset, theType, semantic, index);
}
bool Init( int width, int height )
{
mSize = Point( width, height );
mDecl = new VertexDeclaration( );
mDecl->AddElement( VertexElement( 0, VDeclSemantic::POSITION, VDeclType::FLOAT3, 0 ) );
mDecl->AddElement( VertexElement( 0, VDeclSemantic::TEXCOORD, VDeclType::FLOAT2, 0 ) );
mDecl->AddElement( VertexElement( 0, VDeclSemantic::COLOUR, VDeclType::COLOUR, 0 ) );
mMat[0] = new Material( );
mMat[0]->mAlphaBlend = true;
mMat[0]->mAlphaTest = true;
mMat[0]->mDepthWrite = true;
mMat[0]->mDepthBuffer = false;
mMat[0]->AddTextureStage(
TextureStage(
0,
BlendMode( BlendOp::MODULATE, BlendArg::TEXTURE, BlendArg::DIFFUSE ),
BlendMode( BlendOp::SELECTARGUMENT1, BlendArg::TEXTURE )
)
);
mMat[1] = new Material( );
mMat[1]->mAlphaBlend = true;
mMat[1]->mAlphaTest = false;
mMat[1]->mDepthWrite = true;
mMat[1]->mDepthBuffer = false;
mMat[1]->AddTextureStage(
TextureStage(
0,
BlendMode( BlendOp::SELECTARGUMENT1, BlendArg::DIFFUSE ),
BlendMode( BlendOp::SELECTARGUMENT1, BlendArg::TEXTURE )
)
);
mDefaultFont = new Halia::Font( );
mDefaultFont->Init( "Tahoma", 16 );
return true;
};
void VertexDeclaration::add
(
VertexElementSemantic semantic,
VertexElementType type
)
{
if( hasSemantic(semantic) )
throw std::runtime_error("The vertex declaration have already the element with semantic \"" + VertexElementSemanticInfos::getInfos(semantic).name() + '"');
m_declaration.push_back( VertexElement(semantic, type, m_size) );
m_size += VertexElementTypeInfos::getInfos(type).size();
}
bool SkyLight::Create(Sys_GraphicsPtr pGraphics)
{
m_pMaterial = pGraphics->CreateMaterialFromFile("./assets/standard/material/dr_render_directional_light.fx");
VertexFormat vf;
vf.AddElement(VertexElement(0, VertexElement::POSITION, G_FORMAT_R32G32B32_FLOAT));
m_pMaterial->SetVertexFormat(vf);
if(m_pMaterial == MaterialPtr())
{
return false;
}
return true;
}
void RegisterVertexTypes()
{
VertexElement VDPosUV[] =
{
VertexElement(P3DVD_FLOAT3, P3DVU_POSITION),
VertexElement(P3DVD_FLOAT2, P3DVU_TEXCOORD),
P3DVE_END()
};
VertexElement VDPosUVCol[] =
{
VertexElement(P3DVD_FLOAT3, P3DVU_POSITION),
VertexElement(P3DVD_FLOAT2, P3DVU_TEXCOORD),
VertexElement(P3DVD_FLOAT4, P3DVU_COLOR),
P3DVE_END()
};
VertexElement VDPosUVNormal[] =
{
VertexElement(P3DVD_FLOAT3, P3DVU_POSITION),
VertexElement(P3DVD_FLOAT2, P3DVU_TEXCOORD),
VertexElement(P3DVD_FLOAT3, P3DVU_NORMAL),
P3DVE_END()
};
VertexElement VDStaticMesh[] =
{
VertexElement(P3DVD_FLOAT3, P3DVU_POSITION),
P3DVE_END()
};
CRenderer::cGraphicsManager()->RegisterVertexDesc(VDPosUVCol, Str( _W("VDPosUV") ));
CRenderer::cGraphicsManager()->RegisterVertexDesc(VDPosUVCol, Str( _W("VDPosUVCol") ));
CRenderer::cGraphicsManager()->RegisterVertexDesc(VDPosUVNormal, Str( _W("VDPosUVNormal") ));
// default vertex decls
CRenderer::cGraphicsManager()->RegisterVertexDesc(VDStaticMesh, Str( _W("VDStaticMesh") ));
}
bool PostEffect_SSAO::Initialize(RenderSystemPtr pRS)
{
m_pMaterial = pRS->CreateMaterialFromFile("./assets/standard/material/dr_render_ssao.fx");
VertexElement vf[] =
{
VertexElement(0, VertexElement::POSITION,G_FORMAT_R32G32B32_FLOAT),
};
VertexFormat format;
format.SetElement(vf, 1);
m_pMaterial->SetVertexFormat(format);
m_pSSAORandomTex = pRS->CreateTextureFromFile("./assets/standard/texture/ssao_rand.jpg");
m_pMaterial->SetTextureByName("tex_ssao_rand", m_pSSAORandomTex);
int w = pRS->GetFrameBufferWidth();
int h = pRS->GetFrameBufferHeight();
G_FORMAT rt_format[1] = {G_FORMAT_R8G8B8A8_UNORM,};
m_pGBlurTarget = pRS->CreateRenderTarget(1, w , h , rt_format);
if(m_pGBlurTarget == nullptr)
{
return false;
}
m_pGBlurMaterial = pRS->CreateMaterialFromFile("./assets/standard/material/dr_render_BBlur.fx");
if(m_pGBlurMaterial == nullptr)
{
return false;
}
m_pGBlurMaterial->SetVertexFormat(format);
return true;
}
bool PostEffect_GaussianBlur::Initialize(RenderSystemPtr pRS)
{
m_pRS = pRS;
m_pMaterial = pRS->CreateMaterialFromFile("./assets/standard/material/dr_render_GBlur.fx");
if(m_pMaterial == nullptr)
{
return false;
}
VertexElement vf[] =
{
VertexElement(0, VertexElement::POSITION,G_FORMAT_R32G32B32_FLOAT),
};
VertexFormat format;
format.SetElement(vf, 1);
m_pMaterial->SetVertexFormat(format);
return true;
}
List<VertexElement> VertexDataDesc::createElements() const
{
UINT32 maxStreamIdx = getMaxStreamIdx();
UINT32 numStreams = maxStreamIdx + 1;
UINT32* streamOffsets = bs_newN<UINT32>(numStreams);
for (UINT32 i = 0; i < numStreams; i++)
streamOffsets[i] = 0;
List<VertexElement> declarationElements;
for (auto& vertElem : mVertexElements)
{
UINT32 streamIdx = vertElem.getStreamIdx();
declarationElements.push_back(VertexElement(streamIdx, streamOffsets[streamIdx], vertElem.getType(),
vertElem.getSemantic(), vertElem.getSemanticIdx(), vertElem.getInstanceStepRate()));
streamOffsets[streamIdx] += vertElem.getSize();
}
bs_deleteN(streamOffsets, numStreams);
return declarationElements;
}
HRESULT CLucid3DRenderer::AddMesh(GraphicsDevicePtr graphicsDevice, std::wstring& contentPath, IModelContentPtr pModelContent, MeshInfo meshInfo)
{
HRESULT hr = S_OK;
CStringW diffuseTextureName;
Lucid3DRenderBufferDesc renderDesc;
ModelContentBufferDescription vertexBuffer;
ModelContentBufferDescription indexBuffer;
ModelContentMaterialDescription material;
InputStreamPtr spStream;
TexturePtr tex;
std::string contentPathA = WideToAnsi(contentPath);
std::string diffuseTexturePath;
std::string specularTexturePath;
std::string normalTexturePath;
// Get vertex and index buffer descriptions for target mesh
hr = pModelContent->GetVertexBuffer(meshInfo.vertexBufferId, vertexBuffer);
GOTO_EXIT_IF_FAILED_MESSAGE(hr, "Failed to get vertex buffer");
hr = pModelContent->GetIndexBuffer(meshInfo.indexBufferId, indexBuffer);
GOTO_EXIT_IF_FAILED_MESSAGE(hr, "Failed to get index buffer");
hr = pModelContent->GetMaterial(meshInfo.materialId, material);
GOTO_EXIT_IF_FAILED_MESSAGE(hr, "Failed to get material");
VertexElement elements[] =
{
VertexElement(0, VertexChannelType::Float3, VertexChannelSemantic::Position, false),
VertexElement(0, VertexChannelType::Float3, VertexChannelSemantic::Normal, false),
VertexElement(0, VertexChannelType::Float3, VertexChannelSemantic::Tangent, false),
VertexElement(0, VertexChannelType::Float3, VertexChannelSemantic::BiTangent, false),
VertexElement(0, VertexChannelType::Float2, VertexChannelSemantic::TexCoord0, false),
};
hr = graphicsDevice->CreateVertexBuffer((uint)vertexBuffer.stride, vertexBuffer.numElements, elements, _countof(elements), ResourceAccess::Read, ResourceAccess::Write, vertexBuffer.pBuffer.get()->ptr, &renderDesc.m_vertexBuffer);
GOTO_EXIT_IF_FAILED_MESSAGE(hr, "Failed to create vertex buffer");
hr = graphicsDevice->CreateIndexBuffer((uint)indexBuffer.stride, (uint)indexBuffer.numElements, D3D11_PRIMITIVE_TOPOLOGY_TRIANGLELIST, ResourceAccess::Read, ResourceAccess::Write, indexBuffer.pBuffer.get()->ptr, &renderDesc.m_indexBuffer);
GOTO_EXIT_IF_FAILED_MESSAGE(hr, "Failed to create index buffer");
hr = Renderer::CreateMaterial(std::to_string((uint64)meshInfo.materialId).c_str(), &renderDesc.m_material);
GOTO_EXIT_IF_FAILED_MESSAGE(hr, "Failed to create the material");
diffuseTexturePath = (contentPathA + material.info.diffuse + ".tc").c_str();
hr = IO::ReadExistingFile(diffuseTexturePath.c_str(), &spStream);
if (FAILED(hr))
{
DEBUG_PRINT("Failed to load diffuse texture file '%s', hr = 0x%lx",diffuseTexturePath.c_str(), hr);
goto Exit;
}
hr = Graphics::CreateTextureFromStream(graphicsDevice, spStream, false, ResourceAccess::Read, ResourceAccess::None, &tex);
if (FAILED(hr))
{
DEBUG_PRINT("Failed to create texture from diffuse texture file '%s', hr = 0x%lx",diffuseTexturePath.c_str(), hr);
goto Exit;
}
renderDesc.m_material->SetTexture(TextureUsage::Diffuse, tex);
if (material.info.normal.size() != 0)
{
normalTexturePath = (contentPathA + material.info.normal + ".tc").c_str();
hr = IO::ReadExistingFile(normalTexturePath.c_str(), &spStream);
if (FAILED(hr))
{
DEBUG_PRINT("Failed to load normal texture file '%s', hr = 0x%lx",normalTexturePath.c_str(), hr);
goto Exit;
}
hr = Graphics::CreateTextureFromStream(graphicsDevice, spStream, false, ResourceAccess::Read, ResourceAccess::None, &tex);
if (FAILED(hr))
{
DEBUG_PRINT("Failed to create texture from normal texture file '%s', hr = 0x%lx",normalTexturePath.c_str(), hr);
goto Exit;
}
renderDesc.m_material->SetTexture(TextureUsage::Normal, tex);
}
renderDesc.m_material->SetSpecularPower(120.0f);
// Add the buffers to the render collection
m_buffers.push_back(renderDesc);
Exit:
return hr;
}
namespace FE
{
const VertexElement MeshVertex::Elements[3] =
{
VertexElement("vPosition", 0, 0, VertexElement::Format_Float3),
VertexElement("vNormal", 1, 12, VertexElement::Format_Float3),
VertexElement("vTexCoord", 2, 24, VertexElement::Format_Float2)
};
SubMesh::SubMesh(const String &name)
: Renderable(name),
mMaterial(NULL),
mRenderData(NULL)
{
}
SubMesh::~SubMesh()
{
SafeDelete(mRenderData);
mVertices.clear();
mIndices.clear();
}
void SubMesh::AddVertex(const MeshVertex & vertex)
{
mVertices.push_back(vertex);
}
void SubMesh::AddVertices(MeshVertex * vertices, unsigned int numVertices)
{
for (unsigned int i = 0; i < numVertices; i++)
mVertices.push_back(vertices[i]);
}
void SubMesh::AddIndex(short index)
{
mIndices.push_back(index);
}
void SubMesh::AddIndices(short * indices, unsigned int numIndices)
{
for (unsigned int i = 0; i < numIndices; i++)
mIndices.push_back(indices[i]);
}
void SubMesh::SetMaterial(Material * mat)
{
mMaterial = mat;
}
bool SubMesh::Compile(GraphicsDevice *graphicsDevice)
{
if (mVertices.size() == 0)
return true;
SafeDelete(mRenderData);
VertexFormat *format = graphicsDevice->CreateVertexFormat(MeshVertex::Elements, 3);
if (!format)
{
LogError("Unable to create vertex format for sub mesh: %s", mName.c_str());
return false;
}
mRenderData = graphicsDevice->CreateRenderData();
if (!mRenderData)
{
LogError("Unable to create render data for sub mesh: %s", mName.c_str());
return false;
}
mRenderData->SetVertexFormat(format);
int vbId = -1;
if (!mRenderData->AddVertexBuffer(BufferUsage_Static, mVertices.size(),
mVertices.data(), &vbId))
{
LogError("Unable to add vertex buffer for sub mesh: %s", mName.c_str());
return false;
}
if (mIndices.size() > 0)
{
int ibId = 0;
if (!mRenderData->AddIndexBuffer(BufferUsage_Static, sizeof(short),
mIndices.size(), mIndices.data(), &ibId))
{
LogError("Unable to add vertex buffer for sub mesh: %s", mName.c_str());
return false;
}
mRenderData->SetCurrentIB(ibId);
}
mRenderData->SetPrimitiveType(PrimitiveType_TriangleList);
mRenderData->SetCurrentVB(vbId);
mAxisAlignedBox.Min = 99999.0f;
mAxisAlignedBox.Max = -99999.0f;
for (unsigned int i = 0; i < mVertices.size(); i++)
mAxisAlignedBox.Include(mVertices[i].Position);
return true;
}
}
bool
ScreenOrientedQuad::initialize (const Ctr::Region2f& screenLocation, bool background)
{
setPrimitiveType (Ctr::TriangleStrip);
setPrimitiveCount (2);
setVertexCount (4);
_screenLocation = screenLocation;
uint32_t width = 1;
uint32_t height = 1;
//create vertex streams and vertex declaration information
std::vector<VertexElement> vertexElements;
vertexElements.push_back (VertexElement( 0, 0, FLOAT4, METHOD_DEFAULT, POSITION, 0));
vertexElements.push_back (VertexElement( 0, 16, FLOAT2, METHOD_DEFAULT, TEXCOORD, 0));
vertexElements.push_back (VertexElement(0xFF,0, UNUSED,0,0,0));
float lhx = _screenLocation.minExtent.x * width;
float lhy = _screenLocation.minExtent.y * height;
float screenWidth = _screenLocation.size().x * width;
float screenHeight = _screenLocation.size().y * height;
float z = 0;
float w = 1;
if (background)
{
z = 1;
w = 1;
}
Vector4f vpos[] = {Vector4f(lhx, lhy, z, w),
Vector4f(lhx, lhy + screenHeight, z, w),
Vector4f(lhx+screenWidth, lhy, z, w),
Vector4f(lhx+screenWidth, lhy + screenHeight, z, w) };
Vector2f tpos[] = {Vector2f(0, 1), Vector2f(0, 0),
Vector2f(1, 1), Vector2f(1, 0) };
if (IVertexDeclaration* vertexDeclaration =
Ctr::VertexDeclarationMgr::vertexDeclarationMgr()->createVertexDeclaration
(&VertexDeclarationParameters(vertexElements)))
{
setVertexDeclaration (vertexDeclaration);
_positionStream = new Ctr::VertexStream
(Ctr::POSITION, 0, 4, 4, (float*)vpos);
_texCoordStream = new Ctr::VertexStream
(Ctr::TEXCOORD, 0, 2, 4, (float*)tpos);
addStream (_positionStream);
addStream (_texCoordStream);
if (create())
{
return cache();
}
}
else
{
safedelete (vertexDeclaration);
return false;
}
return false;
}
bool Model::BeginLoad(Stream& source)
{
/// \todo Develop own format for Turso3D
if (source.ReadFileID() != "UMDL")
{
LOGERROR(source.Name() + " is not a valid model file");
return false;
}
vbDescs.Clear();
ibDescs.Clear();
geomDescs.Clear();
size_t numVertexBuffers = source.Read<unsigned>();
vbDescs.Resize(numVertexBuffers);
for (size_t i = 0; i < numVertexBuffers; ++i)
{
VertexBufferDesc& vbDesc = vbDescs[i];
vbDesc.numVertices = source.Read<unsigned>();
unsigned elementMask = source.Read<unsigned>();
source.Read<unsigned>(); // morphRangeStart
source.Read<unsigned>(); // morphRangeCount
size_t vertexSize = 0;
if (elementMask & 1)
{
vbDesc.vertexElements.Push(VertexElement(ELEM_VECTOR3, SEM_POSITION));
vertexSize += sizeof(Vector3);
}
if (elementMask & 2)
{
vbDesc.vertexElements.Push(VertexElement(ELEM_VECTOR3, SEM_NORMAL));
vertexSize += sizeof(Vector3);
}
if (elementMask & 4)
{
vbDesc.vertexElements.Push(VertexElement(ELEM_UBYTE4, SEM_COLOR));
vertexSize += 4;
}
if (elementMask & 8)
{
vbDesc.vertexElements.Push(VertexElement(ELEM_VECTOR2, SEM_TEXCOORD));
vertexSize += sizeof(Vector2);
}
if (elementMask & 16)
{
vbDesc.vertexElements.Push(VertexElement(ELEM_VECTOR2, SEM_TEXCOORD, 1));
vertexSize += sizeof(Vector2);
}
if (elementMask & 32)
{
vbDesc.vertexElements.Push(VertexElement(ELEM_VECTOR3, SEM_TEXCOORD));
vertexSize += sizeof(Vector3);
}
if (elementMask & 64)
{
vbDesc.vertexElements.Push(VertexElement(ELEM_VECTOR3, SEM_TEXCOORD, 1));
vertexSize += sizeof(Vector3);
}
if (elementMask & 128)
{
vbDesc.vertexElements.Push(VertexElement(ELEM_VECTOR4, SEM_TANGENT));
vertexSize += sizeof(Vector4);
}
if (elementMask & 256)
{
vbDesc.vertexElements.Push(VertexElement(ELEM_VECTOR4, SEM_BLENDWEIGHT));
vertexSize += sizeof(Vector4);
}
if (elementMask & 512)
{
vbDesc.vertexElements.Push(VertexElement(ELEM_UBYTE4, SEM_BLENDINDICES));
vertexSize += 4;
}
vbDesc.vertexData = new unsigned char[vbDesc.numVertices * vertexSize];
source.Read(&vbDesc.vertexData[0], vbDesc.numVertices * vertexSize);
}
size_t numIndexBuffers = source.Read<unsigned>();
ibDescs.Resize(numIndexBuffers);
for (size_t i = 0; i < numIndexBuffers; ++i)
{
IndexBufferDesc& ibDesc = ibDescs[i];
ibDesc.numIndices = source.Read<unsigned>();
ibDesc.indexSize = source.Read<unsigned>();
ibDesc.indexData = new unsigned char[ibDesc.numIndices * ibDesc.indexSize];
source.Read(&ibDesc.indexData[0], ibDesc.numIndices * ibDesc.indexSize);
}
size_t numGeometries = source.Read<unsigned>();
geomDescs.Resize(numGeometries);
boneMappings.Resize(numGeometries);
for (size_t i = 0; i < numGeometries; ++i)
{
// Read bone mappings
size_t boneMappingCount = source.Read<unsigned>();
boneMappings[i].Resize(boneMappingCount);
/// \todo Should read as a batch
for (size_t j = 0; j < boneMappingCount; ++j)
boneMappings[i][j] = source.Read<unsigned>();
size_t numLodLevels = source.Read<unsigned>();
geomDescs[i].Resize(numLodLevels);
for (size_t j = 0; j < numLodLevels; ++j)
{
GeometryDesc& geomDesc = geomDescs[i][j];
geomDesc.lodDistance = source.Read<float>();
source.Read<unsigned>(); // Primitive type
geomDesc.primitiveType = TRIANGLE_LIST; // Always assume triangle list for now
geomDesc.vbRef = source.Read<unsigned>();
geomDesc.ibRef = source.Read<unsigned>();
geomDesc.drawStart = source.Read<unsigned>();
geomDesc.drawCount = source.Read<unsigned>();
}
}
// Read (skip) morphs
size_t numMorphs = source.Read<unsigned>();
if (numMorphs)
{
LOGERROR("Models with vertex morphs are not supported for now");
return false;
}
// Read skeleton
size_t numBones = source.Read<unsigned>();
bones.Resize(numBones);
for (size_t i = 0; i < numBones; ++i)
{
Bone& bone = bones[i];
bone.name = source.Read<String>();
bone.parentIndex = source.Read<unsigned>();
bone.initialPosition = source.Read<Vector3>();
bone.initialRotation = source.Read<Quaternion>();
bone.initialScale = source.Read<Vector3>();
bone.offsetMatrix = source.Read<Matrix3x4>();
unsigned char boneCollisionType = source.Read<unsigned char>();
if (boneCollisionType & 1)
bone.radius = source.Read<float>();
if (boneCollisionType & 2)
bone.boundingBox = source.Read<BoundingBox>();
if (bone.parentIndex == i)
rootBoneIndex = i;
}
// Read bounding box
boundingBox = source.Read<BoundingBox>();
return true;
}
void Mesh::addVetexAttribute(unsigned int usage, unsigned int count)
{
_vertexFormat.push_back(VertexElement(usage, count));
}
namespace Urho3D
{
// The extern keyword is required when building Urho3D.dll for Windows platform
// The keyword is not required for other platforms but it does no harm, aside from warning from static analyzer
extern URHO3D_API const StringHash VSP_AMBIENTSTARTCOLOR("AmbientStartColor");
extern URHO3D_API const StringHash VSP_AMBIENTENDCOLOR("AmbientEndColor");
extern URHO3D_API const StringHash VSP_BILLBOARDROT("BillboardRot");
extern URHO3D_API const StringHash VSP_CAMERAPOS("CameraPos");
extern URHO3D_API const StringHash VSP_CLIPPLANE("ClipPlane");
extern URHO3D_API const StringHash VSP_NEARCLIP("NearClip");
extern URHO3D_API const StringHash VSP_FARCLIP("FarClip");
extern URHO3D_API const StringHash VSP_DEPTHMODE("DepthMode");
extern URHO3D_API const StringHash VSP_DELTATIME("DeltaTime");
extern URHO3D_API const StringHash VSP_ELAPSEDTIME("ElapsedTime");
extern URHO3D_API const StringHash VSP_FRUSTUMSIZE("FrustumSize");
extern URHO3D_API const StringHash VSP_GBUFFEROFFSETS("GBufferOffsets");
extern URHO3D_API const StringHash VSP_LIGHTDIR("LightDir");
extern URHO3D_API const StringHash VSP_LIGHTPOS("LightPos");
extern URHO3D_API const StringHash VSP_NORMALOFFSETSCALE("NormalOffsetScale");
extern URHO3D_API const StringHash VSP_MODEL("Model");
extern URHO3D_API const StringHash VSP_VIEW("View");
extern URHO3D_API const StringHash VSP_VIEWINV("ViewInv");
extern URHO3D_API const StringHash VSP_VIEWPROJ("ViewProj");
extern URHO3D_API const StringHash VSP_UOFFSET("UOffset");
extern URHO3D_API const StringHash VSP_VOFFSET("VOffset");
extern URHO3D_API const StringHash VSP_ZONE("Zone");
extern URHO3D_API const StringHash VSP_LIGHTMATRICES("LightMatrices");
extern URHO3D_API const StringHash VSP_SKINMATRICES("SkinMatrices");
extern URHO3D_API const StringHash VSP_VERTEXLIGHTS("VertexLights");
extern URHO3D_API const StringHash PSP_AMBIENTCOLOR("AmbientColor");
extern URHO3D_API const StringHash PSP_CAMERAPOS("CameraPosPS");
extern URHO3D_API const StringHash PSP_DELTATIME("DeltaTimePS");
extern URHO3D_API const StringHash PSP_DEPTHRECONSTRUCT("DepthReconstruct");
extern URHO3D_API const StringHash PSP_ELAPSEDTIME("ElapsedTimePS");
extern URHO3D_API const StringHash PSP_FOGCOLOR("FogColor");
extern URHO3D_API const StringHash PSP_FOGPARAMS("FogParams");
extern URHO3D_API const StringHash PSP_GBUFFERINVSIZE("GBufferInvSize");
extern URHO3D_API const StringHash PSP_LIGHTCOLOR("LightColor");
extern URHO3D_API const StringHash PSP_LIGHTDIR("LightDirPS");
extern URHO3D_API const StringHash PSP_LIGHTPOS("LightPosPS");
extern URHO3D_API const StringHash PSP_NORMALOFFSETSCALE("NormalOffsetScalePS");
extern URHO3D_API const StringHash PSP_MATDIFFCOLOR("MatDiffColor");
extern URHO3D_API const StringHash PSP_MATEMISSIVECOLOR("MatEmissiveColor");
extern URHO3D_API const StringHash PSP_MATENVMAPCOLOR("MatEnvMapColor");
extern URHO3D_API const StringHash PSP_MATSPECCOLOR("MatSpecColor");
extern URHO3D_API const StringHash PSP_NEARCLIP("NearClipPS");
extern URHO3D_API const StringHash PSP_FARCLIP("FarClipPS");
extern URHO3D_API const StringHash PSP_SHADOWCUBEADJUST("ShadowCubeAdjust");
extern URHO3D_API const StringHash PSP_SHADOWDEPTHFADE("ShadowDepthFade");
extern URHO3D_API const StringHash PSP_SHADOWINTENSITY("ShadowIntensity");
extern URHO3D_API const StringHash PSP_SHADOWMAPINVSIZE("ShadowMapInvSize");
extern URHO3D_API const StringHash PSP_SHADOWSPLITS("ShadowSplits");
extern URHO3D_API const StringHash PSP_LIGHTMATRICES("LightMatricesPS");
extern URHO3D_API const StringHash PSP_VSMSHADOWPARAMS("VSMShadowParams");
extern URHO3D_API const StringHash PSP_ROUGHNESS("Roughness");
extern URHO3D_API const StringHash PSP_METALLIC("Metallic");
extern URHO3D_API const StringHash PSP_LIGHTRAD("LightRad");
extern URHO3D_API const StringHash PSP_LIGHTLENGTH("LightLength");
extern URHO3D_API const StringHash PSP_ZONEMIN("ZoneMin");
extern URHO3D_API const StringHash PSP_ZONEMAX("ZoneMax");
extern URHO3D_API const Vector3 DOT_SCALE(1 / 3.0f, 1 / 3.0f, 1 / 3.0f);
extern URHO3D_API const VertexElement LEGACY_VERTEXELEMENTS[] =
{
VertexElement(TYPE_VECTOR3, SEM_POSITION, 0, false), // Position
VertexElement(TYPE_VECTOR3, SEM_NORMAL, 0, false), // Normal
VertexElement(TYPE_UBYTE4_NORM, SEM_COLOR, 0, false), // Color
VertexElement(TYPE_VECTOR2, SEM_TEXCOORD, 0, false), // Texcoord1
VertexElement(TYPE_VECTOR2, SEM_TEXCOORD, 1, false), // Texcoord2
VertexElement(TYPE_VECTOR3, SEM_TEXCOORD, 0, false), // Cubetexcoord1
VertexElement(TYPE_VECTOR3, SEM_TEXCOORD, 1, false), // Cubetexcoord2
VertexElement(TYPE_VECTOR4, SEM_TANGENT, 0, false), // Tangent
VertexElement(TYPE_VECTOR4, SEM_BLENDWEIGHTS, 0, false), // Blendweights
VertexElement(TYPE_UBYTE4, SEM_BLENDINDICES, 0, false), // Blendindices
VertexElement(TYPE_VECTOR4, SEM_TEXCOORD, 4, true), // Instancematrix1
VertexElement(TYPE_VECTOR4, SEM_TEXCOORD, 5, true), // Instancematrix2
VertexElement(TYPE_VECTOR4, SEM_TEXCOORD, 6, true), // Instancematrix3
VertexElement(TYPE_INT, SEM_OBJECTINDEX, 0, false) // Objectindex
};
extern URHO3D_API const unsigned ELEMENT_TYPESIZES[] =
{
sizeof(int),
sizeof(float),
2 * sizeof(float),
3 * sizeof(float),
4 * sizeof(float),
sizeof(unsigned),
sizeof(unsigned)
};
}
void CitySceneGenerator::generate(Scene* scene) {
auto renderer = scene->renderer();
auto material = std::make_shared<PhongMaterial>(renderer);
material->setShader(renderer->shaderManager()->getGlslProgram("phong"));
PhongMaterialData materialData = { glm::vec4(0.0f, 0.1f, 0.0f, 1.0f),
glm::vec4(0.8f, 0.3f, 0.1f, 1.0f), glm::vec4(0.3f, 0.3f, 0.3f, 1.0f), 5.0f };
material->properties()->setData(materialData);
material->properties()->flushData();
auto mesh = std::make_shared<Mesh>();
mesh->setPrimitiveType(PrimitiveType::TriangleList);
size_t buildingVerticesCount = sizeof(buildingVertices) / sizeof(*buildingVertices);
std::vector<char> vertices(reinterpret_cast<const char*>(buildingVertices),
reinterpret_cast<const char*>(buildingVertices) + sizeof(buildingVertices));
std::vector<VertexElement> layout = {
VertexElement(3, VertexElementType::Float),
VertexElement(3, VertexElementType::Float)
};
mesh->loadVertices(vertices, buildingVerticesCount, layout);
size_t buildingIndicesCount = sizeof(buildingIndices) / sizeof(*buildingIndices);
std::vector<uint32_t> indices(reinterpret_cast<const unsigned*>(buildingIndices),
reinterpret_cast<const unsigned*>(buildingIndices) + buildingIndicesCount);
mesh->loadIndices(indices);
size_t numBuildings = 1000;
float citySize = 500.0f;
float minBuildingSize = 10.0f;
float maxBuildingSize = 60.0f;
float minHeightToWidthRatio = 8.0f;
float maxHeightToWidthRatio = 16.0f;
std::uniform_real_distribution<float> angleDist(0.0f, 360.0f);
std::uniform_real_distribution<float> positionDist(-citySize, citySize);
std::uniform_real_distribution<float> canonicalDist;
std::vector<std::shared_ptr<BaseSceneObject>> buildings;
for (size_t i = 0; i < numBuildings; i++) {
auto building = std::make_shared<Building>(mesh, material);
// set random position
glm::mat4 model = glm::translate(glm::mat4(1.0f),
glm::vec3(positionDist(m_rng), positionDist(m_rng), 0.0f)
);
// rotate around z with random angle
model = glm::rotate(model, angleDist(m_rng), glm::vec3(0.0f, 0.0f, 1.0f));
glm::vec3 scale;
// multiplying uniform distribution will generate beta distribution
scale.x = canonicalDist(m_rng) * canonicalDist(m_rng) * canonicalDist(m_rng) * canonicalDist(m_rng)
* (maxBuildingSize - minBuildingSize) + minBuildingSize;
scale.y = scale.x;
scale.z = canonicalDist(m_rng) * canonicalDist(m_rng) * canonicalDist(m_rng) * scale.x
* (maxHeightToWidthRatio - minHeightToWidthRatio) + minHeightToWidthRatio;
model = glm::scale(model, scale);
building->setModelMatrix(model);
building->calculateBBox();
buildings.push_back(building);
}
scene->setStaticGeometry(std::move(buildings));
}
// Helper function for common constructor code-paths
void Obj::constructionHelper(const AssetLibrary &assetLibrary, const char *path, const char *fileName, int expectedVertexDataNum, int expectedFaceNum) {
// Save the path of the file that will be opened
objPath = std::string(path);
OMLOGI("Opening input stream for %s%s", path, fileName);
std::unique_ptr<std::istream> input = assetLibrary.getAssetStream(path, fileName);
OMLOGI("Initializing data vectors (expectedVertexDataNum:%d, expectedFaceNum:%d)", expectedVertexDataNum, expectedFaceNum);
// Initialize vectors with some meaningful default sizes
vs = std::vector<VertexElement>();
vs.reserve(expectedVertexDataNum);
vts = std::vector<VertexTextureElement>();
vts.reserve(expectedVertexDataNum);
vns = std::vector<VertexNormalElement>();
vns.reserve(expectedVertexDataNum);
fs = std::vector<FaceElement>();
fs.reserve(expectedFaceNum);
// We are holding the current material in this variable
// Can be updated by usemtl descriptors!
TextureDataHoldingMaterial currentMaterial;
// We are holding the name of the current object/group here. In case there is no group
// this can be safely the empty string.
std::string currentObjectGroupName;
// This holds the current pointer to the start of the faces in case of the material and/or
// object grouping...
int currentObjectMaterialFacesPointer = 0;
// We hold the pointer to the last of the faces for pointer arithmetics common to the
// various cases below
int currentLastFacesPointer = 0;
// Parse the given file line-by-line
OMLOGI("Reading obj data file line-by-line");
char line[DEFAULT_LINE_PARSE_LEN];
while(input->getline(line, DEFAULT_LINE_PARSE_LEN)) {
currentLastFacesPointer =( int)fs.size();;
if(VertexElement::isParsable(line)) {
// v
VertexElement v = VertexElement((const char*)line);
vs.push_back(v);
#ifdef DEBUG
OMLOGI(" - Added VertexElement: (%f, %f, %f)", v.x, v.y, v.z);
#endif
} else if(VertexTextureElement::isParsable(line)) {
// vt
vts.push_back(VertexTextureElement((const char*)line));
} else if(VertexNormalElement::isParsable(line)) {
// vn
vns.push_back(VertexNormalElement((const char*)line));
} else if(FaceElement::isParsable(line)) {
// TODO: implement N-gons here
// f
fs.push_back(FaceElement((const char*)line));
} else if(MtlLib::isParsable(line)) {
// mtllib
mtlLib = MtlLib(line, path, assetLibrary);
} else if(UseMtl::isParsable(line)) {
// usemtl
// End the collection of the currentObjectMaterialFaceGroup
extendObjectMaterialGroups(currentObjectGroupName,
currentMaterial,
currentObjectMaterialFacesPointer,
currentLastFacesPointer - currentObjectMaterialFacesPointer);
// Rem.: This copy is cheap as it does not contain texture data etc!
currentMaterial = mtlLib.getNonLoadedMaterialFor(UseMtl::fetchMtlName(line));
#ifdef DEBUG
OMLOGI(" - Using current-material: %s", currentMaterial.name);
#endif
// Set the current face start pointer to the current position
// so that the faces will be "collected" for the group
// BEWARE: This let us overindex the array if no faces are coming!!!
// We need to check this overindexint below!
currentObjectMaterialFacesPointer = (int)fs.size();
} else if(ObjectGroupElement::isParsable(line)) {
// o
// End the collection of the currentObjectMaterialFaceGroup
extendObjectMaterialGroups(currentObjectGroupName,
currentMaterial,
currentObjectMaterialFacesPointer,
currentLastFacesPointer - currentObjectMaterialFacesPointer);
currentObjectGroupName = ObjectGroupElement::getObjectGroupName(line);
#ifdef DEBUG
OMLOGI(" - Start of object group: %s", currentObjectGroupName);
#endif
// Set the current face start pointer to the current position
// so that the faces will be "collected" for the group
// BEWARE: This let us overindex the array if no faces are coming!!!
// We need to check this overindexint below!
currentObjectMaterialFacesPointer = (int)fs.size();
} else {
OMLOGW("Cannot parse line: %s", line);
}
}
// End the collection of the currentObjectMaterialFaceGroup by extending with the elements
// of the last obj/material group (and pointer update is necessary here too!)
currentLastFacesPointer = (int)fs.size();
extendObjectMaterialGroups(currentObjectGroupName,
currentMaterial,
currentObjectMaterialFacesPointer,
currentLastFacesPointer - currentObjectMaterialFacesPointer);
OMLOGI("Finished loading of Obj data.");
OMLOGI(" - Read vertices: %d", (int)vs.size());
OMLOGI(" - Read vertex-textures: %d", (int)vts.size());
OMLOGI(" - Read vertex-normals: %d", (int)vns.size());
OMLOGI(" - Read faces: %d", (int)fs.size());
OMLOGI(" - Read materials: %d", mtlLib.getMaterialCount());
OMLOGI(" - Read object/material groups: %d", (int)objectMaterialGroups.size());
}
void VertexDeclaration::AddElement(eVertexSemantic semantic, eVertexType type)
{
mElements.PushBack(VertexElement(semantic, type));
}
HRESULT CLucid3DRenderer::AddContent(GraphicsDevicePtr graphicsDevice, std::wstring& contentPath, ITextureContentPtr pTextureContent)
{
Clear();
HRESULT hr = S_OK;
std::string textureName;
std::wstring textureNameW;
Lucid3DRenderBufferDesc renderDesc;
InputStreamPtr spStream;
TexturePtr tex;
WCHAR szTempPath[MAX_PATH] = {0};
WCHAR szTempFile[MAX_PATH] = {0};
pTextureContent->GetTextureName(textureNameW);
textureName = WideToAnsi(textureNameW);
XMProjSpaceVertex vertices[] =
{
{ XMFLOAT2(-1, 1), XMFLOAT2(0, 0) },
{ XMFLOAT2(1, 1), XMFLOAT2(1, 0) },
{ XMFLOAT2(1, -1), XMFLOAT2(1, 1) },
{ XMFLOAT2(-1, -1), XMFLOAT2(0, 1) },
};
uint32 indices[] = { 0, 1, 2, 0, 2, 3 };
VertexElement layout[] =
{
VertexElement(0, VertexChannelType::Float2, VertexChannelSemantic::Position, false),
VertexElement(0, VertexChannelType::Float2, VertexChannelSemantic::TexCoord0, false),
};
hr = graphicsDevice->CreateVertexBuffer(sizeof(XMProjSpaceVertex), _countof(vertices), layout, _countof(layout), ResourceAccess::Read, ResourceAccess::None, vertices, &renderDesc.m_vertexBuffer);
GOTO_EXIT_IF_FAILED_MESSAGE(hr, "Failed to create vertex buffer");
hr = graphicsDevice->CreateIndexBuffer(sizeof(indices[0]), _countof(indices), D3D11_PRIMITIVE_TOPOLOGY_TRIANGLELIST, ResourceAccess::Read, ResourceAccess::None, indices, &renderDesc.m_indexBuffer);
GOTO_EXIT_IF_FAILED_MESSAGE(hr, "Failed to create index buffer");
hr = Renderer::CreateMaterial(textureName.c_str(), &renderDesc.m_material);
GOTO_EXIT_IF_FAILED_MESSAGE(hr, "Failed to create the material");
// HACK: HACK: Coop, I'm not familiar enough with this to do the 'right' way of loading the .tc
// so I'm hacking it up good :) you can fix this later if you want
GetTempPath(ARRAYSIZE(szTempPath), szTempPath);
GetTempFileName(szTempPath, L"", 0, szTempFile);
pTextureContent->SaveToFile(szTempFile);
hr = IO::ReadExistingFile(WideToAnsi(std::wstring(szTempFile)).c_str(), &spStream);
if (FAILED(hr))
{
DEBUG_PRINT("Failed to load diffuse texture file '%s', hr = 0x%lx",szTempFile, hr);
goto Exit;
}
hr = Graphics::CreateTextureFromStream(graphicsDevice, spStream, false, ResourceAccess::Read, ResourceAccess::None, &tex);
if (FAILED(hr))
{
DEBUG_PRINT("Failed to create texture from diffuse texture file '%s', hr = 0x%lx", szTempFile, hr);
goto Exit;
}
renderDesc.m_material->SetTexture(TextureUsage::Diffuse, tex);
// Add the buffers to the render collection
m_buffers.push_back(renderDesc);
Exit:
return hr;
}
HRESULT CLucid3DRenderer::AddContent(GraphicsDevicePtr graphicsDevice, std::wstring& contentPath, ISpriteFontContentPtr pSpriteFontContent)
{
Clear();
HRESULT hr = S_OK;
std::string spriteFontName;
std::wstring spriteFontNameW;
Lucid3DRenderBufferDesc renderDesc;
InputStreamPtr spStream;
TexturePtr tex;
BYTE* pData = nullptr;
DWORD cbData = 0;
pSpriteFontContent->GetSpriteFontName(spriteFontNameW);
spriteFontName = WideToAnsi(spriteFontNameW);
XMProjSpaceVertex vertices[] =
{
{ XMFLOAT2(-1, 1), XMFLOAT2(0, 0) },
{ XMFLOAT2(1, 1), XMFLOAT2(1, 0) },
{ XMFLOAT2(1, -1), XMFLOAT2(1, 1) },
{ XMFLOAT2(-1, -1), XMFLOAT2(0, 1) },
};
uint32 indices[] = { 0, 1, 2, 0, 2, 3 };
VertexElement layout[] =
{
VertexElement(0, VertexChannelType::Float2, VertexChannelSemantic::Position, false),
VertexElement(0, VertexChannelType::Float2, VertexChannelSemantic::TexCoord0, false),
};
hr = graphicsDevice->CreateVertexBuffer(sizeof(XMProjSpaceVertex), _countof(vertices), layout, _countof(layout), ResourceAccess::Read, ResourceAccess::None, vertices, &renderDesc.m_vertexBuffer);
GOTO_EXIT_IF_FAILED_MESSAGE(hr, "Failed to create vertex buffer");
hr = graphicsDevice->CreateIndexBuffer(sizeof(indices[0]), _countof(indices), D3D11_PRIMITIVE_TOPOLOGY_TRIANGLELIST, ResourceAccess::Read, ResourceAccess::None, indices, &renderDesc.m_indexBuffer);
GOTO_EXIT_IF_FAILED_MESSAGE(hr, "Failed to create index buffer");
hr = Renderer::CreateMaterial(spriteFontName.c_str(), &renderDesc.m_material);
GOTO_EXIT_IF_FAILED_MESSAGE(hr, "Failed to create the material");
// Get a stream to the DDS data stored in the spritefont content
hr = pSpriteFontContent->GetTextureData(&pData, &cbData);
GOTO_EXIT_IF_FAILED_MESSAGE(hr, "Failed to get texture data from spritefont content");
hr = IO::CreateInputStreamOnBuffer(pData, cbData, &spStream);
GOTO_EXIT_IF_FAILED_MESSAGE(hr, "Failed to get create lucid memory stream for texture data from spritefont content");
hr = Graphics::CreateTextureFromStream(graphicsDevice, spStream, false, ResourceAccess::Read, ResourceAccess::None, &tex);
if (FAILED(hr))
{
DEBUG_PRINT("Failed to create texture from spritefont texture data, hr = 0x%lx", hr);
goto Exit;
}
renderDesc.m_material->SetTexture(TextureUsage::Diffuse, tex);
// Add the buffers to the render collection
m_buffers.push_back(renderDesc);
Exit:
SAFE_DELETE_ARRAY(pData);
return hr;
}
bool DX9RenderSystem::Init( HWND hwnd, int width, int height, bool fullscreen, int msquality )
{
mSize.x = width;
mSize.y = height;
mD3d = Direct3DCreate9( D3D_SDK_VERSION );
D3DPRESENT_PARAMETERS pp = { 0 };
pp.SwapEffect = D3DSWAPEFFECT_DISCARD;
pp.EnableAutoDepthStencil = TRUE;
pp.AutoDepthStencilFormat = D3DFMT_D24X8;
pp.PresentationInterval = D3DPRESENT_INTERVAL_IMMEDIATE;
if( msquality >= 0 )
{
pp.MultiSampleType = D3DMULTISAMPLE_NONMASKABLE;
pp.MultiSampleQuality = msquality;
}
if( fullscreen )
{
pp.Windowed = false;
pp.BackBufferCount = 1;
pp.BackBufferWidth = width;
pp.BackBufferHeight = height;
pp.BackBufferFormat = D3DFMT_X8R8G8B8;
}
else
{
D3DDISPLAYMODE currentmode;
if( FAILED(mD3d->GetAdapterDisplayMode( D3DADAPTER_DEFAULT, ¤tmode )) )
return false;
// Set up windowed formatting
pp.Windowed = true;
pp.BackBufferCount = 1;
pp.BackBufferFormat = currentmode.Format;
}
UINT adapterid = D3DADAPTER_DEFAULT;
D3DDEVTYPE rendertype = D3DDEVTYPE_HAL;
int adaptercount = (int)mD3d->GetAdapterCount( );
for( int i = 0; i < adaptercount; i++ )
{
D3DADAPTER_IDENTIFIER9 info;
mD3d->GetAdapterIdentifier( i, 0, &info );
if( strstr( info.Description, "PerfHUD" ) )
{
adapterid = i;
rendertype = D3DDEVTYPE_REF;
printf( "PerfHUD found on adapter %d (%s)\n", i, info.Description );
}
}
if( FAILED(mD3d->CreateDevice( adapterid, rendertype, hwnd,
D3DCREATE_HARDWARE_VERTEXPROCESSING, &pp, &mDevice )) )
return false;
for( int i = 0; i < 8; i++ )
mDevice->SetSamplerState( i, D3DSAMP_MAGFILTER, D3DTEXF_ANISOTROPIC );
// Initialize 2d Rendering Stuff
m2dDecl = new VertexDeclaration( );
m2dDecl->AddElement( VertexElement( 0, VDeclSemantic::POSITION, VDeclType::FLOAT3, 0 ) );
m2dDecl->AddElement( VertexElement( 0, VDeclSemantic::TEXCOORD, VDeclType::FLOAT2, 0 ) );
m2dDecl->AddElement( VertexElement( 0, VDeclSemantic::COLOUR, VDeclType::COLOUR, 0 ) );
m2dMat = new Material( );
m2dMat->mAlphaBlend = true;
m2dMat->mAlphaTest = true;
m2dMat->mDepthWrite = true;
m2dMat->mDepthBuffer = false;
m2dMat->AddTextureStage(
TextureStage(
0,
BlendMode( BlendOp::SELECTARGUMENT1, BlendArg::TEXTURE, BlendArg::DIFFUSE ),
BlendMode( BlendOp::SELECTARGUMENT1, BlendArg::TEXTURE, BlendArg::DIFFUSE )
)
);
return true;
};
void SkyBox::load( const he::String& asset )
{
HE_ASSERT(m_Drawable == nullptr, "Skybox is loaded twice!");
m_Drawable = HENew(Drawable)();
m_Drawable->setLocalScale(vec3(1000000000)); // bounds must be huge
//////////////////////////////////////////////////////////////////////////
/// Load Model
//////////////////////////////////////////////////////////////////////////
ModelMesh* const cube(
ResourceFactory<gfx::ModelMesh>::getInstance()->get(ResourceFactory<gfx::ModelMesh>::getInstance()->create()));
cube->setName(he::String("skybox-") + asset);
he::PrimitiveList<vec3> vertices(8);
vertices.add(vec3(-1, 1, -1));
vertices.add(vec3( 1, 1, -1));
vertices.add(vec3(-1, -1, -1));
vertices.add(vec3( 1, -1, -1));
vertices.add(vec3(-1, 1, 1));
vertices.add(vec3( 1, 1, 1));
vertices.add(vec3(-1, -1, 1));
vertices.add(vec3( 1, -1, 1));
he::PrimitiveList<uint16> indices(36);
indices.add(0); indices.add(1); indices.add(2); //front
indices.add(1); indices.add(3); indices.add(2);
indices.add(5); indices.add(4); indices.add(7); //back
indices.add(4); indices.add(6); indices.add(7);
indices.add(4); indices.add(0); indices.add(6); //left
indices.add(0); indices.add(2); indices.add(6);
indices.add(1); indices.add(5); indices.add(3); //right
indices.add(5); indices.add(7); indices.add(3);
indices.add(4); indices.add(5); indices.add(0); //top
indices.add(5); indices.add(1); indices.add(0);
indices.add(3); indices.add(7); indices.add(2); //bottom
indices.add(7); indices.add(6); indices.add(2);
VertexLayout layout;
layout.addElement(VertexElement(eShaderAttribute_Position, eShaderAttributeType_Float, eShaderAttributeTypeComponents_3, 0));
cube->init(layout, MeshDrawMode_Triangles);
cube->setVertices(&vertices[0], static_cast<uint32>(vertices.size()), MeshUsage_Static, false);
cube->setIndices(&indices[0], static_cast<uint32>(indices.size()), IndexStride_UShort, MeshUsage_Static);
cube->setLoaded(eLoadResult_Success);
m_Drawable->setModelMesh(cube);
cube->release();
Material* const material(CONTENT->loadMaterial("engine/sky.material"));
m_Drawable->setMaterial(material);
material->release();
const int8 cubeMap(m_Drawable->getMaterial()->findParameter(HEFS::strcubeMap));
if (cubeMap >= 0)
{
const TextureCube* cube(CONTENT->asyncLoadTextureCube(asset));
m_Drawable->getMaterial()->getParameter(cubeMap).setTextureCube(cube);
cube->release();
}
}
