bool CVertexBuffer::Cache(CDisplayDevice *poDisplayDevice) {
#if RENDER == DX9
IDirect3DVertexBuffer9* VB;
int len = GetVertexStructSize() * m_iNumVertex;
HRESULT result = poDisplayDevice->m_pDevice->CreateVertexBuffer(
len,
D3DUSAGE_WRITEONLY,
poDisplayDevice->GetFVF(GetVertexType()),
D3DPOOL_SYSTEMMEM,
&VB,
0);
if (result != D3D_OK)
return false;
char *buffer;
VB->Lock(0, 0, (void **)&buffer, 0);
memcpy(buffer, GetVertexBuffer(), len);
VB->Unlock();
m_pCachedData = VB;
#endif
return true;
}
void D3D9VideoInfo::BeginFastDraw(IDirect3DDevice9* pDevice, const Sprite::RECT_MODE mode)
{
IDirect3DVertexBuffer9 *pSprite = GetVertexBuffer(mode);
if (FAILED(pDevice->SetStreamSource(0, pSprite, 0, sizeof(SPRITE_VERTEX))))
return;
pDevice->SetFVF(SPRITE_FVF);
}
bool D3D9VideoInfo::DrawSprite(IDirect3DDevice9 *pDevice, const Sprite::RECT_MODE mode)
{
IDirect3DVertexBuffer9* pSprite = GetVertexBuffer(mode);
unsigned int polyCount = GetPolyCount(mode);
D3DPRIMITIVETYPE primType = GetPrimitiveType(mode);
if (FAILED(pDevice->SetStreamSource(0, pSprite, 0, sizeof(SPRITE_VERTEX))))
return false;
pDevice->SetFVF(SPRITE_FVF);
if (FAILED(pDevice->DrawPrimitive(primType, 0, polyCount)))
return false;
return true;
}
void
OsdClKernelDispatcher::ApplyBilinearVertexVerticesKernel(FarMesh<OsdVertex> * mesh, int offset,
int level, int start, int end, void * data) const {
cl_int ciErrNum;
size_t globalWorkSize[1] = { end-start };
cl_kernel kernel = _clKernel->GetBilinearVertexKernel();
clSetKernelArg(kernel, 0, sizeof(cl_mem), GetVertexBuffer());
clSetKernelArg(kernel, 1, sizeof(cl_mem), GetVaryingBuffer());
clSetKernelArg(kernel, 2, sizeof(cl_mem), &_tables[V_ITa].devicePtr);
clSetKernelArg(kernel, 3, sizeof(int), &_tableOffsets[V_ITa][level-1]);
clSetKernelArg(kernel, 4, sizeof(int), (void*)&offset);
clSetKernelArg(kernel, 5, sizeof(int), (void*)&start);
clSetKernelArg(kernel, 6, sizeof(int), (void*)&end);
ciErrNum = clEnqueueNDRangeKernel(_clQueue, kernel, 1, NULL, globalWorkSize, NULL, 0, NULL, NULL);
CL_CHECK_ERROR(ciErrNum, "bilinear vertex kernel 1 %d\n", ciErrNum);
}
void FUE1Model::BuildVertexBuffer( FModelRenderer *renderer )
{
if (GetVertexBuffer(renderer))
return;
if ( !mDataLoaded )
LoadGeometry();
int vsize = 0;
for ( int i=0; i<numGroups; i++ )
vsize += groups[i].numPolys*3;
vsize *= numFrames;
auto vbuf = renderer->CreateVertexBuffer(false,numFrames==1);
SetVertexBuffer(renderer, vbuf);
FModelVertex *vptr = vbuf->LockVertexBuffer(vsize);
int vidx = 0;
for ( int i=0; i<numFrames; i++ )
{
for ( int j=0; j<numGroups; j++ )
{
for ( int k=0; k<groups[j].numPolys; k++ )
{
for ( int l=0; l<3; l++ )
{
UE1Vertex V = verts[polys[groups[j].P[k]].V[l]+i*numVerts];
FVector2 C = polys[groups[j].P[k]].C[l];
FModelVertex *vert = &vptr[vidx++];
vert->Set(V.Pos.X,V.Pos.Y,V.Pos.Z,C.X,C.Y);
if ( groups[j].type&PT_Curvy ) // use facet normal
{
vert->SetNormal(polys[groups[j].P[k]].Normals[i].X,
polys[groups[j].P[k]].Normals[i].Y,
polys[groups[j].P[k]].Normals[i].Z);
}
else vert->SetNormal(V.Normal.X,V.Normal.Y,V.Normal.Z);
}
}
}
}
vbuf->UnlockVertexBuffer();
}
void FUE1Model::RenderFrame( FModelRenderer *renderer, FTexture *skin, int frame, int frame2, double inter, int translation )
{
// the moment of magic
if ( (frame >= numFrames) || (frame2 >= numFrames) ) return;
renderer->SetInterpolation(inter);
int vsize, fsize = 0, vofs = 0;
for ( int i=0; i<numGroups; i++ ) fsize += groups[i].numPolys*3;
for ( int i=0; i<numGroups; i++ )
{
vsize = groups[i].numPolys*3;
if ( groups[i].type&PT_WeaponTriangle )
{
// weapon triangle should never be drawn, it only exists to calculate attachment position and orientation
vofs += vsize;
continue;
}
FTexture *sskin = skin;
if ( !sskin )
{
if ( curSpriteMDLFrame->surfaceskinIDs[curMDLIndex][groups[i].texNum].isValid() )
sskin = TexMan.GetTexture(curSpriteMDLFrame->surfaceskinIDs[curMDLIndex][groups[i].texNum], true);
if ( !sskin )
{
vofs += vsize;
continue;
}
}
// TODO: Handle per-group render styles and other flags once functions for it are implemented
// Future note: poly renderstyles should always be enforced unless the actor itself has a style other than Normal
renderer->SetMaterial(sskin,false,translation);
GetVertexBuffer(renderer)->SetupFrame(renderer,vofs+frame*fsize,vofs+frame2*fsize,vsize);
renderer->DrawArrays(0,vsize);
vofs += vsize;
}
renderer->SetInterpolation(0.f);
}
void ccGenericMesh::drawMeOnly(CC_DRAW_CONTEXT& context)
{
ccGenericPointCloud* vertices = getAssociatedCloud();
if (!vertices)
return;
handleColorRamp(context);
//3D pass
if (MACRO_Draw3D(context))
{
//any triangle?
unsigned triNum = size();
if (triNum == 0)
return;
//L.O.D.
bool lodEnabled = (triNum > GET_MAX_LOD_FACES_NUMBER() && context.decimateMeshOnMove && MACRO_LODActivated(context));
unsigned decimStep = (lodEnabled ? (unsigned)ceil((float)triNum*3 / (float)GET_MAX_LOD_FACES_NUMBER()) : 1);
unsigned displayedTriNum = triNum / decimStep;
//display parameters
glDrawParams glParams;
getDrawingParameters(glParams);
glParams.showNorms &= bool(MACRO_LightIsEnabled(context));
//vertices visibility
const ccGenericPointCloud::VisibilityTableType* verticesVisibility = vertices->getTheVisibilityArray();
bool visFiltering = (verticesVisibility && verticesVisibility->isAllocated());
//wireframe ? (not compatible with LOD)
bool showWired = isShownAsWire() && !lodEnabled;
//per-triangle normals?
bool showTriNormals = (hasTriNormals() && triNormsShown());
//fix 'showNorms'
glParams.showNorms = showTriNormals || (vertices->hasNormals() && m_normalsDisplayed);
//materials & textures
bool applyMaterials = (hasMaterials() && materialsShown());
bool showTextures = (hasTextures() && materialsShown() && !lodEnabled);
//GL name pushing
bool pushName = MACRO_DrawEntityNames(context);
//special case: triangle names pushing (for picking)
bool pushTriangleNames = MACRO_DrawTriangleNames(context);
pushName |= pushTriangleNames;
if (pushName)
{
//not fast at all!
if (MACRO_DrawFastNamesOnly(context))
return;
glPushName(getUniqueIDForDisplay());
//minimal display for picking mode!
glParams.showNorms = false;
glParams.showColors = false;
//glParams.showSF --> we keep it only if SF 'NaN' values are hidden
showTriNormals = false;
applyMaterials = false;
showTextures = false;
}
//in the case we need to display scalar field colors
ccScalarField* currentDisplayedScalarField = 0;
bool greyForNanScalarValues = true;
unsigned colorRampSteps = 0;
ccColorScale::Shared colorScale(0);
if (glParams.showSF)
{
assert(vertices->isA(CC_TYPES::POINT_CLOUD));
ccPointCloud* cloud = static_cast<ccPointCloud*>(vertices);
greyForNanScalarValues = (cloud->getCurrentDisplayedScalarField() && cloud->getCurrentDisplayedScalarField()->areNaNValuesShownInGrey());
if (greyForNanScalarValues && pushName)
{
//in picking mode, no need to take SF into account if we don't hide any points!
glParams.showSF = false;
}
else
{
currentDisplayedScalarField = cloud->getCurrentDisplayedScalarField();
colorScale = currentDisplayedScalarField->getColorScale();
colorRampSteps = currentDisplayedScalarField->getColorRampSteps();
assert(colorScale);
//get default color ramp if cloud has no scale associated?!
if (!colorScale)
colorScale = ccColorScalesManager::GetUniqueInstance()->getDefaultScale(ccColorScalesManager::BGYR);
}
}
//materials or color?
bool colorMaterial = false;
if (glParams.showSF || glParams.showColors)
{
applyMaterials = false;
colorMaterial = true;
glColorMaterial(GL_FRONT_AND_BACK, GL_DIFFUSE);
glEnable(GL_COLOR_MATERIAL);
}
//in the case we need to display vertex colors
ColorsTableType* rgbColorsTable = 0;
if (glParams.showColors)
{
if (isColorOverriden())
{
glColor3ubv(m_tempColor);
glParams.showColors = false;
}
else
{
assert(vertices->isA(CC_TYPES::POINT_CLOUD));
rgbColorsTable = static_cast<ccPointCloud*>(vertices)->rgbColors();
}
}
else
{
glColor3fv(context.defaultMat.diffuseFront);
}
if (glParams.showNorms)
{
//DGM: Strangely, when Qt::renderPixmap is called, the OpenGL version can fall to 1.0!
glEnable((QGLFormat::openGLVersionFlags() & QGLFormat::OpenGL_Version_1_2 ? GL_RESCALE_NORMAL : GL_NORMALIZE));
glEnable(GL_LIGHTING);
context.defaultMat.applyGL(true,colorMaterial);
}
//in the case we need normals (i.e. lighting)
NormsIndexesTableType* normalsIndexesTable = 0;
ccNormalVectors* compressedNormals = 0;
if (glParams.showNorms)
{
assert(vertices->isA(CC_TYPES::POINT_CLOUD));
normalsIndexesTable = static_cast<ccPointCloud*>(vertices)->normals();
compressedNormals = ccNormalVectors::GetUniqueInstance();
}
//stipple mask
if (stipplingEnabled())
EnableGLStippleMask(true);
if (!pushTriangleNames && !visFiltering && !(applyMaterials || showTextures) && (!glParams.showSF || greyForNanScalarValues))
{
//the GL type depends on the PointCoordinateType 'size' (float or double)
GLenum GL_COORD_TYPE = sizeof(PointCoordinateType) == 4 ? GL_FLOAT : GL_DOUBLE;
glEnableClientState(GL_VERTEX_ARRAY);
glVertexPointer(3,GL_COORD_TYPE,0,GetVertexBuffer());
if (glParams.showNorms)
{
glEnableClientState(GL_NORMAL_ARRAY);
glNormalPointer(GL_COORD_TYPE,0,GetNormalsBuffer());
}
if (glParams.showSF || glParams.showColors)
{
glEnableClientState(GL_COLOR_ARRAY);
glColorPointer(3,GL_UNSIGNED_BYTE,0,GetColorsBuffer());
}
//we can scan and process each chunk separately in an optimized way
//we mimic the way ccMesh beahves by using virtual chunks!
unsigned chunks = static_cast<unsigned>(ceil((double)displayedTriNum/(double)MAX_NUMBER_OF_ELEMENTS_PER_CHUNK));
unsigned chunkStart = 0;
const colorType* col = 0;
for (unsigned k=0; k<chunks; ++k, chunkStart += MAX_NUMBER_OF_ELEMENTS_PER_CHUNK)
{
//virtual chunk size
const unsigned chunkSize = k+1 < chunks ? MAX_NUMBER_OF_ELEMENTS_PER_CHUNK : (displayedTriNum % MAX_NUMBER_OF_ELEMENTS_PER_CHUNK);
//vertices
PointCoordinateType* _vertices = GetVertexBuffer();
for (unsigned n=0; n<chunkSize; n+=decimStep)
{
const CCLib::TriangleSummitsIndexes* ti = getTriangleIndexes(chunkStart + n);
memcpy(_vertices,vertices->getPoint(ti->i1)->u,sizeof(PointCoordinateType)*3);
_vertices+=3;
memcpy(_vertices,vertices->getPoint(ti->i2)->u,sizeof(PointCoordinateType)*3);
_vertices+=3;
memcpy(_vertices,vertices->getPoint(ti->i3)->u,sizeof(PointCoordinateType)*3);
_vertices+=3;
}
//scalar field
if (glParams.showSF)
{
colorType* _rgbColors = GetColorsBuffer();
assert(colorScale);
for (unsigned n=0; n<chunkSize; n+=decimStep)
{
const CCLib::TriangleSummitsIndexes* ti = getTriangleIndexes(chunkStart + n);
col = currentDisplayedScalarField->getValueColor(ti->i1);
memcpy(_rgbColors,col,sizeof(colorType)*3);
_rgbColors += 3;
col = currentDisplayedScalarField->getValueColor(ti->i2);
memcpy(_rgbColors,col,sizeof(colorType)*3);
_rgbColors += 3;
col = currentDisplayedScalarField->getValueColor(ti->i3);
memcpy(_rgbColors,col,sizeof(colorType)*3);
_rgbColors += 3;
}
}
//colors
else if (glParams.showColors)
{
colorType* _rgbColors = GetColorsBuffer();
for (unsigned n=0; n<chunkSize; n+=decimStep)
{
const CCLib::TriangleSummitsIndexes* ti = getTriangleIndexes(chunkStart + n);
memcpy(_rgbColors,rgbColorsTable->getValue(ti->i1),sizeof(colorType)*3);
_rgbColors += 3;
memcpy(_rgbColors,rgbColorsTable->getValue(ti->i2),sizeof(colorType)*3);
_rgbColors += 3;
memcpy(_rgbColors,rgbColorsTable->getValue(ti->i3),sizeof(colorType)*3);
_rgbColors += 3;
}
}
//normals
if (glParams.showNorms)
{
PointCoordinateType* _normals = GetNormalsBuffer();
if (showTriNormals)
{
for (unsigned n=0; n<chunkSize; n+=decimStep)
{
CCVector3 Na, Nb, Nc;
getTriangleNormals(chunkStart + n, Na, Nb, Nc);
memcpy(_normals,Na.u,sizeof(PointCoordinateType)*3);
_normals+=3;
memcpy(_normals,Nb.u,sizeof(PointCoordinateType)*3);
_normals+=3;
memcpy(_normals,Nc.u,sizeof(PointCoordinateType)*3);
_normals+=3;
}
}
else
{
for (unsigned n=0; n<chunkSize; n+=decimStep)
{
const CCLib::TriangleSummitsIndexes* ti = getTriangleIndexes(chunkStart + n);
memcpy(_normals,vertices->getPointNormal(ti->i1).u,sizeof(PointCoordinateType)*3);
_normals+=3;
memcpy(_normals,vertices->getPointNormal(ti->i2).u,sizeof(PointCoordinateType)*3);
_normals+=3;
memcpy(_normals,vertices->getPointNormal(ti->i3).u,sizeof(PointCoordinateType)*3);
_normals+=3;
}
}
}
if (!showWired)
{
glDrawArrays(lodEnabled ? GL_POINTS : GL_TRIANGLES,0,(chunkSize/decimStep)*3);
}
else
{
glDrawElements(GL_LINES,(chunkSize/decimStep)*6,GL_UNSIGNED_INT,GetWireVertexIndexes());
}
}
//disable arrays
glDisableClientState(GL_VERTEX_ARRAY);
if (glParams.showNorms)
glDisableClientState(GL_NORMAL_ARRAY);
if (glParams.showSF || glParams.showColors)
glDisableClientState(GL_COLOR_ARRAY);
}
else
{
//current vertex color
const colorType *col1=0,*col2=0,*col3=0;
//current vertex normal
const PointCoordinateType *N1=0,*N2=0,*N3=0;
//current vertex texture coordinates
float *Tx1=0,*Tx2=0,*Tx3=0;
//loop on all triangles
int lasMtlIndex = -1;
if (showTextures)
{
//#define TEST_TEXTURED_BUNDLER_IMPORT
#ifdef TEST_TEXTURED_BUNDLER_IMPORT
glPushAttrib(GL_COLOR_BUFFER_BIT);
glEnable(GL_BLEND);
glBlendFunc(context.sourceBlend, context.destBlend);
#endif
glEnable(GL_TEXTURE_2D);
}
if (pushTriangleNames)
glPushName(0);
GLenum triangleDisplayType = lodEnabled ? GL_POINTS : showWired ? GL_LINE_LOOP : GL_TRIANGLES;
glBegin(triangleDisplayType);
//per-triangle normals
const NormsIndexesTableType* triNormals = getTriNormsTable();
//materials
const ccMaterialSet* materials = getMaterialSet();
for (unsigned n=0; n<triNum; ++n)
{
//current triangle vertices
const CCLib::TriangleSummitsIndexes* tsi = getTriangleIndexes(n);
//LOD: shall we display this triangle?
if (n % decimStep)
continue;
if (visFiltering)
{
//we skip the triangle if at least one vertex is hidden
if ((verticesVisibility->getValue(tsi->i1) != POINT_VISIBLE) ||
(verticesVisibility->getValue(tsi->i2) != POINT_VISIBLE) ||
(verticesVisibility->getValue(tsi->i3) != POINT_VISIBLE))
continue;
}
if (glParams.showSF)
{
assert(colorScale);
col1 = currentDisplayedScalarField->getValueColor(tsi->i1);
if (!col1)
continue;
col2 = currentDisplayedScalarField->getValueColor(tsi->i2);
if (!col2)
continue;
col3 = currentDisplayedScalarField->getValueColor(tsi->i3);
if (!col3)
continue;
}
else if (glParams.showColors)
{
col1 = rgbColorsTable->getValue(tsi->i1);
col2 = rgbColorsTable->getValue(tsi->i2);
col3 = rgbColorsTable->getValue(tsi->i3);
}
if (glParams.showNorms)
{
if (showTriNormals)
{
assert(triNormals);
int n1,n2,n3;
getTriangleNormalIndexes(n,n1,n2,n3);
N1 = (n1>=0 ? ccNormalVectors::GetNormal(triNormals->getValue(n1)).u : 0);
N2 = (n1==n2 ? N1 : n1>=0 ? ccNormalVectors::GetNormal(triNormals->getValue(n2)).u : 0);
N3 = (n1==n3 ? N1 : n3>=0 ? ccNormalVectors::GetNormal(triNormals->getValue(n3)).u : 0);
}
else
{
N1 = compressedNormals->getNormal(normalsIndexesTable->getValue(tsi->i1)).u;
N2 = compressedNormals->getNormal(normalsIndexesTable->getValue(tsi->i2)).u;
N3 = compressedNormals->getNormal(normalsIndexesTable->getValue(tsi->i3)).u;
}
}
if (applyMaterials || showTextures)
{
assert(materials);
int newMatlIndex = this->getTriangleMtlIndex(n);
//do we need to change material?
if (lasMtlIndex != newMatlIndex)
{
assert(newMatlIndex<(int)materials->size());
glEnd();
if (showTextures)
{
GLuint texID = (newMatlIndex>=0 ? (*materials)[newMatlIndex].texID : 0);
if (texID>0)
assert(glIsTexture(texID));
glBindTexture(GL_TEXTURE_2D, texID);
}
//if we don't have any current material, we apply default one
(newMatlIndex>=0 ? (*materials)[newMatlIndex] : context.defaultMat).applyGL(glParams.showNorms,false);
glBegin(triangleDisplayType);
lasMtlIndex=newMatlIndex;
}
if (showTextures)
{
getTriangleTexCoordinates(n,Tx1,Tx2,Tx3);
}
}
if (pushTriangleNames)
{
glEnd();
glLoadName(n);
glBegin(triangleDisplayType);
}
else if (showWired)
{
glEnd();
glBegin(triangleDisplayType);
}
//vertex 1
if (N1)
ccGL::Normal3v(N1);
if (col1)
glColor3ubv(col1);
if (Tx1)
glTexCoord2fv(Tx1);
ccGL::Vertex3v(vertices->getPoint(tsi->i1)->u);
//vertex 2
if (N2)
ccGL::Normal3v(N2);
if (col2)
glColor3ubv(col2);
if (Tx2)
glTexCoord2fv(Tx2);
ccGL::Vertex3v(vertices->getPoint(tsi->i2)->u);
//vertex 3
if (N3)
ccGL::Normal3v(N3);
if (col3)
glColor3ubv(col3);
if (Tx3)
glTexCoord2fv(Tx3);
ccGL::Vertex3v(vertices->getPoint(tsi->i3)->u);
}
glEnd();
if (pushTriangleNames)
glPopName();
if (showTextures)
{
#ifdef TEST_TEXTURED_BUNDLER_IMPORT
glPopAttrib(); //GL_COLOR_BUFFER_BIT
#endif
glBindTexture(GL_TEXTURE_2D, 0);
glDisable(GL_TEXTURE_2D);
}
}
if (stipplingEnabled())
EnableGLStippleMask(false);
if (colorMaterial)
glDisable(GL_COLOR_MATERIAL);
if (glParams.showNorms)
{
glDisable(GL_LIGHTING);
glDisable((QGLFormat::openGLVersionFlags() & QGLFormat::OpenGL_Version_1_2 ? GL_RESCALE_NORMAL : GL_NORMALIZE));
}
if (pushName)
glPopName();
}
}
void CustomDrawBox::Draw(){
//デバイスの取得
auto Dev = App::GetApp()->GetDeviceResources();
auto pDx11Device = Dev->GetD3DDevice();
auto pID3D11DeviceContext = Dev->GetD3DDeviceContext();
//ステータスのポインタ
auto RenderStatePtr = GetStage()->GetRenderState();
auto PtrT = GetComponent<Transform>();
//ステージからカメラを取り出す
auto PtrCamera = GetStage()->GetTargetCamera();
//カメラの取得
Matrix4X4 View, Proj, WorldViewProj;
View = PtrCamera->GetViewMatrix();
Proj = PtrCamera->GetProjMatrix();
//ストライドとオフセット
UINT stride = sizeof(VertexPositionNormalTexture);
UINT offset = 0;
//頂点バッファの設定
auto PtrMeshResource = App::GetApp()->GetResource<MeshResource>(L"DEFAULT_CUBE");
pID3D11DeviceContext->IASetVertexBuffers(0, 1, PtrMeshResource->GetVertexBuffer().GetAddressOf(), &stride, &offset);
//インデックスバッファのセット
pID3D11DeviceContext->IASetIndexBuffer(PtrMeshResource->GetIndexBuffer().Get(), DXGI_FORMAT_R16_UINT, 0);
//描画方法（3角形）
pID3D11DeviceContext->IASetPrimitiveTopology(D3D11_PRIMITIVE_TOPOLOGY_TRIANGLELIST);
//ステータスのポインタ
//テクスチャを取得
ID3D11ShaderResourceView* pNull[1] = { 0 };
ID3D11SamplerState* pNullSR[1] = { 0 };
//テクスチャを設定
auto PtrTextureResource = App::GetApp()->GetResource<TextureResource>(L"TRACE_TX");
pID3D11DeviceContext->PSSetShaderResources(0, 1, PtrTextureResource->GetShaderResourceView().GetAddressOf());
//リニアサンプラーを設定
ID3D11SamplerState* samplerState = RenderStatePtr->GetLinearClamp();
pID3D11DeviceContext->PSSetSamplers(0, 1, &samplerState);
//半透明処理
pID3D11DeviceContext->OMSetBlendState(RenderStatePtr->GetAlphaBlendEx(), nullptr, 0xffffffff);
//デプスステンシルは使用する
pID3D11DeviceContext->OMSetDepthStencilState(RenderStatePtr->GetDepthDefault(), 0);
//シェーダの設定
pID3D11DeviceContext->VSSetShader(m_VirtexShader->GetShader(), nullptr, 0);
pID3D11DeviceContext->PSSetShader(m_PixelShader->GetShader(), nullptr, 0);
//インプットレイアウトの設定
pID3D11DeviceContext->IASetInputLayout(m_VirtexShader->GetInputLayout());
//コンスタントバッファの設定
ConstantBuffer cb1;
ZeroMemory(&cb1, sizeof(cb1));
//行列の設定(転置する)
cb1.World = Matrix4X4EX::Transpose(PtrT->GetWorldMatrix());;
cb1.View = Matrix4X4EX::Transpose(View);
cb1.Projection = Matrix4X4EX::Transpose(Proj);
//ライトの設定
//ステージから0番目のライトを取り出す
auto PtrLight = GetStage()->GetTargetLight(0);
cb1.LightDir = PtrLight->GetDirectional();
//xとzだけ逆にする
cb1.LightDir.x *= -1.0f;
cb1.LightDir.z *= -1.0f;
cb1.LightDir.w = 1.0f;
//トータルタイムをコンスタントバッファに渡す
float ElapsedTime = App::GetApp()->GetElapsedTime();
m_TotalTime += ElapsedTime;
if (m_TotalTime >= 1.0f){
m_TotalTime = 0.0f;
}
cb1.Param.x = m_TotalTime;
//コンスタントバッファの更新
pID3D11DeviceContext->UpdateSubresource(m_ConstantBuffer->GetBuffer(), 0, nullptr, &cb1, 0, 0);
//コンスタントバッファの設定
ID3D11Buffer* pConstantBuffer = m_ConstantBuffer->GetBuffer();
pID3D11DeviceContext->VSSetConstantBuffers(0, 1, &pConstantBuffer);
pID3D11DeviceContext->PSSetConstantBuffers(0, 1, &pConstantBuffer);
//レンダリングステート
pID3D11DeviceContext->RSSetState(RenderStatePtr->GetCullFront());
//内側描画
pID3D11DeviceContext->DrawIndexed(PtrMeshResource->GetNumIndicis(), 0, 0);
//ライトの向きを変える
cb1.LightDir = PtrLight->GetDirectional();
cb1.LightDir.w = 1.0f;
//コンスタントバッファの更新
pID3D11DeviceContext->UpdateSubresource(m_ConstantBuffer->GetBuffer(), 0, nullptr, &cb1, 0, 0);
//コンスタントバッファの設定
pConstantBuffer = m_ConstantBuffer->GetBuffer();
pID3D11DeviceContext->VSSetConstantBuffers(0, 1, &pConstantBuffer);
pID3D11DeviceContext->PSSetConstantBuffers(0, 1, &pConstantBuffer);
//レンダリングステート
pID3D11DeviceContext->RSSetState(RenderStatePtr->GetCullBack());
//描画（外側）
pID3D11DeviceContext->DrawIndexed(PtrMeshResource->GetNumIndicis(), 0, 0);
//後始末
Dev->InitializeStates(RenderStatePtr);
}
