//----------------------------------------------------------------------------
void Skinning::OnIdle ()
{
MeasureTime();
UpdateConstants((float)GetTimeInSeconds());
if (MoveCamera())
{
mCuller.ComputeVisibleSet(mScene);
}
if (MoveObject())
{
mScene->Update();
mCuller.ComputeVisibleSet(mScene);
}
if (mRenderer->PreDraw())
{
mRenderer->ClearBuffers();
mRenderer->Draw(mCuller.GetVisibleSet());
DrawFrameRate(8, GetHeight()-8, mTextColor);
mRenderer->PostDraw();
mRenderer->DisplayColorBuffer();
}
UpdateFrameCount();
}
Fluids3DWindow::Fluids3DWindow(Parameters& parameters)
:
Window3(parameters),
mFluid(mEngine, mProgramFactory, GRID_SIZE, GRID_SIZE, GRID_SIZE, 0.002f)
{
if (!SetEnvironment() || !CreateNestedBoxes())
{
parameters.created = false;
return;
}
// Use blending for the visualization.
mAlphaState = std::make_shared<BlendState>();
mAlphaState->target[0].enable = true;
mAlphaState->target[0].srcColor = BlendState::BM_SRC_ALPHA;
mAlphaState->target[0].dstColor = BlendState::BM_INV_SRC_ALPHA;
mAlphaState->target[0].srcAlpha = BlendState::BM_SRC_ALPHA;
mAlphaState->target[0].dstAlpha = BlendState::BM_INV_SRC_ALPHA;
mEngine->SetBlendState(mAlphaState);
// The alpha channel must be zero for the blending of density to work
// correctly through the fluid region.
mEngine->SetClearColor({ 1.0f, 1.0f, 1.0f, 0.0f });
// The geometric proxies for volume rendering are concentric boxes. They
// are drawn from inside to outside for correctly sorted drawing, so depth
// buffering is not needed.
mNoDepthState = std::make_shared<DepthStencilState>();
mNoDepthState->depthEnable = false;
mEngine->SetDepthStencilState(mNoDepthState);
mFluid.Initialize();
InitializeCamera();
UpdateConstants();
}
//----------------------------------------------------------------------------
void PerformanceAMDWindow::OnIdle()
{
MeasureTime();
MoveCamera();
UpdateConstants();
mEngine->ClearBuffers();
mPerformance.Profile([this]()
{
mEngine->Execute(mGenerateTexture, mNumXGroups, mNumYGroups, 1);
mEngine->Draw(mTriangles);
});
// Compute the average measurements. GetAverage allows you to access
// the measurements during application run time. SaveAverage calls
// GetAverage and writes the results to a spreadsheet.
std::vector<std::vector<AMDPerformance::Measurement>> measurements;
if (mPerformance.GetNumProfileCalls() == 16)
{
mPerformance.GetAverage(measurements);
mPerformance.SaveAverage("ProfileResults.csv");
}
DrawFrameRate(8, mYSize - 8, mTextColor);
mEngine->DisplayColorBuffer(0);
UpdateFrameCount();
}
bool CVXS_Bond::DefineBond(BondType BondTypeIn, int Vox1SIndIn, int Vox2SIndIn, bool PermIn) //usually only called whenn creating bond...
{
ThisBondType = BondTypeIn;
Perm = PermIn;
if (!SetVoxels(Vox1SIndIn, Vox2SIndIn)) return false;
if (!UpdateConstants()) return false;
ResetBond(); //??
return true;
}
bool CVXS_Bond::DefineBond(BondType BondTypeIn, int Vox1SIndIn, int Vox2SIndIn, bool PermIn) //usually only called whenn creating bond...
{
// std::cout << "DEBUG MALLOC: GOT HERE -- BOND." << std::endl;
ThisBondType = BondTypeIn;
Perm = PermIn;
if (!SetVoxels(Vox1SIndIn, Vox2SIndIn)) return false;
if (!UpdateConstants()) return false;
ResetBond(); //??
// std::cout << "DONE BOND." << std::endl;
return true;
}
bool CVXS_Bond::SetVoxels(const int V1SIndIn, const int V2SIndIn)
{
Vox1SInd=V1SIndIn;
Vox2SInd=V2SIndIn;
if (Vox1SInd == Vox2SInd) return true; //Equale voxel indices is a flag to disable a bond
if (!UpdateVox1Ptr()){Vox1SInd=-1; return false;}
if (!UpdateVox2Ptr()){Vox2SInd=-1; return false;}
OrigDist = pVox2->GetOrigPos() - pVox1->GetOrigPos(); //original distance (world coords)
HomogenousBond = (pVox1->GetMaterial() == pVox2->GetMaterial());
if (OrigDist.x == 0 && OrigDist.y == 0) ThisBondDir = BD_Z;
else if (OrigDist.x == 0 && OrigDist.z == 0) ThisBondDir = BD_Y;
else if (OrigDist.y == 0 && OrigDist.z == 0) ThisBondDir = BD_X;
else ThisBondDir = BD_ARB;
vfloat E1 = pVox1->GetEMod(), E2 = pVox2->GetEMod();
vfloat u1 = pVox1->GetPoisson(), u2 = pVox2->GetPoisson();
vfloat CTE1 = pVox1->GetCTE(), CTE2 = pVox2->GetCTE();
if (E1 == 0 || E2 == 0) {return false;}
if (u1 < 0 || u1 > 0.5 || u2 < 0 || u2 > 0.5 ) {return false;} //bad poissons ratio;
E = (E1*E2/(E1+E2))*2; //x2 derived from case of equal stiffness: E1*E1/(E1+E1) = 0.5*E1
if (u1==0 && u2==0) u=0;
else u = (u1*u2/(u1+u2))*2; //Poissons ratio
CTE = (CTE1/2+CTE2/2); //thermal expansion
//for now we are only using the nominal size of the voxel, although we could change this later if needed
//rotate the box dimensions into the correct refference frame of x being direction of bond
switch (ThisBondType){
case B_LINEAR:
L = (pVox1->GetOrigSize() + pVox2->GetOrigSize())*0.5;
ToXDirBond(&L); //in X direction, so L.X is beam length, L.y, L.z are transverse dimensions
L = L.Abs(); //distances strictly positive!
break;
case B_LINEAR_CONTACT: //X direction of L is in line with the contact...
default:
L.x = p_Sim->LocalVXC.GetLatticeDim();
L.y = L.x;
L.z = L.x;
break;
}
if (!UpdateConstants()) return false;
ResetBond();
return true;
}
CVXS_Bond& CVXS_Bond::operator=(const CVXS_Bond& Bond)
{
//Bond definition
p_Sim = Bond.p_Sim;
ThisBondType = Bond.ThisBondType;
Perm = Bond.Perm;
//State variables
Force1 = Bond.Force1;
Force2 = Bond.Force2;
Moment1 = Bond.Moment1;
Moment2 = Bond.Moment2;
StrainEnergy = Bond.StrainEnergy;
SmallAngle = Bond.SmallAngle;
_Pos2=Bond._Pos2;
_Angle1=Bond._Angle1;
_Angle2=Bond._Angle2;
_LastPos2=Bond._LastPos2;
_LastAngle1=Bond._LastAngle1;
_LastAngle2=Bond._LastAngle2;
CurStrain = Bond.CurStrain;
CurStress = Bond.CurStress;
MaxStrain = Bond.MaxStrain;
Yielded = Bond.Yielded;
Broken = Bond.Broken;
RestDist = Bond.RestDist;
Vox1SInd = Bond.Vox1SInd;
Vox2SInd = Bond.Vox2SInd;
if (!UpdateVox1Ptr()){Vox1SInd=-1;}
if (!UpdateVox2Ptr()){Vox2SInd=-1;}
OrigDist = Bond.OrigDist;
HomogenousBond = Bond.HomogenousBond;
ThisBondDir = Bond.ThisBondDir;
L = Bond.L;
E = Bond.E;
u = Bond.u;
CTE = Bond.CTE;
UpdateConstants();
return *this;
}
void Fluids3DWindow::OnIdle()
{
mTimer.Measure();
mCameraRig.Move();
UpdateConstants();
mFluid.DoSimulationStep();
mEngine->ClearBuffers();
for (auto visual : mVisible)
{
mEngine->Draw(visual);
}
mEngine->Draw(8, mYSize - 8, { 0.0f, 0.0f, 0.0f, 1.0f }, mTimer.GetFPS());
mEngine->DisplayColorBuffer(1);
mTimer.UpdateFrameCount();
}
void LightsWindow::OnIdle()
{
mTimer.Measure();
mCameraRig.Move();
UpdateConstants();
mEngine->ClearBuffers();
mEngine->Draw(mPlane[0]);
mEngine->Draw(mPlane[1]);
mEngine->Draw(mSphere[0]);
mEngine->Draw(mSphere[1]);
Vector4<float> textColor{ 1.0f, 1.0f, 1.0f, 1.0f };
mEngine->Draw(8, 16, textColor, mCaption[mType]);
mEngine->Draw(8, mYSize - 8, textColor, mTimer.GetFPS());
mEngine->DisplayColorBuffer(0);
mTimer.UpdateFrameCount();
}
CVXS_Bond::CVXS_Bond(CVX_Sim* p_SimIn)
{
p_Sim = p_SimIn;
ThisBondType = B_LINEAR;
Perm = false;
ResetBond(); //Zeroes out all state variables
//Set independent variables
Vox1SInd = -1;
Vox2SInd = -1;
pVox1 = NULL;
pVox2 = NULL;
OrigDist = Vec3D<>(0,0,0);
HomogenousBond = false;
ThisBondDir = BD_X;
E=0; u=0; CTE=0;
L = Vec3D<>(0, 0, 0);
UpdateConstants(); //updates all the dependent variables based on zeros above.
}
void GeometryShadersWindow::OnIdle()
{
mTimer.Measure();
mCameraRig.Move();
UpdateConstants();
mEngine->ClearBuffers();
mEngine->Draw(mMesh);
mEngine->Draw(8, mYSize - 8, { 0.0f, 0.0f, 0.0f, 1.0f }, mTimer.GetFPS());
mEngine->DisplayColorBuffer(0);
#if defined(SAVE_RENDERING_TO_DISK)
mEngine->Enable(mTarget);
mEngine->ClearBuffers();
mEngine->Draw(mMesh);
mEngine->Disable(mTarget);
mEngine->CopyGpuToCpu(mTarget->GetRTTexture(0));
WICFileIO::SaveToPNG("GeometryShaders.png",
mTarget->GetRTTexture(0).get());
#endif
mTimer.UpdateFrameCount();
}