iVertexBuffer* cVertexBufferOGL::CreateCopy(eVertexBufferUsageType aUsageType)
{
cVertexBufferOGL *pVtxBuff = hplNew( cVertexBufferOGL,(mpLowLevelGraphics,
mVertexFlags,mDrawType,aUsageType,
GetVertexNum(),GetIndexNum()) );
//Copy the vertices to the new buffer.
for(int i=0; i < klNumOfVertexFlags; i++)
{
if(kvVertexFlags[i] & mVertexFlags)
{
int lElements = kvVertexElements[i];
if(mbTangents && kvVertexFlags[i] == eVertexFlag_Texture1)
lElements=4;
pVtxBuff->ResizeArray(kvVertexFlags[i], (int)mvVertexArray[i].size());
memcpy(pVtxBuff->GetArray(kvVertexFlags[i]),
&mvVertexArray[i][0], mvVertexArray[i].size() * sizeof(float));
}
}
//Copy indices to the new buffer
pVtxBuff->ResizeIndices(GetIndexNum());
memcpy(pVtxBuff->GetIndices(), GetIndices(), GetIndexNum() * sizeof(unsigned int) );
pVtxBuff->mbTangents = mbTangents;
pVtxBuff->mbHasShadowDouble = mbHasShadowDouble;
pVtxBuff->Compile(0);
return pVtxBuff;
}
//******************************************************************************
//Name: SetTensor *
// *
//Purpose: Set the tensor portion of the field *
// *
//Takes: takes a pointer to a position array and the address of the tensor *
//******************************************************************************
void field::SetTensor(double *position, const tensor &rval)
{
int *index;
int *r_index;
int i, j, temp;
double value;
//Error check
if( rval.p->num_indices != (p->num_indices - 3) )
error("SetTensor error:","cannot assign a tensor to a field point");
for(i = 3; i < p->num_indices; i++)
{
if( rval.p->range[i-3] != p->range[i] )
error("SetTensor error:","cannot assign a tensor to a field point");
}
//set up the index array that indexes into the field and set the specified position
index = new int[p->num_indices];
GetIndices(position, index);
//set up the index array that indexes into the rval tensor
r_index = new int[rval.p->num_indices];
//create a tempory tensor for stupid Microsoft (comment out if not using MS)
tensor temp_t;
temp_t = rval;
//set the field
for(i = 0; i < rval.p->product; i++)
{
//pack the r_index array (see tensor::Contract)
temp = 0;
for(j = 0; j < rval.p->num_indices - 1; j++)
{
r_index[j] = (i - i%rval.p->scales[j] - temp)/rval.p->scales[j];
temp += r_index[j] * rval.p->scales[j];
}
r_index[j] = (i - temp)/rval.p->scales[j];
//complete the index array with the tensor indices
for(j = 3; j < p->num_indices; j++) index[j] = r_index[j - 3];
//comment out following line when using Microsoft (in the head)
//value = rval.Val(r_index);
//comment out following line when not using Microsoft (in the head)
value = temp_t.Val(r_index);
//put the rval tensors value into the field at specified position
Set(value,index);
}
//Clean up
delete [] index;
delete [] r_index;
}
// find the indices of the lattice element that contanis (x,y,z)
int Lattice::GetIndices(float x, float y, float z, int &iidx, int &jidx, int &kidx) {
int rank = GetRank(x,y,z);
if (rank!=-1) {
GetIndices(rank, iidx, jidx, kidx);
return(rank);
}
else return(-1);
}
int Lattice::CheckNeighbor(int myrank, float x, float y, float z)
{
int i,j,k;
GetIndices(myrank, i, j, k);
if (isIn(x,y,z,i-1,j,k)==true) return(0); //-X
if (isIn(x,y,z,i+1,j,k)==true) return(1); //+X
if (isIn(x,y,z,i,j-1,k)==true) return(2); //-Y
if (isIn(x,y,z,i,j+1,k)==true) return(3); //+Y
if (isIn(x,y,z,i,j,k-1)==true) return(4); //-Z
if (isIn(x,y,z,i,j,k+1)==true) return(5); //+Z
return(-1);
}
bool
UsdGeomPrimvar::ComputeFlattened(VtValue *value, UsdTimeCode time) const
{
VtValue attrVal;
if (!Get(&attrVal, time)) {
return false;
}
// If the primvar attr value is not an array or if the primvar isn't
// indexed, simply return the attribute value.
if (!attrVal.IsArrayValued() || !IsIndexed()) {
*value = VtValue::Take(attrVal);
return true;
}
VtIntArray indices;
if (!GetIndices(&indices, time)) {
TF_CODING_ERROR("No indices authored for indexed primvar <%s>.",
_attr.GetPath().GetText());
return false;
}
// Handle all known supported array value types.
bool foundSupportedType =
_ComputeFlattenedArray<VtVec2fArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec2dArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec2iArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec2hArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec3fArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec3dArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec3iArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec3hArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec4fArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec4dArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec4iArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtVec4hArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtMatrix3dArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtMatrix4dArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtStringArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtDoubleArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtIntArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtFloatArray>(attrVal, indices, value) ||
_ComputeFlattenedArray<VtHalfArray>(attrVal, indices, value);
if (!foundSupportedType) {
TF_WARN("Unsupported indexed primvar value type %s.",
attrVal.GetTypeName().c_str());
}
return !value->IsEmpty();
}
//------------------------------------------------------------------------------
/// \brief Gets the size necessary to read into a 1-dimensional array
//------------------------------------------------------------------------------
int ArrayReaderParser::GetArraySize () const
{
int size = 1;
if (ValidInputString())
{
VEC_INT_PAIR indices = GetIndices();
for (size_t i = 0; i < indices.size(); ++i)
{
size *= indices[i].second;
}
}
return size;
} // ArrayReaderParser::GetArraySize
//******************************************************************************
//Name: SetInterpTensor *
// *
//Purpose: set the grid tensors based on interpolation from a tensor at an *
// arbitrary position *
// *
//Takes: pointer to the position array and address of the rval tensor *
//******************************************************************************
void field::SetInterpTensor(double *position, const tensor &rval)
{
int step;
int i, j, k;
int scaled_pos[3];
int grid_pos[3];
double pos[3];
tensor dummy, temp;
step = 1;
out_of_range = FALSE;
//Set the reference position
for(i = 0; i < 3; i++) reference_pos[i] = position[i];
//Get the double indices for the scaled position
GetIndices(reference_pos, scaled_pos);
//step through the floor steping
while( !out_of_range )
{
for( i = 0; i < 2; i++)
{
for( j = 0; j < 2; j++)
{
for( k = 0; k < 2; k++)
{
grid_pos[0] = (int)floor( scaled_pos[0] + i * step );
grid_pos[1] = (int)floor( scaled_pos[1] + j * step );
grid_pos[2] = (int)floor( scaled_pos[2] + k * step );
GetPosition(grid_pos, pos);
dummy <= GetTensor(pos);
temp <= rval;
temp.ScalarMult(Smoother(PARTICLE_SMOOTHING));
dummy <= dummy + temp;
if( out_of_range ) break;
}
}
}
//temp hack to keep the interpolation to within one cell
out_of_range = TRUE;
}
}
void Init() {
PROFILE_SCOPED()
frac = 1.0 / double(edgeLen-1);
// also want vtx indices for tris not touching edge of patch
indices.reset(new unsigned short[IDX_VBO_COUNT_ALL_IDX()]);
unsigned short *idx = indices.get();
for (int x=0; x<edgeLen-1; x++) {
for (int y=0; y<edgeLen-1; y++) {
idx[0] = x + edgeLen*y;
idx[1] = x+1 + edgeLen*y;
idx[2] = x + edgeLen*(y+1);
idx+=3;
idx[0] = x+1 + edgeLen*y;
idx[1] = x+1 + edgeLen*(y+1);
idx[2] = x + edgeLen*(y+1);
idx+=3;
}
}
// these will hold the optimised indices
std::vector<unsigned short> pl_short;
// populate the N indices lists from the arrays built during InitTerrainIndices()
// iterate over each index list and optimize it
unsigned int tri_count = GetIndices(pl_short);
VertexCacheOptimizerUShort vco;
VertexCacheOptimizerUShort::Result res = vco.Optimize(&pl_short[0], tri_count);
assert(0 == res);
//create buffer & copy
indexBuffer.Reset(Pi::renderer->CreateIndexBuffer(pl_short.size(), Graphics::BUFFER_USAGE_STATIC));
Uint16* idxPtr = indexBuffer->Map(Graphics::BUFFER_MAP_WRITE);
for (Uint32 j = 0; j < pl_short.size(); j++) {
idxPtr[j] = pl_short[j];
}
indexBuffer->Unmap();
if (indices) {
indices.reset();
}
}
void CConvexHull::GetVertices(CArrayBlock* pasPositions, SFloat3* psPoints, int iStride)
{
CArrayInt aiIndices;
int i;
int iIndex;
SFloat3* psPosition;
aiIndices.Init(mcPolygons.NumElements()+1);
GetIndices(&aiIndices, psPoints, iStride);
for (i = 0; i < aiIndices.NumElements(); i++)
{
iIndex = aiIndices.GetValue(i);
psPosition = GetPosition(psPoints, iStride, iIndex);
pasPositions->Add(psPosition);
}
aiIndices.Kill();
}
VOID InsertWeight( DWORD dwIndex, DWORD dwBoneIndex, FLOAT fBoneWeight )
{
assert( dwBoneIndex < 256 );
BYTE* pIndices = GetIndices( dwIndex );
FLOAT* pWeights = GetWeights( dwIndex );
for( DWORD i = 0; i < dwVertexStride; ++i )
{
if( fBoneWeight > pWeights[i] )
{
for( DWORD j = (dwVertexStride - 1); j > i; --j )
{
pIndices[j] = pIndices[j - 1];
pWeights[j] = pWeights[j - 1];
}
pIndices[i] = (BYTE)dwBoneIndex;
pWeights[i] = fBoneWeight;
break;
}
}
}
_Use_decl_annotations_
Geometry AssetLoader::LoadGeometryFromFile(const char* filename) const
{
char source[MAX_PATH];
sprintf_s(source, "%s%s", GetConfig().ContentRoot, filename);
GeometryFileData data;
LoadGeometryFileData(source, &data);
auto pool = GetGraphics().GetPoolWithSpace(VertexFormat::StaticGeometry, data.NumVertices, data.NumIndices);
uint32_t verticesIndex = 0;
uint32_t indicesIndex = 0;
pool->ReserveRange(data.NumVertices, data.NumIndices, &verticesIndex, &indicesIndex);
ComPtr<ID3D11Device> device;
pool->GetVertices()->GetDevice(&device);
ComPtr<ID3D11DeviceContext> context;
device->GetImmediateContext(&context);
D3D11_BOX box = {};
box.left = sizeof(StaticGeometryVertex) * verticesIndex;
box.right = box.left + data.NumVertices * sizeof(StaticGeometryVertex);
box.bottom = 1;
box.back = 1;
context->UpdateSubresource(pool->GetVertices(), 0, &box, data.Vertices, data.NumVertices * sizeof(StaticGeometryVertex), 0);
box.left = sizeof(uint32_t) * indicesIndex;
box.right = box.left + (data.NumIndices * sizeof(uint32_t));
context->UpdateSubresource(pool->GetIndices(), 0, &box, data.Indices, data.NumIndices * sizeof(uint32_t), 0);
Geometry geometry(pool, verticesIndex, indicesIndex, data.NumIndices);
FreeGeometryFileData(&data);
return geometry;
}
MyMeshText::MyMeshText(int maxletters, FontDefinition* pFont)
{
m_pFont = pFont;
#if _DEBUG
m_MostLettersAttemptedToDrawThisFrame = 0;
m_MostLettersAttemptedToDrawEver = 0;
#endif
// Create buffers and base set of indices.
CreateBuffers( VertexFormat_XYZUV_RGBA, (unsigned short)maxletters*4, maxletters*6, true );
unsigned short* pIndices = GetIndices( true );
for( unsigned short i=0; i<maxletters; i++ )
{
pIndices[i*6+0] = i*4+0; // 0--1
pIndices[i*6+1] = i*4+2; // |\ |
pIndices[i*6+2] = i*4+1; // | \|
pIndices[i*6+3] = i*4+2; // 3--2
pIndices[i*6+4] = i*4+0;
pIndices[i*6+5] = i*4+3;
}
RebuildIndices();
}
//******************************************************************************
//Name: GetInterpTensor *
// *
//Purpose: get the interpolated tensor at an arbitrary position *
// *
//Takes: pointer to the position array *
//******************************************************************************
tensor field::GetInterpTensor(double *position)
{
int i, j, k, m, n;
double scaled_pos[3];
int grid_pos[3];
double W;
if( is_series_set == FALSE )
error("GetInterpTensor error:","series not set");
//initialize member data tensors
sum_Wm <= 0.0*sum_Wm;
sum_a2 <= 0.0*sum_a2;
sum_da1 <= 0.0*sum_da1;
d_sum_a2 <= 0.0*d_sum_a2;
out_of_range = FALSE;
//Set the reference position
for(i = 0; i < 3; i++) reference_pos[i] = position[i];
//Get the real indices for the scaled position
GetIndices(reference_pos, scaled_pos);
//Create the return tensor and set it to zero
ret_dummy <= 0.0*GetTensor(reference_pos);
//Reset the normalization
normalization = 0.0;
//step through the floor steping
for( i = grid_lower_bound; i < grid_upper_bound; i++)
{
for( j = grid_lower_bound; j < grid_upper_bound; j++)
{
for( k = grid_lower_bound; k < grid_upper_bound; k++)
{
//Get the indices of the lowest corner of the cell
grid_pos[0] = (int)floor( scaled_pos[0] + i );
grid_pos[1] = (int)floor( scaled_pos[1] + j );
grid_pos[2] = (int)floor( scaled_pos[2] + k );
//find the position this grid point
GetPosition(grid_pos,current_pos);
//form the difference array and its magnitude (for use by smoother)
//and the difference position
y = 0;
for( m = 0; m < 3; m++ )
{
pos_diff[m] = reference_pos[m] - current_pos[m];
y += pos_diff[m]*pos_diff[m];
d.Set(pos_diff[m], m);
}
y = sqrt(y)/smoothing_length;
if( y > 1.0 + SMOOTHING_TOL ) continue;
//get all of the tensors requested by the order
for( m = 0; m <= series.order; m++)
tmp[m] <= series.list[m]->GetTensor(grid_pos);
//get the (psuedo) scalar smoothing value
W = Smoother(CWM_SMOOTHER);
//if the field is basic (i.e. not a derivative of
//another field)
if( is_deriv_field == FALSE )
{
if( series.order == 2 )
{
m = tmp[2].NumIndices() - 1;
tmp[2] <= 0.5 *( tmp[2].Contract(d,m,0) ).Contract(d,m-1,0);
}
if( series.order == 1 || series.order == 2 )
{
m = tmp[1].NumIndices() - 1;
tmp[1] <= tmp[1].Contract(d,m,0);
}
for( m = 0; m <= series.order; m++)
ret_dummy <= ret_dummy + W*tmp[m];
}
//if the field is not basic (i.e. is a derivative of
//another field
if( is_deriv_field == TRUE )
{
//if the field is independent (i.e. its smoothing is not
//a derivative of the smoohting of its basic field
if( is_dep_field == FALSE )
{
temp0 <= 0.0*tmp[0];
if( series.order == 1 )
{
m = tmp[1].NumIndices() - 1;
temp0 <= tmp[1].Contract(d,m,0);
}
ret_dummy <= ret_dummy + W*(tmp[0] + temp0);
}
//if the field is dependent (i.e. it smoothing is
//based on the derivative of the smoothing of its basic field
else
{
temp0 <= 0.0*tmp[0];
if( series.order == 2 )
{
m = tmp[2].NumIndices() - 1;
//form the 1/2 * t,ij*(z-x)_i*(z-x)_j term if neccessary
temp0 <= 0.5*( tmp[2].Contract(d,m,0) ).Contract(d,m-1,0);
}
temp1 <= 0.0*tmp[0];
if( series.order ==1 || series.order == 2 )
{
n = tmp[1].NumIndices() - 1;
//form the t,i*(z-x)_i term if neccessary
temp1 <= tmp[1].Contract(d,n,0);
//form the t,i + t,ij*(z-x)_j
temp2 <= 0.0*tmp[1];
if( series.order == 2 ) temp2 <= tmp[2].Contract(d,m,0);
sum_da1 <= sum_da1 + W*(tmp[1] + temp2);
}
//form the t + t,i*(z-x)_i + 1/2 * t,ij*(z-x)_i*(z-x)_j
a2 <= tmp[0] + temp1 + temp0;
sum_a2 <= sum_a2 + W*a2;
//get the derivative of the smoothing
Wm <= Smoother_Deriv(CWM_SMOOTHER);
//keep running sum
sum_Wm <= sum_Wm + Wm;
//form the term labeled dN_D_2 in the MathCAD
d_sum_a2 <= d_sum_a2 + a2 * Wm;
}
}
}
}
}
//Normalize the interpolated tensor
if( is_dep_field == FALSE ) ret_dummy <= (1.0/normalization)*ret_dummy;
if( is_dep_field == TRUE )
{
ret_dummy <= normalization * ( sum_da1 + d_sum_a2 ) - sum_a2 * sum_Wm;
ret_dummy <= 1.0/(normalization*normalization) * ret_dummy;
}
return ret_dummy;
}
//******************************************************************************
//Name: GetTensor *
// *
//Purpose: get the tensor portion of the field given the position *
// *
//Takes: point to a position array *
//******************************************************************************
tensor field::GetTensor(double *position)
{
int *index;
int num_indices, f_num_indices;
int *range;
int *d_index;
int i, j, temp;
//set up the index array that indexes into the field and pack the position indices
index = new int[p->num_indices];
GetIndices(position, index);
//get the parameters necessary to define the dummy return tensor
num_indices = p->num_indices - 3;
range = new int[num_indices];
for(i = 0; i < num_indices; i++)
range[i] = p->range[i+3];
//set up the d_index array that indexes into the dummy return tensor
d_index = new int[num_indices];
//Create the dummy tensor which will hold the return values and resize it
tensor dummy;
dummy.Resize(num_indices, range);
//Loop over the number of components
for(i = 0; i < dummy.p->product; i++)
{
//test for range = 1 cases here
f_num_indices = p->num_indices;
for(j = 0; j < p->num_indices; j++)
{
if(p->range[j] == 1) f_num_indices--;
}
//pack the index array (see tensor::Contract)
temp = 0;
for(j = 3; j < f_num_indices - 1; j++)
{
index[j] = (i - i%p->scales[j] - temp)/p->scales[j];
temp += index[j] * p->scales[j];
}
//handle range = 1 cases here
if(f_num_indices < p->num_indices)
{
index[f_num_indices - 1] = (i - temp)/p->scales[f_num_indices - 1];
for(j = f_num_indices; j < p->num_indices; j++) index[j] = 0;
}
else
{
index[j] = (i - temp)/p->scales[j];
}
//strip off only the 'field' indices leaving the indices that specify position
for(j = 0; j < num_indices; j++)
d_index[j] = index[j+3];
//set the value of dummy with the value of the field
dummy.Set(Val(index),d_index);
}
//clean up
delete [] range;
delete [] index;
delete [] d_index;
//return
return dummy;
}
BoundingBox::BoundingBox(btDiscreteDynamicsWorld* worldN)
{
world = worldN;
layer = 0;
parent = NULL;
Vertex fill = { { -0.5f*METER, -0.5f*METER, -0.5f*METER }, { 1.0f, 0.0f, 0.0f } };
GetVertices().push_back(fill);
Vertex fill1 = { { 0.5f*METER, -0.5f*METER, 0.5f*METER }, { 1.0f, 0.0f, 0.0f } };
GetVertices().push_back(fill1);
Vertex fill2 = { { -0.5f*METER, -0.5f*METER, 0.5f*METER }, { 1.0f, 0.0f, 0.0f } };
GetVertices().push_back(fill2);
Vertex fill3 = { { 0.5f*METER, -0.5f*METER, -0.5f*METER }, { 1.0f, 0.0f, 0.0f } };
GetVertices().push_back(fill3);
Vertex fill4 = { { -0.5f*METER, 0.5f*METER, -0.5f*METER }, { 1.0f, 0.0f, 0.0f } };
GetVertices().push_back(fill4);
Vertex fill5 = { { 0.5f*METER, 0.5f*METER, 0.5f*METER }, { 1.0f, 0.0f, 0.0f } };
GetVertices().push_back(fill5);
Vertex fill6 = { { -0.5f*METER, 0.5f*METER, 0.5f*METER }, { 1.0f, 0.0f, 0.0f } };
GetVertices().push_back(fill6);
Vertex fill7 = { { 0.5f*METER, 0.5f*METER, -0.5f*METER }, { 1.0f, 0.0f, 0.0f } };
GetVertices().push_back(fill7);
Index iFill1 = { glm::uvec3(0, 1, 2) };
GetIndices().push_back(iFill1);
Index iFill2 = { glm::uvec3(0, 3, 1) };
GetIndices().push_back(iFill2);
Index iFill3 = { glm::uvec3(4, 6, 5) };
GetIndices().push_back(iFill3);
Index iFill4 = { glm::uvec3(4, 5, 7) };
GetIndices().push_back(iFill4);
Index iFill5 = { glm::uvec3(0, 2, 6) };
GetIndices().push_back(iFill5);
Index iFill6 = { glm::uvec3(0, 6, 4) };
GetIndices().push_back(iFill6);
Index iFill7 = { glm::uvec3(1, 3, 7) };
GetIndices().push_back(iFill7);
Index iFill8 = { glm::uvec3(1, 7, 5) };
GetIndices().push_back(iFill8);
Index iFill9 = { glm::uvec3(0, 4, 7) };
GetIndices().push_back(iFill9);
Index iFill10 = { glm::uvec3(0, 7, 3) };
GetIndices().push_back(iFill10);
Index iFill11 = { glm::uvec3(1, 5, 6) };
GetIndices().push_back(iFill11);
Index iFill12 = { glm::uvec3(1, 6, 2) };
GetIndices().push_back(iFill12);
shape = new btBoxShape(btVector3(0.5f * METER, 0.5f * METER, 0.5f * METER));
btDefaultMotionState* fallMotionState =
new btDefaultMotionState(btTransform(btQuaternion(0, 0, 0, 1), btVector3(0, 50*METER, 0)));
btScalar mass = 1;
btVector3 fallInertia(0, 0, 0);
shape->calculateLocalInertia(mass, fallInertia);
btRigidBody::btRigidBodyConstructionInfo fallRigidBodyCI(mass, fallMotionState, shape, fallInertia);
rigidBody = new btRigidBody(fallRigidBodyCI);
world->addRigidBody(rigidBody);
Load();
}
//******************************************************************************
//Name: GetInterpTensor *
// *
//Purpose: get the interpolated tensor at an arbitrary position *
// *
//Takes: pointer to the position array *
//******************************************************************************
tensor Particle::GetInterpTensor(double *position)
{
int i, j, k, m, n;
double scaled_pos[3];
int grid_pos[3];
double W;
//initialize member data tensors
sum_Wm <= 0.0*sum_Wm;
//Set the reference position
for(i = 0; i < 3; i++) reference_pos[i] = position[i];
//Get the real indices for the scaled position
GetIndices(reference_pos, scaled_pos);
//Create the return tensor and set it to zero
// ret_dummy <= 0.0*GetTensor(reference_pos);
//Reset the normalization
normalization = 0.0;
//step through the floor steping
for( i = grid_lower_bound; i < grid_upper_bound; i++)
{
for( j = grid_lower_bound; j < grid_upper_bound; j++)
{
for( k = grid_lower_bound; k < grid_upper_bound; k++)
{
//Get the indices of the lowest corner of the cell
grid_pos[0] = (int)floor( scaled_pos[0] + i );
grid_pos[1] = (int)floor( scaled_pos[1] + j );
grid_pos[2] = (int)floor( scaled_pos[2] + k );
//find the position this grid point
GetPosition(grid_pos,current_pos);
//form the difference array and its magnitude (for use by smoother)
//and the difference position
y = 0;
for( m = 0; m < 3; m++ )
{
pos_diff[m] = reference_pos[m] - current_pos[m];
y += pos_diff[m]*pos_diff[m];
d.Set(pos_diff[m], m);
}
y = sqrt(y)/smoothing_length;
if( y > 1.0 + SMOOTHING_TOL ) continue;
//get the (psuedo) scalar smoothing value
W = Smoother(CWM_SMOOTHER);
//get the derivative of the smoothing
Smoother_Deriv(CWM_SMOOTHER);
//keep running sum
sum_Wm <= sum_Wm + Wm;
}
}
}
//Normalize the interpolated tensor
return ret_dummy;
//******************************************************************************
//Name: update_inv_g *
// *
//Purpose: scans over the relevant regions of the grid and gets a smoothed *
// version of the inverse metric at the particle *
// *
//Takes: *
//******************************************************************************
void Particle::update_inv_g(int stage)
{
int i, j, k, m, n;
double scaled_pos[3];
int grid_pos[3];
double position[3];
double W;
//loop over the particles and determine the smoothed inverse metric
//for each one
for( c1 = 0; c1 < numParticles; c1++)
{
//Set the reference position using the particle's position
reference_pos[0] = pos[stage][c1].Val(0);
reference_pos[1] = pos[stage][c1].Val(1);
reference_pos[2] = pos[stage][c1].Val(2);
//Get the real indices for the scaled position
GetIndices(reference_pos, scaled_pos);
//Reset the normalization
normalization = 0.0;
//initialize member data tensors
sum_Wm <= 0.0*sum_Wm;
T_temp4x4 <= 0.0*T_temp4x4;
T_temp4x4x3 <= 0.0*T_temp4x4x3;
//step through the floor steping
for( i = grid_lower_bound; i < grid_upper_bound; i++)
{
for( j = grid_lower_bound; j < grid_upper_bound; j++)
{
for( k = grid_lower_bound; k < grid_upper_bound; k++)
{
//Get the indices of the lowest corner of the cell
grid_pos[0] = (int)floor( scaled_pos[0] + i );
grid_pos[1] = (int)floor( scaled_pos[1] + j );
grid_pos[2] = (int)floor( scaled_pos[2] + k );
//find the metric at the particular grid point
inv_g_temp <= my_field_partner->GetInvG(stage,
grid_pos[0],
grid_pos[1],
grid_pos[2]);
//find the position this grid point
GetPosition(grid_pos,current_pos);
//form the difference array and its magnitude (for use by smoother)
//and the difference position
y = 0;
for( m = 0; m < 3; m++ )
{
pos_diff[m] = reference_pos[m] - current_pos[m];
y += pos_diff[m]*pos_diff[m];
}
y = sqrt(y)/smoothing_length;
if( y > 1.0 + SMOOTHING_TOL ) continue;
//get the (psuedo) scalar smoothing value
W = Smoother(CWM_SMOOTHER);
//get the derivative of the smoothing
Smoother_Deriv(CWM_SMOOTHER);
//keep running sum
sum_Wm <= sum_Wm + Wm;
T_temp4x4 <= T_temp4x4 + W*inv_g_temp;
T_temp4x4x3 <= T_temp4x4x3 + inv_g_temp*Wm;
}
}
}
//Normalize the interpolated tensor and pack arrays
inv_g[stage][c1] <= T_temp4x4;
d_inv_g[stage][c1] <= T_temp4x4x3;
norm[stage][c1] = normalization;
d_norm[stage][c1] <= sum_Wm;
}
void AasRenderer::Render(gfx::AnimatedModel *model,
const gfx::AnimatedModelParams& params,
gsl::span<Light3d> lights,
const MdfRenderOverrides *materialOverrides) {
// Find or create render caching data for the model
auto &renderData = mRenderDataCache[model->GetHandle()];
if (!renderData) {
renderData = std::make_unique<AasRenderData>();
}
auto materialIds(model->GetSubmeshes());
for (size_t i = 0; i < materialIds.size(); ++i) {
auto materialId = materialIds[i];
auto submesh(model->GetSubmesh(params, i));
// Remove special material marker in the upper byte and only
// use the actual shader registration id
materialId &= 0x00FFFFFF;
// Usually this should not happen, since it means there's
// an unbound replacement material
if (materialId == 0) {
continue;
}
// if material was not found
if (materialId == 0x00FFFFFF) {
continue;
}
auto material = mMdfFactory.GetById(materialId);
if (!material) {
logger->error("Legacy shader with id {} wasn't found.", materialId);
continue;
}
material->Bind(mDevice, lights, materialOverrides);
// Do we have to recalculate the normals?
if (material->GetSpec()->recalculateNormals) {
RecalcNormals(
submesh->GetVertexCount(),
submesh->GetPositions().data(),
submesh->GetNormals().data(),
submesh->GetPrimitiveCount(),
submesh->GetIndices().data()
);
}
auto &submeshData = GetSubmeshData(*renderData, i, *submesh);
submeshData.binding.Bind();
auto d3d = mDevice.GetDevice();
d3d->SetIndices(submeshData.idxBuffer->GetBuffer());
D3DLOG(d3d->DrawIndexedPrimitive(D3DPT_TRIANGLELIST, 0, 0, submesh->GetVertexCount(), 0, submesh->GetPrimitiveCount()));
}
}
void ModelDefinition::Serialize(Serializer &serializer) const
{
BasicSerializer intermediarySerializer;
/////////////////////////////////////
// Bones
intermediarySerializer.Write(static_cast<uint32_t>(m_bones.count));
// Local information.
for (size_t iBone = 0; iBone < m_bones.count; ++iBone)
{
auto bone = m_bones[iBone];
assert(bone != nullptr);
{
// Name.
intermediarySerializer.WriteString(bone->GetName());
// Relative transformation.
intermediarySerializer.Write(bone->GetPosition());
intermediarySerializer.Write(bone->GetRotation());
intermediarySerializer.Write(bone->GetScale());
// 4x4 offset matrix.
intermediarySerializer.Write(bone->GetOffsetMatrix());
}
}
// Parents. -1 for bones without parents.
for (size_t iBone = 0; iBone < m_bones.count; ++iBone)
{
auto bone = m_bones[iBone];
assert(bone != nullptr);
{
auto parentBone = bone->GetParent();
if (parentBone != nullptr)
{
size_t parentBoneIndex;
if (!this->FindBoneIndex(parentBone, parentBoneIndex))
{
assert(false);
}
intermediarySerializer.Write(static_cast<uint32_t>(parentBoneIndex));
}
else
{
intermediarySerializer.Write(static_cast<uint32_t>(-1));
}
}
}
Serialization::ChunkHeader header;
header.id = Serialization::ChunkID_Model_Bones;
header.version = 1;
header.sizeInBytes = intermediarySerializer.GetBufferSizeInBytes();
serializer.Write(header);
serializer.Write(intermediarySerializer.GetBuffer(), header.sizeInBytes);
/////////////////////////////////////
// Meshes
//
// Vertex data is always saved in P3T2N3T3B3 format. Bones are referenced using an integer to index into the list of bones defined above.
intermediarySerializer.Clear();
intermediarySerializer.Write(static_cast<uint32_t>(this->meshes.count));
for (size_t iMesh = 0; iMesh < this->meshes.count; ++iMesh)
{
// Name.
intermediarySerializer.WriteString(this->meshes[iMesh].name);
// Material.
intermediarySerializer.WriteString(this->meshes[iMesh].material->GetDefinition().relativePath);
// Vertices.
auto vertexArray = this->meshes[iMesh].geometry;
assert(vertexArray != nullptr);
{
// Vertex Format.
vertexArray->GetFormat().Serialize(intermediarySerializer);
// Vertices.
intermediarySerializer.Write(static_cast<uint32_t>(vertexArray->GetVertexCount()));
if (vertexArray->GetVertexCount() > 0)
{
intermediarySerializer.Write(vertexArray->GetVertexDataPtr(), vertexArray->GetFormat().GetSizeInBytes() * vertexArray->GetVertexCount());
}
// Indices.
intermediarySerializer.Write(static_cast<uint32_t>(vertexArray->GetIndexCount()));
if (vertexArray->GetIndexCount() > 0)
{
intermediarySerializer.Write(vertexArray->GetIndexDataPtr(), sizeof(uint32_t) * vertexArray->GetIndexCount());
}
// Skinning Vertex Attributes.
if (this->meshes[iMesh].skinningVertexAttributes != nullptr)
{
intermediarySerializer.Write(static_cast<uint32_t>(vertexArray->GetVertexCount()));
if (vertexArray->GetVertexCount() > 0)
{
uint32_t totalBoneWeights = 0;
// Bone Counts.
for (size_t iVertex = 0; iVertex < vertexArray->GetVertexCount(); ++iVertex)
{
uint16_t count = static_cast<uint16_t>(this->meshes[iMesh].skinningVertexAttributes[iVertex].bones.count);
intermediarySerializer.Write(count);
totalBoneWeights += count;
}
// Bone/Weight Pairs.
intermediarySerializer.Write(totalBoneWeights);
for (size_t iVertex = 0; iVertex < vertexArray->GetVertexCount(); ++iVertex)
{
auto &bones = this->meshes[iMesh].skinningVertexAttributes[iVertex].bones;
{
for (size_t iBone = 0; iBone < bones.count; ++iBone)
{
auto &bone = bones[iBone];
intermediarySerializer.Write(static_cast<uint32_t>(bone.boneIndex));
intermediarySerializer.Write(static_cast<float >(bone.weight));
}
}
}
}
}
else
{
intermediarySerializer.Write(static_cast<uint32_t>(0));
}
// Default uniforms.
this->meshes[iMesh].defaultUniforms.Serialize(intermediarySerializer);
}
}
header.id = Serialization::ChunkID_Model_Meshes;
header.version = 1;
header.sizeInBytes = intermediarySerializer.GetBufferSizeInBytes();
serializer.Write(header);
serializer.Write(intermediarySerializer.GetBuffer(), header.sizeInBytes);
/////////////////////////////////////
// Animation
intermediarySerializer.Clear();
intermediarySerializer.Write(static_cast<uint32_t>(m_animation.GetKeyFrameCount()));
for (uint32_t iKeyFrame = 0; iKeyFrame < m_animation.GetKeyFrameCount(); ++iKeyFrame)
{
// Time.
intermediarySerializer.Write(static_cast<float>(m_animation.GetKeyFrameTimeByIndex(iKeyFrame)));
// Channels.
intermediarySerializer.Write(static_cast<uint32_t>(this->animationChannelBones.count));
for (size_t iChannel = 0; iChannel < this->animationChannelBones.count; ++iChannel)
{
auto channel = this->animationChannelBones.buffer[iChannel]->value;
auto bone = this->animationChannelBones.buffer[iChannel]->key;
assert(channel != nullptr);
assert(bone != nullptr);
{
// Bone Index.
size_t boneIndex;
this->FindBoneIndex(bone, boneIndex);
intermediarySerializer.Write(static_cast<uint32_t>(boneIndex));
// Bone Transformation.
glm::vec3 position;
glm::quat rotation;
glm::vec3 scale;
auto key = static_cast<TransformAnimationKey*>(channel->GetKey(iKeyFrame));
if (key != nullptr)
{
position = key->position;
rotation = key->rotation;
scale = key->scale;
}
else
{
// We should never actually get here, but for completeness we'll just write identities.
position = bone->GetPosition();
rotation = bone->GetRotation();
scale = bone->GetScale();
}
intermediarySerializer.Write(position);
intermediarySerializer.Write(rotation);
intermediarySerializer.Write(scale);
}
}
}
intermediarySerializer.Write(this->animationAABBPadding);
header.id = Serialization::ChunkID_Model_Animation;
header.version = 1;
header.sizeInBytes = intermediarySerializer.GetBufferSizeInBytes();
serializer.Write(header);
serializer.Write(intermediarySerializer.GetBuffer(), header.sizeInBytes);
/////////////////////////////////////
// Animation Segments
intermediarySerializer.Clear();
intermediarySerializer.Write(static_cast<uint32_t>(m_animation.GetNamedSegmentCount()));
for (size_t iSegment = 0; iSegment < m_animation.GetNamedSegmentCount(); ++iSegment)
{
auto segment = m_animation.GetNamedSegmentByIndex(iSegment);
assert(segment != nullptr);
{
intermediarySerializer.WriteString(segment->name);
intermediarySerializer.Write(static_cast<uint32_t>(segment->startKeyFrame));
intermediarySerializer.Write(static_cast<uint32_t>(segment->endKeyFrame));
}
}
header.id = Serialization::ChunkID_Model_AnimationSegments;
header.version = 1;
header.sizeInBytes = intermediarySerializer.GetBufferSizeInBytes();
serializer.Write(header);
serializer.Write(intermediarySerializer.GetBuffer(), header.sizeInBytes);
/////////////////////////////////////
// Animation Sequences
/*
intermediarySerializer.Clear();
intermediarySerializer.Write(static_cast<uint32_t>(this->animationSequences.count));
for (size_t iSequence = 0; iSequence < this->animationSequences.count; ++iSequence)
{
}
header.id = Serialization::ChunkID_Model_AnimationSequences;
header.version = 1;
header.sizeInBytes = intermediarySerializer.GetBufferSizeInBytes();
serializer.Write(header);
serializer.Write(intermediarySerializer.GetBuffer(), header.sizeInBytes);
*/
/////////////////////////////////////
// Convex Hulls
intermediarySerializer.Clear();
intermediarySerializer.Write(static_cast<uint32_t>(m_convexHulls.count));
Vector<uint32_t> vertexCounts(m_convexHulls.count);
Vector<uint32_t> indexCounts( m_convexHulls.count);
Vector<float> vertices;
Vector<uint32_t> indices;
for (size_t iConvexHull = 0; iConvexHull < m_convexHulls.count; ++iConvexHull)
{
auto convexHull = m_convexHulls[iConvexHull];
assert(convexHull != nullptr);
{
uint32_t vertexCount = static_cast<uint32_t>(convexHull->GetVertexCount());
uint32_t indexCount = static_cast<uint32_t>(convexHull->GetIndexCount());
vertexCounts.PushBack(vertexCount);
indexCounts.PushBack( indexCount);
for (uint32_t iVertex = 0; iVertex < vertexCount; ++iVertex)
{
vertices.PushBack(convexHull->GetVertices()[iVertex * 3 + 0]);
vertices.PushBack(convexHull->GetVertices()[iVertex * 3 + 1]);
vertices.PushBack(convexHull->GetVertices()[iVertex * 3 + 2]);
}
for (uint32_t iIndex = 0; iIndex < indexCount; ++iIndex)
{
indices.PushBack(convexHull->GetIndices()[iIndex]);
}
}
}
intermediarySerializer.Write(vertexCounts.buffer, vertexCounts.count * 4);
intermediarySerializer.Write(indexCounts.buffer, indexCounts.count * 4);
intermediarySerializer.Write(static_cast<uint32_t>(vertices.count));
intermediarySerializer.Write(static_cast<uint32_t>(indices.count));
intermediarySerializer.Write(vertices.buffer, vertices.count * 4);
intermediarySerializer.Write(indices.buffer, indices.count * 4);
intermediarySerializer.Write(this->convexHullBuildSettings);
header.id = Serialization::ChunkID_Model_ConvexHulls;
header.version = 1;
header.sizeInBytes = intermediarySerializer.GetBufferSizeInBytes();
serializer.Write(header);
serializer.Write(intermediarySerializer.GetBuffer(), header.sizeInBytes);
/////////////////////////////////////
// Null Chunk
header.id = Serialization::ChunkID_Null;
header.version = 1;
header.sizeInBytes = 0;
serializer.Write(header);
}
