//=============================================================================
Epetra_IntSerialDenseMatrix::Epetra_IntSerialDenseMatrix(Epetra_DataAccess CV, int* A, int LDA,
int NumRows, int NumCols)
: Epetra_Object("Epetra::IntSerialDenseMatrix"),
CV_(CV),
A_Copied_(false),
M_(NumRows),
N_(NumCols),
LDA_(LDA),
A_(A)
{
if(A == 0)
throw ReportError("Null pointer passed as A parameter.", -3);
if(NumRows < 0)
throw ReportError("NumRows = " + toString(NumRows) + ". Should be >= 0", -1);
if(NumCols < 0)
throw ReportError("NumCols = " + toString(NumCols) + ". Should be >= 0", -1);
if(LDA < 0)
throw ReportError("LDA = " + toString(LDA) + ". Should be >= 0", -1);
if(CV == Copy) {
LDA_ = M_;
const int newsize = LDA_ * N_;
if(newsize > 0) {
A_ = new int[newsize];
CopyMat(A, LDA, M_, N_, A_, LDA_);
A_Copied_ = true;
}
else {
A_ = 0;
}
}
}
//=============================================================================
int Epetra_IntSerialDenseMatrix::Reshape(int NumRows, int NumCols) {
if(NumRows < 0 || NumCols < 0)
return(-1);
int* A_tmp = 0;
const int newsize = NumRows * NumCols;
if(newsize > 0) {
// Allocate space for new matrix
A_tmp = new int[newsize];
for(int k = 0; k < newsize; k++)
A_tmp[k] = 0; // Zero out values
int M_tmp = EPETRA_MIN(M_, NumRows);
int N_tmp = EPETRA_MIN(N_, NumCols);
if(A_ != 0)
CopyMat(A_, LDA_, M_tmp, N_tmp, A_tmp, NumRows); // Copy principal submatrix of A to new A
}
CleanupData(); // Get rid of anything that might be already allocated
M_ = NumRows;
N_ = NumCols;
LDA_ = M_;
A_ = A_tmp; // Set pointer to new A
A_Copied_ = (newsize>0);
return(0);
}
//=============================================================================
Epetra_LongLongSerialDenseMatrix::Epetra_LongLongSerialDenseMatrix(Epetra_DataAccess CV_in, long long* A_in, int lda,
int NumRows, int NumCols)
: Epetra_Object("Epetra::LongLongSerialDenseMatrix"),
CV_(CV_in),
A_Copied_(false),
M_(NumRows),
N_(NumCols),
LDA_(lda),
A_(A_in)
{
if(A_in == 0)
throw ReportError("Null pointer passed as A_in parameter.", -3);
if(NumRows < 0)
throw ReportError("NumRows = " + toString(NumRows) + ". Should be >= 0", -1);
if(NumCols < 0)
throw ReportError("NumCols = " + toString(NumCols) + ". Should be >= 0", -1);
if(lda < 0)
throw ReportError("LDA = " + toString(lda) + ". Should be >= 0", -1);
if(CV_in == Copy) {
LDA_ = M_;
const int newsize = LDA_ * N_;
if(newsize > 0) {
A_ = new long long[newsize];
CopyMat(A_in, lda, M_, N_, A_, LDA_);
A_Copied_ = true;
}
else {
A_ = 0;
}
}
}
std::vector<glm::mat4> Mesh::
GetOffsetFromMesh(const aiMesh* pMesh,
std::map<std::string, uint> Bone2TfIdx)
{
std::vector<glm::mat4> BoneOffset(Bone2TfIdx.size());
// Fill OffsetMatrix
for(uint i=0; i< pMesh->mNumBones; i++)
{
uint boneIdx =0;
std::string BoneNm(pMesh->mBones[i]->mName.data);
if(Bone2TfIdx.find(BoneNm) != Bone2TfIdx.end())
{
boneIdx = Bone2TfIdx[BoneNm];
CopyMat(pMesh->mBones[i]->mOffsetMatrix, BoneOffset[boneIdx]);
//printf("Idx: %2u, Name: %s\n", boneIdx, BoneNm.c_str());
//pprintMat16(mBoneOffset[boneIdx]);
}
else
{
//printf("Not needed: %s\n", BoneNm.c_str());
}
}
return BoneOffset;
}
bool Mesh::InitBonesFromMesh(const aiMesh* pMesh,
std::vector<VtxBoneInfo>& bones)
{
// Fill OffsetMatrix
for(uint i=0; i< pMesh->mNumBones; i++)
{
uint boneIdx =0;
std::string BoneNm(pMesh->mBones[i]->mName.data);
if(mBone2TfIdx.find(BoneNm) != mBone2TfIdx.end())
{
boneIdx = mBone2TfIdx[BoneNm];
CopyMat(pMesh->mBones[i]->mOffsetMatrix, mBoneOffset[boneIdx]);
//printf("Idx: %2u, Name: %s\n", boneIdx, BoneNm.c_str());
//pprintMat16(mBoneOffset[boneIdx]);
}
else
{
//printf("Not needed: %s\n", BoneNm.c_str());
}
// Fill weights:
for (unsigned int j=0; j< pMesh->mBones[i]->mNumWeights; j++)
{
unsigned int Vid = pMesh->mBones[i]->mWeights[j].mVertexId;
float weight = pMesh->mBones[i]->mWeights[j].mWeight;
// printf("vid = %u, weight = %f\n", Vid, weight);
bones[Vid].AddBoneData(boneIdx, weight);
}
}
return true;
}
//=============================================================================
Epetra_IntSerialDenseMatrix& Epetra_IntSerialDenseMatrix::operator = (const Epetra_IntSerialDenseMatrix& Source) {
if(this == &Source)
return(*this); // Special case of source same as target
if((CV_ == View) && (Source.CV_ == View) && (A_ == Source.A_))
return(*this); // Special case of both are views to same data.
if(std::strcmp(Label(), Source.Label()) != 0)
throw ReportError("operator= type mismatch (lhs = " + string(Label()) +
", rhs = " + string(Source.Label()) + ").", -5);
if(Source.CV_ == View) {
if(CV_ == Copy) { // C->V only
CleanupData();
CV_ = View;
}
M_ = Source.M_; // C->V and V->V
N_ = Source.N_;
LDA_ = Source.LDA_;
A_ = Source.A_;
}
else {
if(CV_ == View) { // V->C
CV_ = Copy;
M_ = Source.M_;
N_ = Source.N_;
LDA_ = Source.M_;
const int newsize = LDA_ * N_;
if(newsize > 0) {
A_ = new int[newsize];
A_Copied_ = true;
}
else {
A_ = 0;
A_Copied_ = false;
}
}
else { // C->C
if((Source.M_ <= LDA_) && (Source.N_ == N_)) { // we don't need to reallocate
M_ = Source.M_;
N_ = Source.N_;
}
else { // we need to allocate more space (or less space)
CleanupData();
M_ = Source.M_;
N_ = Source.N_;
LDA_ = Source.M_;
const int newsize = LDA_ * N_;
if(newsize > 0) {
A_ = new int[newsize];
A_Copied_ = true;
}
}
}
CopyMat(Source.A_, Source.LDA_, M_, N_, A_, LDA_); // V->C and C->C
}
return(*this);
}
void Animation::
ReadNodeHeirarchy(int frameIdx,
const aiNode* pNode,
const glm::mat4& parTf)
{
std::string nodeName(pNode->mName.data);
if (mBoneIdx.find(nodeName) == mBoneIdx.end())
return;
uint32 boneIdx = mBoneIdx[nodeName];
const aiNodeAnim* pAnim = mBoneAnim[boneIdx];
aiVectorKey& sc= pAnim->mScalingKeys[frameIdx % pAnim->mNumScalingKeys];
aiMatrix4x4 matScale;
aiMatrix4x4::Scaling(sc.mValue, matScale);
aiQuatKey& qt = pAnim->mRotationKeys[frameIdx % pAnim->mNumRotationKeys];
aiMatrix4x4 matRotat(qt.mValue.GetMatrix());
aiVectorKey& tr = pAnim->mPositionKeys[frameIdx % pAnim->mNumPositionKeys];
aiMatrix4x4 matTrans;
aiMatrix4x4::Translation(tr.mValue, matTrans);
// Convert from aiMatrix4x4 to glm::mat4
glm::mat4 nodeTf;
CopyMat(matTrans * matRotat * matScale, nodeTf);
glm::mat4 globalTf= parTf * nodeTf;
glm::mat4 finalTf = globalTf * mBoneOffsets[boneIdx];
mBoneFinalTf[boneIdx] = finalTf;
// Print out info
// cout << nodeName << endl;
// pprintMat4x4(finalTf);
// pprintScQtTr(sc.mValue, qt.mValue, tr.mValue);
// pprintMat16(nodeTf);
for(uint i=0; i< pNode->mNumChildren; ++i)
ReadNodeHeirarchy(frameIdx, pNode->mChildren[i], globalTf);
}
//=============================================================================
Epetra_IntSerialDenseMatrix::Epetra_IntSerialDenseMatrix(const Epetra_IntSerialDenseMatrix& Source)
: Epetra_Object(Source),
CV_(Source.CV_),
A_Copied_(false),
M_(Source.M_),
N_(Source.N_),
LDA_(Source.LDA_),
A_(Source.A_)
{
if(CV_ == Copy) {
LDA_ = M_;
const int newsize = LDA_ * N_;
if(newsize > 0) {
A_ = new int[newsize];
CopyMat(Source.A_, Source.LDA_, M_, N_, A_, LDA_);
A_Copied_ = true;
}
else {
A_ = 0;
A_Copied_ = false;
}
}
}