MStatus AlembicHair::Save(double time, unsigned int timeIndex,
bool isFirstFrame)
{
ESS_PROFILE_SCOPE("AlembicHair::Save");
MStatus status;
// access the geometry
MFnPfxGeometry node(GetRef());
// save the metadata
SaveMetaData(this);
// save the attributes
if (isFirstFrame) {
Abc::OCompoundProperty cp;
Abc::OCompoundProperty up;
if (AttributesWriter::hasAnyAttr(node, *GetJob())) {
cp = mSchema.getArbGeomParams();
up = mSchema.getUserProperties();
}
mAttrs = AttributesWriterPtr(
new AttributesWriter(cp, up, GetMyParent(), node, timeIndex, *GetJob())
);
}
else {
mAttrs->write();
}
// prepare the bounding box
Abc::Box3d bbox;
// check if we have the global cache option
const bool globalCache =
GetJob()->GetOption(L"exportInGlobalSpace").asInt() > 0;
MRenderLineArray mainLines, leafLines, flowerLines;
node.getLineData(mainLines, leafLines, flowerLines, true, false,
mNumSamples == 0, false, false, mNumSamples == 0, false,
true, globalCache);
// first we need to count the number of points
unsigned int vertexCount = 0;
for (unsigned int i = 0; i < (unsigned int)mainLines.length(); i++) {
vertexCount += mainLines.renderLine(i, &status).getLine().length();
}
mPosVec.resize(vertexCount);
unsigned int offset = 0;
if (mNumSamples == 0) {
mNbVertices.resize((size_t)mainLines.length());
mRadiusVec.resize(vertexCount);
mColorVec.resize(vertexCount);
for (unsigned int i = 0; i < (unsigned int)mainLines.length(); i++) {
const MRenderLine &line = mainLines.renderLine(i, &status);
const MVectorArray &positions = line.getLine();
const MDoubleArray &radii = line.getWidth();
const MVectorArray &colors = line.getColor();
const MVectorArray &transparencies = line.getTransparency();
mNbVertices[i] = positions.length();
for (unsigned int j = 0; j < positions.length(); j++) {
const MVector &opos = positions[j];
Imath::V3f &ipos = mPosVec[offset];
ipos.x = (float)opos.x;
ipos.y = (float)opos.y;
ipos.z = (float)opos.z;
bbox.extendBy(Imath::V3d(ipos));
mRadiusVec[offset] = (float)radii[j];
const MVector &ocol = colors[j];
Imath::C4f &icol = mColorVec[offset];
icol.r = (float)ocol.x;
icol.g = (float)ocol.y;
icol.b = (float)ocol.z;
icol.a = 1.0f - (float)transparencies[j].x;
offset++;
}
}
}
else {
for (unsigned int i = 0; i < (unsigned int)mainLines.length(); i++) {
const MRenderLine &line = mainLines.renderLine(i, &status);
const MVectorArray &positions = line.getLine();
for (unsigned int j = 0; j < positions.length(); j++) {
const MVector &opos = positions[j];
Imath::V3f &ipos = mPosVec[offset];
ipos.x = (float)opos.x;
ipos.y = (float)opos.y;
ipos.z = (float)opos.z;
bbox.extendBy(Imath::V3d(ipos));
offset++;
}
}
}
// store the positions to the samples
mSample.setPositions(Abc::P3fArraySample(&mPosVec.front(), mPosVec.size()));
mSample.setSelfBounds(bbox);
if (mNumSamples == 0) {
mSample.setCurvesNumVertices(Abc::Int32ArraySample(mNbVertices));
mSample.setWrap(AbcG::kNonPeriodic);
mSample.setType(AbcG::kLinear);
mRadiusProperty.set(
Abc::FloatArraySample(&mRadiusVec.front(), mRadiusVec.size()));
mColorProperty.set(
Abc::C4fArraySample(&mColorVec.front(), mColorVec.size()));
}
// save the sample
mSchema.set(mSample);
mNumSamples++;
return MStatus::kSuccess;
}
bool AlembicPoints::Save(double time, bool bLastFrame)
{
ESS_PROFILE_FUNC();
// Note: Particles are always considered to be animated even though
// the node does not have the IsAnimated() flag.
// Extract our particle emitter at the given time
TimeValue ticks = GetTimeValueFromFrame(time);
Object *obj = mMaxNode->EvalWorldState(ticks).obj;
SaveMetaData(mMaxNode, this);
SimpleParticle* pSimpleParticle = (SimpleParticle*)obj->GetInterface(I_SIMPLEPARTICLEOBJ);
IPFSystem* ipfSystem = GetPFSystemInterface(obj);
IParticleObjectExt* particlesExt = GetParticleObjectExtInterface(obj);
#ifdef THINKING_PARTICLES
ParticleMat* pThinkingParticleMat = NULL;
TP_MasterSystemInterface* pTPMasterSystemInt = NULL;
if(obj->CanConvertToType(MATTERWAVES_CLASS_ID))
{
pThinkingParticleMat = reinterpret_cast<ParticleMat*>(obj->ConvertToType(ticks, MATTERWAVES_CLASS_ID));
pTPMasterSystemInt = reinterpret_cast<TP_MasterSystemInterface*>(obj->GetInterface(IID_TP_MASTERSYSTEM));
}
#endif
const bool bAutomaticInstancing = GetCurrentJob()->GetOption("automaticInstancing");
if(
#ifdef THINKING_PARTICLES
!pThinkingParticleMat &&
#endif
!particlesExt && !pSimpleParticle){
return false;
}
//We have to put the particle system into the renders state so that PFOperatorMaterialFrequency::Proceed will set the materialID channel
//Note: settting the render state to true breaks the shape node instancing export
bool bRenderStateForced = false;
if(bAutomaticInstancing && ipfSystem && !ipfSystem->IsRenderState()){
ipfSystem->SetRenderState(true);
bRenderStateForced = true;
}
int numParticles = 0;
#ifdef THINKING_PARTICLES
if(pThinkingParticleMat){
numParticles = pThinkingParticleMat->NumParticles();
}
else
#endif
if(particlesExt){
particlesExt->UpdateParticles(mMaxNode, ticks);
numParticles = particlesExt->NumParticles();
}
else if(pSimpleParticle){
pSimpleParticle->Update(ticks, mMaxNode);
numParticles = pSimpleParticle->parts.points.Count();
}
// Store positions, velocity, width/size, scale, id, bounding box
std::vector<Abc::V3f> positionVec;
std::vector<Abc::V3f> velocityVec;
std::vector<Abc::V3f> scaleVec;
std::vector<float> widthVec;
std::vector<float> ageVec;
std::vector<float> massVec;
std::vector<float> shapeTimeVec;
std::vector<Abc::uint64_t> idVec;
std::vector<Abc::uint16_t> shapeTypeVec;
std::vector<Abc::uint16_t> shapeInstanceIDVec;
std::vector<Abc::Quatf> orientationVec;
std::vector<Abc::Quatf> angularVelocityVec;
std::vector<Abc::C4f> colorVec;
positionVec.reserve(numParticles);
velocityVec.reserve(numParticles);
scaleVec.reserve(numParticles);
widthVec.reserve(numParticles);
ageVec.reserve(numParticles);
massVec.reserve(numParticles);
shapeTimeVec.reserve(numParticles);
idVec.reserve(numParticles);
shapeTypeVec.reserve(numParticles);
shapeInstanceIDVec.reserve(numParticles);
orientationVec.reserve(numParticles);
angularVelocityVec.reserve(numParticles);
colorVec.reserve(numParticles);
//std::vector<std::string> instanceNamesVec;
Abc::Box3d bbox;
bool constantPos = true;
bool constantVel = true;
bool constantScale = true;
bool constantWidth = true;
bool constantAge = true;
bool constantOrientation = true;
bool constantAngularVel = true;
bool constantColor = true;
if(bAutomaticInstancing){
SetMaxSceneTime(ticks);
}
//The MAX interfaces return everything in world coordinates,
//so we need to multiply the inverse the node world transform matrix
Matrix3 nodeWorldTM = mMaxNode->GetObjTMAfterWSM(ticks);
// Convert the max transform to alembic
Matrix3 alembicMatrix;
ConvertMaxMatrixToAlembicMatrix(nodeWorldTM, alembicMatrix);
Abc::M44d nodeWorldTrans( alembicMatrix.GetRow(0).x, alembicMatrix.GetRow(0).y, alembicMatrix.GetRow(0).z, 0,
alembicMatrix.GetRow(1).x, alembicMatrix.GetRow(1).y, alembicMatrix.GetRow(1).z, 0,
alembicMatrix.GetRow(2).x, alembicMatrix.GetRow(2).y, alembicMatrix.GetRow(2).z, 0,
alembicMatrix.GetRow(3).x, alembicMatrix.GetRow(3).y, alembicMatrix.GetRow(3).z, 1);
Abc::M44d nodeWorldTransInv = nodeWorldTrans.inverse();
//ESS_LOG_WARNING("tick: "<<ticks<<" numParticles: "<<numParticles<<"\n");
ExoNullView nullView;
particleGroupInterface groupInterface(particlesExt, obj, mMaxNode, &nullView);
{
ESS_PROFILE_SCOPE("AlembicPoints::SAVE - numParticlesLoop");
for (int i = 0; i < numParticles; ++i)
{
Abc::V3f pos(0.0);
Abc::V3f vel(0.0);
Abc::V3f scale(1.0);
Abc::C4f color(0.5, 0.5, 0.5, 1.0);
float age = 0;
Abc::uint64_t id = 0;
Abc::Quatd orientation(0.0, 0.0, 1.0, 0.0);
Abc::Quatd spin(0.0, 0.0, 1.0, 0.0);
// Particle size is a uniform scale multiplier in XSI. In Max, I need to learn where to get this
// For now, we'll just default to 1
float width = 1.0f;
ShapeType shapetype = ShapeType_Point;
float shapeInstanceTime = (float)time;
Abc::uint16_t shapeInstanceId = 0;
#ifdef THINKING_PARTICLES
if(pThinkingParticleMat){
if(pTPMasterSystemInt->IsAlive(i) == FALSE){
continue;
}
//TimeValue ageValue = particlesExt->GetParticleAgeByIndex(i);
TimeValue ageValue = pTPMasterSystemInt->Age(i);
if(ageValue == -1){
continue;
}
ESS_PROFILE_SCOPE("AlembicPoints::SAVE - numParticlesLoop - ThinkingParticles");
age = (float)GetSecondsFromTimeValue(ageValue);
//pos = ConvertMaxPointToAlembicPoint(*particlesExt->GetParticlePositionByIndex(i));
pos = ConvertMaxPointToAlembicPoint(pTPMasterSystemInt->Position(i));
//vel = ConvertMaxVectorToAlembicVector(*particlesExt->GetParticleSpeedByIndex(i) * TIME_TICKSPERSEC);
vel = ConvertMaxVectorToAlembicVector(pTPMasterSystemInt->Velocity(i) * TIME_TICKSPERSEC);
scale = ConvertMaxScaleToAlembicScale(pTPMasterSystemInt->Scale(i));
scale *= pTPMasterSystemInt->Size(i);
//ConvertMaxEulerXYZToAlembicQuat(*particlesExt->GetParticleOrientationByIndex(i), orientation);
Matrix3 alignmentMatMax = pTPMasterSystemInt->Alignment(i);
Abc::M44d alignmentMat;
ConvertMaxMatrixToAlembicMatrix(alignmentMatMax, alignmentMat);
/*alignmentMat = Abc::M44d( alignmentMatMax.GetRow(0).x, alignmentMatMax.GetRow(0).y, alignmentMatMax.GetRow(0).z, 0,
alignmentMatMax.GetRow(1).x, alignmentMatMax.GetRow(1).y, alignmentMatMax.GetRow(1).z, 0,
alignmentMatMax.GetRow(2).x, alignmentMatMax.GetRow(2).y, alignmentMatMax.GetRow(2).z, 0,
alignmentMatMax.GetRow(3).x, alignmentMatMax.GetRow(3).y, alignmentMatMax.GetRow(3).z, 1);*/
//orientation = ConvertMaxQuatToAlembicQuat(extracctuat(alignmentMat), true);
alignmentMat = alignmentMat * nodeWorldTransInv;
orientation = extractQuat(alignmentMat);
//ConvertMaxAngAxisToAlembicQuat(*particlesExt->GetParticleSpinByIndex(i), spin);
ConvertMaxAngAxisToAlembicQuat(pTPMasterSystemInt->Spin(i), spin);
id = particlesExt->GetParticleBornIndex(i);
//seems to always return 0
//int nPid = pThinkingParticleMat->ParticleID(i);
int nMatId = -1;
Matrix3 meshTM;
meshTM.IdentityMatrix();
BOOL bNeedDelete = FALSE;
BOOL bChanged = FALSE;
Mesh* pMesh = NULL;
{
ESS_PROFILE_SCOPE("AlembicPoints::SAVE - numParticlesLoop - ThinkingParticles - GetParticleRenderMesh");
pMesh = pThinkingParticleMat->GetParticleRenderMesh(ticks, mMaxNode, nullView, bNeedDelete, i, meshTM, bChanged);
}
if(pMesh){
ESS_PROFILE_SCOPE("AlembicPoints::SAVE - numParticlesLoop - ThinkingParticles - CacheShapeMesh");
meshInfo mi = CacheShapeMesh(pMesh, bNeedDelete, meshTM, nMatId, i, ticks, shapetype, shapeInstanceId, shapeInstanceTime);
Abc::V3d min = pos + mi.bbox.min;
Abc::V3d max = pos + mi.bbox.max;
bbox.extendBy(min);
bbox.extendBy(max);
}
else{
shapetype = ShapeType_Point;
}
}
else
#endif
if(particlesExt && ipfSystem){
TimeValue ageValue = particlesExt->GetParticleAgeByIndex(i);
if(ageValue == -1){
continue;
}
age = (float)GetSecondsFromTimeValue(ageValue);
pos = ConvertMaxPointToAlembicPoint(*particlesExt->GetParticlePositionByIndex(i));
vel = ConvertMaxVectorToAlembicVector(*particlesExt->GetParticleSpeedByIndex(i) * TIME_TICKSPERSEC);
scale = ConvertMaxScaleToAlembicScale(*particlesExt->GetParticleScaleXYZByIndex(i));
ConvertMaxEulerXYZToAlembicQuat(*particlesExt->GetParticleOrientationByIndex(i), orientation);
ConvertMaxAngAxisToAlembicQuat(*particlesExt->GetParticleSpinByIndex(i), spin);
//age = (float)GetSecondsFromTimeValue(particlesExt->GetParticleAgeByIndex(i));
id = particlesExt->GetParticleBornIndex(i);
if(bAutomaticInstancing){
int nMatId = -1;
if(ipfSystem){
if( groupInterface.setCurrentParticle(ticks, i) ){
nMatId = groupInterface.getCurrentMtlId();
}
else{
ESS_LOG_WARNING("Error: cound retrieve material ID for particle mesh "<<i);
}
}
Matrix3 meshTM;
meshTM.IdentityMatrix();
BOOL bNeedDelete = FALSE;
BOOL bChanged = FALSE;
Mesh* pMesh = pMesh = particlesExt->GetParticleShapeByIndex(i);
if(pMesh){
meshInfo mi = CacheShapeMesh(pMesh, bNeedDelete, meshTM, nMatId, i, ticks, shapetype, shapeInstanceId, shapeInstanceTime);
Abc::V3d min = pos + mi.bbox.min;
Abc::V3d max = pos + mi.bbox.max;
bbox.extendBy(min);
bbox.extendBy(max);
}
else{
shapetype = ShapeType_Point;
}
}
else{
GetShapeType(particlesExt, i, ticks, shapetype, shapeInstanceId, shapeInstanceTime);
}
color = GetColor(particlesExt, i, ticks);
}
else if(pSimpleParticle){
if( ! pSimpleParticle->parts.Alive( i ) ) {
continue;
}
pos = ConvertMaxPointToAlembicPoint(pSimpleParticle->ParticlePosition(ticks, i));
vel = ConvertMaxVectorToAlembicVector(pSimpleParticle->ParticleVelocity(ticks, i));
//simple particles have no scale?
//simple particles have no orientation?
age = (float)GetSecondsFromTimeValue( pSimpleParticle->ParticleAge(ticks, i) );
//simple particles have born index
width = pSimpleParticle->ParticleSize(ticks, i);
Abc::V3d min(pos.x - width/2, pos.y - width/2, pos.z - width/2);
Abc::V3d max(pos.x + width/2, pos.y + width/2, pos.z + width/2);
bbox.extendBy(min);
bbox.extendBy(max);
}
{
ESS_PROFILE_SCOPE("AlembicPoints::SAVE - numParticlesLoop - end loop save");
//move everything from world space to local space
pos = pos * nodeWorldTransInv;
Abc::V4f vel4(vel.x, vel.y, vel.z, 0.0);
vel4 = vel4 * nodeWorldTransInv;
vel.setValue(vel4.x, vel4.y, vel4.z);
//scale = scale * nodeWorldTransInv;
//orientation = Abc::extractQuat(orientation.toMatrix44() * nodeWorldTransInv);
//spin = Abc::extractQuat(spin.toMatrix44() * nodeWorldTransInv);
bbox.extendBy( pos );
positionVec.push_back( pos );
velocityVec.push_back( vel );
scaleVec.push_back( scale );
widthVec.push_back( width );
ageVec.push_back( age );
idVec.push_back( id );
orientationVec.push_back( orientation );
angularVelocityVec.push_back( spin );
shapeTypeVec.push_back( shapetype );
shapeInstanceIDVec.push_back( shapeInstanceId );
shapeTimeVec.push_back( shapeInstanceTime );
colorVec.push_back( color );
constantPos &= (pos == positionVec[0]);
constantVel &= (vel == velocityVec[0]);
constantScale &= (scale == scaleVec[0]);
constantWidth &= (width == widthVec[0]);
constantAge &= (age == ageVec[0]);
constantOrientation &= (orientation == orientationVec[0]);
constantAngularVel &= (spin == angularVelocityVec[0]);
constantColor &= (color == colorVec[0]);
// Set the archive bounding box
// Positions for particles are already cnsider to be in world space
if (mJob)
{
mJob->GetArchiveBBox().extendBy(pos);
}
}
}
}
// if (numParticles > 1)
// {
// ESS_PROFILE_SCOPE("AlembicPoints::Save - vectorResize");
// if (constantPos) { positionVec.resize(1); }
// if (constantVel) { velocityVec.resize(1); }
// if (constantScale) { scaleVec.resize(1); }
// if (constantWidth) { widthVec.resize(1); }
// if (constantAge) { ageVec.resize(1); }
// if (constantOrientation){ orientationVec.resize(1); }
// if (constantAngularVel) { angularVelocityVec.resize(1); }
//if (constantColor) { colorVec.resize(1); }
// }
{
ESS_PROFILE_SCOPE("AlembicPoints::Save - sample writing");
// Store the information into our properties and points schema
Abc::P3fArraySample positionSample( positionVec);
Abc::P3fArraySample velocitySample(velocityVec);
Abc::P3fArraySample scaleSample(scaleVec);
Abc::FloatArraySample widthSample(widthVec);
Abc::FloatArraySample ageSample(ageVec);
Abc::FloatArraySample massSample(massVec);
Abc::FloatArraySample shapeTimeSample(shapeTimeVec);
Abc::UInt64ArraySample idSample(idVec);
Abc::UInt16ArraySample shapeTypeSample(shapeTypeVec);
Abc::UInt16ArraySample shapeInstanceIDSample(shapeInstanceIDVec);
Abc::QuatfArraySample orientationSample(orientationVec);
Abc::QuatfArraySample angularVelocitySample(angularVelocityVec);
Abc::C4fArraySample colorSample(colorVec);
mScaleProperty.set(scaleSample);
mAgeProperty.set(ageSample);
mMassProperty.set(massSample);
mShapeTimeProperty.set(shapeTimeSample);
mShapeTypeProperty.set(shapeTypeSample);
mShapeInstanceIDProperty.set(shapeInstanceIDSample);
mOrientationProperty.set(orientationSample);
mAngularVelocityProperty.set(angularVelocitySample);
mColorProperty.set(colorSample);
mPointsSample.setPositions(positionSample);
mPointsSample.setVelocities(velocitySample);
mPointsSample.setWidths(AbcG::OFloatGeomParam::Sample(widthSample, AbcG::kVertexScope));
mPointsSample.setIds(idSample);
mPointsSample.setSelfBounds(bbox);
mPointsSchema.getChildBoundsProperty().set( bbox);
mPointsSchema.set(mPointsSample);
}
mNumSamples++;
//mInstanceNames.pop_back();
if(bAutomaticInstancing){
saveCurrentFrameMeshes();
}
if(bRenderStateForced){
ipfSystem->SetRenderState(false);
}
if(bLastFrame){
ESS_PROFILE_SCOPE("AlembicParticles::Save - save instance names property");
std::vector<std::string> instanceNames(mNumShapeMeshes);
for(faceVertexHashToShapeMap::iterator it = mShapeMeshCache.begin(); it != mShapeMeshCache.end(); it++){
std::stringstream pathStream;
pathStream << "/" << it->second.name<< "/" << it->second.name <<"Shape";
instanceNames[it->second.nMeshInstanceId] = pathStream.str();
}
//for some reason the .dims property is not written when there is exactly one entry if we don't push an empty string
//having an extra unreferenced entry seems to be harmless
instanceNames.push_back("");
mInstanceNamesProperty.set(Abc::StringArraySample(instanceNames));
}
return true;
}
XSI::CStatus AlembicNurbs::Save(double time)
{
// store the transform
Primitive prim(GetRef(REF_PRIMITIVE));
bool globalSpace = GetJob()->GetOption(L"globalSpace");
// query the global space
CTransformation globalXfo;
if (globalSpace) {
globalXfo = KinematicState(GetRef(REF_GLOBAL_TRANS)).GetTransform(time);
}
// store the metadata
SaveMetaData(GetRef(REF_NODE), this);
// check if the nurbs is animated
if (mNumSamples > 0) {
if (!isRefAnimated(GetRef(REF_PRIMITIVE))) {
return CStatus::OK;
}
}
// define additional vectors, necessary for this task
std::vector<Abc::V3f> posVec;
std::vector<Abc::N3f> normalVec;
std::vector<AbcA::uint32_t> normalIndexVec;
// access the mesh
NurbsSurfaceMesh nurbs = prim.GetGeometry(time);
CVector3Array pos = nurbs.GetPoints().GetPositionArray();
LONG vertCount = pos.GetCount();
// prepare the bounding box
Abc::Box3d bbox;
// allocate the points and normals
posVec.resize(vertCount);
for (LONG i = 0; i < vertCount; i++) {
if (globalSpace) {
pos[i] = MapObjectPositionToWorldSpace(globalXfo, pos[i]);
}
posVec[i].x = (float)pos[i].GetX();
posVec[i].y = (float)pos[i].GetY();
posVec[i].z = (float)pos[i].GetZ();
bbox.extendBy(posVec[i]);
}
// allocate the sample for the points
if (posVec.size() == 0) {
bbox.extendBy(Abc::V3f(0, 0, 0));
posVec.push_back(Abc::V3f(FLT_MAX, FLT_MAX, FLT_MAX));
}
Abc::P3fArraySample posSample(&posVec.front(), posVec.size());
// store the positions && bbox
if (mNumSamples == 0) {
std::vector<float> knots(1);
knots[0] = 0.0f;
mNurbsSample.setUKnot(Abc::FloatArraySample(&knots.front(), knots.size()));
mNurbsSample.setVKnot(Abc::FloatArraySample(&knots.front(), knots.size()));
}
mNurbsSample.setPositions(posSample);
mNurbsSample.setSelfBounds(bbox);
// abort here if we are just storing points
mNurbsSchema.set(mNurbsSample);
mNumSamples++;
return CStatus::OK;
}
bool AlembicCurves::Save(double time, bool bLastFrame)
{
ESS_PROFILE_FUNC();
//TimeValue ticks = GET_MAX_INTERFACE()->GetTime();
TimeValue ticks = GetTimeValueFromFrame(time);
Object *obj = mMaxNode->EvalWorldState(ticks).obj;
if(mNumSamples == 0){
bForever = CheckIfObjIsValidForever(obj, ticks);
}
else{
bool bNewForever = CheckIfObjIsValidForever(obj, ticks);
if(bForever && bNewForever != bForever){
ESS_LOG_INFO( "bForever has changed" );
}
}
SaveMetaData(mMaxNode, this);
// check if the spline is animated
if(mNumSamples > 0)
{
if(bForever)
{
return true;
}
}
AbcG::OCurvesSchema::Sample curvesSample;
std::vector<AbcA::int32_t> nbVertices;
std::vector<Point3> vertices;
std::vector<float> knotVector;
std::vector<Abc::uint16_t> orders;
if(obj->ClassID() == EDITABLE_SURF_CLASS_ID){
NURBSSet nurbsSet;
BOOL success = GetNURBSSet(obj, ticks, nurbsSet, TRUE);
AbcG::CurvePeriodicity cPeriod = AbcG::kNonPeriodic;
AbcG::CurveType cType = AbcG::kCubic;
AbcG::BasisType cBasis = AbcG::kNoBasis;
int n = nurbsSet.GetNumObjects();
for(int i=0; i<n; i++){
NURBSObject* pObject = nurbsSet.GetNURBSObject((int)i);
//NURBSType type = pObject->GetType();
if(!pObject){
continue;
}
if( pObject->GetKind() == kNURBSCurve ){
NURBSCurve* pNurbsCurve = (NURBSCurve*)pObject;
int degree;
int numCVs;
NURBSCVTab cvs;
int numKnots;
NURBSKnotTab knots;
pNurbsCurve->GetNURBSData(ticks, degree, numCVs, cvs, numKnots, knots);
orders.push_back(degree+1);
const int cvsCount = cvs.Count();
const int knotCount = knots.Count();
for(int j=0; j<cvs.Count(); j++){
NURBSControlVertex cv = cvs[j];
double x, y, z;
cv.GetPosition(ticks, x, y, z);
vertices.push_back( Point3((float)x, (float)y, (float)z) );
}
nbVertices.push_back(cvsCount);
//skip the first and last entry because Maya and XSI use this format
for(int j=1; j<knots.Count()-1; j++){
knotVector.push_back((float)knots[j]);
}
if(i == 0){
if(pNurbsCurve->IsClosed()){
cPeriod = AbcG::kPeriodic;
}
}
else{
if(pNurbsCurve->IsClosed()){
if(cPeriod != AbcG::kPeriodic){
ESS_LOG_WARNING("Mixed curve wrap types not supported.");
}
}
else{
if(cPeriod != AbcG::kNonPeriodic){
ESS_LOG_WARNING("Mixed curve wrap types not supported.");
}
}
}
}
}
curvesSample.setType(cType);
curvesSample.setWrap(cPeriod);
curvesSample.setBasis(cBasis);
}
else
{
BezierShape beziershape;
PolyShape polyShape;
bool bBezier = false;
// Get a pointer to the spline shpae
ShapeObject *pShapeObject = NULL;
if (obj->IsShapeObject())
{
pShapeObject = reinterpret_cast<ShapeObject *>(obj);
}
else
{
return false;
}
// Determine if we are a bezier shape
if (pShapeObject->CanMakeBezier())
{
pShapeObject->MakeBezier(ticks, beziershape);
bBezier = true;
}
else
{
pShapeObject->MakePolyShape(ticks, polyShape);
bBezier = false;
}
// Get the control points
//std::vector<Point3> inTangents;
//std::vector<Point3> outTangents;
if (bBezier)
{
int oldVerticesCount = (int)vertices.size();
for (int i = 0; i < beziershape.SplineCount(); i += 1)
{
Spline3D *pSpline = beziershape.GetSpline(i);
int knots = pSpline->KnotCount();
for(int ix = 0; ix < knots; ++ix)
{
Point3 in = pSpline->GetInVec(ix);
Point3 p = pSpline->GetKnotPoint(ix);
Point3 out = pSpline->GetOutVec(ix);
vertices.push_back( p );
//inTangents.push_back( in );
//outTangents.push_back( out );
}
int nNumVerticesAdded = (int)vertices.size() - oldVerticesCount;
nbVertices.push_back( nNumVerticesAdded );
oldVerticesCount = (int)vertices.size();
}
}
else
{
for (int i = 0; i < polyShape.numLines; i += 1)
{
PolyLine &refLine = polyShape.lines[i];
nbVertices.push_back(refLine.numPts);
for (int j = 0; j < refLine.numPts; j += 1)
{
Point3 p = refLine.pts[j].p;
vertices.push_back(p);
}
}
}
// set the type + wrapping
curvesSample.setType(bBezier ? AbcG::kCubic : AbcG::kLinear);
curvesSample.setWrap(pShapeObject->CurveClosed(ticks, 0) ? AbcG::kPeriodic : AbcG::kNonPeriodic);
curvesSample.setBasis(AbcG::kNoBasis);
}
if(nbVertices.size() == 0 || vertices.size() == 0){
ESS_LOG_WARNING("No curve data to export.");
return false;
}
const int vertCount = (int)vertices.size();
// prepare the bounding box
Abc::Box3d bbox;
// allocate the points and normals
std::vector<Abc::V3f> posVec(vertCount);
Matrix3 wm = mMaxNode->GetObjTMAfterWSM(ticks);
for(int i=0;i<vertCount;i++)
{
posVec[i] = ConvertMaxPointToAlembicPoint(vertices[i] );
bbox.extendBy(posVec[i]);
// Set the archive bounding box
if (mJob)
{
Point3 worldMaxPoint = wm * vertices[i];
Abc::V3f alembicWorldPoint = ConvertMaxPointToAlembicPoint(worldMaxPoint);
mJob->GetArchiveBBox().extendBy(alembicWorldPoint);
}
}
if(knotVector.size() > 0 && orders.size() > 0){
if(!mKnotVectorProperty.valid()){
mKnotVectorProperty = Abc::OFloatArrayProperty(mCurvesSchema.getArbGeomParams(), ".knot_vector", mCurvesSchema.getMetaData(), mJob->GetAnimatedTs() );
}
mKnotVectorProperty.set(Abc::FloatArraySample(knotVector));
if(!mOrdersProperty.valid()){
mOrdersProperty = Abc::OUInt16ArrayProperty(mCurvesSchema.getArbGeomParams(), ".orders", mCurvesSchema.getMetaData(), mJob->GetAnimatedTs() );
}
mOrdersProperty.set(Abc::UInt16ArraySample(orders));
}
// store the bbox
curvesSample.setSelfBounds(bbox);
mCurvesSchema.getChildBoundsProperty().set(bbox);
Abc::Int32ArraySample nbVerticesSample(&nbVertices.front(),nbVertices.size());
curvesSample.setCurvesNumVertices(nbVerticesSample);
// allocate for the points and normals
Abc::P3fArraySample posSample(&posVec.front(),posVec.size());
curvesSample.setPositions(posSample);
mCurvesSchema.set(curvesSample);
mNumSamples++;
return true;
}
MStatus AlembicCurves::Save(double time, unsigned int timeIndex,
bool isFirstFrame)
{
ESS_PROFILE_SCOPE("AlembicCurves::Save");
if (this->accumRef.get() != 0) {
accumRef->save(GetRef(), time);
++mNumSamples;
return MStatus::kSuccess;
}
// access the geometry
MFnNurbsCurve node(GetRef());
// save the metadata
SaveMetaData(this);
// save the attributes
if (isFirstFrame) {
Abc::OCompoundProperty cp;
Abc::OCompoundProperty up;
if (AttributesWriter::hasAnyAttr(node, *GetJob())) {
cp = mSchema.getArbGeomParams();
up = mSchema.getUserProperties();
}
mAttrs = AttributesWriterPtr(
new AttributesWriter(cp, up, GetMyParent(), node, timeIndex, *GetJob())
);
}
else {
mAttrs->write();
}
// prepare the bounding box
Abc::Box3d bbox;
// check if we have the global cache option
const bool globalCache =
GetJob()->GetOption(L"exportInGlobalSpace").asInt() > 0;
Abc::M44f globalXfo;
if (globalCache) {
globalXfo = GetGlobalMatrix(GetRef());
}
MPointArray positions;
node.getCVs(positions);
mPosVec.resize(positions.length());
for (unsigned int i = 0; i < positions.length(); i++) {
const MPoint &outPos = positions[i];
Imath::V3f &inPos = mPosVec[i];
inPos.x = (float)outPos.x;
inPos.y = (float)outPos.y;
inPos.z = (float)outPos.z;
if (globalCache) {
globalXfo.multVecMatrix(inPos, inPos);
}
bbox.extendBy(inPos);
}
// store the positions to the samples
mSample.setPositions(Abc::P3fArraySample(&mPosVec.front(), mPosVec.size()));
mSample.setSelfBounds(bbox);
if (mNumSamples == 0) {
// knot vector!
MDoubleArray knots;
node.getKnots(knots);
mKnotVec.resize(knots.length());
for (unsigned int i = 0; i < knots.length(); ++i) {
mKnotVec[i] = (float)knots[i];
}
mKnotVectorProperty.set(Abc::FloatArraySample(mKnotVec));
mNbVertices.push_back(node.numCVs());
mSample.setCurvesNumVertices(Abc::Int32ArraySample(mNbVertices));
if (node.form() == MFnNurbsCurve::kOpen) {
mSample.setWrap(AbcG::kNonPeriodic);
}
else {
mSample.setWrap(AbcG::kPeriodic);
}
if (node.degree() == 3) {
mSample.setType(AbcG::kCubic);
}
else {
mSample.setType(AbcG::kLinear);
}
MPlug widthPlug = node.findPlug("width");
if (!widthPlug.isNull()) {
mRadiusVec.push_back(widthPlug.asFloat());
}
else {
mRadiusVec.push_back(1.0);
}
mRadiusProperty.set(
Abc::FloatArraySample(&mRadiusVec.front(), mRadiusVec.size()));
}
// save the sample
mSchema.set(mSample);
mNumSamples++;
return MStatus::kSuccess;
}
//-*****************************************************************************
Abc::Box3d computeBoundsFromPositionsByFaces (const Int32ArraySample & faces,
const Int32ArraySample & meshFaceCounts,
const Int32ArraySample & vertexIndices,
const P3fArraySample & meshP)
{
Abc::Box3d bounds;
size_t numFaceSetFaces = faces.size ();
size_t numFaces = meshFaceCounts.size ();
size_t numIndices = vertexIndices.size ();
size_t numPoints = meshP.size ();
if ( numFaces < 1 ||
numIndices < 1 ||
numPoints < 1 ||
numFaceSetFaces < 1 )
{
return bounds;
}
// Create ordered list of face numbers in faceset because
// the list of face numbers in the faceset might be in any
// order, so we build an ordered vec.
std::vector <int32_t> faceSetFaceNums (faces.get (),
faces.get() + numFaceSetFaces);
std::sort (faceSetFaceNums.begin (), faceSetFaceNums.end ());
std::vector <int32_t>::iterator curFaceSetFaceIter = faceSetFaceNums.begin ();
std::vector <int32_t>::iterator faceSetFaceIterEnd = faceSetFaceNums.end ();
// Run through faces of the polymesh. If the face is in
// our faceset we get the face's count of vertex indices
// and extend our bounds by those verts.
// We stop our iteration once we've reached all faces in
// our faceset.
size_t curFaceSetFaceNum = *curFaceSetFaceIter;
size_t faceIndex;
size_t vertIndex;
size_t vertexNum;
size_t vertIndexBegin = 0;
size_t vertIndexEnd = 0;
V3f vertex;
for ( faceIndex = 0; faceIndex < numFaces &&
curFaceSetFaceIter != faceSetFaceIterEnd; faceIndex++)
{
vertIndexBegin = vertIndexEnd;
vertIndexEnd = vertIndexBegin + meshFaceCounts[faceIndex];
ABCA_ASSERT( vertIndexEnd <= numIndices,
"Face in mesh has count of vertices that is greater "
"than total number of vertex defined in mesh.");
if (faceIndex == curFaceSetFaceNum)
{
// This face is in our faceset
for (vertIndex = vertIndexBegin; vertIndex < vertIndexEnd;
vertIndex++)
{
vertexNum = vertexIndices[vertIndex];
vertex = meshP[vertexNum];
bounds.extendBy (vertex);
}
curFaceSetFaceIter++;
if (curFaceSetFaceIter != faceSetFaceIterEnd)
{
// There are more faces in this faceset, so
// get the next one.
curFaceSetFaceNum = *curFaceSetFaceIter;
}
}
}
return bounds;
}
XSI::CStatus AlembicSubD::Save(double time)
{
// store the transform
Primitive prim(GetRef(REF_PRIMITIVE));
bool globalSpace = GetJob()->GetOption(L"globalSpace");
// query the global space
CTransformation globalXfo;
if(globalSpace)
globalXfo = KinematicState(GetRef(REF_GLOBAL_TRANS)).GetTransform(time);
CTransformation globalRotation;
globalRotation.SetRotation(globalXfo.GetRotation());
// store the metadata
SaveMetaData(GetRef(REF_NODE),this);
// check if the mesh is animated
if(mNumSamples > 0) {
if(!isRefAnimated(GetRef(REF_PRIMITIVE), false, globalSpace))
return CStatus::OK;
}
// determine if we are a pure point cache
bool purePointCache = (bool)GetJob()->GetOption(L"exportPurePointCache");
// access the mesh
PolygonMesh mesh = prim.GetGeometry(time);
CVector3Array pos = mesh.GetVertices().GetPositionArray();
LONG vertCount = pos.GetCount();
// prepare the bounding box
Abc::Box3d bbox;
// allocate the points and normals
std::vector<Abc::V3f> posVec(vertCount);
for(LONG i=0;i<vertCount;i++)
{
if(globalSpace)
pos[i] = MapObjectPositionToWorldSpace(globalXfo,pos[i]);
posVec[i].x = (float)pos[i].GetX();
posVec[i].y = (float)pos[i].GetY();
posVec[i].z = (float)pos[i].GetZ();
bbox.extendBy(posVec[i]);
}
// allocate the sample for the points
if(posVec.size() == 0)
{
bbox.extendBy(Abc::V3f(0,0,0));
posVec.push_back(Abc::V3f(FLT_MAX,FLT_MAX,FLT_MAX));
}
Abc::P3fArraySample posSample(&posVec.front(),posVec.size());
// store the positions && bbox
mSubDSample.setPositions(posSample);
mSubDSample.setSelfBounds(bbox);
customAttributes.exportCustomAttributes(mesh);
// abort here if we are just storing points
if(purePointCache)
{
if(mNumSamples == 0)
{
// store a dummy empty topology
mFaceCountVec.push_back(0);
mFaceIndicesVec.push_back(0);
Abc::Int32ArraySample faceCountSample(&mFaceCountVec.front(),mFaceCountVec.size());
Abc::Int32ArraySample faceIndicesSample(&mFaceIndicesVec.front(),mFaceIndicesVec.size());
mSubDSample.setFaceCounts(faceCountSample);
mSubDSample.setFaceIndices(faceIndicesSample);
}
mSubDSchema.set(mSubDSample);
mNumSamples++;
return CStatus::OK;
}
// check if we support changing topology
bool dynamicTopology = (bool)GetJob()->GetOption(L"exportDynamicTopology");
CPolygonFaceRefArray faces = mesh.GetPolygons();
LONG faceCount = faces.GetCount();
LONG sampleCount = mesh.GetSamples().GetCount();
// create a sample look table
LONG offset = 0;
CLongArray sampleLookup(sampleCount);
for(LONG i=0;i<faces.GetCount();i++)
{
PolygonFace face(faces[i]);
CLongArray samples = face.GetSamples().GetIndexArray();
for(LONG j=samples.GetCount()-1;j>=0;j--)
sampleLookup[offset++] = samples[j];
}
// check if we should export the velocities
if(dynamicTopology)
{
ICEAttribute velocitiesAttr = mesh.GetICEAttributeFromName(L"PointVelocity");
if(velocitiesAttr.IsDefined() && velocitiesAttr.IsValid())
{
CICEAttributeDataArrayVector3f velocitiesData;
velocitiesAttr.GetDataArray(velocitiesData);
mVelocitiesVec.resize(vertCount);
for(LONG i=0;i<vertCount;i++)
{
CVector3 vel;
vel.PutX(velocitiesData[i].GetX());
vel.PutY(velocitiesData[i].GetY());
vel.PutZ(velocitiesData[i].GetZ());
if(globalSpace)
vel = MapObjectPositionToWorldSpace(globalRotation,vel);
mVelocitiesVec[i].x = (float)vel.GetX();
mVelocitiesVec[i].y = (float)vel.GetY();
mVelocitiesVec[i].z = (float)vel.GetZ();
}
if(mVelocitiesVec.size() == 0)
mVelocitiesVec.push_back(Abc::V3f(0,0,0));
Abc::V3fArraySample sample = Abc::V3fArraySample(&mVelocitiesVec.front(),mVelocitiesVec.size());
mSubDSample.setVelocities(sample);
}
}
// if we are the first frame!
if(mNumSamples == 0 || dynamicTopology)
{
// we also need to store the face counts as well as face indices
if(mFaceIndicesVec.size() != sampleCount || sampleCount == 0)
{
mFaceCountVec.resize(faceCount);
mFaceIndicesVec.resize(sampleCount);
offset = 0;
for(LONG i=0;i<faceCount;i++)
{
PolygonFace face(faces[i]);
CLongArray indices = face.GetVertices().GetIndexArray();
mFaceCountVec[i] = indices.GetCount();
for(LONG j=indices.GetCount()-1;j>=0;j--)
mFaceIndicesVec[offset++] = indices[j];
}
if(mFaceIndicesVec.size() == 0)
{
mFaceCountVec.push_back(0);
mFaceIndicesVec.push_back(0);
}
Abc::Int32ArraySample faceCountSample(&mFaceCountVec.front(),mFaceCountVec.size());
Abc::Int32ArraySample faceIndicesSample(&mFaceIndicesVec.front(),mFaceIndicesVec.size());
mSubDSample.setFaceCounts(faceCountSample);
mSubDSample.setFaceIndices(faceIndicesSample);
}
// set the subd level
Property geomApproxProp;
prim.GetParent3DObject().GetPropertyFromName(L"geomapprox",geomApproxProp);
mSubDSample.setFaceVaryingInterpolateBoundary(geomApproxProp.GetParameterValue(L"gapproxmordrsl"));
// also check if we need to store UV
CRefArray clusters = mesh.GetClusters();
if((bool)GetJob()->GetOption(L"exportUVs"))
{
CGeometryAccessor accessor = mesh.GetGeometryAccessor(siConstructionModeSecondaryShape);
CRefArray uvPropRefs = accessor.GetUVs();
// if we now finally found a valid uvprop
if(uvPropRefs.GetCount() > 0)
{
// ok, great, we found UVs, let's set them up
if(mNumSamples == 0)
{
mUvVec.resize(uvPropRefs.GetCount());
if((bool)GetJob()->GetOption(L"indexedUVs"))
mUvIndexVec.resize(uvPropRefs.GetCount());
// query the names of all uv properties
std::vector<std::string> uvSetNames;
for(LONG i=0;i< uvPropRefs.GetCount();i++)
uvSetNames.push_back(ClusterProperty(uvPropRefs[i]).GetName().GetAsciiString());
Abc::OStringArrayProperty uvSetNamesProperty = Abc::OStringArrayProperty(
mSubDSchema, ".uvSetNames", mSubDSchema.getMetaData(), GetJob()->GetAnimatedTs() );
Abc::StringArraySample uvSetNamesSample(&uvSetNames.front(),uvSetNames.size());
uvSetNamesProperty.set(uvSetNamesSample);
}
// loop over all uvsets
for(LONG uvI=0;uvI<uvPropRefs.GetCount();uvI++)
{
mUvVec[uvI].resize(sampleCount);
CDoubleArray uvValues = ClusterProperty(uvPropRefs[uvI]).GetElements().GetArray();
for(LONG i=0;i<sampleCount;i++)
{
mUvVec[uvI][i].x = (float)uvValues[sampleLookup[i] * 3 + 0];
mUvVec[uvI][i].y = (float)uvValues[sampleLookup[i] * 3 + 1];
}
// now let's sort the normals
size_t uvCount = mUvVec[uvI].size();
size_t uvIndexCount = 0;
if((bool)GetJob()->GetOption(L"indexedUVs")) {
std::map<SortableV2f,size_t> uvMap;
std::map<SortableV2f,size_t>::const_iterator it;
size_t sortedUVCount = 0;
std::vector<Abc::V2f> sortedUVVec;
mUvIndexVec[uvI].resize(mUvVec[uvI].size());
sortedUVVec.resize(mUvVec[uvI].size());
// loop over all uvs
for(size_t i=0;i<mUvVec[uvI].size();i++)
{
it = uvMap.find(mUvVec[uvI][i]);
if(it != uvMap.end())
mUvIndexVec[uvI][uvIndexCount++] = (Abc::uint32_t)it->second;
else
{
mUvIndexVec[uvI][uvIndexCount++] = (Abc::uint32_t)sortedUVCount;
uvMap.insert(std::pair<Abc::V2f,size_t>(mUvVec[uvI][i],(Abc::uint32_t)sortedUVCount));
sortedUVVec[sortedUVCount++] = mUvVec[uvI][i];
}
}
// use indexed uvs if they use less space
mUvVec[uvI] = sortedUVVec;
uvCount = sortedUVCount;
sortedUVCount = 0;
sortedUVVec.clear();
}
AbcG::OV2fGeomParam::Sample uvSample(Abc::V2fArraySample(&mUvVec[uvI].front(),uvCount),AbcG::kFacevaryingScope);
if(mUvIndexVec.size() > 0 && uvIndexCount > 0)
uvSample.setIndices(Abc::UInt32ArraySample(&mUvIndexVec[uvI].front(),uvIndexCount));
if(uvI == 0)
{
mSubDSample.setUVs(uvSample);
}
else
{
// create the uv param if required
if(mNumSamples == 0)
{
CString storedUvSetName = CString(L"uv") + CString(uvI);
mUvParams.push_back(AbcG::OV2fGeomParam( mSubDSchema, storedUvSetName.GetAsciiString(), uvIndexCount > 0,
AbcG::kFacevaryingScope, 1, GetJob()->GetAnimatedTs()));
}
mUvParams[uvI-1].set(uvSample);
}
}
// create the uv options
if(mUvOptionsVec.size() == 0)
{
mUvOptionsProperty = Abc::OFloatArrayProperty(mSubDSchema, ".uvOptions", mSubDSchema.getMetaData(), GetJob()->GetAnimatedTs() );
for(LONG uvI=0;uvI<uvPropRefs.GetCount();uvI++)
{
//ESS_LOG_ERROR( "Cluster Property child name: " << ClusterProperty(uvPropRefs[uvI]).GetFullName().GetAsciiString() );
//ESS_LOG_ERROR( "Cluster Property child type: " << ClusterProperty(uvPropRefs[uvI]).GetType().GetAsciiString() );
ClusterProperty clusterProperty = (ClusterProperty) uvPropRefs[uvI];
bool subdsmooth = false;
if( clusterProperty.GetType() == L"uvspace") {
subdsmooth = (bool)clusterProperty.GetParameter(L"subdsmooth").GetValue();
// ESS_LOG_ERROR( "subdsmooth: " << subdsmooth );
}
CRefArray children = clusterProperty.GetNestedObjects();
bool uWrap = false;
bool vWrap = false;
for(LONG i=0; i<children.GetCount(); i++)
{
ProjectItem child(children.GetItem(i));
CString type = child.GetType();
// ESS_LOG_ERROR( " Cluster Property child type: " << type.GetAsciiString() );
if(type == L"uvprojdef")
{
uWrap = (bool)child.GetParameter(L"wrap_u").GetValue();
vWrap = (bool)child.GetParameter(L"wrap_v").GetValue();
break;
}
}
// uv wrapping
mUvOptionsVec.push_back(uWrap ? 1.0f : 0.0f);
mUvOptionsVec.push_back(vWrap ? 1.0f : 0.0f);
mUvOptionsVec.push_back(subdsmooth ? 1.0f : 0.0f);
}
mUvOptionsProperty.set(Abc::FloatArraySample(&mUvOptionsVec.front(),mUvOptionsVec.size()));
}
}
}
// sweet, now let's have a look at face sets
if(GetJob()->GetOption(L"exportFaceSets") && mNumSamples == 0)
{
for(LONG i=0;i<clusters.GetCount();i++)
{
Cluster cluster(clusters[i]);
if(!cluster.GetType().IsEqualNoCase(L"poly"))
continue;
CLongArray elements = cluster.GetElements().GetArray();
if(elements.GetCount() == 0)
continue;
std::string name(cluster.GetName().GetAsciiString());
mFaceSetsVec.push_back(std::vector<Abc::int32_t>());
std::vector<Abc::int32_t> & faceSetVec = mFaceSetsVec.back();
for(LONG j=0;j<elements.GetCount();j++)
faceSetVec.push_back(elements[j]);
if(faceSetVec.size() > 0)
{
AbcG::OFaceSet faceSet = mSubDSchema.createFaceSet(name);
AbcG::OFaceSetSchema::Sample faceSetSample(Abc::Int32ArraySample(&faceSetVec.front(),faceSetVec.size()));
faceSet.getSchema().set(faceSetSample);
}
}
}
// save the sample
mSubDSchema.set(mSubDSample);
// check if we need to export the bindpose
if(GetJob()->GetOption(L"exportBindPose") && prim.GetParent3DObject().GetEnvelopes().GetCount() > 0 && mNumSamples == 0)
{
mBindPoseProperty = Abc::OV3fArrayProperty(mSubDSchema, ".bindpose", mSubDSchema.getMetaData(), GetJob()->GetAnimatedTs());
// store the positions of the modeling stack into here
PolygonMesh bindPoseGeo = prim.GetGeometry(time, siConstructionModeModeling);
CVector3Array bindPosePos = bindPoseGeo.GetPoints().GetPositionArray();
mBindPoseVec.resize((size_t)bindPosePos.GetCount());
for(LONG i=0;i<bindPosePos.GetCount();i++)
{
mBindPoseVec[i].x = (float)bindPosePos[i].GetX();
mBindPoseVec[i].y = (float)bindPosePos[i].GetY();
mBindPoseVec[i].z = (float)bindPosePos[i].GetZ();
}
Abc::V3fArraySample sample;
if(mBindPoseVec.size() > 0)
sample = Abc::V3fArraySample(&mBindPoseVec.front(),mBindPoseVec.size());
mBindPoseProperty.set(sample);
}
}
else
{
mSubDSchema.set(mSubDSample);
}
mNumSamples++;
return CStatus::OK;
}
//-*****************************************************************************
Abc::Box3d PolyMesh::writeSample( const Abc::OSampleSelector &iSS )
{
// First, call base class sample write, which will return bounds
// of any children.
Abc::index_t sampleIndex = iSS.getIndex();
Abc::Box3d bounds = Exportable::writeSample( iSS );
// If we're not deforming, don't bother with new sample.
// Do calculate bounds and set them, though.
if ( sampleIndex != 0 && !m_deforming )
{
bounds.extendBy( m_firstSampleSelfBounds );
m_boundsProperty.set( bounds, iSS );
return bounds;
}
// Make a mesh
MStatus status;
MFnMesh mesh( m_dagPath, &status );
CHECK_MAYA_STATUS;
mesh.updateSurface();
mesh.syncObject();
// Make a sample.
Abc::OPolyMeshSchema::Sample abcPolyMeshSample;
//-*************************************************************************
// WRITE VERTICES
//-*************************************************************************
MPointArray vertices;
mesh.getPoints( vertices );
size_t npoints = vertices.length();
std::vector<Abc::V3f> v3fVerts( npoints );
Abc::Box3d shapeBounds;
shapeBounds.makeEmpty();
for ( size_t i = 0; i < npoints; ++i )
{
const MPoint &vi = vertices[i];
Abc::V3f pi( vi.x, vi.y, vi.z );
v3fVerts[i] = pi;
shapeBounds.extendBy( Abc::V3d( vi.x, vi.y, vi.z ) );
}
if ( sampleIndex == 0 )
{
m_firstSampleSelfBounds = shapeBounds;
}
bounds.extendBy( shapeBounds );
// Set the bounds sample.
m_boundsProperty.set( bounds, iSS );
// Stuff the positions into the mesh sample.
abcPolyMeshSample.setPositions( Abc::V3fArraySample( v3fVerts ) );
//-*************************************************************************
// OTHER STUFF, FOR FIRST OR LATER VERTICES
//-*************************************************************************
std::vector<Abc::int32_t> abcIndices;
std::vector<Abc::int32_t> abcCounts;
std::vector<Abc::N3f> abcNormals;
std::vector<Abc::V2f> abcUvs;
//-*************************************************************************
// GET MESH NORMALS & UVS
//-*************************************************************************
size_t nnormals = mesh.numNormals();
MFloatVectorArray meshNorms;
if ( nnormals > 0 )
{
mesh.getNormals( meshNorms, MSpace::kObject );
}
size_t nuvs = mesh.numUVs();
MFloatArray meshU;
MFloatArray meshV;
if ( nuvs > 0 )
{
mesh.getUVs( meshU, meshV );
}
//-*************************************************************************
// LOOP OVER FIRST OR SUBSEQUENT SAMPLES
//-*************************************************************************
if ( sampleIndex == 0 )
{
// FIRST SAMPLE
// Loop over polys.
size_t npolys = mesh.numPolygons();
abcCounts.resize( npolys );
Abc::int32_t faceIndex = 0;
Abc::int32_t faceStartVertexIndex = 0;
for ( MItMeshPolygon piter( m_dagPath );
!piter.isDone(); piter.next(), ++faceIndex )
{
Abc::int32_t faceCount = piter.polygonVertexCount();
abcCounts[faceIndex] = faceCount;
faceStartVertexIndex += faceCount;
for ( Abc::int32_t faceVertex = 0;
faceVertex < faceCount; ++faceVertex )
{
abcIndices.push_back( piter.vertexIndex( faceVertex ) );
if ( nnormals > 0 )
{
size_t normIndex = piter.normalIndex( faceVertex );
const MFloatVector &norm = meshNorms[normIndex];
Abc::N3f abcNorm( norm[0], norm[1], norm[2] );
abcNormals.push_back( abcNorm );
}
if ( nuvs > 0 )
{
int uvIndex = 0;
piter.getUVIndex( faceVertex, uvIndex );
Abc::V2f abcUv( meshU[uvIndex], meshV[uvIndex] );
abcUvs.push_back( abcUv );
}
}
}
// We have now collected abcIndices, abcStarts, abcNormals, and abcUvs.
// Put them into the sample.
abcPolyMeshSample.setIndices( Abc::Int32ArraySample( abcIndices ) );
abcPolyMeshSample.setCounts( Abc::Int32ArraySample( abcCounts ) );
if ( nnormals > 0 && m_normals )
{
m_normals.set( Abc::N3fArraySample( abcNormals ), iSS );
}
if ( nuvs > 0 && m_sts )
{
m_sts.set( Abc::V2fArraySample( abcUvs ), iSS );
}
}
else if ( ( nnormals > 0 && m_normals ) ||
( nuvs > 0 && m_sts ) )
{
// SUBSEQUENT SAMPLES
// Just gathering normals and uvs.
// (vertices handled above)
// Loop over polys.
Abc::int32_t faceIndex = 0;
Abc::int32_t faceStartVertexIndex = 0;
for ( MItMeshPolygon piter( m_dagPath );
!piter.isDone(); piter.next(), ++faceIndex )
{
Abc::int32_t faceCount = piter.polygonVertexCount();
for ( Abc::int32_t faceVertex = 0;
faceVertex < faceCount; ++faceVertex )
{
if ( nnormals > 0 )
{
size_t normIndex = piter.normalIndex( faceVertex );
const MFloatVector &norm = meshNorms[normIndex];
Abc::N3f abcNorm( norm[0], norm[1], norm[2] );
abcNormals.push_back( abcNorm );
}
if ( nuvs > 0 )
{
int uvIndex = 0;
piter.getUVIndex( faceVertex, uvIndex );
Abc::V2f abcUv( meshU[uvIndex], meshV[uvIndex] );
abcUvs.push_back( abcUv );
}
}
}
// We have now collected abcNormals, and abcUvs.
// Put them into the sample.
if ( nnormals > 0 && m_normals )
{
m_normals.set( Abc::N3fArraySample( abcNormals ), iSS );
}
if ( nuvs > 0 )
{
m_sts.set( Abc::V2fArraySample( abcUvs ), iSS );
}
}
// Set the mesh sample.
m_polyMesh.getSchema().set( abcPolyMeshSample, iSS );
return bounds;
}