OP_ERROR
SOP_Cleave::cookMySop(OP_Context &context)
{
const GA_PrimitiveGroup *polyGroup;
GEO_Primitive *prim;
GQ_Detail *gqd;
int i,j,k;
UT_Vector4 np,p;
// Before we do anything, we must lock our inputs. Before returning,
// we have to make sure that the inputs get unlocked.
if (lockInputs(context) >= UT_ERROR_ABORT) return error();
float now = context.getTime();
duplicateSource(0, context, 0, 1);
// Here we determine which groups we have to work on. We only
// handle poly groups.
UT_String groups;
getGroups(groups);
if (groups.isstring()) polyGroup = parsePrimitiveGroups(groups);
else polyGroup = 0;
if (error() >= UT_ERROR_ABORT) {
unlockInputs();
return error();
}
UT_Interrupt* boss = UTgetInterrupt();
// Start the interrupt server
boss->opStart("Cleaving Polys");
// separate out all polys to be cleaved
GA_PrimitiveGroup* cleave_group = gdp->newPrimitiveGroup("cleave",1);
GA_PrimitiveGroup* not_cleave_group = gdp->newPrimitiveGroup("not_cleave",1);
if (polyGroup) {
GA_FOR_ALL_PRIMITIVES(gdp,prim)
{
if ( (prim->getTypeId()==GEO_PRIMPOLY) && (polyGroup->contains(prim)!=0))
cleave_group->add(prim);
else
not_cleave_group->add(prim);
}
} else {
int main(int argc, char* argv[])
{
static UT_Interrupt boss("testGusdError");
boss.setEnabled(1,1);
UTsetInterrupt(&boss);
_TestGusdBasicErrors();
_TestGusdErrorTransport();
_TestGusdTfErrorScope();
return 0;
}
OP_ERROR SOP_CortexConverter::cookMySop( OP_Context &context )
{
if( lockInputs( context ) >= UT_ERROR_ABORT )
{
return error();
}
UT_Interrupt *boss = UTgetInterrupt();
boss->opStart("Building CortexConverter Geometry...");
gdp->clearAndDestroy();
UT_String nameFilterStr;
evalString( nameFilterStr, pNameFilter.getToken(), 0, 0 );
UT_StringMMPattern nameFilter;
nameFilter.compile( nameFilterStr );
UT_String p( "P" );
UT_String attributeFilter;
evalString( attributeFilter, pAttributeFilter.getToken(), 0, 0 );
if ( !p.match( attributeFilter ) )
{
attributeFilter += " P";
}
const std::string attributeFilterStr = attributeFilter.toStdString();
ResultType type = (ResultType)this->evalInt( pResultType.getToken(), 0, 0 );
bool convertStandardAttributes = evalInt( pConvertStandardAttributes.getToken(), 0, 0 );
DetailSplitterPtr splitter = new DetailSplitter( inputGeoHandle( 0 ) );
std::vector<std::string> names;
splitter->values( names );
for ( std::vector<std::string>::const_iterator it = names.begin(); it != names.end(); ++it )
{
const std::string &name = *it;
// we want match all to also match no-name
if ( UT_String( name ).multiMatch( nameFilter ) || ( name == "" && UT_String( "*" ).multiMatch( nameFilter ) ) )
{
doConvert( splitter->split( name ), name, type, attributeFilterStr, convertStandardAttributes );
}
else
{
doPassThrough( splitter->split( name ), name );
}
}
boss->opEnd();
unlockInputs();
return error();
}
/// Cook the SOP! This method does all the work
OP_ERROR SOP_ProceduralHolder::cookMySop( OP_Context &context )
{
IECore::MessageHandler::Scope handlerScope( getMessageHandler() );
// some defaults and useful variables
float now = context.getTime();
// force eval of our nodes parameters with our hidden parameter expression
evalInt( "__evaluateParameters", 0, now );
// update parameters on procedural from our Houdini parameters
IECore::ParameterisedProceduralPtr procedural = IECore::runTimeCast<IECore::ParameterisedProcedural>( getParameterised() );
// check for a valid parameterised on this SOP
if ( !procedural )
{
UT_String msg( "Procedural Holder has no parameterised class to operate on!" );
addError( SOP_MESSAGE, msg );
return error();
}
if( lockInputs(context) >= UT_ERROR_ABORT )
{
return error();
}
// start our work
UT_Interrupt *boss = UTgetInterrupt();
boss->opStart("Building ProceduralHolder Geometry...");
gdp->clearAndDestroy();
setParameterisedValues( now );
ToHoudiniCortexObjectConverterPtr converter = new ToHoudiniCortexObjectConverter( procedural );
if ( !converter->convert( myGdpHandle ) )
{
addError( SOP_MESSAGE, "Unable to store procedural on gdp" );
}
// tidy up & go home!
boss->opEnd();
unlockInputs();
return error();
}
// the bit that does all the work
OP_ERROR SOP_rmanPtc::cookMySop(OP_Context &context)
{
// get some useful bits & bobs
UT_Interrupt *boss;
float now = context.myTime;
UT_String ptcFile = getPtcFile(now);
int loadPercentage = getLoadPercentage(now);
int displayPercentage = getDisplayPercentage(now);
float pointSize = getPointSize(now);
int useDisk = getUseDisk(now);
int boundOnLoad = getBoundOnLoad(now);
int displayChannel = getDisplayChannel(now);
int onlyOutputDisplayChannel = getOnlyOutputDisplayChannel(now);
/*
float nearDensity = getNearDensity(now);
float farDensity = getFarDensity(now);
UT_String cullCamera = getCullCamera(now);
*/
// lock out inputs
if ( lockInputs(context) >= UT_ERROR_ABORT)
error();
// Check to see that there hasn't been a critical error in cooking the SOP.
if (error() < UT_ERROR_ABORT)
{
boss = UTgetInterrupt();
// here we make sure our detail is an instance of rmanPtcDetail
rmanPtcDetail *ptc_gdp = dynamic_cast<rmanPtcSop::rmanPtcDetail *>(gdp);
if ( !ptc_gdp )
ptc_gdp = allocateNewDetail();
// clear our gdp
ptc_gdp->clearAndDestroy();
// start our work
boss->opStart("Loading point cloud");
// get our bbox
bool has_bbox = false;
const GU_Detail *input_geo = inputGeo( 0, context );
updateBBox( input_geo );
// pass information to our detail
ptc_gdp->point_size = pointSize;
ptc_gdp->use_disk = useDisk;
ptc_gdp->cull_bbox = mBBox;
ptc_gdp->use_cull_bbox = (mHasBBox&&(!mBoundOnLoad))?true:false;
ptc_gdp->display_probability = displayPercentage/100.f;
ptc_gdp->display_channel = displayChannel;
if ( onlyOutputDisplayChannel )
ptc_gdp->display_channel = 0;
// here we load our ptc
if ( mReload )
{
// clear everything
mChannelNames.clear();
cachePoints.clear();
cacheNormals.clear();
cacheRadius.clear();
cacheData.clear();
mRedraw = true;
// open the point cloud
PtcPointCloud ptc = PtcSafeOpenPointCloudFile(
const_cast<char*>(ptcFile.buffer()) );
if ( !ptc )
{
UT_String msg( "Unable to open input file: " );
msg += ptcFile;
addError( SOP_MESSAGE, msg);
boss->opEnd();
return error();
}
// get some information from the ptc
ptc_gdp->path = std::string(ptcFile.fileName());
char **vartypes, **varnames;
PtcGetPointCloudInfo( ptc, const_cast<char*>("npoints"),
&ptc_gdp->nPoints );
PtcGetPointCloudInfo( ptc, const_cast<char*>("npointvars"),
&ptc_gdp->nChannels );
PtcGetPointCloudInfo( ptc, const_cast<char*>("pointvartypes"),
&vartypes );
PtcGetPointCloudInfo( ptc, const_cast<char*>("pointvarnames"),
&varnames );
PtcGetPointCloudInfo( ptc, const_cast<char*>("datasize"),
&ptc_gdp->datasize );
PtcGetPointCloudInfo( ptc, const_cast<char*>("bbox"),
ptc_gdp->bbox );
// process our channel names
ptc_gdp->types.clear();
ptc_gdp->names.clear();
for ( unsigned int i=0; i<ptc_gdp->nChannels; ++i )
{
ptc_gdp->types.push_back( std::string(vartypes[i]) );
ptc_gdp->names.push_back( std::string(varnames[i]) );
std::string name = ptc_gdp->types[i] + " " + ptc_gdp->names[i];
mChannelNames.push_back( name );
}
// what percentage of points should we load?
float load_probability = loadPercentage/100.f;
// load points into memory
float point[3], normal[3];
float radius;
float data[ptc_gdp->datasize];
srand(0);
for ( unsigned int i=0; i<ptc_gdp->nPoints; ++i )
{
PtcReadDataPoint( ptc, point, normal, &radius, data );
// bound on load
if ( boundOnLoad )
{
UT_Vector3 pt( point[0], point[1], point[2] );
if ( !mBBox.isInside(pt) )
continue;
}
// discard a percentage of our points
if ( rand()/(float)RAND_MAX>load_probability )
continue;
// put points into our cache
cachePoints.push_back( point );
cacheNormals.push_back( normal );
cacheRadius.push_back( radius );
for ( unsigned int j=0; j<ptc_gdp->datasize; ++j )
cacheData.push_back( data[j] );
// break for the interrupt handler (i.e. press ESC)
if ( boss->opInterrupt() )
break;
}
ptc_gdp->nLoaded = cachePoints.size();
// mark our detail as valid and close our ptc
PtcClosePointCloudFile( ptc );
mReload = false;
// force update on channel parameter
getParm("chan").revertToDefaults(now);
}
// build a new primitive
GU_PrimParticle::build( ptc_gdp, cachePoints.size(), 0 );
// create our output geometry using the output % parameter
// this is the same variable as GR_ uses to preview
std::vector<UT_Vector3>::const_iterator pos_it = cachePoints.begin();
std::vector<UT_Vector3>::const_iterator norm_it = cacheNormals.begin();
std::vector<float>::const_iterator rad_it = cacheRadius.begin();
std::vector<float>::const_iterator data_it = cacheData.begin();
// add some standard attributes
GB_AttributeRef n_attrib = ptc_gdp->addPointAttrib( "N", sizeof(UT_Vector3),
GB_ATTRIB_VECTOR, 0 );
GB_AttributeRef r_attrib = ptc_gdp->addPointAttrib( "radius", sizeof(float),
GB_ATTRIB_FLOAT, 0 );
ptc_gdp->N_attrib = n_attrib;
ptc_gdp->R_attrib = r_attrib;
// process the rest of our data attributes
std::vector<GB_AttribType> data_types;
std::vector<GB_AttributeRef> data_attribs;
std::vector<int> data_size, data_offset;
int offset_total = 0;
ptc_gdp->attributes.clear();
ptc_gdp->attribute_size.clear();
for ( unsigned int i=0; i<ptc_gdp->nChannels; ++i )
{
GB_AttribType type = GB_ATTRIB_FLOAT; // float, vector
int size = 1;
if ( ptc_gdp->types[i] == "point" ||
ptc_gdp->types[i] == "vector" ||
ptc_gdp->types[i] == "normal" )
{
type = GB_ATTRIB_VECTOR;
size = 3;
}
if ( ptc_gdp->types[i] == "color" )
{
size=3;
}
if ( ptc_gdp->types[i] == "matrix" )
{
size=16;
}
offset_total += size;
data_types.push_back( type );
data_size.push_back( size );
data_offset.push_back( offset_total );
if ( onlyOutputDisplayChannel )
{
if ( displayChannel==i )
{
GB_AttributeRef attrib = ptc_gdp->addPointAttrib(
ptc_gdp->names[i].c_str(), sizeof(float)*size,
type, 0 );
ptc_gdp->attributes.push_back( attrib );
ptc_gdp->attribute_size.push_back( size );
data_attribs.push_back( attrib );
}
}
else
{
GB_AttributeRef attrib = ptc_gdp->addPointAttrib( ptc_gdp->names[i].c_str(),
sizeof(float)*size, type, 0 );
ptc_gdp->attributes.push_back( attrib );
ptc_gdp->attribute_size.push_back( size );
data_attribs.push_back( attrib );
}
}
cacheDataOffsets = data_offset;
/*
// cull camera
bool use_cull_cam = false;
UT_Vector3 cam_pos(0,0,0);
float cam_near=0.0, cam_far=0.0;
if ( cullCamera!="" )
{
OBJ_Node *cam_node = OPgetDirector()->findOBJNode( cullCamera );
if ( cam_node )
{
OBJ_Camera *cam = cam_node->castToOBJCamera();
if ( cam )
{
UT_DMatrix4 mtx;
cam->getWorldTransform( mtx, context );
std::cerr << "mtx: " << mtx << std::endl;
cam_pos *= mtx;
std::cerr << "pos: " << cam_pos << std::endl;
use_cull_cam = true;
cam_near = cam->getNEAR(now);
cam_far = cam->getFAR(now);
std::cerr << "near: " << cam_near << std::endl;
std::cerr << "far: " << cam_far << std::endl;
mRedraw = true;
}
}
std::cerr << "cull camera: " << cullCamera << std::endl;
std::cerr << nearDensity << ", " << farDensity << std::endl;
}
*/
// add data from our cached points to geometry
// based on display/output probability
srand(0);
float density_mult = 1.f;
while( pos_it!=cachePoints.end() )
{
/*
if ( use_cull_cam )
{
float dist = ((*pos_it)-cam_pos).length();
if ( dist<cam_near )
density_mult = nearDensity;
else if ( dist>cam_far )
density_mult = farDensity;
else
{
float normalize_dist =( dist - cam_near ) / ( cam_far - cam_near );
density_mult = 1.f - normalize_dist;
}
}
*/
if ( rand()/(float)RAND_MAX <
ptc_gdp->display_probability*density_mult )
{
if ( (!ptc_gdp->use_cull_bbox) ||
(ptc_gdp->use_cull_bbox &&
ptc_gdp->cull_bbox.isInside( *pos_it ) ) )
{
// add to our SOP geometry
GEO_Point *pt = ptc_gdp->appendPoint();
pt->setPos( *pos_it );
(*pt->castAttribData<UT_Vector3>(n_attrib)) = *norm_it;
(*pt->castAttribData<float>(r_attrib)) = *rad_it;
const float *data = &*data_it;
for ( unsigned int i=0; i<data_types.size(); ++i )
{
if ( onlyOutputDisplayChannel )
{
if ( i==displayChannel )
{
pt->set( data_attribs[0], data, data_size[i] );
}
data += data_size[i];
}
else
{
pt->set( data_attribs[i], data, data_size[i] );
data += data_size[i];
}
}
}
}
// increment our interators
pos_it++;
norm_it++;
rad_it++;
data_it+=ptc_gdp->datasize;
}
// delete our particle primitive
ptc_gdp->deletePrimitive(0,0);
// info in sop's message area
std::stringstream ss;
ss << "Name: " << ptc_gdp->path << std::endl;
ss << "Points: " << ptc_gdp->nPoints << " - [ " <<
ptc_gdp->nLoaded << " loaded ]" << std::endl;
ss << "Channels: " << ptc_gdp->nChannels << std::endl;
for ( unsigned int i=0; i<ptc_gdp->nChannels; ++i )
ss << " " << i << ": " << mChannelNames[i] << std::endl;
addMessage( SOP_MESSAGE, ss.str().c_str() );
// Tell the interrupt server that we've completed
boss->opEnd();
// force update?
ptc_gdp->redraw = mRedraw;
mRedraw = false;
}
// tidy up & go home
unlockInputs();
return error();
}
OP_ERROR
SOP_Ocean::cookMySop(OP_Context &context)
{
float now = context.getTime();
//std::cout << "cook ocean, t = " << now << std::endl;
// lock inputs
if (lockInputs(context) >= UT_ERROR_ABORT )
{
return error();
}
GEO_Point *ppt;
UT_Interrupt *boss;
// Check to see that there hasn't been a critical error in cooking the SOP.
if (error() < UT_ERROR_ABORT)
{
boss = UTgetInterrupt();
// Start the interrupt server
boss->opStart("Updating Ocean");
duplicatePointSource(0,context);
int gridres = 1 << int(GRID_RES(now));
float stepsize = GRID_SIZE(now) / (float)gridres;
bool do_chop = CHOP(now);
bool do_jacobian = JACOBIAN(now);
bool do_normals = NORMALS(now) && !do_chop;
if (!_ocean || _ocean_needs_rebuild)
{
if (_ocean)
{
delete _ocean;
}
if (_ocean_context)
{
delete _ocean_context;
}
_ocean = new drw::Ocean(gridres,gridres,stepsize,stepsize,
V(0),L(0),1.0,W(0),1-DAMP(0),ALIGN(0),
DEPTH(0),SEED(0));
_ocean_scale = _ocean->get_height_normalize_factor();
_ocean_context = _ocean->new_context(true,do_chop,do_normals,do_jacobian);
_ocean_needs_rebuild = false;
// std::cout << "######### SOP, rebuilt ocean, norm_factor = " << _ocean_scale
// << " chop = " << do_chop
// << " norm = " << do_normals
// << " jacobian = " << do_jacobian
// << std::endl;
}
float chop_amount = CHOPAMOUNT(now);
// sum up the waves at this timestep
_ocean->update(TIME(now),*_ocean_context,true,do_chop,do_normals,do_jacobian,
_ocean_scale * SCALE(now),chop_amount);
bool linterp = ! INTERP(now);
// get our attribute indices
GA_RWAttributeRef normal_index;
GA_RWAttributeRef jminus_index;
GA_RWAttributeRef eminus_index;
if (do_normals)
{
normal_index = gdp->addNormalAttribute(GEO_POINT_DICT);
}
if (do_jacobian)
{
// jminus_index = gdp->addPointAttrib("mineigval",sizeof(float),GB_ATTRIB_FLOAT,0);
// eminus_index = gdp->addPointAttrib("mineigvec",sizeof(UT_Vector3),GB_ATTRIB_VECTOR,0);
jminus_index = gdp->addTuple(GA_STORE_REAL32,GA_ATTRIB_POINT,"mineigval",1,GA_Defaults(0));
eminus_index = gdp->addFloatTuple(GA_ATTRIB_POINT,"mineigvec",1,GA_Defaults(0));
}
// this is not that fast, can it be done quicker ???
GA_FOR_ALL_GPOINTS(gdp, ppt)
{
UT_Vector4 p = ppt->getPos();
if (linterp)
{
_ocean_context->eval_xz(p(0),p(2));
}
else
{
_ocean_context->eval2_xz(p(0),p(2));
}
if (do_chop)
{
p.assign( p(0) + _ocean_context->disp[0],
p(1) + _ocean_context->disp[1],
p(2) + _ocean_context->disp[2] );
}
else
{
// ppt->getPos()(1) += _ocean_context->disp[1];
UT_Vector4 tmp_p = ppt->getPos();
tmp_p(1) += _ocean_context->disp[1];
ppt->setPos(tmp_p);
}
if (do_normals)
{
/*
UT_Vector3* normal = (UT_Vector3*) ppt->castAttribData<UT_Vector3>(normal_index);
normal->assign(_ocean_context->normal[0],
_ocean_context->normal[1],
_ocean_context->normal[2]);
normal->normalize();
*/
ppt->getValue<UT_Vector3>(normal_index).assign(_ocean_context->normal[0],
_ocean_context->normal[1],
_ocean_context->normal[2]);
ppt->getValue<UT_Vector3>(normal_index).normalize();
}
if (do_jacobian)
{/*
float *js = (float*)ppt->castAttribData<float>(jminus_index);
*js = _ocean_context->Jminus;
UT_Vector3* eminus = (UT_Vector3*)ppt->castAttribData<UT_Vector3>(eminus_index);
eminus->assign(_ocean_context->Eminus[0],0,_ocean_context->Eminus[1]);
*/
ppt->setValue<float>(jminus_index,_ocean_context->Jminus);
ppt->getValue<UT_Vector3>(eminus_index).assign(_ocean_context->Eminus[0],0,_ocean_context->Eminus[1]);
}
ppt->setPos(p);
}
void OBJ_SceneCacheTransform::expandHierarchy( const SceneInterface *scene )
{
if ( !scene )
{
return;
}
Parameters params;
params.geometryType = getGeometryType();
params.depth = (Depth)evalInt( pDepth.getToken(), 0, 0 );
params.hierarchy = (Hierarchy)evalInt( pHierarchy.getToken(), 0, 0 );
params.tagGroups = getTagGroups();
getAttributeFilter( params.attributeFilter );
getAttributeCopy( params.attributeCopy );
getShapeFilter( params.shapeFilter );
getTagFilter( params.tagFilterStr );
getTagFilter( params.tagFilter );
getFullPathName( params.fullPathName );
if ( params.hierarchy == FlatGeometry )
{
// Collapse first, in case the immediate object was already created on during parent expansion
collapseHierarchy();
doExpandObject( scene, this, params );
setInt( pExpanded.getToken(), 0, 0, 1 );
return;
}
OBJ_Node *rootNode = this;
if ( scene->hasObject() )
{
Parameters rootParams( params );
rootParams.hierarchy = SubNetworks;
rootParams.depth = Children;
OBJ_Node *objNode = doExpandObject( scene, this, rootParams );
if ( params.hierarchy == Parenting )
{
rootNode = objNode;
}
}
else if ( params.hierarchy == Parenting )
{
/// \todo: this is terrible. can we use the subnet input instead?
rootNode = reinterpret_cast<OBJ_Node*>( createNode( "geo", "TMP" ) );
}
if ( params.hierarchy == Parenting )
{
rootNode->setIndirectInput( 0, this->getParentInput( 0 ) );
}
UT_Interrupt *progress = UTgetInterrupt();
if ( !progress->opStart( ( "Expand Hierarchy for " + getPath() ).c_str() ) )
{
return;
}
doExpandChildren( scene, rootNode, params );
setInt( pExpanded.getToken(), 0, 0, 1 );
if ( params.hierarchy == Parenting && !scene->hasObject() )
{
destroyNode( rootNode );
}
progress->opEnd();
}
OP_ERROR SOP_CudaParticles::cookMySop(OP_Context &context) {
oldf = f;
f = context.getFrame();
GEO_ParticleVertex* pvtx;
double t = context.getTime();
particlesSystem->dt = 1/(OPgetDirector()->getChannelManager()->getSamplesPerSec() * SUBSTEPS(t));
particlesSystem->preview = PREVIEW(t);
particlesSystem->partsLife = LIFE(t);
particlesSystem->partsLifeVar = LIFEVAR(t);
particlesSystem->velDamp = VELDAMP(t);
particlesSystem->gravityStrength = GRAVITYSTR(t);
particlesSystem->gravityDir = cu::make_float3(GRAVITYX(t),GRAVITYY(t),GRAVITYZ(t));
particlesSystem->fluidStrength = FLUIDSTR(t);
particlesSystem->noiseAmp = cu::make_float3(NOISEAMP(t),NOISEAMP(t),NOISEAMP(t));
particlesSystem->noiseOct = NOISEOCT(t);
particlesSystem->noiseFreq = NOISEFREQ(t);
particlesSystem->noiseLac = NOISELACUN(t);
particlesSystem->noiseOffset = cu::make_float3(NOISEOFFSETX(t),NOISEOFFSETY(t),NOISEOFFSETZ(t));
particlesSystem->pointSize = POINTSIZE(t);
particlesSystem->opacity = OPACITY(t);
particlesSystem->startColor = cu::make_float3(STARTCOLORX(t),STARTCOLORY(t),STARTCOLORZ(t));
particlesSystem->endColor = cu::make_float3(ENDCOLORX(t),ENDCOLORY(t),ENDCOLORZ(t));
UT_Interrupt *boss;
OP_Node::flags().timeDep = 1;
if (error() < UT_ERROR_ABORT) {
boss = UTgetInterrupt();
// Start the interrupt server
if (boss->opStart("Building Particles")){
//gdp->clearAndDestroy();
static float zero = 0.0;
GB_AttributeRef partsAtt = gdp->addAttrib("cudaParticlesPreview", sizeof(int), GB_ATTRIB_INT, &zero);
gdp->attribs().getElement().setValue<int>(partsAtt, particlesSystem->preview);
GB_AttributeRef systemIdAtt = gdp->addAttrib("systemId", sizeof(int), GB_ATTRIB_INT, &zero);
gdp->attribs().getElement().setValue<int>(systemIdAtt, particlesSystem->id);
if (f < STARTFRAME(t)) {
gdp->clearAndDestroy();
particlesSystem->resetParticles();
} else if (f == STARTFRAME(t)) {
gdp->clearAndDestroy();
particlesSystem->resetParticles();
int maxParts = MAXPARTS(t);
if (particlesSystem->nParts!=maxParts)
particlesSystem->changeMaxParts(maxParts);
//hSystem = (GEO_PrimParticle *)gdp->appendPrimitive(GEOPRIMPART);
//hSystem->clearAndDestroy();
GB_AttributeRef hVelocity = gdp->addPointAttrib("v", sizeof(UT_Vector3),GB_ATTRIB_VECTOR, 0);
GB_AttributeRef hLife = gdp->addPointAttrib("life", sizeof(float)*2,GB_ATTRIB_FLOAT, 0);
if(particlesSystem->preview!=1) {
UT_Vector4 orig = UT_Vector4(0,0,0,1);
for (int i = 0; i<particlesSystem->nParts; i++) {
GEO_Point* newPoint = gdp->appendPoint();
newPoint->setPos(orig);
/*pvtx = hSystem->giveBirth();
GEO_Point* ppt = pvtx->getPt();
//ppt->getPos().assign(0,0,0,1);*/
hSystemInit = 1;
}
}
} else {
if(particlesSystem->nParts != -1) {
if(lockInputs(context) >= UT_ERROR_ABORT)
return error();
if(getInput(0)){
GU_Detail* emittersInput = (GU_Detail*)inputGeo(0, context);
GEO_PointList emittersList = emittersInput->points();
int numEmitters = emittersList.entries();
if (numEmitters != particlesSystem->nEmit) {
delete particlesSystem->emitters;
particlesSystem->nEmit = numEmitters;
particlesSystem->emitters = new ParticlesEmitter[numEmitters];
}
GEO_AttributeHandle radAh, amountAh;
GEO_AttributeHandle initVelAh, radVelAmpAh, noiseVelAmpAh,
noiseVelOffsetAh, noiseVelOctAh, noiseVelLacAh, noiseVelFreqAh;
radAh = emittersInput->getPointAttribute("radius");
amountAh = emittersInput->getPointAttribute("amount");
initVelAh = emittersInput->getPointAttribute("initVel");
radVelAmpAh = emittersInput->getPointAttribute("radVelAmp");
noiseVelAmpAh = emittersInput->getPointAttribute("noiseVelAmp");
noiseVelOffsetAh = emittersInput->getPointAttribute("noiseVelOffset");
noiseVelOctAh = emittersInput->getPointAttribute("noiseVelOct");
noiseVelLacAh = emittersInput->getPointAttribute("noiseVelLac");
noiseVelFreqAh = emittersInput->getPointAttribute("noiseVelFreq");
for (int i = 0; i < numEmitters; i++) {
UT_Vector4 emitPos = emittersList[i]->getPos();
UT_Vector3 emitPos3(emitPos);
particlesSystem->emitters[i].posX = emitPos.x();
particlesSystem->emitters[i].posY = emitPos.y();
particlesSystem->emitters[i].posZ = emitPos.z();
radAh.setElement(emittersList[i]);
amountAh.setElement(emittersList[i]);
initVelAh.setElement(emittersList[i]);
radVelAmpAh.setElement(emittersList[i]);
noiseVelAmpAh.setElement(emittersList[i]);
noiseVelOffsetAh.setElement(emittersList[i]);
noiseVelOctAh.setElement(emittersList[i]);
noiseVelLacAh.setElement(emittersList[i]);
noiseVelFreqAh.setElement(emittersList[i]);
particlesSystem->emitters[i].radius = radAh.getF(0);
particlesSystem->emitters[i].amount = amountAh.getF(0);
particlesSystem->emitters[i].velX = initVelAh.getF(0);
particlesSystem->emitters[i].velY = initVelAh.getF(1);
particlesSystem->emitters[i].velZ = initVelAh.getF(2);
particlesSystem->emitters[i].radVelAmp = radVelAmpAh.getF(0);
particlesSystem->emitters[i].noiseVelAmpX = noiseVelAmpAh.getF(0);
particlesSystem->emitters[i].noiseVelAmpY = noiseVelAmpAh.getF(1);
particlesSystem->emitters[i].noiseVelAmpZ = noiseVelAmpAh.getF(2);
particlesSystem->emitters[i].noiseVelOffsetX = noiseVelOffsetAh.getF(0);
particlesSystem->emitters[i].noiseVelOffsetY = noiseVelOffsetAh.getF(1);
particlesSystem->emitters[i].noiseVelOffsetZ = noiseVelOffsetAh.getF(2);
particlesSystem->emitters[i].noiseVelOct = noiseVelOctAh.getF(0);
particlesSystem->emitters[i].noiseVelLac = noiseVelLacAh.getF(0);
particlesSystem->emitters[i].noiseVelFreq = noiseVelFreqAh.getF(0);
}
} else {
particlesSystem->nEmit = 0;
}
if(getInput(1)){
GU_Detail* fluidInput = (GU_Detail*)inputGeo(1, context);
GEO_AttributeHandle fluidIdAh= fluidInput->getDetailAttribute("solverId");
fluidIdAh.setElement(fluidInput);
int sId = fluidIdAh.getI();
VHFluidSolver3D* curr3DSolver = VHFluidSolver3D::solverList[sId];
particlesSystem->fluidSolver = curr3DSolver;
}
unlockInputs();
if (f!=oldf) {
particlesSystem->emitParticles();
particlesSystem->updateParticles();
}
if(particlesSystem->preview!=1 && hSystemInit == 1) {
cu::cudaMemcpy( particlesSystem->host_pos, particlesSystem->dev_pos,
particlesSystem->nParts*sizeof(cu::float3), cu::cudaMemcpyDeviceToHost );
GEO_Point* ppt;
int i = 0;
UT_Vector4 p;
FOR_ALL_GPOINTS(gdp, ppt) {
ppt->getPos() = UT_Vector4(particlesSystem->host_pos[i*3],
particlesSystem->host_pos[i*3+1],
particlesSystem->host_pos[i*3+2],
1);
i++;
}
/*pvtx = hSystem->iterateInit();
for (int i =0; i<particlesSystem->nParts; i++){
pvtx->getPos().assign(particlesSystem->host_pos[i*3],
particlesSystem->host_pos[i*3+1],
particlesSystem->host_pos[i*3+2],
1);
pvtx = hSystem->iterateFastNext(pvtx);
}*/
}
}
}
/// Cook the SOP! This method does all the work
OP_ERROR SOP_OpHolder::cookMySop( OP_Context &context )
{
IECore::MessageHandler::Scope handlerScope( getMessageHandler() );
// some defaults and useful variables
Imath::Box3f bbox( Imath::V3f(-1,-1,-1), Imath::V3f(1,1,1) );
float now = context.getTime();
// force eval of our nodes parameters with our hidden parameter expression
evalInt( "__evaluateParameters", 0, now );
// get our op
IECore::OpPtr op = IECore::runTimeCast<IECore::Op>( getParameterised() );
// check for a valid parameterised on this SOP
if ( !op )
{
UT_String msg( "Op Holder has no parameterised class to operate on!" );
addError( SOP_MESSAGE, msg );
return error();
}
if( lockInputs(context)>=UT_ERROR_ABORT )
{
return error();
}
// start our work
UT_Interrupt *boss = UTgetInterrupt();
boss->opStart("Building OpHolder Geometry...");
gdp->clearAndDestroy();
setParameterisedValues( now );
try
{
// make our Cortex op do it's thing...
op->operate();
// pass ourselves onto the GR_Cortex render hook
IECoreHoudini::NodePassData data( this, IECoreHoudini::NodePassData::CORTEX_OPHOLDER );
GA_RWAttributeRef attrRef = gdp->createAttribute( GA_ATTRIB_DETAIL, GA_SCOPE_PRIVATE, "IECoreHoudiniNodePassData", NULL, NULL, "blinddata" );
GA_Attribute *attr = attrRef.getAttribute();
const GA_AIFBlindData *blindData = attr->getAIFBlindData();
blindData->setDataSize( attr, sizeof(IECoreHoudini::NodePassData), &data );
// if our result is a visible renderable then set our bounds on our output gdp
const IECore::Object *result = op->resultParameter()->getValue();
IECore::ConstVisibleRenderablePtr renderable = IECore::runTimeCast<const IECore::VisibleRenderable>( result );
if ( renderable )
{
Imath::Box3f bbox = renderable->bound();
gdp->cube( bbox.min.x, bbox.max.x, bbox.min.y, bbox.max.y, bbox.min.z, bbox.max.z, 0, 0, 0, 1, 1 );
}
}
catch( boost::python::error_already_set )
{
addError( SOP_MESSAGE, "Error raised during Python evaluation!" );
IECorePython::ScopedGILLock lock;
PyErr_Print();
}
catch( const IECore::Exception &e )
{
addError( SOP_MESSAGE, e.what() );
}
catch( const std::exception &e )
{
addError( SOP_MESSAGE, e.what() );
}
catch( ... )
{
addError( SOP_MESSAGE, "Caught unknown exception!" );
}
// tidy up & go home!
boss->opEnd();
unlockInputs();
return error();
}
OP_ERROR SOP_Scallop::cookMySop(OP_Context &context)
{
//OP_Node::flags().timeDep = 1;
bool clip = (lockInputs(context) < UT_ERROR_ABORT);
UT_BoundingBox bbox;
if(clip)
{
const GU_Detail* input = inputGeo(0,context);
if(input != NULL)
{
//UT_Matrix4 bm;
int res = input->getBBox(&bbox);
if(res == 0) clip = false;
}
else clip = false;
unlockInputs();
};
float now = context.getTime();
Daemon::now=now;
Daemon::caller=this;
Daemon::bias = evalFloat("bias",0,now);
UT_Ramp ramp;
float rampout[4];
bool useRamp = (evalInt("parmcolor",0,now)!=0);
if(useRamp)
{
//PRM_Template *rampTemplate = PRMgetRampTemplate ("ramp", PRM_MULTITYPE_RAMP_RGB, NULL, NULL);
if (ramp.getNodeCount () < 2)
{
ramp.addNode (0, UT_FRGBA (0, 0, 0, 1));
ramp.addNode (1, UT_FRGBA (1, 1, 1, 1));
};
updateRampFromMultiParm(now, getParm("ramp"), ramp);
};
gdp->clearAndDestroy();
bool showPts = (evalInt("showpts",0,now)!=0);
/*
if(showPts)
{
float sz = evalInt("ptssz",0,now);
if(sz > 0)
{
float one = 1.0f;
gdp->addAttribute("showpoints",4,GA_ATTRIB_FLOAT_&one);
gdp->addAttribute("revealsize",4,GB_ATTRIB_FLOAT,&sz);
};
};
*/
int cnt = evalInt("daemons", 0, now);
Daemon* daemons=new Daemon[cnt];
float weights = 0;
int totd=0;
for(int i=1;i<=cnt;i++)
{
bool skip = (evalIntInst("enabled#",&i,0,now)==0);
if(skip) continue;
Daemon& d = daemons[totd];
UT_String path = "";
evalStringInst("obj#", &i, path, 0, now);
if(path == "") continue;
SOP_Node* node = getSOPNode(path);
OBJ_Node* obj = dynamic_cast<OBJ_Node*>(node->getParent());
if(obj == NULL) continue;
addExtraInput(obj, OP_INTEREST_DATA);
//d.xform = obj->getWorldTransform(context); // 10.0
obj->getWorldTransform(d.xform, context);
d.weight = evalFloatInst("weight#",&i,0,now);
if(!useRamp)
{
d.c[0] = evalFloatInst("color#",&i,0,now);
d.c[1] = evalFloatInst("color#",&i,1,now);
d.c[2] = evalFloatInst("color#",&i,2,now);
};
int mth = evalIntInst("model#",&i,0,now);
switch(mth)
{
case 1:
d.method = Methods::Spherical;
break;
case 2:
d.method = Methods::Polar;
break;
case 3:
d.method = Methods::Swirl;
break;
case 4:
d.method = Methods::Trigonometric;
break;
case 5:
{
UT_String script;
evalStringInst("vexcode#", &i, script, 0, now);
d.SetupCVEX(script);
if(d.useVex)
{
OP_Node* shop = (OP_Node*)findSHOPNode(script);
addExtraInput(shop, OP_INTEREST_DATA);
}
break;
}
case 0:
default:
d.method = Methods::Linear;
};
d.power = evalFloatInst("power#",&i,0,now);
d.radius = evalFloatInst("radius#",&i,0,now);
d.parameter = evalFloatInst("parameter#",&i,0,now);
weights+=d.weight;
totd++;
};
if(totd == 0)
{
delete [] daemons;
return error();
}
float base = 0.0;
for(int i=0;i<totd;i++)
{
Daemon& d = daemons[i];
d.range[0]=base;
d.range[1] = base+d.weight/weights;
base=d.range[1];
};
int total = evalInt("count",0,now);
int degr = evalInt("degr",0,now);
total >>= degr;
GA_RWHandleI cntt(gdp->addIntTuple(GA_ATTRIB_POINT, "count", 4, GA_Defaults(1.0)));
GB_AttributeRef dt(gdp->addDiffuseAttribute(GEO_POINT_DICT));
gdp->addVariableName("Cd","Cd");
UT_Vector3 current(0,0,0);
float C[3] = { 0,0,0 };
float R=1.0f;
bool trackRadii = (evalInt("trackradii",0,now)!=0);
float rScale = evalFloat("radiiscale",0,now);
GB_AttributeRef rt;
if(trackRadii)
{
float one=1.0f;
rt = gdp->addPointAttrib("width",4,GB_ATTRIB_FLOAT,&one);
if(!GBisAttributeRefValid(rt)) trackRadii=false;
else gdp->addVariableName("width","WIDTH");
};
float zero=0.0f;
GB_AttributeRef pt = gdp->addPointAttrib("parameter",4,GB_ATTRIB_FLOAT,&zero);
if(GBisAttributeRefValid(pt)) gdp->addVariableName("parameter","PARAMETER");
float param=0.0f;
srand(0);
UT_Interrupt* boss = UTgetInterrupt();
boss->opStart("Computing...");
for(int i=-50;i<total;i++)
{
bool ok = false;
if (boss->opInterrupt()) break;
float w = double(rand())/double(RAND_MAX);
for(int j=0;j<totd;j++)
{
ok = daemons[j].Transform(w,current,C,R,param);
if(ok) break;
};
if(i<0) continue;
if(clip)
{
if(!bbox.isInside(current)) continue;
};
if(ok)
{
GEO_Point* p = gdp->appendPoint();
p->setPos(current);
float* Cd=p->castAttribData<float>(dt);
if(useRamp)
{
ramp.rampLookup(param,C);
}
memcpy(Cd,C,12);
if(trackRadii)
{
float* _R = p->castAttribData<float>(rt);
*_R=rScale*R;
};
if(GBisAttributeRefValid(pt))
{
float* _p = p->castAttribData<float>(pt);
*_p=param;
}
};
};
boss->opEnd();
delete [] daemons;
return error();
};
void OBJ_SceneCacheTransform::doExpandChildren( const SceneInterface *scene, OP_Network *parent, const Parameters ¶ms )
{
UT_Interrupt *progress = UTgetInterrupt();
progress->setLongOpText( ( "Expanding " + scene->name().string() ).c_str() );
if ( progress->opInterrupt() )
{
return;
}
OP_Network *inputNode = parent;
if ( params.hierarchy == Parenting )
{
parent = parent->getParent();
}
SceneInterface::NameList children;
scene->childNames( children );
for ( SceneInterface::NameList::const_iterator it=children.begin(); it != children.end(); ++it )
{
ConstSceneInterfacePtr child = scene->child( *it );
OBJ_Node *childNode = 0;
if ( params.hierarchy == SubNetworks )
{
childNode = doExpandChild( child.get(), parent, params );
if ( params.depth == AllDescendants && child->hasObject() && tagged( child.get(), params.tagFilter ) )
{
Parameters childParams( params );
childParams.depth = Children;
doExpandObject( child.get(), childNode, childParams );
}
}
else if ( params.hierarchy == Parenting )
{
if ( child->hasObject() )
{
Parameters childParams( params );
childParams.depth = Children;
childNode = doExpandObject( child.get(), parent, childParams );
}
else
{
childNode = doExpandChild( child.get(), parent, params );
}
childNode->setInput( 0, inputNode );
}
if ( params.depth == AllDescendants )
{
if ( params.hierarchy == SubNetworks && !tagged( child.get(), params.tagFilter ) )
{
// we don't expand non-tagged children for SubNetwork mode, but we
// do for Parenting mode, because otherwise the hierarchy would be
// stuck in an un-expandable state.
continue;
}
doExpandChildren( child.get(), childNode, params );
childNode->setInt( pExpanded.getToken(), 0, 0, 1 );
}
}
OP_Layout layout( parent );
#if UT_MAJOR_VERSION_INT >= 16
OP_SubnetIndirectInput *parentInput = parent->getParentInput( 0 );
layout.addLayoutItem( parentInput->getInputItem() );
for ( int i=0; i < parent->getNchildren(); ++i )
{
layout.addLayoutItem( parent->getChild( i ) );
}
#else
layout.addLayoutOp( parent->getParentInput( 0 ) );
for ( int i=0; i < parent->getNchildren(); ++i )
{
layout.addLayoutOp( parent->getChild( i ) );
}
#endif
layout.layoutOps( OP_LAYOUT_TOP_TO_BOT, parent, parent->getParentInput( 0 ) );
}
OP_ERROR SOP_FluidSolver2D::cookMySop(OP_Context &context) {
oldf = f;
double t = context.getTime();
int f = context.getFrame();
UT_Interrupt *boss;
GU_PrimVolume *volume;
OP_Node::flags().timeDep = 1;
fluidSolver->fps = OPgetDirector()->getChannelManager()->getSamplesPerSec();
int newResX = RESX(t);
int newResY = RESY(t);
if ( newResX != fluidSolver->res.x || newResY != fluidSolver->res.y) {
fluidSolver->changeFluidRes(newResX,newResY);
}
UT_Vector3 fluidPos(POSX(t), POSY(t), POSZ(t));
UT_Vector3 fluidRot(ROTX(t), ROTY(t), ROTZ(t));
fluidRot.degToRad();
fluidSolver->fluidSize.x = FLUIDSIZEX(t);
fluidSolver->fluidSize.y = FLUIDSIZEY(t);
fluidSolver->borderNegX = BORDERNEGX(t);
fluidSolver->borderPosX = BORDERPOSX(t);
fluidSolver->borderNegY = BORDERNEGY(t);
fluidSolver->borderPosY = BORDERPOSY(t);
fluidSolver->preview = PREVIEW(t);
fluidSolver->previewType = PREVIEWTYPE(t);
fluidSolver->bounds = BOUNDS(t);
fluidSolver->substeps = SUBSTEPS(t);
fluidSolver->jacIter = JACITER(t);
fluidSolver->densDis = DENSDIS(t);
fluidSolver->densBuoyStrength = DENSBUOYSTRENGTH(t);
float ddirX = DENSBUOYDIRX(t);
float ddirY = DENSBUOYDIRY(t);
fluidSolver->densBuoyDir = cu::make_float2(ddirX,ddirY);
fluidSolver->velDamp = VELDAMP(t);
fluidSolver->vortConf = VORTCONF(t);
fluidSolver->noiseStr = NOISESTR(t);
fluidSolver->noiseFreq = NOISEFREQ(t);
fluidSolver->noiseOct = NOISEOCT(t);
fluidSolver->noiseLacun = NOISELACUN(t);
fluidSolver->noiseSpeed = NOISESPEED(t);
fluidSolver->noiseAmp = NOISEAMP(t);
if (error() < UT_ERROR_ABORT) {
boss = UTgetInterrupt();
gdp->clearAndDestroy();
// Start the interrupt server
if (boss->opStart("Building Volume")){
static float zero = 0.0;
#ifdef HOUDINI_11
GB_AttributeRef fluidAtt = gdp->addAttrib("cudaFluidPreview", sizeof(int), GB_ATTRIB_INT, &zero);
gdp->attribs().getElement().setValue<int>(fluidAtt, fluidSolver->preview);
GB_AttributeRef solverIdAtt = gdp->addAttrib("solverId", sizeof(int), GB_ATTRIB_INT, &zero);
gdp->attribs().getElement().setValue<int>(solverIdAtt, fluidSolver->id);
#else
GA_WOAttributeRef fluidAtt = gdp->addIntTuple(GA_ATTRIB_DETAIL, "cudaFluidPreview", 1);
gdp->element().setValue<int>(fluidAtt, fluidSolver->preview);
GA_WOAttributeRef solverIdAtt = gdp->addIntTuple(GA_ATTRIB_DETAIL, "solverId", 1);
gdp->element().setValue<int>(solverIdAtt, fluidSolver->id);
#endif
UT_Matrix3 xform;
const UT_XformOrder volXFormOrder;
volume = (GU_PrimVolume *)GU_PrimVolume::build(gdp);
#ifdef HOUDINI_11
volume->getVertex().getPt()->getPos() = fluidPos;
#else
volume->getVertexElement(0).getPt()->setPos(fluidPos);
#endif
xform.identity();
xform.scale(fluidSolver->fluidSize.x*0.5, fluidSolver->fluidSize.y*0.5, 0.25);
xform.rotate(fluidRot.x(), fluidRot.y(), fluidRot.z(), volXFormOrder);
volume->setTransform(xform);
xform.identity();
xform.rotate(fluidRot.x(), fluidRot.y(), fluidRot.z(), volXFormOrder);
xform.invert();
if(lockInputs(context) >= UT_ERROR_ABORT)
return error();
if(getInput(0)){
GU_Detail* emittersInput = (GU_Detail*)inputGeo(0, context);
GEO_PointList emittersList = emittersInput->points();
int numEmitters = emittersList.entries();
if (numEmitters != fluidSolver->nEmit) {
delete fluidSolver->emitters;
fluidSolver->nEmit = numEmitters;
fluidSolver->emitters = new FluidEmitter[numEmitters];
}
GEO_AttributeHandle radAh, amountAh;
radAh = emittersInput->getPointAttribute("radius");
amountAh = emittersInput->getPointAttribute("amount");
for (int i = 0; i < numEmitters; i++) {
UT_Vector4 emitPos = emittersList[i]->getPos();
UT_Vector3 emitPos3(emitPos);
emitPos3 -= fluidPos;
emitPos3 = emitPos3*xform;
fluidSolver->emitters[i].posX = emitPos3.x();
fluidSolver->emitters[i].posY = emitPos3.y();
radAh.setElement(emittersList[i]);
amountAh.setElement(emittersList[i]);
fluidSolver->emitters[i].radius = radAh.getF(0);
fluidSolver->emitters[i].amount = amountAh.getF(0);
}
} else {
fluidSolver->nEmit = 0;
}
if(getInput(1)) {
GU_Detail* collidersInput = (GU_Detail*)inputGeo(1, context);
GEO_PointList collidersList = collidersInput->points();
int numColliders = collidersList.entries();
if (numColliders != fluidSolver->nColliders) {
delete fluidSolver->colliders;
fluidSolver->nColliders = numColliders;
fluidSolver->colliders = new Collider[numColliders];
}
GEO_AttributeHandle colRadAh;
colRadAh = collidersInput->getPointAttribute("radius");
for (int i = 0; i < numColliders; i++) {
UT_Vector4 colPos = collidersList[i]->getPos();
UT_Vector3 colPos3(colPos);
colPos3 -= fluidPos;
colPos3 = colPos3*xform;
if (f > STARTFRAME(t)) {
fluidSolver->colliders[i].oldPosX = fluidSolver->colliders[i].posX;
fluidSolver->colliders[i].oldPosY = fluidSolver->colliders[i].posY;
} else {
fluidSolver->colliders[i].oldPosX = colPos3.x();
fluidSolver->colliders[i].oldPosY = colPos3.y();
}
fluidSolver->colliders[i].posX = colPos3.x();
fluidSolver->colliders[i].posY = colPos3.y();
colRadAh.setElement(collidersList[i]);
fluidSolver->colliders[i].radius = colRadAh.getF(0);
}
} else {
fluidSolver->nColliders = 0;
}
unlockInputs();
if (f <= STARTFRAME(t)) {
fluidSolver->resetFluid();
if (fluidSolver->preview != 1) {
{
UT_VoxelArrayWriteHandleF handle = volume->getVoxelWriteHandle();
handle->constant(0);
}
}
} else {
if (f!=oldf) {
fluidSolver->solveFluid();
}
if (fluidSolver->preview != 1) {
cu::cudaMemcpy( fluidSolver->host_dens, fluidSolver->dev_dens,
fluidSolver->res.x*fluidSolver->res.y*sizeof(float), cu::cudaMemcpyDeviceToHost );
{
UT_VoxelArrayWriteHandleF handle = volume->getVoxelWriteHandle();
handle->size(fluidSolver->res.x, fluidSolver->res.y, 1);
for (int i = 0; i < fluidSolver->res.x; i++) {
for (int j = 0; j < fluidSolver->res.y; j++) {
handle->setValue(i, j, 0, fluidSolver->host_dens[(j*fluidSolver->res.x + i)]);
}
}
}
}
}
select(GU_SPrimitive);
}
// Tell the interrupt server that we've completed. Must do this
// regardless of what opStart() returns.
boss->opEnd();
}
gdp->notifyCache(GU_CACHE_ALL);
return error();
}
void SOP_SceneCacheSource::loadObjects( const IECore::SceneInterface *scene, Imath::M44d transform, double time, Space space, const UT_StringMMPattern &shapeFilter, const std::string &attributeFilter, GeometryType geometryType, size_t rootSize )
{
UT_Interrupt *progress = UTgetInterrupt();
progress->setLongOpText( ( "Loading " + scene->name().string() ).c_str() );
if ( progress->opInterrupt() )
{
return;
}
if ( scene->hasObject() && UT_String( scene->name() ).multiMatch( shapeFilter ) )
{
// \todo See if there are ways to avoid the Object copy below.
ObjectPtr object = scene->readObject( time )->copy();
std::string name = relativePath( scene, rootSize );
bool hasAnimatedTopology = scene->hasAttribute( SceneCache::animatedObjectTopologyAttribute );
bool hasAnimatedPrimVars = scene->hasAttribute( SceneCache::animatedObjectPrimVarsAttribute );
std::vector<InternedString> animatedPrimVars;
if ( hasAnimatedPrimVars )
{
const ConstObjectPtr animatedPrimVarObj = scene->readAttribute( SceneCache::animatedObjectPrimVarsAttribute, 0 );
const InternedStringVectorData *animatedPrimVarData = IECore::runTimeCast<const InternedStringVectorData>( animatedPrimVarObj );
if ( animatedPrimVarData )
{
const std::vector<InternedString> &values = animatedPrimVarData->readable();
animatedPrimVars.resize( values.size() );
std::copy( values.begin(), values.end(), animatedPrimVars.begin() );
}
}
modifyObject( object, name, attributeFilter, hasAnimatedTopology, hasAnimatedPrimVars, animatedPrimVars );
Imath::M44d currentTransform;
if ( space == Local )
{
currentTransform = scene->readTransformAsMatrix( time );
}
else if ( space != Object )
{
currentTransform = transform;
}
// transform the object unless its an identity
if ( currentTransform != Imath::M44d() )
{
transformObject( object, currentTransform, hasAnimatedTopology, hasAnimatedPrimVars, animatedPrimVars );
}
// load the Cortex object directly
if ( geometryType == Cortex )
{
holdObject( object, name, hasAnimatedTopology, hasAnimatedPrimVars, animatedPrimVars );
}
else
{
// convert the object to Houdini
if ( !convertObject( object, name, attributeFilter, geometryType, hasAnimatedTopology, hasAnimatedPrimVars, animatedPrimVars ) )
{
std::string fullName;
SceneInterface::Path path;
scene->path( path );
SceneInterface::pathToString( path, fullName );
addWarning( SOP_MESSAGE, ( "Could not convert " + fullName + " to houdini" ).c_str() );
}
}
}
if ( evalInt( pObjectOnly.getToken(), 0, 0 ) )
{
return;
}
SceneInterface::NameList children;
scene->childNames( children );
for ( SceneInterface::NameList::const_iterator it=children.begin(); it != children.end(); ++it )
{
ConstSceneInterfacePtr child = scene->child( *it );
loadObjects( child, child->readTransformAsMatrix( time ) * transform, time, space, shapeFilter, attributeFilter, geometryType, rootSize );
}
}
OP_ERROR SOP_SceneCacheSource::cookMySop( OP_Context &context )
{
// make sure the state is valid
if ( boost::indeterminate( m_static ) )
{
sceneChanged();
}
flags().setTimeDep( bool( !m_static ) );
std::string file;
if ( !ensureFile( file ) )
{
addError( SOP_ATTRIBUTE_INVALID, ( file + " is not a valid .scc" ).c_str() );
gdp->clearAndDestroy();
return error();
}
std::string path = getPath();
Space space = getSpace();
GeometryType geometryType = (GeometryType)this->evalInt( pGeometryType.getToken(), 0, 0 );
UT_String shapeFilterStr;
evalString( shapeFilterStr, pShapeFilter.getToken(), 0, 0 );
UT_StringMMPattern shapeFilter;
shapeFilter.compile( shapeFilterStr );
UT_String p( "P" );
UT_String attributeFilter;
evalString( attributeFilter, pAttributeFilter.getToken(), 0, 0 );
if ( !p.match( attributeFilter ) )
{
attributeFilter += " P";
}
ConstSceneInterfacePtr scene = this->scene( file, path );
if ( !scene )
{
addError( SOP_ATTRIBUTE_INVALID, ( path + " is not a valid location in " + file ).c_str() );
gdp->clearAndDestroy();
return error();
}
MurmurHash hash;
hash.append( file );
hash.append( path );
hash.append( space );
hash.append( shapeFilterStr );
hash.append( attributeFilter );
hash.append( geometryType );
hash.append( getObjectOnly() );
if ( !m_loaded || m_hash != hash )
{
gdp->clearAndDestroy();
}
Imath::M44d transform = ( space == World ) ? worldTransform( file, path, context.getTime() ) : Imath::M44d();
SceneInterface::Path rootPath;
scene->path( rootPath );
UT_Interrupt *progress = UTgetInterrupt();
if ( !progress->opStart( ( "Cooking objects for " + getPath() ).c_str() ) )
{
addError( SOP_ATTRIBUTE_INVALID, "Cooking interrupted before it started" );
gdp->clearAndDestroy();
return error();
}
loadObjects( scene, transform, context.getTime(), space, shapeFilter, attributeFilter.toStdString(), geometryType, rootPath.size() );
if ( progress->opInterrupt( 100 ) )
{
addError( SOP_ATTRIBUTE_INVALID, "Cooking interrupted" );
gdp->clearAndDestroy();
m_loaded = false;
m_hash = MurmurHash();
}
else
{
m_loaded = true;
m_hash = hash;
}
progress->opEnd();
return error();
}
void SOP_SceneCacheSource::loadObjects( const IECore::SceneInterface *scene, Imath::M44d transform, double time, Space space, Parameters ¶ms, size_t rootSize )
{
UT_Interrupt *progress = UTgetInterrupt();
progress->setLongOpText( ( "Loading " + scene->name().string() ).c_str() );
if ( progress->opInterrupt() )
{
return;
}
if ( scene->hasObject() && UT_String( scene->name() ).multiMatch( params.shapeFilter ) && tagged( scene, params.tagFilter ) )
{
std::string name = relativePath( scene, rootSize );
Imath::M44d currentTransform;
if ( space == Local )
{
currentTransform = scene->readTransformAsMatrix( time );
}
else if ( space != Object )
{
currentTransform = transform;
}
ConstObjectPtr object = 0;
if ( params.geometryType == BoundingBox )
{
Imath::Box3d bound = scene->readBound( time );
object = MeshPrimitive::createBox( Imath::Box3f( bound.min, bound.max ) );
params.hasAnimatedTopology = false;
params.hasAnimatedPrimVars = true;
params.animatedPrimVars.clear();
params.animatedPrimVars.push_back( "P" );
}
else if ( params.geometryType == PointCloud )
{
std::vector<Imath::V3f> point( 1, scene->readBound( time ).center() );
PointsPrimitivePtr points = new PointsPrimitive( new V3fVectorData( point ) );
std::vector<Imath::V3f> basis1( 1, Imath::V3f( currentTransform[0][0], currentTransform[0][1], currentTransform[0][2] ) );
std::vector<Imath::V3f> basis2( 1, Imath::V3f( currentTransform[1][0], currentTransform[1][1], currentTransform[1][2] ) );
std::vector<Imath::V3f> basis3( 1, Imath::V3f( currentTransform[2][0], currentTransform[2][1], currentTransform[2][2] ) );
points->variables["basis1"] = PrimitiveVariable( PrimitiveVariable::Vertex, new V3fVectorData( basis1 ) );
points->variables["basis2"] = PrimitiveVariable( PrimitiveVariable::Vertex, new V3fVectorData( basis2 ) );
points->variables["basis3"] = PrimitiveVariable( PrimitiveVariable::Vertex, new V3fVectorData( basis3 ) );
params.hasAnimatedTopology = false;
params.hasAnimatedPrimVars = true;
params.animatedPrimVars.clear();
params.animatedPrimVars.push_back( "P" );
params.animatedPrimVars.push_back( "basis1" );
params.animatedPrimVars.push_back( "basis2" );
params.animatedPrimVars.push_back( "basis3" );
object = points;
}
else
{
object = scene->readObject( time );
params.hasAnimatedTopology = scene->hasAttribute( SceneCache::animatedObjectTopologyAttribute );
params.hasAnimatedPrimVars = scene->hasAttribute( SceneCache::animatedObjectPrimVarsAttribute );
if ( params.hasAnimatedPrimVars )
{
const ConstObjectPtr animatedPrimVarObj = scene->readAttribute( SceneCache::animatedObjectPrimVarsAttribute, 0 );
const InternedStringVectorData *animatedPrimVarData = IECore::runTimeCast<const InternedStringVectorData>( animatedPrimVarObj.get() );
if ( animatedPrimVarData )
{
const std::vector<InternedString> &values = animatedPrimVarData->readable();
params.animatedPrimVars.clear();
params.animatedPrimVars.resize( values.size() );
std::copy( values.begin(), values.end(), params.animatedPrimVars.begin() );
}
}
}
// modify the object if necessary
object = modifyObject( object.get(), params );
// transform the object unless its an identity
if ( currentTransform != Imath::M44d() )
{
object = transformObject( object.get(), currentTransform, params );
}
// convert the object to Houdini
if ( !convertObject( object.get(), name, scene, params ) )
{
std::string fullName;
SceneInterface::Path path;
scene->path( path );
SceneInterface::pathToString( path, fullName );
addWarning( SOP_MESSAGE, ( "Could not convert " + fullName + " to Houdini" ).c_str() );
}
}
if ( evalInt( pObjectOnly.getToken(), 0, 0 ) )
{
return;
}
SceneInterface::NameList children;
scene->childNames( children );
std::sort( children.begin(), children.end(), InternedStringSort() );
for ( SceneInterface::NameList::const_iterator it=children.begin(); it != children.end(); ++it )
{
ConstSceneInterfacePtr child = scene->child( *it );
if ( tagged( child.get(), params.tagFilter ) )
{
loadObjects( child.get(), child->readTransformAsMatrix( time ) * transform, time, space, params, rootSize );
}
}
}
OP_ERROR SOP_SceneCacheSource::cookMySop( OP_Context &context )
{
// make sure the state is valid
if ( boost::indeterminate( m_static ) )
{
sceneChanged();
}
flags().setTimeDep( bool( !m_static ) );
std::string file;
if ( !ensureFile( file ) )
{
addError( SOP_ATTRIBUTE_INVALID, ( file + " is not a valid .scc" ).c_str() );
gdp->clearAndDestroy();
return error();
}
std::string path = getPath();
Space space = getSpace();
GeometryType geometryType = (GeometryType)this->evalInt( pGeometryType.getToken(), 0, 0 );
UT_String tagFilterStr;
getTagFilter( tagFilterStr );
UT_StringMMPattern tagFilter;
tagFilter.compile( tagFilterStr );
UT_String shapeFilterStr;
getShapeFilter( shapeFilterStr );
UT_StringMMPattern shapeFilter;
shapeFilter.compile( shapeFilterStr );
UT_String p( "P" );
UT_String attributeFilter;
getAttributeFilter( attributeFilter );
if ( !p.match( attributeFilter ) )
{
attributeFilter += " P";
}
UT_String attributeCopy;
getAttributeCopy( attributeCopy );
UT_String fullPathName;
getFullPathName( fullPathName );
ConstSceneInterfacePtr scene = this->scene( file, path );
if ( !scene )
{
addError( SOP_ATTRIBUTE_INVALID, ( path + " is not a valid location in " + file ).c_str() );
gdp->clearAndDestroy();
return error();
}
MurmurHash hash;
hash.append( file );
hash.append( path );
hash.append( space );
hash.append( tagFilterStr );
hash.append( shapeFilterStr );
hash.append( attributeFilter );
hash.append( attributeCopy );
hash.append( fullPathName );
hash.append( geometryType );
hash.append( getObjectOnly() );
if ( !m_loaded || m_hash != hash )
{
gdp->clearAndDestroy();
}
double readTime = time( context );
Imath::M44d transform = ( space == World ) ? worldTransform( file, path, readTime ) : Imath::M44d();
SceneInterface::Path rootPath;
scene->path( rootPath );
UT_Interrupt *progress = UTgetInterrupt();
if ( !progress->opStart( ( "Cooking objects for " + getPath() ).c_str() ) )
{
addError( SOP_ATTRIBUTE_INVALID, "Cooking interrupted before it started" );
gdp->clearAndDestroy();
return error();
}
Parameters params;
UT_String attribFilter;
getAttributeFilter( attribFilter );
params.attributeFilter = attribFilter.toStdString();
params.attributeCopy = attributeCopy.toStdString();
params.fullPathName = fullPathName.toStdString();
params.geometryType = getGeometryType();
getShapeFilter( params.shapeFilter );
getTagFilter( params.tagFilter );
// Building a map from shape name to primitive range, which will be used during
// convertObject() to do a lazy update of animated primvars where possible, and
// to destroy changing topology shapes when necessary.
GA_ROAttributeRef nameAttrRef = gdp->findStringTuple( GA_ATTRIB_PRIMITIVE, "name" );
if ( nameAttrRef.isValid() )
{
const GA_Attribute *attr = nameAttrRef.getAttribute();
const GA_AIFSharedStringTuple *tuple = attr->getAIFSharedStringTuple();
std::map<std::string, GA_OffsetList> offsets;
GA_Range primRange = gdp->getPrimitiveRange();
for ( GA_Iterator it = primRange.begin(); !it.atEnd(); ++it )
{
std::string current = "";
if ( const char *value = tuple->getString( attr, it.getOffset() ) )
{
current = value;
}
std::map<std::string, GA_OffsetList>::iterator oIt = offsets.find( current );
if ( oIt == offsets.end() )
{
oIt = offsets.insert( std::pair<std::string, GA_OffsetList>( current, GA_OffsetList() ) ).first;
}
oIt->second.append( it.getOffset() );
}
for ( std::map<std::string, GA_OffsetList>::iterator oIt = offsets.begin(); oIt != offsets.end(); ++oIt )
{
params.namedRanges[oIt->first] = GA_Range( gdp->getPrimitiveMap(), oIt->second );
}
}
loadObjects( scene.get(), transform, readTime, space, params, rootPath.size() );
if ( progress->opInterrupt( 100 ) )
{
addError( SOP_ATTRIBUTE_INVALID, "Cooking interrupted" );
gdp->clearAndDestroy();
m_loaded = false;
m_hash = MurmurHash();
}
else
{
m_loaded = true;
m_hash = hash;
}
progress->opEnd();
return error();
}
OP_ERROR SOP_FluidSolver3D::cookMySop(OP_Context &context) {
oldf = f;
f = context.getFrame();
double t = context.getTime();
fluidSolver->fps = OPgetDirector()->getChannelManager()->getSamplesPerSec();
UT_Interrupt *boss;
GU_PrimVolume *volume;
GU_PrimVolume *velXVolume;
GU_PrimVolume *velYVolume;
GU_PrimVolume *velZVolume;
OP_Node::flags().timeDep = 1;
int newResX = RESX(t);
int newResY = RESY(t);
int newResZ = RESZ(t);
if ( newResX != fluidSolver->res.width || newResY != fluidSolver->res.height || newResZ != fluidSolver->res.depth) {
fluidSolver->changeFluidRes(newResX,newResY,newResZ);
}
UT_Vector3 fluidPos(POSX(t), POSY(t), POSZ(t));
UT_Vector3 fluidRot(ROTX(t), ROTY(t), ROTZ(t));
fluidRot.degToRad();
fluidSolver->fluidSize.x = FLUIDSIZEX(t);
fluidSolver->fluidSize.y = FLUIDSIZEY(t);
fluidSolver->fluidSize.z = FLUIDSIZEZ(t);
fluidSolver->borderNegX = BORDERNEGX(t);
fluidSolver->borderPosX = BORDERPOSX(t);
fluidSolver->borderNegY = BORDERNEGY(t);
fluidSolver->borderPosY = BORDERPOSY(t);
fluidSolver->borderNegZ = BORDERNEGZ(t);
fluidSolver->borderPosZ = BORDERPOSZ(t);
fluidSolver->substeps = SUBSTEPS(t);
fluidSolver->jacIter = JACITER(t);
fluidSolver->densDis = DENSDIS(t);
fluidSolver->densBuoyStrength = DENSBUOYSTRENGTH(t);
float ddirX = DENSBUOYDIRX(t);
float ddirY = DENSBUOYDIRY(t);
float ddirZ = DENSBUOYDIRZ(t);
fluidSolver->densBuoyDir = cu::make_float3(ddirX,ddirY,ddirZ);
fluidSolver->velDamp = VELDAMP(t);
fluidSolver->vortConf = VORTCONF(t);
fluidSolver->noiseStr = NOISESTR(t);
fluidSolver->noiseFreq = NOISEFREQ(t);
fluidSolver->noiseOct = NOISEOCT(t);
fluidSolver->noiseLacun = NOISELACUN(t);
fluidSolver->noiseSpeed = NOISESPEED(t);
fluidSolver->noiseAmp = NOISEAMP(t);
fluidSolver->preview = PREVIEW(t);
fluidSolver->drawCube = DRAWCUBE(t);
fluidSolver->opaScale = OPASCALE(t);
fluidSolver->stepMul = STEPMUL(t);
fluidSolver->displayRes = DISPLAYRES(t);
fluidSolver->doShadows = DOSHADOWS(t);
float lightPosX = LIGHTPOSX(t);
float lightPosY = LIGHTPOSY(t);
float lightPosZ = LIGHTPOSZ(t);
fluidSolver->lightPos = cu::make_float3(lightPosX,lightPosY,lightPosZ);
fluidSolver->shadowDens = SHADOWDENS(t);
fluidSolver->shadowStepMul = SHADOWSTEPMUL(t);
fluidSolver->shadowThres = SHADOWTHRES(t);
fluidSolver->displaySlice = DISPLAYSLICE(t);
fluidSolver->sliceType = SLICETYPE(t);
fluidSolver->sliceAxis = SLICEAXIS(t);
fluidSolver->slicePos = SLICEPOS(t);
fluidSolver->sliceBounds = SLICEBOUNDS(t);
if (error() < UT_ERROR_ABORT) {
boss = UTgetInterrupt();
gdp->clearAndDestroy();
// Start the interrupt server
if (boss->opStart("Building Volume")){
static float zero = 0.0;
GB_AttributeRef fluidAtt = gdp->addAttrib("cudaFluid3DPreview", sizeof(int), GB_ATTRIB_INT, &zero);
gdp->attribs().getElement().setValue<int>(fluidAtt, fluidSolver->preview);
GB_AttributeRef fluidSliceAtt = gdp->addAttrib("sliceDisplay", sizeof(int), GB_ATTRIB_INT, &zero);
gdp->attribs().getElement().setValue<int>(fluidSliceAtt, fluidSolver->displaySlice);
GB_AttributeRef solverIdAtt = gdp->addAttrib("solverId", sizeof(int), GB_ATTRIB_INT, &zero);
gdp->attribs().getElement().setValue<int>(solverIdAtt, fluidSolver->id);
GEO_AttributeHandle name_gah;
int def = -1;
gdp->addPrimAttrib("name", sizeof(int), GB_ATTRIB_INDEX, &def);
name_gah = gdp->getPrimAttribute("name");
UT_Matrix3 xform;
const UT_XformOrder volXFormOrder;
volume = (GU_PrimVolume *)GU_PrimVolume::build(gdp);
volume->getVertex().getPt()->getPos() = fluidPos;
xform.identity();
xform.scale(fluidSolver->fluidSize.x*0.5, fluidSolver->fluidSize.y*0.5, fluidSolver->fluidSize.z*0.5);
xform.rotate(fluidRot.x(), fluidRot.y(), fluidRot.z(), volXFormOrder);
volume->setTransform(xform);
name_gah.setElement(volume);
name_gah.setString("density");
velXVolume = (GU_PrimVolume *)GU_PrimVolume::build(gdp);
velXVolume->getVertex().getPt()->getPos() = fluidPos;
velXVolume->setTransform(xform);
name_gah.setElement(velXVolume);
name_gah.setString("vel.x");
velYVolume = (GU_PrimVolume *)GU_PrimVolume::build(gdp);
velYVolume->getVertex().getPt()->getPos() = fluidPos;
velYVolume->setTransform(xform);
name_gah.setElement(velYVolume);
name_gah.setString("vel.y");
velZVolume = (GU_PrimVolume *)GU_PrimVolume::build(gdp);
velZVolume->getVertex().getPt()->getPos() = fluidPos;
velZVolume->setTransform(xform);
name_gah.setElement(velZVolume);
name_gah.setString("vel.z");
xform.identity();
xform.rotate(fluidRot.x(), fluidRot.y(), fluidRot.z(), volXFormOrder);
xform.invert();
if(lockInputs(context) >= UT_ERROR_ABORT)
return error();
if(getInput(0)){
GU_Detail* emittersInput = (GU_Detail*)inputGeo(0, context);
GEO_PointList emittersList = emittersInput->points();
int numEmitters = emittersList.entries();
if (numEmitters != fluidSolver->nEmit) {
delete fluidSolver->emitters;
fluidSolver->nEmit = numEmitters;
fluidSolver->emitters = new VHFluidEmitter[numEmitters];
}
GEO_AttributeHandle radAh, amountAh;
radAh = emittersInput->getPointAttribute("radius");
amountAh = emittersInput->getPointAttribute("amount");
for (int i = 0; i < numEmitters; i++) {
UT_Vector4 emitPos = emittersList[i]->getPos();
UT_Vector3 emitPos3(emitPos);
emitPos3 -= fluidPos;
emitPos3 = emitPos3*xform;
fluidSolver->emitters[i].posX = emitPos3.x();
fluidSolver->emitters[i].posY = emitPos3.y();
fluidSolver->emitters[i].posZ = emitPos3.z();
radAh.setElement(emittersList[i]);
amountAh.setElement(emittersList[i]);
fluidSolver->emitters[i].radius = radAh.getF(0);
fluidSolver->emitters[i].amount = amountAh.getF(0);
}
} else {
fluidSolver->nEmit = 0;
}
if(getInput(1)) {
GU_Detail* collidersInput = (GU_Detail*)inputGeo(1, context);
GEO_PointList collidersList = collidersInput->points();
int numColliders = collidersList.entries();
if (numColliders != fluidSolver->nColliders) {
delete fluidSolver->colliders;
fluidSolver->nColliders = numColliders;
fluidSolver->colliders = new VHFluidCollider[numColliders];
}
GEO_AttributeHandle colRadAh;
colRadAh = collidersInput->getPointAttribute("radius");
for (int i = 0; i < numColliders; i++) {
UT_Vector4 colPos = collidersList[i]->getPos();
UT_Vector3 colPos3(colPos);
colPos3 -= fluidPos;
colPos3 = colPos3*xform;
if (f > STARTFRAME(t)) {
fluidSolver->colliders[i].oldPosX = fluidSolver->colliders[i].posX;
fluidSolver->colliders[i].oldPosY = fluidSolver->colliders[i].posY;
fluidSolver->colliders[i].oldPosZ = fluidSolver->colliders[i].posZ;
} else {
fluidSolver->colliders[i].oldPosX = colPos3.x();
fluidSolver->colliders[i].oldPosY = colPos3.y();
fluidSolver->colliders[i].oldPosZ = colPos3.z();
}
fluidSolver->colliders[i].posX = colPos3.x();
fluidSolver->colliders[i].posY = colPos3.y();
fluidSolver->colliders[i].posZ = colPos3.z();
colRadAh.setElement(collidersList[i]);
fluidSolver->colliders[i].radius = colRadAh.getF(0);
}
} else {
fluidSolver->nColliders = 0;
}
unlockInputs();
if (f <= STARTFRAME(t)) {
fluidSolver->resetFluid();
if (COPYDENS(t)) {
{
UT_VoxelArrayWriteHandleF handle = volume->getVoxelWriteHandle();
handle->constant(0);
UT_VoxelArrayWriteHandleF velXHandle = velXVolume->getVoxelWriteHandle();
velXHandle->constant(0);
UT_VoxelArrayWriteHandleF velYHandle = velYVolume->getVoxelWriteHandle();
velYHandle->constant(0);
UT_VoxelArrayWriteHandleF velZHandle = velZVolume->getVoxelWriteHandle();
velZHandle->constant(0);
}
}
} else {
if (f!=oldf) {
fluidSolver->solveFluid();
}
if (COPYDENS(t)) {
cu::cudaMemcpy( fluidSolver->host_dens, fluidSolver->dev_dens,
fluidSolver->res.width*fluidSolver->res.height*fluidSolver->res.depth*sizeof(float), cu::cudaMemcpyDeviceToHost );
{
UT_VoxelArrayWriteHandleF handle = volume->getVoxelWriteHandle();
handle->size(fluidSolver->res.width, fluidSolver->res.height, fluidSolver->res.depth);
for (int i = 0; i < fluidSolver->res.width; i++) {
for (int j = 0; j < fluidSolver->res.height; j++) {
for (int k = 0; k < fluidSolver->res.depth; k++) {
handle->setValue(i, j, k, fluidSolver->host_dens[k*fluidSolver->res.width*fluidSolver->res.height + j*fluidSolver->res.width + i]);
}
}
}
}
if (COPYVEL(t)) {
cu::cudaMemcpy( fluidSolver->host_vel, fluidSolver->dev_vel,
fluidSolver->res.width*fluidSolver->res.height*fluidSolver->res.depth*sizeof(cu::float4), cu::cudaMemcpyDeviceToHost );
{
UT_VoxelArrayWriteHandleF velXHandle = velXVolume->getVoxelWriteHandle();
velXHandle->size(fluidSolver->res.width, fluidSolver->res.height, fluidSolver->res.depth);
UT_VoxelArrayWriteHandleF velYHandle = velYVolume->getVoxelWriteHandle();
velYHandle->size(fluidSolver->res.width, fluidSolver->res.height, fluidSolver->res.depth);
UT_VoxelArrayWriteHandleF velZHandle = velZVolume->getVoxelWriteHandle();
velZHandle->size(fluidSolver->res.width, fluidSolver->res.height, fluidSolver->res.depth);
for (int i = 0; i < fluidSolver->res.width; i++) {
for (int j = 0; j < fluidSolver->res.height; j++) {
for (int k = 0; k < fluidSolver->res.depth; k++) {
velXHandle->setValue(i, j, k, fluidSolver->host_vel[4*(k*fluidSolver->res.width*fluidSolver->res.height + j*fluidSolver->res.width + i)]);
velYHandle->setValue(i, j, k, fluidSolver->host_vel[4*(k*fluidSolver->res.width*fluidSolver->res.height + j*fluidSolver->res.width + i)+1]);
velZHandle->setValue(i, j, k, fluidSolver->host_vel[4*(k*fluidSolver->res.width*fluidSolver->res.height + j*fluidSolver->res.width + i)+2]);
}
}
}
}
}
}
}
select(GU_SPrimitive);
}
// Tell the interrupt server that we've completed. Must do this
// regardless of what opStart() returns.
boss->opEnd();
}
gdp->notifyCache(GU_CACHE_ALL);
return error();
}
