void FilterFeatureAlignment::setAlignmentParameters(typename ALIGNER_TYPE::MeshType& mFix, typename ALIGNER_TYPE::MeshType& mMov, FilterParameterSet& par, typename ALIGNER_TYPE::Parameters& param)
{
typedef ALIGNER_TYPE AlignerType;
typedef typename AlignerType::MeshType MeshType;
if(par.hasParameter("samplingStrategy")) param.samplingStrategy = par.getEnum("samplingStrategy");
if(par.hasParameter("numMovFeatureSelected")) param.numMovFeatureSelected = math::Clamp(par.getInt("numMovFeatureSelected"),0,mMov.VertexNumber());
if(par.hasParameter("nBase")){ param.nBase = par.getInt("nBase"); if(param.nBase<4) param.nBase=4; }
if(par.hasParameter("k")){ param.k = par.getInt("k"); if(param.k<1) param.k=1; }
if(par.hasParameter("ransacIter")){ param.ransacIter = par.getInt("ransacIter"); if(param.ransacIter<0) param.ransacIter = 0;}
if(par.hasParameter("fullConsensusSamples")) param.fullConsensusSamples = math::Clamp(par.getInt("fullConsensusSamples"),1,mMov.VertexNumber());
if(par.hasParameter("overlap")) param.overlap = math::Clamp<float>(par.getFloat("overlap"),0.0f,100.0f);
if(par.hasParameter("consensusDist")) param.consensusDist = math::Clamp<float>(par.getFloat("consensusDist"),0.0f,100.0f);
if(par.hasParameter("pickPoints")) param.pickPoints = par.getBool("pickPoints");
if(par.hasParameter("normEq")) param.normalEqualization = par.getBool("normEq");
if(par.hasParameter("paint")) param.paint = par.getBool("paint");
}
// The Real Core Function doing the actual mesh processing.
// Move Vertex of a random quantity
bool SlidingCurvaturePlugin::applyFilter(QAction *filter, MeshModel &m, FilterParameterSet & par, vcg::CallBackPos *cb)
{
if( ID(filter)== FP_COMPUTE_PRINC_CURV_DIR_FROM_SLIDING){
vcg::Histogramf hi;
vcg::CurvatureFromSliding<CMeshO> cfs;
vcg::tri::UpdateBounding<CMeshO>::Box(m.cm); // update bounding box
vcg::tri::UpdateNormals<CMeshO>::PerVertexNormalizedPerFaceNormalized(m.cm); // update Normals
vcg::tri::Stat<CMeshO>::ComputeEdgeHistogram(m.cm,hi);
float radius = hi.Avg()*par.getFloat("radius");
cfs.Compute(m.cm,radius, cb );}
return true;
}
void PhotoTexturingWidget::saveDefaultBakeSettings(FilterParameterSet pset){
QSettings ptSettings;
ptSettings.setValue(PhotoTexturer::TEXTURE_SIZE_WIDTH,pset.getInt(PhotoTexturer::TEXTURE_SIZE_WIDTH));
ptSettings.setValue(PhotoTexturer::TEXTURE_SIZE_HEIGHT,pset.getInt(PhotoTexturer::TEXTURE_SIZE_HEIGHT));
ptSettings.setValue(PhotoTexturer::UNPROJECT_ENABLE_ANGLE,pset.getBool(PhotoTexturer::UNPROJECT_ENABLE_ANGLE));
ptSettings.setValue(PhotoTexturer::UNPROJECT_ANGLE_WEIGHT,pset.getInt(PhotoTexturer::UNPROJECT_ANGLE_WEIGHT));
ptSettings.setValue(PhotoTexturer::UNPROJECT_ANGLE,pset.getFloat(PhotoTexturer::UNPROJECT_ANGLE));
ptSettings.setValue(PhotoTexturer::UNPROJECT_ANGLE_SHARPNESS,pset.getInt(PhotoTexturer::UNPROJECT_ANGLE_SHARPNESS));
ptSettings.setValue(PhotoTexturer::UNPROJECT_ENABLE_DISTANCE,pset.getBool(PhotoTexturer::UNPROJECT_ENABLE_DISTANCE));
ptSettings.setValue(PhotoTexturer::UNPROJECT_DISTANCE_WEIGHT,pset.getInt(PhotoTexturer::UNPROJECT_DISTANCE_WEIGHT));
ptSettings.setValue(PhotoTexturer::BAKE_SAVE_UNPROJECT,pset.getBool(PhotoTexturer::BAKE_SAVE_UNPROJECT));
ptSettings.setValue(PhotoTexturer::UNPROJECT_ENABLE_EDGE_STRETCHING,pset.getBool(PhotoTexturer::UNPROJECT_ENABLE_EDGE_STRETCHING));
ptSettings.setValue(PhotoTexturer::UNPROJECT_EDGE_STRETCHING_PASS,pset.getInt(PhotoTexturer::UNPROJECT_EDGE_STRETCHING_PASS));
ptSettings.setValue(PhotoTexturer::BAKE_MERGE_TEXTURES,pset.getBool(PhotoTexturer::BAKE_MERGE_TEXTURES));
ptSettings.setValue(PhotoTexturer::BAKE_MERGE_TYPE,pset.getEnum(PhotoTexturer::BAKE_MERGE_TYPE));
ptSettings.setValue(PhotoTexturer::BAKE_SMARTBLEND,pset.getString(PhotoTexturer::BAKE_SMARTBLEND));
}
bool FilterFeatureAlignment::applyFilter(QAction *filter, MeshDocument &md, FilterParameterSet & par, vcg::CallBackPos * cb)
{
glLog=log; //assign log to a global variable. needed to write the log from everywhere in the code
//define needed typedef MeshType
typedef CMeshO MeshType;
//declare variables for parameters
int featureType, from, to, step, trials;
MeshModel *mFix, *mMov, *currMesh;
//read parameters
currMesh = md.mm(); //get current mesh from document
if(par.hasParameter("mFix")) mFix = par.getMesh("mFix"); else mFix = currMesh;
if(par.hasParameter("mMov")) mMov = par.getMesh("mMov"); else mMov = currMesh;
if(par.hasParameter("featureType")) featureType = par.getEnum("featureType"); else featureType = -1;
if(par.hasParameter("trials")) trials = par.getInt("trials"); else trials = 100;
if(par.hasParameter("from")) from = par.getInt("from"); else from = 1000;
if(par.hasParameter("to")) to = par.getInt("to"); else to = 5000;
if(par.hasParameter("step")) step = par.getInt("step"); else step = 1000;
switch(ID(filter))
{
case AF_COMPUTE_FEATURE:
{
switch(featureType){
case 0:{
typedef SmoothCurvatureFeature<MeshType, 6> FeatureType; //define needed typedef FeatureType
FeatureType::Parameters param;
FeatureType::SetupParameters(param);
return ComputeFeatureOperation<MeshType,FeatureType>(*currMesh, param, cb);
}
case 1:{
typedef APSSCurvatureFeature<MeshType, 3> FeatureType; //define needed typedef FeatureType
FeatureType::Parameters param;
FeatureType::SetupParameters(param);
return ComputeFeatureOperation<MeshType,FeatureType>(*currMesh, param, cb);
}
case 2:{
typedef FeatureRGB<MeshType, 3> FeatureType; //define needed typedef FeatureType
FeatureType::Parameters param;
FeatureType::SetupParameters(param);
return ComputeFeatureOperation<MeshType,FeatureType>(*currMesh, param, cb);
}
default: assert(0);
} //end switch(ftype)
assert(0);
} //end case AF_COMPUTE_FEATURE
case AF_EXTRACTION:
{
switch(featureType){
case 0:{
typedef SmoothCurvatureFeature<MeshType, 6> FeatureType; //define needed typedef FeatureType
typedef FeatureAlignment<MeshType, FeatureType> AlignerType; //define the Aligner class
AlignerType::Parameters alignerParam(mFix->cm, mMov->cm);
setAlignmentParameters<AlignerType>(mFix->cm, mMov->cm, par, alignerParam);
bool ok = ExtractionOperation<AlignerType>(*currMesh, alignerParam, cb);
return ok;
}
case 1:{
typedef FeatureRGB<MeshType, 3> FeatureType; //define needed typedef FeatureType
typedef FeatureAlignment<MeshType, FeatureType> AlignerType; //define the Aligner class
AlignerType::Parameters alignerParam(mFix->cm, mMov->cm);
setAlignmentParameters<AlignerType>(mFix->cm, mMov->cm, par, alignerParam);
bool ok = ExtractionOperation<AlignerType>(*currMesh, alignerParam, cb);
return ok;
}
default: assert(0);
} //end switch(ftype)
assert(0);
} //end case AF_EXTRACTION
case AF_MATCHING :
{
switch(featureType)
{
case 0:{
typedef SmoothCurvatureFeature<MeshType, 6> FeatureType; //define needed typedef FeatureType
typedef FeatureAlignment<MeshType, FeatureType> AlignerType; //define the Aligner class
typedef AlignerType::Result ResultType;
AlignerType::Parameters alignerParam(mFix->cm, mMov->cm);
setAlignmentParameters<AlignerType>(mFix->cm, mMov->cm, par, alignerParam);
ResultType res = MatchingOperation<AlignerType>(*mFix, *mMov, alignerParam, cb);
return logResult<AlignerType>(ID(filter), res, errorMessage);
}
case 1:{
typedef FeatureRGB<MeshType, 3> FeatureType; //define needed typedef FeatureType
typedef FeatureAlignment<MeshType, FeatureType> AlignerType; //define the Aligner class
typedef AlignerType::Result ResultType;
AlignerType::Parameters alignerParam(mFix->cm, mMov->cm);
setAlignmentParameters<AlignerType>(mFix->cm, mMov->cm, par, alignerParam);
ResultType res = MatchingOperation<AlignerType>(*mFix, *mMov, alignerParam, cb);
return logResult<AlignerType>(ID(filter), res, errorMessage);
}
default: assert(0);
} //end switch(ftype)
assert(0);
} //end case AF_MATCHING
case AF_RIGID_TRANSFORMATION :
{
switch(featureType)
{
case 0:{
typedef SmoothCurvatureFeature<MeshType, 6> FeatureType; //define needed typedef FeatureType
typedef FeatureAlignment<MeshType, FeatureType> AlignerType; //define the Aligner class
typedef AlignerType::Result ResultType;
AlignerType::Parameters alignerParam(mFix->cm, mMov->cm);
setAlignmentParameters<AlignerType>(mFix->cm, mMov->cm, par, alignerParam);
ResultType res = RigidTransformationOperation<AlignerType>(*mFix, *mMov, alignerParam, cb);
return logResult<AlignerType>(ID(filter), res, errorMessage);
}
case 1:{
typedef FeatureRGB<MeshType, 3> FeatureType; //define needed typedef FeatureType
typedef FeatureAlignment<MeshType, FeatureType> AlignerType; //define the Aligner class
typedef AlignerType::Result ResultType;
AlignerType::Parameters alignerParam(mFix->cm, mMov->cm);
setAlignmentParameters<AlignerType>(mFix->cm, mMov->cm, par, alignerParam);
ResultType res = RigidTransformationOperation<AlignerType>(*mFix, *mMov, alignerParam, cb);
return logResult<AlignerType>(ID(filter), res, errorMessage);
}
default: assert(0);
} //end switch(ftype)
assert(0);
} //end case AF_RIGID_TRANSFORMATION
case AF_CONSENSUS :
{
typedef OverlapEstimation<CMeshO> ConsensusType;
ConsensusType::Parameters consParam;
//set up params for consensus
consParam.samples = math::Clamp(par.getInt("fullConsensusSamples"),1,mMov->cm.VertexNumber());
consParam.consensusDist=math::Clamp<float>(par.getFloat("consensusDist"),0.0f,100.0f);
consParam.paint = par.getBool("paint");
consParam.normalEqualization = par.getBool("normEq");
consParam.threshold = 0.0f;
consParam.bestScore = 0;
float result = ConsensusOperation<ConsensusType>(*mFix, *mMov, consParam, cb);
if(result<0){
errorMessage = "Consensus Initialization fails.";
return false; }
Log("Consensus of %.2f%%", 100*result);
return true;
}
case AF_RANSAC:
{
switch(featureType){
case 0:{
typedef SmoothCurvatureFeature<MeshType, 6> FeatureType; //define needed typedef FeatureType
typedef FeatureAlignment<MeshType, FeatureType> AlignerType; //define the Aligner class
typedef AlignerType::Result ResultType;
AlignerType::Parameters alignerParam(mFix->cm, mMov->cm);
setAlignmentParameters<AlignerType>(mFix->cm, mMov->cm, par, alignerParam);
ResultType res = RansacOperation<AlignerType>(*mFix, *mMov, alignerParam, cb);
return logResult<AlignerType>(ID(filter), res, errorMessage);
}
case 1:{
typedef APSSCurvatureFeature<MeshType, 3> FeatureType; //define needed typedef FeatureType
typedef FeatureAlignment<MeshType, FeatureType> AlignerType; //define the Aligner class
typedef AlignerType::Result ResultType;
AlignerType::Parameters alignerParam(mFix->cm, mMov->cm);
setAlignmentParameters<AlignerType>(mFix->cm, mMov->cm, par, alignerParam);
ResultType res = RansacOperation<AlignerType>(*mFix, *mMov, alignerParam, cb);
return logResult<AlignerType>(ID(filter), res, errorMessage);
}
case 2:{
typedef FeatureRGB<MeshType, 3> FeatureType; //define needed typedef FeatureType
typedef FeatureAlignment<MeshType, FeatureType> AlignerType; //define the Aligner class
typedef AlignerType::Result ResultType;
AlignerType::Parameters alignerParam(mFix->cm, mMov->cm);
setAlignmentParameters<AlignerType>(mFix->cm, mMov->cm, par, alignerParam);
ResultType res = RansacOperation<AlignerType>(*mFix, *mMov, alignerParam, cb);
return logResult<AlignerType>(ID(filter), res, errorMessage);
}
default: assert(0);
} // end switch(ftype)
assert(0);
} //end case AF_RANSAC
case AF_RANSAC_DIAGRAM:
{
switch(featureType){
case 0:{
typedef SmoothCurvatureFeature<MeshType, 6> FeatureType; //define needed typedef FeatureType
typedef FeatureAlignment<MeshType, FeatureType> AlignerType; //define the Aligner class
typedef AlignerType::Result ResultType;
AlignerType::Parameters alignerParam(mFix->cm, mMov->cm);
setAlignmentParameters<AlignerType>(mFix->cm, mMov->cm, par, alignerParam);
ResultType res = RansacDiagramOperation<AlignerType>(*mFix, *mMov, alignerParam, trials, from, to, step, cb);
return logResult<AlignerType>(ID(filter), res, errorMessage);
}
case 1:{
typedef APSSCurvatureFeature<MeshType, 3> FeatureType; //define needed typedef FeatureType
typedef FeatureAlignment<MeshType, FeatureType> AlignerType; //define the Aligner class
typedef AlignerType::Result ResultType;
AlignerType::Parameters alignerParam(mFix->cm, mMov->cm);
setAlignmentParameters<AlignerType>(mFix->cm, mMov->cm, par, alignerParam);
ResultType res = RansacDiagramOperation<AlignerType>(*mFix, *mMov, alignerParam, trials, from, to, step, cb);
return logResult<AlignerType>(ID(filter), res, errorMessage);
}
case 2:{
typedef FeatureRGB<MeshType, 3> FeatureType; //define needed typedef FeatureType
typedef FeatureAlignment<MeshType, FeatureType> AlignerType; //define the Aligner class
typedef AlignerType::Result ResultType;
AlignerType::Parameters alignerParam(mFix->cm, mMov->cm);
setAlignmentParameters<AlignerType>(mFix->cm, mMov->cm, par, alignerParam);
ResultType res = RansacDiagramOperation<AlignerType>(*mFix, *mMov, alignerParam, trials, from, to, step, cb);
return logResult<AlignerType>(ID(filter), res, errorMessage);
}
default: assert(0);
} // end switch(ftype)
assert(0);
} //end case AF_RANSAC_DIAGRAM
default: assert(0);
} // end switch(ID(filter))
return false;
}