bool HullLibrary::NormalizeAndCleanupVertices(hacd::HaU32 svcount,
const hacd::HaF32 *svertices,
hacd::HaU32 stride,
hacd::HaU32 &vcount, // output number of vertices
hacd::HaF32 *vertices, // location to store the results.
hacd::HaF32 normalepsilon,
hacd::HaF32 *scale,
hacd::HaF32 *center,
hacd::HaU32 maxVertices)
{
bool ret = false;
WuQuantizer *wq = createWuQuantizer();
if ( wq )
{
const hacd::HaF32 *quantizedVertices = wq->kmeansQuantize3D(svcount,svertices,false,maxVertices,vcount);
if ( quantizedVertices )
{
memcpy(vertices,quantizedVertices,sizeof(HaF32)*3*vcount);
const HaF32 *_scale = wq->getDenormalizeScale();
scale[0] = _scale[0];
scale[1] = _scale[1];
scale[2] = _scale[2];
const HaF32 *_center = wq->getDenormalizeCenter();
center[0] = _center[0];
center[1] = _center[1];
center[2] = _center[2];
ret = true;
}
wq->release();
}
return ret;
}
bool HullLibrary::NormalizeAndCleanupVertices(uint32_t svcount,
const float *svertices,
uint32_t /*stride*/,
uint32_t &vcount, // output number of vertices
float *vertices, // location to store the results.
float /*normalepsilon*/,
float *scale,
float *center,
uint32_t maxVertices,
bool useWuQuantizer)
{
bool ret = false;
WuQuantizer *wq = createWuQuantizer();
if ( wq )
{
const float *quantizedVertices;
if ( useWuQuantizer )
{
quantizedVertices = wq->wuQuantize3D(svcount,svertices,false,maxVertices,vcount);
}
else
{
quantizedVertices = wq->kmeansQuantize3D(svcount,svertices,false,maxVertices,vcount);
}
if ( quantizedVertices )
{
memcpy(vertices,quantizedVertices,sizeof(float)*3*vcount);
const float *_scale = wq->getDenormalizeScale();
scale[0] = _scale[0];
scale[1] = _scale[1];
scale[2] = _scale[2];
const float *_center = wq->getDenormalizeCenter();
center[0] = _center[0];
center[1] = _center[1];
center[2] = _center[2];
ret = true;
}
wq->release();
}
return ret;
}
