RJMCMCBase(float *points,int numPoints, float *dimg, const int *dsz, double *voxsize, double cellsize)
: m_QBallImageData(dimg)
, datasz(dsz)
, enc(0)
, width(dsz[1]*voxsize[0])
, height(dsz[2]*voxsize[1])
, depth(dsz[3]*voxsize[2])
, voxsize(voxsize)
, m_NumAttributes(0)
, m_AcceptedProposals(0)
{
fprintf(stderr,"Data dimensions (mm) : %f x %f x %f\n",width,height,depth);
fprintf(stderr,"Data dimensions (voxel) : %i x %i x %i\n",datasz[1],datasz[2],datasz[3]);
fprintf(stderr,"voxel size (mm) : %lf x %lf x %lf\n",voxsize[0],voxsize[1],voxsize[2]);
float cellcnt_x = (int)((float)width/cellsize) +1;
float cellcnt_y = (int)((float)height/cellsize) +1;
float cellcnt_z = (int)((float)depth/cellsize) +1;
//int cell_capacity = 2048;
//int cell_capacity = 64;
int cell_capacity = 512;
fprintf(stderr,"grid dimensions : %f x %f x %f\n",cellcnt_x,cellcnt_y,cellcnt_z);
fprintf(stderr,"grid cell size (mm) : %f^3\n",cellsize);
fprintf(stderr,"cell capacity : %i\n",cell_capacity);
fprintf(stderr,"#cells*cellcap : %.1f K\n",cell_capacity*cellcnt_x*cellcnt_y*cellcnt_z/1000);
int minsize = 1000000;
int err = m_ParticleGrid.allocate(((numPoints>minsize)? (numPoints+100000) : minsize), cellcnt_x, cellcnt_y, cellcnt_z, cellsize, cell_capacity);
if (err == -1)
{
fprintf(stderr,"RJMCMCBase: out of Memory!\n");
return;
}
m_NumAttributes = 10;
for (int k = 0; k < numPoints; k++)
{
Particle *p = m_ParticleGrid.newParticle(pVector(points[m_NumAttributes*k], points[m_NumAttributes*k+1],points[m_NumAttributes*k+2]));
if (p!=0)
{
p->N = pVector(points[m_NumAttributes*k+3],points[m_NumAttributes*k+4],points[m_NumAttributes*k+5]);
p->cap = points[m_NumAttributes*k+6];
p->len = points[m_NumAttributes*k+7];
p->mID = (int) points[m_NumAttributes*k+8];
p->pID = (int) points[m_NumAttributes*k+9];
if (p->mID != -1)
m_ParticleGrid.concnt++;
if (p->pID != -1)
m_ParticleGrid.concnt++;
p->label = 0;
}
else
{
fprintf(stderr,"error: cannot allocate particle, con. indices will be wrong! \n");
}
}
m_ParticleGrid.concnt /= 2;
m_Iterations = 0;
m_AcceptedProposals = 0;
}
RJMCMCBase(REAL *points,int numPoints, REAL *vfmap, REAL *dimg, const int *dsz, double *voxsize, double cellsize, REAL *cellsize2, REAL len, int numcores)
{
dataimg = dimg;
datasz = dsz;
this->vfmap = vfmap;
width = datasz[2]*voxsize[0];
height = datasz[3]*voxsize[1];
depth = datasz[4]*voxsize[2];
this->voxsize = voxsize;
this->numcores = numcores;
fprintf(stderr,"Data dimensions (mm) : %f x %f x %f\n",width,height,depth);
fprintf(stderr,"Data dimensions (voxel) : %i x %i x %i\n",datasz[2],datasz[3],datasz[4]);
fprintf(stderr,"Data directions (sizeLUT * dirs) : %i * %i\n",datasz[0],datasz[1]);
fprintf(stderr,"voxel size (mm) : %f x %f x %f\n",voxsize[0],voxsize[1],voxsize[2]);
////// dimensions of the particle grid
// the one to find connection partners
REAL cellcnt_x = (int)((REAL)width/cellsize) +2;
REAL cellcnt_y = (int)((REAL)height/cellsize) +2;
REAL cellcnt_z = (int)((REAL)depth/cellsize) +2;
int cell_capacity = 2048;
// for finding partners whithn the same voxel
REAL cellcnt_x2 = (int)((REAL)width/cellsize2[0]) +2;
REAL cellcnt_y2 = (int)((REAL)height/cellsize2[1]) +2;
REAL cellcnt_z2 = (int)((REAL)depth/cellsize2[2]) +2;
int cell_capacity2 = 20;
fprintf(stderr,"grid dimensions : %f x %f x %f\n",cellcnt_x,cellcnt_y,cellcnt_z);
fprintf(stderr,"grid cell size (mm) : %f^3\n",cellsize);
fprintf(stderr,"grid2 dimensions : %f x %f x %f\n",cellcnt_x2,cellcnt_y2,cellcnt_z2);
fprintf(stderr,"grid2 cell size (mm) : %fx%fx%f\n",cellsize2[0],cellsize2[1],cellsize2[2]);
fprintf(stderr,"cell capacity : %i\n",cell_capacity);
fprintf(stderr,"#cells*cellcap : %.1f K\n",cell_capacity*cellcnt_x*cellcnt_y*cellcnt_z/1000);
#ifdef PARALLEL_OPENMP
fprintf(stderr,"#threads : %i/%i\n",numcores,omp_get_max_threads());
#endif
// allocate the particle grid
int minsize = 100000;
int err = pcontainer.allocate(((numPoints>minsize)? (numPoints+100000) : minsize),
cellcnt_x, cellcnt_y, cellcnt_z, cellsize,cell_capacity,
cellcnt_x2, cellcnt_y2, cellcnt_z2, cellsize2,cell_capacity2,len);
if (err == -1)
{
fprintf(stderr,"RJMCMCBase: out of Memory!\n");
return;
}
// read the data from MATLAB into our structure
attrcnt = 15;
for (int k = 0; k < numPoints; k++)
{
Particle *p = pcontainer.newParticle(pVector(points[attrcnt*k ], points[attrcnt*k+1],points[attrcnt*k+2]),
pVector(points[attrcnt*k+3], points[attrcnt*k+4],points[attrcnt*k+5]));
if (p!=0)
{
p->N = pVector(points[attrcnt*k+3],points[attrcnt*k+4],points[attrcnt*k+5]);
p->len = points[attrcnt*k+7];
p->mID = (int) points[attrcnt*k+8];
p->pID = (int) points[attrcnt*k+9];
p->Di = points[attrcnt*k+10];
p->Da = points[attrcnt*k+11];
p->Dp = points[attrcnt*k+12];
p->w = points[attrcnt*k+13];
p->q = points[attrcnt*k+14];
p->label = 0;
p->active = true;
if (p->mID != -1)
{
pcontainer.removeFromGrid(1,p);
pcontainer.concnt++;
}
if (p->pID != -1)
{
pcontainer.removeFromGrid(0,p);
pcontainer.concnt++;
}
}
else
{
fprintf(stderr,"error: cannot allocate particle, con. indices will be wrong! \n");
}
}
pcontainer.concnt /= 2;
itmax = 0;
accepted = 0;
}
