void CFilterVarianceApp::FilterContinue(void)
{
// update progress counter
DisplayTileProgress(0, 100, m_nIteration, m_sData->nScale==0 ? 2 : 1);
// get this tile for processing
libbase::matrix<double> in, out;
GetPixelMatrix(in);
// get variance for each pixel
libimage::variancefilter<double> filter(m_sData->nRadius);
filter.process(in, out);
switch(m_nIteration)
{
case 0:
// if we don't want auto-scaling, scale this tile & write back
if(m_sData->nScale != 0)
{
out *= m_sData->nScale;
libimage::limiter<double> lim(0,1);
lim.process(out);
SetPixelMatrix(out);
}
else
{
// otherwise, to be able to normalize later, update scale info
const double dScale = out.max();
if(m_dScale < dScale)
m_dScale = dScale;
}
break;
case 1:
// normalize based on scale found earlier & write back
out /= m_dScale;
libimage::limiter<double> lim(0,1);
lim.process(out);
SetPixelMatrix(out);
break;
}
// select the next rectangle based on the given tile suggestions
CPSPlugIn::FilterContinue();
// if we need to do a second iteration
if(m_nIteration==0 && m_sData->nScale==0 && IterationDone())
{
m_nIteration++;
IterationStart();
}
}
void CFilterEnergyApp::FilterContinue(void)
{
// update progress counter
DisplayTileProgress(0);
// get this tile for processing
libbase::matrix<double> in;
GetPixelMatrix(in);
// update the statistics
rv.insert(in);
// select the next rectangle based on the given tile suggestions
CPSPlugIn::FilterContinue();
}
void CFilterATMApp::FilterContinue(void)
{
// update progress counter
DisplayTileProgress(0);
// do the processing for this tile
libbase::matrix<double> in, out;
GetPixelMatrix(in);
atmfilter<double>::process(in, out);
if(m_sData->bKeepNoise)
{
out *= -1;
out += in;
out += 0.5;
libimage::limiter<double> lim(0,1);
lim.process(out);
}
SetPixelMatrix(out);
// select the next rectangle based on the given tile suggestions
CPSPlugIn::FilterContinue();
}
