void drawScene( const Solver& solver, target t, draw::RenderHostData& rend)
{
ParticleDensity particle( solver.getField( TL_IMPURITIES), solver.blueprint());
double max;
const typename Solver::Matrix_Type * field;
if( t == TL_ALL)
{
rend.set_multiplot(2,2);
{ //draw electrons
field = &solver.getField( TL_ELECTRONS);
visual = field->copy();
map.scale() = fabs(*std::max_element(visual.begin(), visual.end()));
rend.renderQuad( visual, field->cols(), field->rows(), map);
window_str << scientific;
window_str <<"ne / "<<map.scale()<<"\t";
}
{ //draw Ions
typename Solver::Matrix_Type ions = solver.getField( TL_IONS);
particle.linear( ions, solver.getField( TL_POTENTIAL), ions, 0 );
visual = ions.copy();
rend.renderQuad( visual, field->cols(), field->rows(), map);
window_str <<" ni / "<<map.scale()<<"\t";
}
if( solver.blueprint().isEnabled( TL_IMPURITY))
{
typename Solver::Matrix_Type impurities = solver.getField( TL_IMPURITIES);
particle.linear( impurities, solver.getField(TL_POTENTIAL), impurities, 0 );
visual = impurities.copy();
map.scale() = fabs(*std::max_element(visual.begin(), visual.end()));
rend.renderQuad( visual, field->cols(), field->rows(), map);
window_str <<" nz / "<<max<<"\t";
}
else
rend.renderEmptyQuad();
{ //draw potential
typename Solver::Matrix_Type phi = solver.getField( TL_POTENTIAL);
particle.laplace( phi );
visual = phi.copy();
map.scale() = fabs(*std::max_element(visual.begin(), visual.end()));
rend.renderQuad( visual, field->cols(), field->rows(), map);
window_str <<" phi / "<<max<<"\t";
}
}
else
{
rend.set_multiplot(1,1);
field = &solver.getField( t);
visual = field->copy();
map.scale() = fabs(*std::max_element(visual.begin(), visual.end()));
rend.renderQuad( visual, field->cols(), field->rows(), map);
window_str << scientific;
window_str <<"Max "<<max<<"\t";
}
}
void drawScene( const Solver& solver, draw::RenderHostData& rend)
{
const typename Solver::Matrix_Type * field;
{ //draw electrons
field = &solver.getField( toefl::ELECTRONS);
visual = field->copy();
map.scale() = fabs(*std::max_element(visual.begin(), visual.end()));
rend.renderQuad( visual, field->cols(), field->rows(), map);
window_str << std::scientific;
window_str <<"ne / "<<map.scale()<<"\t";
}
{ //draw Ions
field = &solver.getField( toefl::IONS);
visual = field->copy();
//upper right
rend.renderQuad( visual, field->cols(), field->rows(), map);
window_str <<" ni / "<<map.scale()<<"\t";
}
if( solver.blueprint().imp)
{
field = &solver.getField( toefl::IMPURITIES);
visual = field->copy();
map.scale() = fabs(*std::max_element(visual.begin(), visual.end()));
//lower left
rend.renderQuad( visual, field->cols(), field->rows(), map);
window_str <<" nz / "<<map.scale()<<"\t";
}
else
rend.renderEmptyQuad( );
{ //draw potential
field = &solver.getField( toefl::POTENTIAL);
visual = field->copy();
map.scale() = fabs(*std::max_element(visual.begin(), visual.end()));
rend.renderQuad( visual, field->cols(), field->rows(), map);
window_str <<" phi / "<<map.scale()<<"\t";
}
}
