void Pulsar::ComponentModel::build () const
{
if (model)
return;
SumRule< Univariate<Scalar> >* sum = new SumRule< Univariate<Scalar> >;
model = sum;
if (fit_derivative)
{
derivative.resize (components.size());
// setup model using derivative components
for (unsigned icomp=0; icomp < components.size(); icomp++)
{
derivative[icomp] = new ScaledVonMisesDeriv;
derivative[icomp]->set_centre(components[icomp]->get_centre());
derivative[icomp]->set_concentration
(components[icomp]->get_concentration());
derivative[icomp]->set_height(components[icomp]->get_height());
sum->add_model( derivative[icomp] );
}
}
else
{
for (unsigned icomp=0; icomp < components.size(); icomp++)
sum->add_model( components[icomp] );
}
if (phase)
{
if (verbose)
cerr << "Pulsar::ComponentModel::build single phase" << endl;
backup.resize (components.size());
ChainRule<Univariate<Scalar> >* chain = new ChainRule<Univariate<Scalar> >;
chain->set_model (sum);
model = chain;
for (unsigned icomp=0; icomp < components.size(); icomp++)
{
if (sum->get_param_name(icomp*3) != "centre")
throw Error (InvalidState, "Pulsar::ComponentModel::fit",
"iparam=%u name='%s'", icomp*3,
sum->get_param_name(icomp*3).c_str());
if (sum->get_param_name(icomp*3+1) != "concentration")
throw Error (InvalidState, "Pulsar::ComponentModel::fit",
"iparam=%u name='%s'", icomp*3,
sum->get_param_name(icomp*3).c_str());
// don't allow the widths to vary
sum->set_infit(icomp*3+1, false);
backup[icomp] = components[icomp]->clone();
SumRule<Scalar>* psum = new SumRule<Scalar>;
psum->add_model (phase);
psum->add_model (new ScalarConstant (sum->get_param(icomp*3)));
chain->set_constraint (icomp*3, psum);
}
}
}
void Pulsar::ComponentModel::build () const
{
if (model)
return;
SumRule< Univariate<Scalar> >* sum = new SumRule< Univariate<Scalar> >;
model = sum;
if (fit_derivative)
{
derivative.resize (components.size());
// setup model using derivative components
for (unsigned icomp=0; icomp < components.size(); icomp++)
{
derivative[icomp] = new ScaledVonMisesDeriv;
derivative[icomp]->set_centre(components[icomp]->get_centre());
derivative[icomp]->set_concentration
(components[icomp]->get_concentration());
derivative[icomp]->set_height(components[icomp]->get_height());
sum->add_model( derivative[icomp] );
}
}
else
{
for (unsigned icomp=0; icomp < components.size(); icomp++)
{
sum->add_model( components[icomp] );
// don't allow the widths to vary
if (fix_widths)
components[icomp]->set_infit(1, false);
}
}
if (phase)
{
if (verbose)
cerr << "Pulsar::ComponentModel::build single phase" << endl;
backup.resize (components.size());
ChainRule<Univariate<Scalar> >* chain = new ChainRule<Univariate<Scalar> >;
chain->set_model (sum);
model = chain;
for (unsigned icomp=0; icomp < components.size(); icomp++)
{
#if _DEBUG
cerr << "BEFORE CLONE fits:";
unsigned nparam = components[icomp]->get_nparam ();
for (unsigned ip=0; ip < nparam; ip++)
cerr << " " << components[icomp]->get_infit(ip);
cerr << endl;
#endif
backup[icomp] = components[icomp]->clone();
#if _DEBUG
cerr << "AFTER CLONE fits:";
nparam = components[icomp]->get_nparam ();
for (unsigned ip=0; ip < nparam; ip++)
cerr << " " << backup[icomp]->get_infit(ip);
cerr << endl;
#endif
SumRule<Scalar>* psum = new SumRule<Scalar>;
psum->add_model (phase);
psum->add_model (new ScalarConstant (sum->get_param(icomp*3)));
// verify that iparam=icomp*3 corresponds to component centre
if (chain->get_param_name(icomp*3) != "centre")
throw Error (InvalidState, "Pulsar::ComponentModel::build",
"iparam=%u name='%s'", icomp*3,
sum->get_param_name(icomp*3).c_str());
chain->set_constraint (icomp*3, psum);
}
}
}