C++ To::get_Integration方法代码示例

void fix_single::process (Archive* archive)
{
  if ( !buffer_filled )
  {
    nbin = archive->get_nbin ();
    nchan = archive->get_nchan ();
    npol = archive->get_npol ();
  }

  input_name = basename ( archive->get_filename () );
  inss << input_name.substr( input_name.length() - 14, 11 );
  inss >> input_count;
  inss.clear();
  inss.str ("");

   if ( archive->get_nsubint() != 1 )
  {
    throw Error ( InvalidState, "fix_single::process", "multiple subints not supported" ) ;
  } 

  if ( input_count != previous_count + 1 )
    buffer_filled = false;
  
  if ( buffer_filled )
  {
    output = archive->clone ();
  }

  if ( amps_old_second == NULL )
  {
    amps_old_second = new float [ nbin * nchan * npol / 2 ];
  }

  //currently only one subint input supported
  unsigned i_subint = 0;
  // read two subints at a time, get the amps, rotate etc
  try
  {
    for (unsigned i_chan = 0; i_chan < nchan; i_chan++ )
    {
      for (unsigned i_pol = 0; i_pol < npol; i_pol++ )
      {
	// index of the element containing the i_subint, i_pol, i_chan
	unsigned index = i_subint * nbin * nchan * npol + i_chan * nbin * npol + i_pol * nbin;
	if (buffer_filled)
	{
	  // copy half of one profile into beginning of the output profile and fill the other half with data from the next profile. To preserve alignement of pulsar peak with zero phase the two halfs are swapped.
	  memcpy ( (void *) (output->get_Profile(i_subint, i_pol, i_chan)->get_amps() ), (void *) (archive->get_Profile(i_subint, i_pol, i_chan)->get_amps() ), nbin / 2 * sizeof ( float ) );
	  memcpy ( (void *) ( output->get_Profile(i_subint, i_pol, i_chan)->get_amps() + nbin / 2 ), (void *) ( amps_old_second + index / 2 ), nbin / 2 * sizeof ( float ) );
	}
	//fill the "previous archive" buffer
	memcpy ( (void *) ( amps_old_second + index / 2 ), (void *) ( archive->get_Profile (i_subint, i_pol, i_chan)->get_amps() + nbin / 2), nbin / 2 * sizeof ( float ) );
	previous_count = input_count;
      }
    }
    //save output after adjusting MJD by half a turn
    if ( buffer_filled == true )
    {
      MJD epoch = archive->get_Integration(i_subint)->get_epoch() ;
      epoch -= archive->get_Integration(i_subint)->get_folding_period() / 2;
      output->get_Integration(i_subint)->set_epoch(epoch);
      outss << "pulse_" << input_count << "." << ext;
      out_name = outss.str();
      outss.str ("");
      output->unload ( out_name );
    }
    buffer_filled = true;
  }
  catch (Error& error)
  {
    cerr << "fix_single::process Problem occured with " << archive->get_filename() << endl;
    cerr << error << endl;
    buffer_filled = false;
  }

}

//.........这里部分代码省略.........
  if (!pgdev.empty())
  {
    cpgopen(pgdev.c_str());
    cpgask(0);
    cpgsvp(0.1, 0.9, 0.1, 0.9);
  }
  
  Reference::To<Archive> archive = Archive::load (argv[optind]);

  // preprocess
  archive->fscrunch();
  archive->tscrunch();
  archive->pscrunch();

  // phase up as requested
  if (centre_model)
    archive->centre();
  else if (rotate_peak)
    archive->centre_max_bin(0.0);
  
  if (rotate_amount != 0.0)
    archive->rotate_phase(-rotate_amount);
  
  archive->remove_baseline();

  // load from file if specified
  if (!model_filename_in.empty())
  {
    cerr << "paas: loading model from " << model_filename_in << endl;
    model.load(model_filename_in.c_str());
    
    // align to profile first if asked
    if (align)
      model.align(archive->get_Integration(0)->get_Profile(0,0));
  }

  // add any new components specified
  unsigned ic, nc=new_components.size();
  double centre, concentration, height;
  int name_start;
  for (ic=0; ic < nc; ic++)
  {
    if (sscanf(new_components[ic].c_str(), 
	       "%lf %lf %lf %n", &centre, &concentration, &height,
	       &name_start)!=3)
    {
      cerr << "Could not parse component " << ic << endl;
      return -1;
    }

    model.add_component(centre, concentration, height, 
			new_components[ic].c_str()+name_start);
  }

  bool iterate = true;

  while (iterate)
  {
    iterate = false;

    // fit if specified
    if (fit)
    {
      // set fit flags
      model.set_infit(fit_flags.c_str());
      // fit

//.........这里部分代码省略.........
    if (stokesify && unstokesify)
    {
      cerr << "pam: Both -S and --SS options were given.  Poln state will not be changed!" << endl;
      stokesify = false;
      unstokesify = false;
    }

    int flip_option_count=0;
    if (flipsb) flip_option_count++;
    if (flip_freq) flip_option_count++;
    if (reverse_freqs) flip_option_count++;
    if (flip_option_count > 1) {
      cerr << "pam: More than one band-flip option was given, exiting." << endl;
      exit(-1);
    }

    for (unsigned i = 0; i < filenames.size(); i++) try
    {
      if (verbose)
	cerr << "Loading " << filenames[i] << endl;
      
      arch = Pulsar::Archive::load(filenames[i]);

      if( mult > 0.0 ){
	for( unsigned isub=0; isub<arch->get_nsubint();isub++)
	  for( unsigned ichan=0; ichan<arch->get_nchan();ichan++)
	    for( unsigned ipol=0; ipol<arch->get_npol();ipol++)
	      arch->get_Profile(isub,ipol,ichan)->scale( mult );
      }

      if( new_folding_period > 0.0 ){
	Pulsar::counter_drift( arch, new_folding_period, 0.0);
	for( unsigned isub=0; isub<arch->get_nsubint();isub++)
	  arch->get_Integration(isub)->set_folding_period( new_folding_period );
      }

      if (install_receiver) {
	if (verbose)
	  cerr << "pam: Installing receiver: " << install_receiver->get_name()
	       << " in archive" << endl;

	arch->add_extension (install_receiver);
      }

      if (lin || circ) {
	Pulsar::Receiver* receiver = arch->get<Pulsar::Receiver>();

	if (!receiver)
	  cerr << "No Receiver Extension in " << filenames[i] << endl;
	else {
	  if (lin) {
	    receiver->set_basis (Signal::Linear);
	    cout << "Feed basis set to Linear" << endl;
	  }

	  if (circ) {
	    receiver->set_basis (Signal::Circular);
	    cout << "Feed basis set to Circular" << endl;
	  }
	}
      }

      reflections.transform( arch );

      if (new_cfreq)
      {

void psrspa::create_histograms ( Reference::To<Archive> archive )
{
  if ( verbose )
    cerr << "psrspa::create_histograms entered" << endl;
  // ensure Stokes parameters if creating polarisation histograms
  if ( create_polar_degree || create_polar_angle )
  {
    archive->convert_state ( Signal::Stokes );
    if ( verbose )
      cerr << "psrspa::create_histograms converted state of the archive to Stokes" << endl;
  }

  // auxillary vectors
  //vector< Estimate<float > > aux_vec_f;
  vector< Estimate<double > > aux_vec_d;

  // Full Stokes profile
  Reference::To<PolnProfile> profile;
  // Polarized flux
  Reference::To<Profile> P;
  P = new Profile;
  // Total flux
  float *T_amps = new float [ nbin ];
  float *P_amps = new float [ nbin ];

  unsigned bin_min, bin_max;

  if ( verbose && max_bscrunch > 1 )
    cerr << "psrspa::create_histograms entering the bscrunch loop for the " << archive->get_filename () << " archive" << endl;
  // TODO Uh, this should be fixed up. The first idea was to enable the phase resolved histograms to be bscrunch-aware as well, but I think it doesn't make much sense so I decided to keep only the max flux bscrunch aware. This can be done much more neatly probably in such a case
  for ( current_bscrunch = 1 ; current_bscrunch <= max_bscrunch ; current_bscrunch *= 2 )
  {
    // in each passage, we bscrunch by a factor of 2
    if ( current_bscrunch > 1 )
    {
      if ( verbose )
	cerr << "psrspa::create_histograms bscrunching the archive " << archive->get_filename () << " by a factor of 2" << endl;
      archive->bscrunch ( 2 );
    }
    if ( verbose )
      cerr << "psrspa::create_histograms entering the loop through subints of the " << archive->get_filename () << " archive" << endl;
    // loop through subints
    for ( unsigned isub = 0; isub < archive->get_nsubint (); isub++ )
    {
      if ( verbose )
	cerr << "psrspa::create_histograms creating necessary profiles for subint " << isub << " of " << archive->get_filename () << endl;
      if ( create_polar_angle || create_polar_degree && current_bscrunch == 1 )
      {
	profile = archive->get_Integration(isub)->new_PolnProfile(0);
	if ( verbose )
	  cerr << "psrspa::create_histograms retrieved PolnProfile for subint " << isub << " of " << archive->get_filename () << endl;
      }
      if ( create_polar_angle && current_bscrunch == 1 )
      {
	profile->get_orientation ( aux_vec_d, 0 );
	if ( verbose )
	  cerr << "psrspa::create_histograms retrieved polarisation angle for subint " << isub << " of " << archive->get_filename () << endl;
      }
      if ( create_polar_degree || create_flux || find_max_amp_in_range )
      {
	stats.set_profile ( archive->get_Profile ( isub, 0, 0 ) );
	b_sigma = sqrt ( stats.get_baseline_variance ().get_value () );
	T_amps = archive->get_Profile ( isub, 0, 0 )->get_amps (); 
	if ( verbose )
	  cerr << "psrspa::create_histograms retrieved total flux amps for subint " << isub << " of " << archive->get_filename () << endl;
	if ( create_polar_degree && current_bscrunch == 1 )
	{
	  profile->get_polarized ( P );
	  if ( verbose )
	    cerr << "psrspa::create_histograms retrieved polarized flux profile for subint "  << isub << " of " << archive->get_filename () << endl;
	  P_amps = P->get_amps ();
	  if ( verbose )
	    cerr << "psrspa::create_histograms retrieved polarized flux amps for subint " << isub << " of " << archive->get_filename () << endl;
	}
      }

      if ( verbose )
	cerr << "psrspa::create_histograms looping through the provided phase ranges for subint " << isub << " of " << archive->get_filename () << endl;
      unsigned curr_hist = 0;
      // loop through phase ranges
      for ( unsigned irange = 0; irange < phase_range.size () ; irange++ )
      {
	if ( irange%2 == 0)
	{
	  bin_min = unsigned( floor ( phase_range[irange] * float(nbin / current_bscrunch ) + 0.5 ) );
	  if ( verbose ) 
	    cerr << "psrspa::create_histograms set minimal bin to " << bin_min << endl;
	}
	else
	{
	  bin_max = unsigned( floor ( phase_range[irange] * float(nbin / current_bscrunch ) + 0.5 ) );
	  if ( bin_max == nbin )
	    bin_max = nbin - 1 ;
	  if ( verbose ) 
	    cerr << "psrspa::create_histograms set maximum bin to " << bin_max << endl;
	  // loop through bins in the given phase range
	  for ( unsigned ibin = bin_min; ibin <= bin_max; ibin++ )
	  {
	    if ( create_polar_angle && current_bscrunch == 1 )
	    {
//.........这里部分代码省略.........