xsh_model_metric.c File Reference

#include <cpl.h>
#include "xsh_model_kernel.h"
#include "xsh_model_io.h"
#include "xsh_model_metric.h"
#include <stdio.h>
#include <stdlib.h>
#include <math.h>
#include <float.h>
#include "xsh_model_sa.h"
#include "xsh_model_r250.h"
#include "xsh_model_cputime.h"
#include "xsh_model_randlcg.h"
#include <xsh_utils.h>
#include <xsh_error.h>
#include <xsh_msg.h>
#include "xsh_pfits.h"
#include "xsh_dfs.h"

Go to the source code of this file.

Macros
#define	uniform(a, b)   ( a + (b - a) * xsh_dr250() )
#define	BIG_VAL   400000.0

Functions
void	xsh_3_assign (int loc, double val)
void	xsh_3_output_data (double *)
cpl_table *	xsh_model_anneal_comp (ann_all_par *p_all_par, int nparam, double *abest, double *amin, double *amax, int *aname, struct xs_3 *p_xs_3, int DS_size, coord *msp_coord, DOUBLE *p_wlarray, DOUBLE **ref_ind, int maxit)
	Use the simulated annealing algorithm to adjust the model parameters so that the metric (mean Euclidean residual) is minimised.
float	xsh_3_energy (double *a)

Variables
int	n = 0
int *	chip
int *	x
int *	y
struct xs_3 *	local_p_xs
int	local_nparam
double *	local_p_abest
double *	local_p_amin
double *	local_p_amax
int *	local_p_aname
ann_all_par *	local_p_all_par
DOUBLE	p_obsx [10000]
DOUBLE	p_obsy [10000]
DOUBLE	p_obsf [10000]
DOUBLE *	p_wl
DOUBLE **	ref
int	p_obsarm [10000]
int	p_obsorder [10000]
int	sp_array [10000]
int *	p_chipmod
int	size
int	mm