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# Copyright(c) 1986 Association of Universities for Research in Astronomy Inc.
include <gset.h>
include <pkg/gtools.h>
include "names.h"
include "icfit.h"
define NGRAPH 100 # Number of fit points to graph
define MSIZE 2. # Mark size
# ICG_GRAPH -- Graph data and fit.
procedure icg_graphd (ic, gp, gt, cv, x, y, wts, npts)
pointer ic # ICFIT pointer
pointer gp # GIO pointer
pointer gt # GTOOLS pointers
pointer cv # Curfit pointer
double x[npts] # Independent variable
double y[npts] # Dependent variable
double wts[npts] # Weights
int npts # Number of points
pointer xout, yout
real size
begin
call malloc (xout, npts, TY_DOUBLE)
call malloc (yout, npts, TY_DOUBLE)
call icg_axesd (ic, gt, cv, 1, x, y, Memd[xout], npts)
call icg_axesd (ic, gt, cv, 2, x, y, Memd[yout], npts)
call icg_paramsd (ic, cv, x, y, wts, npts, gt)
call icg_g1d (ic, gp, gt, Memd[xout], Memd[yout], wts, npts)
# Symbol size for averaged ranges.
size = abs(IC_NAVERAGE(ic) * (Memd[xout+npts-1] - Memd[xout]) /
float(npts))
if (npts != IC_NFIT(ic)) {
if ((abs (IC_NAVERAGE(ic)) > 1) || (IC_NREJECT(ic) > 0)) {
call realloc (xout, IC_NFIT(ic), TY_DOUBLE)
call realloc (yout, IC_NFIT(ic), TY_DOUBLE)
call icg_axesd (ic, gt, cv, 1, Memd[IC_XFIT(ic)],
Memd[IC_YFIT(ic)], Memd[xout], IC_NFIT(ic))
call icg_axesd (ic, gt, cv, 2, Memd[IC_XFIT(ic)],
Memd[IC_YFIT(ic)], Memd[yout], IC_NFIT(ic))
call icg_g2d (ic, gp, gt, Memd[xout], Memd[yout],
IC_NFIT(ic), size)
}
} else if (IC_NREJECT(ic) > 0)
call icg_g2d (ic, gp, gt, Memd[xout], Memd[yout], npts, size)
call icg_gfd (ic, gp, gt, cv, max (npts, NGRAPH))
# Mark the the sample regions.
call icg_sampled (ic, gp, gt, x, npts, 1)
# Send the wcs to the gui.
call ic_gui (ic, "wcs")
call mfree (xout, TY_DOUBLE)
call mfree (yout, TY_DOUBLE)
end
procedure icg_g1d (ic, gp, gt, x, y, wts, npts)
pointer ic # ICFIT pointer
pointer gp # GIO pointer
pointer gt # GTOOLS pointer
double x[npts] # Ordinates
double y[npts] # Abscissas
double wts[npts] # Weights
int npts # Number of points
int i
pointer sp, xr, yr, xr1, yr1, gt1
begin
call smark (sp)
call salloc (xr, npts, TY_REAL)
call salloc (yr, npts, TY_REAL)
call salloc (xr1, 2, TY_REAL)
call salloc (yr1, 2, TY_REAL)
call achtdr (x, Memr[xr], npts)
call achtdr (y, Memr[yr], npts)
call gt_copy (gt, gt1)
call gt_sets (gt1, GTTYPE, "mark")
call gt_sets (gt1, GTMARK, "cross")
if (IC_OVERPLOT(ic) == NO) {
# Start a new plot.
call gclear (gp)
# Set the graph scale and axes.
call gascale (gp, Memr[xr], npts, 1)
call gascale (gp, Memr[yr], npts, 2)
call gt_swind (gp, gt)
call gt_labax (gp, gt)
}
if (IC_OVERPLOT(ic) == NO) {
Memr[xr1] = Memr[xr]
Memr[yr1] = Memr[yr]
do i = 1, npts {
if (wts[i] == 0.) {
call gt_plot (gp, gt1, Memr[xr+i-1], Memr[yr+i-1], 1)
} else {
Memr[xr1+1] = Memr[xr+i-1]
Memr[yr1+1] = Memr[yr+i-1]
call gt_plot (gp, gt, Memr[xr1], Memr[yr1], 2)
Memr[xr1] = Memr[xr1+1]
Memr[yr1] = Memr[yr1+1]
}
}
}
# Reset status flags.
IC_OVERPLOT(ic) = NO
call sfree (sp)
call gt_free (gt1)
end
procedure icg_g2d (ic, gp, gt, x, y, npts, size)
pointer ic # ICFIT pointer
pointer gp # GIO pointer
pointer gt # GTOOLS pointer
double x[npts], y[npts] # Data points
int npts # Number of data points
real size # Symbol size
int i
pointer sp, xr, yr, gt1
begin
call smark (sp)
call salloc (xr, npts, TY_REAL)
call salloc (yr, npts, TY_REAL)
call achtdr (x, Memr[xr], npts)
call achtdr (y, Memr[yr], npts)
call gt_copy (gt, gt1)
call gt_sets (gt1, GTTYPE, "mark")
# Mark the sample points.
if (abs (IC_NAVERAGE(ic)) > 1) {
call gt_sets (gt1, GTMARK, "plus")
call gt_setr (gt1, GTXSIZE, -size)
call gt_setr (gt1, GTYSIZE, 1.)
call gt_plot (gp, gt1, Memr[xr], Memr[yr], npts)
}
# Mark the rejected points.
if (IC_NREJECT(ic) > 0 && IC_MARKREJ(ic) == YES) {
call gt_sets (gt1, GTMARK, "diamond")
call gt_setr (gt1, GTXSIZE, MSIZE)
call gt_setr (gt1, GTYSIZE, MSIZE)
do i = 1, npts {
if (Memi[IC_REJPTS(ic)+i-1] == YES)
call gt_plot (gp, gt1, Memr[xr+i-1], Memr[yr+i-1], 1)
}
}
call gt_free (gt1)
call sfree (sp)
end
procedure icg_gfd (ic, gp, gt, cv, npts)
pointer ic # ICFIT pointer
pointer gp # GIO pointer
pointer gt # GTOOL pointer
pointer cv # CURFIT pointer
int npts # Number of points to plot
pointer sp, xr, yr, x, y, xo, yo, gt1
int i
double dx
begin
if (IC_FITERROR(ic) == YES)
return
call smark (sp)
call salloc (xr, npts, TY_REAL)
call salloc (yr, npts, TY_REAL)
call salloc (x, npts, TY_DOUBLE)
call salloc (y, npts, TY_DOUBLE)
call salloc (xo, npts, TY_DOUBLE)
call salloc (yo, npts, TY_DOUBLE)
# Generate vector of independent variable values
dx = (IC_XMAX(ic) - IC_XMIN(ic)) / (npts - 1)
do i = 1, npts
Memd[x+i-1] = IC_XMIN(ic) + (i-1) * dx
# Calculate vector of fit values.
call dcvvector (cv, Memd[x], Memd[y], npts)
# Convert to user function or transpose axes. Change type to reals
# for plotting.
call icg_axesd (ic, gt, cv, 1, Memd[x], Memd[y], Memd[xo], npts)
call icg_axesd (ic, gt, cv, 2, Memd[x], Memd[y], Memd[yo], npts)
call achtdr (Memd[xo], Memr[xr], npts)
call achtdr (Memd[yo], Memr[yr], npts)
call gt_copy (gt, gt1)
call gt_sets (gt1, GTTYPE, "line")
call gt_seti (gt1, GTLINE, GL_DASHED)
call gt_seti (gt1, GTCOLOR, max (0, min (9, IC_COLOR(ic))))
call gt_plot (gp, gt1, Memr[xr], Memr[yr], npts)
call gt_free (gt1)
call sfree (sp)
end
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