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|
include <mach.h>
include <ctype.h>
include <imhdr.h>
include <imset.h>
include <pmset.h>
include <evvexpr.h>
define DEF_LINELEN 8192
define LEN_RGEXPR 25
define RG_PMIM Memi[$1] # the mask image
define RG_PMIBUF Memi[$1+1] # the mask input data
define RG_IPMV Meml[P2L($1+2+($2)-1)] # input position in mask image
define RG_OPMV Meml[P2L($1+9+($2)-1)] # output position in mask image
# ME_RGMASK -- Given a region expression, a condition equals true expression,
# a condition equals false expression, and an existing pixel mask imio
# descriptor of dimensions, size of each dimension, and depth in bits create
# a mask image and return an imio pointer to the mask.
int procedure me_rgmask (rexpr, texpr, fexpr, pmim)
char rexpr[ARB] #I the boolean region expression
char texpr[ARB] #I the condition equals true expression
char fexpr[ARB] #I the condition equals true expression
pointer pmim #I the pixel mask imio descriptor
pointer sp, rg, oexpr, expr, obuf
int i, npix, nlines, depth, pmaxval, stat
pointer evvexpr()
int imstati(), locpr(), pm_stati()
int imgnli(), impnli(), impnls(), impnll()
extern rg_getop(), rg_fcn()
begin
# Allocate some work space.
call smark (sp)
call salloc (expr, 3 * SZ_LINE, TY_CHAR)
# Allocate space for the mask expression structure.
call calloc (rg, LEN_RGEXPR, TY_STRUCT)
RG_PMIM(rg) = pmim
# Initalize the i/o pointers.
call amovkl (long(1), RG_OPMV(rg,1), IM_MAXDIM)
call amovkl (long(1), RG_IPMV(rg,1), IM_MAXDIM)
# Create the conditional expression to be evaluated.
call sprintf (Memc[expr], 3 * SZ_LINE, "(%s) ? %s : %s")
call pargstr (rexpr)
call pargstr (texpr)
call pargstr (fexpr)
# Compute the total number of output image lines.
npix = IM_LEN(pmim,1)
nlines = 1
do i = 2, IM_NDIM(pmim)
nlines = nlines * IM_LEN(pmim, i)
depth = INDEFI
# Loop over the mask output image lines which are by default always
# integer.
stat = OK
do i = 1, nlines {
# Get the input mask lines.
if (imgnli (pmim, RG_PMIBUF(rg), RG_IPMV(rg,1)) == EOF)
call error (2, "Error reading input mask data")
# Determine the depth of the mask.
if (IS_INDEFI(depth)) {
depth = pm_stati (imstati (pmim, IM_PLDES), P_DEPTH)
if (depth > 0) {
pmaxval = min (depth, PL_MAXDEPTH)
pmaxval = 2 ** depth - 1
} else
pmaxval = 2 ** PL_MAXDEPTH - 1
}
# Evalute the expression.
oexpr = evvexpr (Memc[expr], locpr(rg_getop), rg, locpr(rg_fcn),
rg, 0)
if (O_TYPE(oexpr) == ERR) {
call eprintf ("Error evaluting expression\n")
stat = ERR
break
}
# Copy the evaluated expression to the image.
if (O_LEN(oexpr) == 0) {
switch (O_TYPE(oexpr)) {
case TY_BOOL:
if (impnli (pmim, obuf, RG_OPMV(rg,1)) == EOF)
call error (2, "Error writing output mask data")
call pl_pixropi (NULL, 1, MAX_INT, Memi[obuf], 1, pmaxval,
npix, PIX_CLR + PIX_VALUE(O_VALI(oexpr)))
case TY_SHORT:
if (impnls (pmim, obuf, RG_OPMV(rg,1)) == EOF)
call error (2, "Error writing output mask data")
call pl_pixrops (NULL, 1, MAX_SHORT, Mems[obuf], 1,
pmaxval, npix, PIX_CLR + PIX_VALUE(O_VALS(oexpr)))
case TY_INT:
if (impnli (pmim, obuf, RG_OPMV(rg,1)) == EOF)
call error (2, "Error writing output mask data")
call pl_pixropi (NULL, 1, MAX_INT, Memi[obuf], 1,
pmaxval, npix, PIX_CLR + PIX_VALUE(O_VALI(oexpr)))
case TY_LONG:
if (impnll (pmim, obuf, RG_OPMV(rg,1)) == EOF)
call error (2, "Error writing output mask data")
call pl_pixropl (NULL, 1, MAX_LONG, Meml[obuf], 1,
pmaxval, npix, PIX_CLR + PIX_VALUE(O_VALL(oexpr)))
case TY_REAL:
call error (3, "Type real expressions are not supported")
case TY_DOUBLE:
call error (3, "Type double expressions are not supported")
default:
call error (3, "Unknown expression value type")
}
} else {
switch (O_TYPE(oexpr)) {
case TY_BOOL:
if (impnli (pmim, obuf, RG_OPMV(rg,1)) == EOF)
call error (2, "Error writing output mask data")
call pl_pixropi (Memi[O_VALP(oexpr)], 1, MAX_INT,
Memi[obuf], 1, pmaxval, npix, PIX_SRC)
case TY_SHORT:
if (impnls (pmim, obuf, RG_OPMV(rg,1)) == EOF)
call error (2, "Error writing output mask data")
call pl_pixrops (Mems[O_VALP(oexpr)], 1, MAX_SHORT,
Mems[obuf], 1, pmaxval, npix, PIX_SRC)
case TY_INT:
if (impnli (pmim, obuf, RG_OPMV(rg,1)) == EOF)
call error (2, "Error writing output mask data")
call pl_pixropi (Memi[O_VALP(oexpr)], 1, MAX_INT,
Memi[obuf], 1, pmaxval, npix, PIX_SRC)
case TY_LONG:
if (impnll (pmim, obuf, RG_OPMV(rg,1)) == EOF)
call error (2, "Error writing output mask data")
call pl_pixropl (Meml[O_VALP(oexpr)], 1, MAX_LONG,
Meml[obuf], 1, pmaxval, npix, PIX_SRC)
case TY_REAL:
call error (3, "Type real expressions are not supported")
case TY_DOUBLE:
call error (3, "Type double expressions are not supported")
default:
call error (3, "Unknown expression value type")
}
}
call evvfree (oexpr)
}
# Cleanup.
call mfree (rg, TY_STRUCT)
call sfree (sp)
return (stat)
end
# RG_GETOP -- Called by evvexpr to fetch an input image operand.
procedure rg_getop (rg, opname, o)
pointer rg #I mskexpr descriptor
char opname[ARB] #I operand name
pointer o #I output operand to be filled in
pointer sp, param, data, im
int i, axis
int imgftype(), btoi()
double imgetd()
int imgeti()
bool imgetb()
errchk malloc
define err_ 91
begin
call smark (sp)
# Pixel image operand.
if ((opname[1] == 'p') && (opname[2] == EOS)) {
if (RG_PMIM(rg) == NULL)
goto err_
O_TYPE(o) = TY_INT
O_LEN(o) = IM_LEN(RG_PMIM(rg), 1)
O_FLAGS(o) = 0
O_VALP(o) = RG_PMIBUF(rg)
call sfree (sp)
return
# Reference image header parameter operand.
} else if ((opname[1] == 'p') && (opname[2] == '.')) {
im = RG_PMIM(rg)
if (im == NULL)
goto err_
# Get the parameter value and set up operand struct.
call salloc (param, SZ_FNAME, TY_CHAR)
call strcpy (opname[3], Memc[param], SZ_FNAME)
iferr (O_TYPE(o) = imgftype (im, Memc[param]))
goto err_
switch (O_TYPE(o)) {
case TY_BOOL:
O_LEN(o) = 0
iferr (O_VALI(o) = btoi (imgetb (im, Memc[param])))
goto err_
case TY_CHAR:
O_LEN(o) = SZ_LINE
O_FLAGS(o) = O_FREEVAL
iferr {
call malloc (O_VALP(o), SZ_LINE, TY_CHAR)
call imgstr (im, Memc[param], O_VALC(o), SZ_LINE)
} then
goto err_
case TY_SHORT, TY_INT, TY_LONG:
iferr (O_VALI(o) = imgeti (im, Memc[param]))
goto err_
case TY_REAL, TY_DOUBLE:
O_TYPE(o) = TY_DOUBLE
iferr (O_VALD(o) = imgetd (im, Memc[param]))
goto err_
default:
goto err_
}
call sfree (sp)
return
# The current pixel coordinate [I,J,K,...]. The line coordinate
# is a special case since the image is computed a line at a time.
# If "I" is requested return a vector where v[i] = i. For J, K,
# etc. just return the scalar index value.
} else if (IS_UPPER(opname[1]) && opname[2] == EOS) {
axis = opname[1] - 'I' + 1
if (axis == 1) {
O_TYPE(o) = TY_INT
if (IM_LEN(RG_PMIM(rg), 1) > 0)
O_LEN(o) = IM_LEN(RG_PMIM(rg), 1)
else
O_LEN(o) = DEF_LINELEN
call malloc (data, O_LEN(o), TY_INT)
do i = 1, O_LEN(o)
Memi[data+i-1] = i
O_VALP(o) = data
O_FLAGS(o) = O_FREEVAL
} else {
O_TYPE(o) = TY_INT
if (IM_LEN(RG_PMIM(rg), 1) > 0)
O_LEN(o) = IM_LEN(RG_PMIM(rg), 1)
else
O_LEN(o) = DEF_LINELEN
call malloc (data, O_LEN(o), TY_INT)
if (axis < 1 || axis > IM_MAXDIM)
call amovki (1, Memi[data], O_LEN(o))
else
call amovki (RG_OPMV(rg,axis), Memi[data], O_LEN(o))
O_VALP(o) = data
O_FLAGS(o) = O_FREEVAL
}
call sfree (sp)
return
}
err_
O_TYPE(o) = ERR
call sfree (sp)
end
# define the builtin functions
define RG_FUNCS "|circle|ellipse|box|rectangle|polygon|cols|lines|\
vector|pie|cannulus|eannulus|rannulus|pannulus|point|"
define RG_CIRCLE 1
define RG_ELLIPSE 2
define RG_BOX 3
define RG_RECTANGLE 4
define RG_POLYGON 5
define RG_COLS 6
define RG_LINES 7
define RG_VECTOR 8
define RG_PIE 9
define RG_CANNULUS 10
define RG_EANNULUS 11
define RG_RANNULUS 12
define RG_PANNULUS 13
define RG_POINT 14
# RG_FCN -- Called by evvexpr to execute a mskexpr special function.
procedure rg_fcn (rg, fcn, args, nargs, o)
pointer rg #I imexpr descriptor
char fcn[ARB] #I function name
pointer args[ARB] #I input arguments
int nargs #I number of input arguments
pointer o #I output operand to be filled in
real width
pointer sp, ufunc, rval1, rval2, orval1, orval2, ix, iy
int i, ip, func, v_nargs, nver
int strdic(), ctor()
bool strne()
begin
# Allocate working space.
call smark (sp)
call salloc (ufunc, SZ_LINE, TY_CHAR)
# Get the function.
func = strdic (fcn, Memc[ufunc], SZ_LINE, RG_FUNCS)
if (func > 0 && strne (fcn, Memc[ufunc]))
func = 0
# Test the function.
if (func <= 0) {
O_TYPE(o) = ERR
call sfree (sp)
return
}
# Determine number of arguments. This is a separate case statement.
# in case we need to deal with a variable number of arguments
# function at a later point.
switch (func) {
case RG_POINT, RG_CIRCLE, RG_ELLIPSE, RG_BOX, RG_RECTANGLE, RG_POLYGON:
v_nargs = -1
case RG_CANNULUS, RG_EANNULUS, RG_RANNULUS, RG_PANNULUS:
v_nargs = -1
case RG_COLS, RG_LINES:
v_nargs = -1
case RG_VECTOR, RG_PIE:
v_nargs = -1
default:
v_nargs = 0
}
# Check the number of arguments.
if (v_nargs > 0 && nargs != v_nargs) {
O_TYPE(o) = ERR
call sfree (sp)
return
}
if (v_nargs < 0 && nargs < abs (v_nargs)) {
O_TYPE(o) = ERR
call sfree (sp)
return
}
if (func == RG_POLYGON && nargs < 6) {
O_TYPE(o) = ERR
call sfree (sp)
return
}
# Type convert the arguments appropriately. At the moment this is
# simple if we assume that all the required arguments are real.
call salloc (rval1, nargs, TY_REAL)
call salloc (rval2, nargs, TY_REAL)
do i = 1, nargs {
switch (O_TYPE(args[i])) {
case TY_CHAR:
ip = 1
if (ctor (O_VALC(args[i]), ip, Memr[rval1+i-1]) == 0)
Memr[rval1+i-1] = 0.
case TY_INT:
Memr[rval1+i-1] = O_VALI(args[i])
case TY_REAL:
Memr[rval1+i-1] = O_VALR(args[i])
case TY_DOUBLE:
Memr[rval1+i-1] = O_VALD(args[i])
}
}
# Evaluate the function. Worry about some duplication of code later.
switch (func) {
case RG_CIRCLE:
O_LEN(o) = IM_LEN(RG_PMIM(rg),1)
O_TYPE(o) = TY_BOOL
if (nargs == 5) {
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_circle (Memi[O_VALP(args[1])], Memi[O_VALP(args[2])],
Memi[O_VALP(o)], O_LEN(o), Memr[rval1+2], Memr[rval1+3],
Memr[rval1+4])
} else if (nargs == 3) {
call malloc (ix, O_LEN(o), TY_INT)
call malloc (iy, O_LEN(o), TY_INT)
do i = 1, O_LEN(o)
Memi[ix+i-1] = i
call amovki (RG_OPMV(rg,2), Memi[iy], O_LEN(o))
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_circle (Memi[ix], Memi[iy], Memi[O_VALP(o)], O_LEN(o),
Memr[rval1], Memr[rval1+1], Memr[rval1+2])
call mfree (ix, TY_INT)
call mfree (iy, TY_INT)
} else {
O_TYPE(o) = ERR
}
case RG_ELLIPSE:
O_LEN(o) = IM_LEN(RG_PMIM(rg),1)
O_TYPE(o) = TY_BOOL
if (nargs == 7) {
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_ellipse (Memi[O_VALP(args[1])], Memi[O_VALP(args[2])],
Memi[O_VALP(o)], O_LEN(o), Memr[rval1+2], Memr[rval1+3],
Memr[rval1+4], Memr[rval1+5], Memr[rval1+6])
} else if (nargs == 5) {
call malloc (ix, O_LEN(o), TY_INT)
call malloc (iy, O_LEN(o), TY_INT)
do i = 1, O_LEN(o)
Memi[ix+i-1] = i
call amovki (RG_OPMV(rg,2), Memi[iy], O_LEN(o))
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_ellipse (Memi[ix], Memi[iy], Memi[O_VALP(o)], O_LEN(o),
Memr[rval1], Memr[rval1+1], Memr[rval1+2], Memr[rval1+3],
Memr[rval1+4])
call mfree (ix, TY_INT)
call mfree (iy, TY_INT)
} else {
O_TYPE(o) = ERR
}
case RG_BOX:
O_LEN(o) = IM_LEN(RG_PMIM(rg),1)
O_TYPE(o) = TY_BOOL
if (nargs == 6) {
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_box (Memi[O_VALP(args[1])], Memi[O_VALP(args[2])],
Memi[O_VALP(o)], O_LEN(o), Memr[rval1+2], Memr[rval1+3],
Memr[rval1+4], Memr[rval1+5])
} else if (nargs == 4) {
call malloc (ix, O_LEN(o), TY_INT)
call malloc (iy, O_LEN(o), TY_INT)
do i = 1, O_LEN(o)
Memi[ix+i-1] = i
call amovki (RG_OPMV(rg,2), Memi[iy], O_LEN(o))
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_box (Memi[ix], Memi[iy], Memi[O_VALP(o)], O_LEN(o),
Memr[rval1], Memr[rval1+1], Memr[rval1+2], Memr[rval1+3])
call mfree (ix, TY_INT)
call mfree (iy, TY_INT)
} else {
O_TYPE(o) = ERR
}
case RG_RECTANGLE:
O_LEN(o) = IM_LEN(RG_PMIM(rg),1)
O_TYPE(o) = TY_BOOL
if (nargs == 7) {
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_rectangle (Memi[O_VALP(args[1])], Memi[O_VALP(args[2])],
Memi[O_VALP(o)], O_LEN(o), Memr[rval1+2], Memr[rval1+3],
Memr[rval1+4], Memr[rval1+5], Memr[rval1+6])
} else if (nargs == 5) {
call malloc (ix, O_LEN(o), TY_INT)
call malloc (iy, O_LEN(o), TY_INT)
do i = 1, O_LEN(o)
Memi[ix+i-1] = i
call amovki (RG_OPMV(rg,2), Memi[iy], O_LEN(o))
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_rectangle (Memi[ix], Memi[iy], Memi[O_VALP(o)],
O_LEN(o), Memr[rval1], Memr[rval1+1], Memr[rval1+2],
Memr[rval1+3], Memr[rval1+4])
call mfree (ix, TY_INT)
call mfree (iy, TY_INT)
} else {
O_TYPE(o) = ERR
}
case RG_POLYGON:
O_LEN(o) = IM_LEN(RG_PMIM(rg),1)
O_TYPE(o) = TY_BOOL
if (nargs < 6) {
O_TYPE(o) = ERR
} else if (O_LEN(args[1]) > 0 && O_LEN(args[2]) > 0) {
call malloc (O_VALP(o), O_LEN(o), TY_INT)
nver = (nargs - 2) / 2
do i = 1, nver
Memr[rval2+i-1] = Memr[rval1+2*i+1]
do i = 1, nver
Memr[rval1+i-1] = Memr[rval1+2*i]
call me_polygon (Memi[O_VALP(args[1])], Memi[O_VALP(args[2])],
Memi[O_VALP(o)], O_LEN(o), Memr[rval1], Memr[rval2], nver)
} else {
call malloc (ix, O_LEN(o), TY_INT)
call malloc (iy, O_LEN(o), TY_INT)
do i = 1, O_LEN(o)
Memi[ix+i-1] = i
call amovki (RG_OPMV(rg,2), Memi[iy], O_LEN(o))
nver = nargs / 2
do i = 1, nver
Memr[rval2+i-1] = Memr[rval1+2*i-1]
do i = 1, nver
Memr[rval1+i-1] = Memr[rval1+2*i-2]
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_polygon (Memi[ix], Memi[iy], Memi[O_VALP(o)], O_LEN(o),
Memr[rval1], Memr[rval2], nver)
call mfree (ix, TY_INT)
call mfree (iy, TY_INT)
}
case RG_COLS:
O_LEN(o) = IM_LEN(RG_PMIM(rg),1)
O_TYPE(o) = TY_BOOL
if (nargs == 2) {
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_cols (Memi[O_VALP(args[1])], Memi[O_VALP(o)], O_LEN(o),
O_VALC(args[2]))
} else if (nargs == 1) {
call malloc (ix, O_LEN(o), TY_INT)
do i = 1, O_LEN(o)
Memi[ix+i-1] = i
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_cols (Memi[ix], Memi[O_VALP(o)], O_LEN(o),
O_VALC(args[1]))
call mfree (ix, TY_INT)
} else {
O_TYPE(o) = ERR
}
case RG_LINES:
O_LEN(o) = IM_LEN(RG_PMIM(rg),1)
O_TYPE(o) = TY_BOOL
if (nargs == 2) {
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_lines (Memi[O_VALP(args[1])], Memi[O_VALP(o)], O_LEN(o),
O_VALC(args[2]))
} else if (nargs == 1) {
call malloc (ix, O_LEN(o), TY_INT)
call amovki (RG_OPMV(rg,2), Memi[ix], O_LEN(o))
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_lines (Memi[ix], Memi[O_VALP(o)], O_LEN(o),
O_VALC(args[1]))
call mfree (ix, TY_INT)
} else {
O_TYPE(o) = ERR
}
case RG_VECTOR:
O_LEN(o) = IM_LEN(RG_PMIM(rg),1)
O_TYPE(o) = TY_BOOL
if (nargs == 7) {
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_vector (Memi[O_VALP(args[1])], Memi[O_VALP(args[2])],
Memi[O_VALP(o)], O_LEN(o), Memr[rval1+2], Memr[rval1+3],
Memr[rval1+4], Memr[rval1+5], Memr[rval1+6])
} else if (nargs == 5) {
call malloc (ix, O_LEN(o), TY_INT)
call malloc (iy, O_LEN(o), TY_INT)
do i = 1, O_LEN(o)
Memi[ix+i-1] = i
call amovki (RG_OPMV(rg,2), Memi[iy], O_LEN(o))
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_vector (Memi[ix], Memi[iy], Memi[O_VALP(o)], O_LEN(o),
Memr[rval1], Memr[rval1+1], Memr[rval1+2], Memr[rval1+3],
Memr[rval1+4])
call mfree (ix, TY_INT)
call mfree (iy, TY_INT)
} else {
O_TYPE(o) = ERR
}
case RG_PIE:
O_LEN(o) = IM_LEN(RG_PMIM(rg),1)
O_TYPE(o) = TY_BOOL
if (nargs == 6) {
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_pie (Memi[O_VALP(args[1])], Memi[O_VALP(args[2])],
Memi[O_VALP(o)], O_LEN(o), Memr[rval1+2], Memr[rval1+3],
Memr[rval1+4], Memr[rval1+5], IM_LEN(RG_PMIM(rg),1),
IM_LEN(RG_PMIM(rg),2))
} else if (nargs == 4) {
call malloc (ix, O_LEN(o), TY_INT)
call malloc (iy, O_LEN(o), TY_INT)
do i = 1, O_LEN(o)
Memi[ix+i-1] = i
call amovki (RG_OPMV(rg,2), Memi[iy], O_LEN(o))
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_pie (Memi[ix], Memi[iy], Memi[O_VALP(o)], O_LEN(o),
Memr[rval1], Memr[rval1+1], Memr[rval1+2], Memr[rval1+3],
IM_LEN(RG_PMIM(rg),1), IM_LEN(RG_PMIM(rg),2))
call mfree (ix, TY_INT)
call mfree (iy, TY_INT)
} else {
O_TYPE(o) = ERR
}
case RG_CANNULUS:
O_LEN(o) = IM_LEN(RG_PMIM(rg),1)
O_TYPE(o) = TY_BOOL
if (nargs == 6) {
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_cannulus (Memi[O_VALP(args[1])], Memi[O_VALP(args[2])],
Memi[O_VALP(o)], O_LEN(o), Memr[rval1+2], Memr[rval1+3],
Memr[rval1+4], Memr[rval1+5])
} else if (nargs == 4) {
call malloc (ix, O_LEN(o), TY_INT)
call malloc (iy, O_LEN(o), TY_INT)
do i = 1, O_LEN(o)
Memi[ix+i-1] = i
call amovki (RG_OPMV(rg,2), Memi[iy], O_LEN(o))
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_cannulus (Memi[ix], Memi[iy], Memi[O_VALP(o)], O_LEN(o),
Memr[rval1], Memr[rval1+1], Memr[rval1+2], Memr[rval1+3])
call mfree (ix, TY_INT)
call mfree (iy, TY_INT)
} else {
O_TYPE(o) = ERR
}
case RG_EANNULUS:
O_LEN(o) = IM_LEN(RG_PMIM(rg),1)
O_TYPE(o) = TY_BOOL
if (nargs == 8) {
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_eannulus (Memi[O_VALP(args[1])], Memi[O_VALP(args[2])],
Memi[O_VALP(o)], O_LEN(o), Memr[rval1+2], Memr[rval1+3],
Memr[rval1+4], Memr[rval1+5], Memr[rval1+6], Memr[rval1+7])
} else if (nargs == 6) {
call malloc (ix, O_LEN(o), TY_INT)
call malloc (iy, O_LEN(o), TY_INT)
do i = 1, O_LEN(o)
Memi[ix+i-1] = i
call amovki (RG_OPMV(rg,2), Memi[iy], O_LEN(o))
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_eannulus (Memi[ix], Memi[iy], Memi[O_VALP(o)], O_LEN(o),
Memr[rval1], Memr[rval1+1], Memr[rval1+2], Memr[rval1+3],
Memr[rval1+4], Memr[rval1+5])
call mfree (ix, TY_INT)
call mfree (iy, TY_INT)
} else {
O_TYPE(o) = ERR
}
case RG_RANNULUS:
O_LEN(o) = IM_LEN(RG_PMIM(rg),1)
O_TYPE(o) = TY_BOOL
if (nargs == 8) {
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_rannulus (Memi[O_VALP(args[1])], Memi[O_VALP(args[2])],
Memi[O_VALP(o)], O_LEN(o), Memr[rval1+2], Memr[rval1+3],
Memr[rval1+4], Memr[rval1+5], Memr[rval1+6], Memr[rval1+7])
} else if (nargs == 6) {
call malloc (ix, O_LEN(o), TY_INT)
call malloc (iy, O_LEN(o), TY_INT)
do i = 1, O_LEN(o)
Memi[ix+i-1] = i
call amovki (RG_OPMV(rg,2), Memi[iy], O_LEN(o))
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_rannulus (Memi[ix], Memi[iy], Memi[O_VALP(o)], O_LEN(o),
Memr[rval1], Memr[rval1+1], Memr[rval1+2], Memr[rval1+3],
Memr[rval1+4], Memr[rval1+5])
call mfree (ix, TY_INT)
call mfree (iy, TY_INT)
} else {
O_TYPE(o) = ERR
}
case RG_PANNULUS:
O_LEN(o) = IM_LEN(RG_PMIM(rg),1)
O_TYPE(o) = TY_BOOL
if (nargs < 7) {
O_TYPE(o) = ERR
} else if (O_LEN(args[1]) > 0 && O_LEN(args[2]) > 0) {
call malloc (O_VALP(o), O_LEN(o), TY_INT)
width = Memr[rval1+2]
nver = (nargs - 3) / 2
do i = 1, nver
#Memr[rval2+i-1] = Memr[rval1+2*i+1]
Memr[rval2+i-1] = Memr[rval1+2*i+2]
do i = 1, nver
#Memr[rval1+i-1] = Memr[rval1+2*i+2]
Memr[rval1+i-1] = Memr[rval1+2*i+1]
call salloc (orval1, nver, TY_REAL)
call salloc (orval2, nver, TY_REAL)
call me_pyexpand (Memr[rval1], Memr[rval2], Memr[orval1],
Memr[orval2], nver, width)
call me_apolygon (Memi[O_VALP(args[1])], Memi[O_VALP(args[2])],
Memi[O_VALP(o)], O_LEN(o), Memr[rval1], Memr[rval2],
Memr[orval1], Memr[orval2], nver)
} else {
call malloc (ix, O_LEN(o), TY_INT)
call malloc (iy, O_LEN(o), TY_INT)
do i = 1, O_LEN(o)
Memi[ix+i-1] = i
call amovki (RG_OPMV(rg,2), Memi[iy], O_LEN(o))
call malloc (O_VALP(o), O_LEN(o), TY_INT)
width = Memr[rval1]
nver = (nargs - 1) / 2
do i = 1, nver
Memr[rval2+i-1] = Memr[rval1+2*i]
do i = 1, nver
Memr[rval1+i-1] = Memr[rval1+2*i-1]
call salloc (orval1, nver, TY_REAL)
call salloc (orval2, nver, TY_REAL)
call me_pyexpand (Memr[rval1], Memr[rval2], Memr[orval1],
Memr[orval2], nver, width)
call me_apolygon (Memi[ix], Memi[iy], Memi[O_VALP(o)], O_LEN(o),
Memr[rval1], Memr[rval2], Memr[orval1], Memr[orval2], nver)
call mfree (ix, TY_INT)
call mfree (iy, TY_INT)
}
case RG_POINT:
O_LEN(o) = IM_LEN(RG_PMIM(rg),1)
O_TYPE(o) = TY_BOOL
if (nargs == 4) {
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_point (Memi[O_VALP(args[1])], Memi[O_VALP(args[2])],
Memi[O_VALP(o)], O_LEN(o), Memr[rval1+2], Memr[rval1+3])
} else if (nargs == 2) {
call malloc (ix, O_LEN(o), TY_INT)
call malloc (iy, O_LEN(o), TY_INT)
do i = 1, O_LEN(o)
Memi[ix+i-1] = i
call amovki (RG_OPMV(rg,2), Memi[iy], O_LEN(o))
call malloc (O_VALP(o), O_LEN(o), TY_INT)
call me_point (Memi[ix], Memi[iy], Memi[O_VALP(o)], O_LEN(o),
Memr[rval1], Memr[rval1+1])
call mfree (ix, TY_INT)
call mfree (iy, TY_INT)
} else {
O_TYPE(o) = ERR
}
default:
O_TYPE(o) = ERR
}
call sfree (sp)
end
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