/* $XConsortium: Xpmscan.c /main/6 1996/09/20 08:16:12 pascale $ */ /* * Copyright (C) 1989-95 GROUPE BULL * * Permission is hereby granted, free of charge, to any person obtaining a copy * of this software and associated documentation files (the "Software"), to * deal in the Software without restriction, including without limitation the * rights to use, copy, modify, merge, publish, distribute, sublicense, and/or * sell copies of the Software, and to permit persons to whom the Software is * furnished to do so, subject to the following conditions: * * The above copyright notice and this permission notice shall be included in * all copies or substantial portions of the Software. * * THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR * IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY, * FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL * GROUPE BULL BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER LIABILITY, WHETHER IN * AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, OUT OF OR IN * CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE SOFTWARE. * * Except as contained in this notice, the name of GROUPE BULL shall not be * used in advertising or otherwise to promote the sale, use or other dealings * in this Software without prior written authorization from GROUPE BULL. */ /*****************************************************************************\ * scan.c: * * * * XPM library * * Scanning utility for XPM file format * * * * Developed by Arnaud Le Hors * \*****************************************************************************/ /* * The code related to FOR_MSW has been added by * HeDu (hedu@cul-ipn.uni-kiel.de) 4/94 */ #include "XpmI.h" #define MAXPRINTABLE 92 /* number of printable ascii chars * minus \ and " for string compat * and ? to avoid ANSI trigraphs. */ static char *printable = " .XoO+@#$%&*=-;:>,<1234567890qwertyuipasdfghjklzxcvbnmMNBVCZ\ ASDFGHJKLPIUYTREWQ!~^/()_`'][{}|"; /* * printable begin with a space, so in most case, due to my algorithm, when * the number of different colors is less than MAXPRINTABLE, it will give a * char follow by "nothing" (a space) in the readable xpm file */ typedef struct { Pixel *pixels; unsigned int *pixelindex; unsigned int size; unsigned int ncolors; unsigned int mask_pixel; /* whether there is or not */ } PixelsMap; LFUNC(storePixel, int, (Pixel pixel, PixelsMap *pmap, unsigned int *index_return)); LFUNC(storeMaskPixel, int, (Pixel pixel, PixelsMap *pmap, unsigned int *index_return)); #ifndef FOR_MSW LFUNC(GetImagePixels, int, (XImage *image, unsigned int width, unsigned int height, PixelsMap *pmap)); LFUNC(GetImagePixels32, int, (XImage *image, unsigned int width, unsigned int height, PixelsMap *pmap)); LFUNC(GetImagePixels16, int, (XImage *image, unsigned int width, unsigned int height, PixelsMap *pmap)); LFUNC(GetImagePixels8, int, (XImage *image, unsigned int width, unsigned int height, PixelsMap *pmap)); LFUNC(GetImagePixels1, int, (XImage *image, unsigned int width, unsigned int height, PixelsMap *pmap, int (*storeFunc) ())); #else /* ndef FOR_MSW */ LFUNC(MSWGetImagePixels, int, (Display *d, XImage *image, unsigned int width, unsigned int height, PixelsMap *pmap, int (*storeFunc) ())); #endif LFUNC(ScanTransparentColor, int, (XpmColor *color, unsigned int cpp, XpmAttributes *attributes)); LFUNC(ScanOtherColors, int, (Display *display, XpmColor *colors, int ncolors, Pixel *pixels, unsigned int mask, unsigned int cpp, XpmAttributes *attributes)); /* * This function stores the given pixel in the given arrays which are grown * if not large enough. */ static int storePixel(pixel, pmap, index_return) Pixel pixel; PixelsMap *pmap; unsigned int *index_return; { unsigned int i; Pixel *p; unsigned int ncolors; if (*index_return) { /* this is a transparent pixel! */ *index_return = 0; return 0; } ncolors = pmap->ncolors; p = pmap->pixels + pmap->mask_pixel; for (i = pmap->mask_pixel; i < ncolors; i++, p++) if (*p == pixel) break; if (i == ncolors) { if (ncolors >= pmap->size) { pmap->size *= 2; p = (Pixel *) XpmRealloc(pmap->pixels, sizeof(Pixel) * pmap->size); if (!p) return (1); pmap->pixels = p; } (pmap->pixels)[ncolors] = pixel; pmap->ncolors++; } *index_return = i; return 0; } static int storeMaskPixel(pixel, pmap, index_return) Pixel pixel; PixelsMap *pmap; unsigned int *index_return; { if (!pixel) { if (!pmap->ncolors) { pmap->ncolors = 1; (pmap->pixels)[0] = 0; pmap->mask_pixel = 1; } *index_return = 1; } else *index_return = 0; return 0; } /* function call in case of error, frees only locally allocated variables */ #undef RETURN #define RETURN(status) \ { \ if (pmap.pixelindex) XpmFree(pmap.pixelindex); \ if (pmap.pixels) XpmFree(pmap.pixels); \ if (colorTable) xpmFreeColorTable(colorTable, pmap.ncolors); \ return(status); \ } /* * This function scans the given image and stores the found informations in * the given XpmImage structure. */ int XpmCreateXpmImageFromImage(display, image, shapeimage, xpmimage, attributes) Display *display; XImage *image; XImage *shapeimage; XpmImage *xpmimage; XpmAttributes *attributes; { /* variables stored in the XpmAttributes structure */ unsigned int cpp; /* variables to return */ PixelsMap pmap; XpmColor *colorTable = NULL; int ErrorStatus; /* calculation variables */ unsigned int width = 0; unsigned int height = 0; unsigned int cppm; /* minimum chars per pixel */ unsigned int c; /* initialize pmap */ pmap.pixels = NULL; pmap.pixelindex = NULL; pmap.size = 256; /* should be enough most of the time */ pmap.ncolors = 0; pmap.mask_pixel = 0; /* * get geometry */ if (image) { width = image->width; height = image->height; } else if (shapeimage) { width = shapeimage->width; height = shapeimage->height; } /* * retrieve information from the XpmAttributes */ if (attributes && (attributes->valuemask & XpmCharsPerPixel /* 3.2 backward compatibility code */ || attributes->valuemask & XpmInfos)) /* end 3.2 bc */ cpp = attributes->cpp; else cpp = 0; pmap.pixelindex = (unsigned int *) XpmCalloc(width * height, sizeof(unsigned int)); if (!pmap.pixelindex) RETURN(XpmNoMemory); pmap.pixels = (Pixel *) XpmMalloc(sizeof(Pixel) * pmap.size); if (!pmap.pixels) RETURN(XpmNoMemory); /* * scan shape mask if any */ if (shapeimage) { #ifndef FOR_MSW ErrorStatus = GetImagePixels1(shapeimage, width, height, &pmap, storeMaskPixel); #else ErrorStatus = MSWGetImagePixels(display, shapeimage, width, height, &pmap, storeMaskPixel); #endif if (ErrorStatus != XpmSuccess) RETURN(ErrorStatus); } /* * scan the image data * * In case depth is 1 or bits_per_pixel is 4, 6, 8, 24 or 32 use optimized * functions, otherwise use slower but sure general one. * */ if (image) { #ifndef FOR_MSW if (((image->bits_per_pixel | image->depth) == 1) && (image->byte_order == image->bitmap_bit_order)) ErrorStatus = GetImagePixels1(image, width, height, &pmap, storePixel); else if (image->format == ZPixmap) { if (image->bits_per_pixel == 8) ErrorStatus = GetImagePixels8(image, width, height, &pmap); else if (image->bits_per_pixel == 16) ErrorStatus = GetImagePixels16(image, width, height, &pmap); else if (image->bits_per_pixel == 32) ErrorStatus = GetImagePixels32(image, width, height, &pmap); } else ErrorStatus = GetImagePixels(image, width, height, &pmap); #else /* FOR_MSW */ ErrorStatus = MSWGetImagePixels(display, image, width, height, &pmap, storePixel); #endif if (ErrorStatus != XpmSuccess) RETURN(ErrorStatus); } /* * get rgb values and a string of char, and possibly a name for each * color */ colorTable = (XpmColor *) XpmCalloc(pmap.ncolors, sizeof(XpmColor)); if (!colorTable) RETURN(XpmNoMemory); /* compute the minimal cpp */ for (cppm = 1, c = MAXPRINTABLE; pmap.ncolors > c; cppm++) c *= MAXPRINTABLE; if (cpp < cppm) cpp = cppm; if (pmap.mask_pixel) { ErrorStatus = ScanTransparentColor(colorTable, cpp, attributes); if (ErrorStatus != XpmSuccess) RETURN(ErrorStatus); } ErrorStatus = ScanOtherColors(display, colorTable, pmap.ncolors, pmap.pixels, pmap.mask_pixel, cpp, attributes); if (ErrorStatus != XpmSuccess) RETURN(ErrorStatus); /* * store found informations in the XpmImage structure */ xpmimage->width = width; xpmimage->height = height; xpmimage->cpp = cpp; xpmimage->ncolors = pmap.ncolors; xpmimage->colorTable = colorTable; xpmimage->data = pmap.pixelindex; XpmFree(pmap.pixels); return (XpmSuccess); } static int ScanTransparentColor(color, cpp, attributes) XpmColor *color; unsigned int cpp; XpmAttributes *attributes; { char *s; unsigned int a, b, c; /* first get a character string */ a = 0; if (!(s = color->string = (char *) XpmMalloc(cpp + 1))) return (XpmNoMemory); *s++ = printable[c = a % MAXPRINTABLE]; for (b = 1; b < cpp; b++, s++) *s = printable[c = ((a - c) / MAXPRINTABLE) % MAXPRINTABLE]; *s = '\0'; /* then retreive related info from the attributes if any */ if (attributes && (attributes->valuemask & XpmColorTable /* 3.2 backward compatibility code */ || attributes->valuemask & XpmInfos) /* end 3.2 bc */ && attributes->mask_pixel != XpmUndefPixel) { unsigned int key; char **defaults = (char **) color; char **mask_defaults; /* 3.2 backward compatibility code */ if (attributes->valuemask & XpmColorTable) /* end 3.2 bc */ mask_defaults = (char **) ( attributes->colorTable + attributes->mask_pixel); /* 3.2 backward compatibility code */ else mask_defaults = (char **) ((XpmColor **) attributes->colorTable)[attributes->mask_pixel]; /* end 3.2 bc */ for (key = 1; key <= NKEYS; key++) { if (s = mask_defaults[key]) { defaults[key] = (char *) xpmstrdup(s); if (!defaults[key]) return (XpmNoMemory); } } } else { color->c_color = (char *) xpmstrdup(TRANSPARENT_COLOR); if (!color->c_color) return (XpmNoMemory); } return (XpmSuccess); } static int ScanOtherColors(display, colors, ncolors, pixels, mask, cpp, attributes) Display *display; XpmColor *colors; int ncolors; Pixel *pixels; unsigned int mask; unsigned int cpp; XpmAttributes *attributes; { /* variables stored in the XpmAttributes structure */ Colormap colormap; char *rgb_fname; #ifndef FOR_MSW xpmRgbName rgbn[MAX_RGBNAMES]; #else xpmRgbName *rgbn = NULL; #endif int rgbn_max = 0; unsigned int i, j, c, i2; XpmColor *color; XColor *xcolors = NULL, *xcolor; char *colorname, *s; XpmColor *colorTable, **oldColorTable = NULL; unsigned int ancolors = 0; Pixel *apixels; unsigned int mask_pixel; Bool found; /* retrieve information from the XpmAttributes */ if (attributes && (attributes->valuemask & XpmColormap)) colormap = attributes->colormap; else colormap = XDefaultColormap(display, XDefaultScreen(display)); if (attributes && (attributes->valuemask & XpmRgbFilename)) rgb_fname = attributes->rgb_fname; else rgb_fname = NULL; /* start from the right element */ if (mask) { colors++; ncolors--; pixels++; } /* first get character strings and rgb values */ xcolors = (XColor *) XpmMalloc(sizeof(XColor) * ncolors); if (!xcolors) return (XpmNoMemory); for (i = 0, i2 = mask, color = colors, xcolor = xcolors; i < ncolors; i++, i2++, color++, xcolor++, pixels++) { if (!(s = color->string = (char *) XpmMalloc(cpp + 1))) { XpmFree(xcolors); return (XpmNoMemory); } *s++ = printable[c = i2 % MAXPRINTABLE]; for (j = 1; j < cpp; j++, s++) *s = printable[c = ((i2 - c) / MAXPRINTABLE) % MAXPRINTABLE]; *s = '\0'; xcolor->pixel = *pixels; } XQueryColors(display, colormap, xcolors, ncolors); #ifndef FOR_MSW /* read the rgb file if any was specified */ if (rgb_fname) rgbn_max = xpmReadRgbNames(attributes->rgb_fname, rgbn); #else /* FOR_MSW: rgb names and values are hardcoded in rgbtab.h */ rgbn_max = xpmReadRgbNames(NULL, NULL); #endif if (attributes && attributes->valuemask & XpmColorTable) { colorTable = attributes->colorTable; ancolors = attributes->ncolors; apixels = attributes->pixels; mask_pixel = attributes->mask_pixel; } /* 3.2 backward compatibility code */ else if (attributes && attributes->valuemask & XpmInfos) { oldColorTable = (XpmColor **) attributes->colorTable; ancolors = attributes->ncolors; apixels = attributes->pixels; mask_pixel = attributes->mask_pixel; } /* end 3.2 bc */ for (i = 0, color = colors, xcolor = xcolors; i < ncolors; i++, color++, xcolor++) { /* look for related info from the attributes if any */ found = False; if (ancolors) { unsigned int offset = 0; for (j = 0; j < ancolors; j++) { if (j == mask_pixel) { offset = 1; continue; } if (apixels[j - offset] == xcolor->pixel) break; } if (j != ancolors) { unsigned int key; char **defaults = (char **) color; char **adefaults; /* 3.2 backward compatibility code */ if (oldColorTable) adefaults = (char **) oldColorTable[j]; else /* end 3.2 bc */ adefaults = (char **) (colorTable + j); found = True; for (key = 1; key <= NKEYS; key++) { if (s = adefaults[key]) defaults[key] = (char *) xpmstrdup(s); } } } if (!found) { /* if nothing found look for a color name */ colorname = NULL; if (rgbn_max) colorname = xpmGetRgbName(rgbn, rgbn_max, xcolor->red, xcolor->green, xcolor->blue); if (colorname) color->c_color = (char *) xpmstrdup(colorname); else { /* at last store the rgb value */ char buf[BUFSIZ]; #ifndef FOR_MSW sprintf(buf, "#%04X%04X%04X", xcolor->red, xcolor->green, xcolor->blue); #else sprintf(buf, "#%02x%02x%02x", xcolor->red, xcolor->green, xcolor->blue); #endif color->c_color = (char *) xpmstrdup(buf); } if (!color->c_color) { XpmFree(xcolors); xpmFreeRgbNames(rgbn, rgbn_max); return (XpmNoMemory); } } } XpmFree(xcolors); xpmFreeRgbNames(rgbn, rgbn_max); return (XpmSuccess); } #ifndef FOR_MSW /* * The functions below are written from X11R5 MIT's code (XImUtil.c) * * The idea is to have faster functions than the standard XGetPixel function * to scan the image data. Indeed we can speed up things by suppressing tests * performed for each pixel. We do exactly the same tests but at the image * level. */ static unsigned long Const low_bits_table[] = { 0x00000000, 0x00000001, 0x00000003, 0x00000007, 0x0000000f, 0x0000001f, 0x0000003f, 0x0000007f, 0x000000ff, 0x000001ff, 0x000003ff, 0x000007ff, 0x00000fff, 0x00001fff, 0x00003fff, 0x00007fff, 0x0000ffff, 0x0001ffff, 0x0003ffff, 0x0007ffff, 0x000fffff, 0x001fffff, 0x003fffff, 0x007fffff, 0x00ffffff, 0x01ffffff, 0x03ffffff, 0x07ffffff, 0x0fffffff, 0x1fffffff, 0x3fffffff, 0x7fffffff, 0xffffffff }; /* * Default method to scan pixels of an image data structure. * The algorithm used is: * * copy the source bitmap_unit or Zpixel into temp * normalize temp if needed * extract the pixel bits into return value * */ static int GetImagePixels(image, width, height, pmap) XImage *image; unsigned int width; unsigned int height; PixelsMap *pmap; { char *src; char *dst; unsigned int *iptr; char *data; int x, y, i; int bits, depth, ibu, ibpp, offset; unsigned long lbt; Pixel pixel, px; data = image->data; iptr = pmap->pixelindex; depth = image->depth; lbt = low_bits_table[depth]; ibpp = image->bits_per_pixel; offset = image->xoffset; if ((image->bits_per_pixel | image->depth) == 1) { ibu = image->bitmap_unit; for (y = 0; y < height; y++) for (x = 0; x < width; x++, iptr++) { src = &data[XYINDEX(x, y, image)]; dst = (char *) &pixel; pixel = 0; for (i = ibu >> 3; --i >= 0;) *dst++ = *src++; XYNORMALIZE(&pixel, image); bits = (x + offset) % ibu; pixel = ((((char *) &pixel)[bits >> 3]) >> (bits & 7)) & 1; if (ibpp != depth) pixel &= lbt; if (storePixel(pixel, pmap, iptr)) return (XpmNoMemory); } } else if (image->format == XYPixmap) { int nbytes, bpl, j; long plane = 0; ibu = image->bitmap_unit; nbytes = ibu >> 3; bpl = image->bytes_per_line; for (y = 0; y < height; y++) for (x = 0; x < width; x++, iptr++) { pixel = 0; plane = 0; for (i = depth; --i >= 0;) { src = &data[XYINDEX(x, y, image) + plane]; dst = (char *) &px; px = 0; for (j = nbytes; --j >= 0;) *dst++ = *src++; XYNORMALIZE(&px, image); bits = (x + offset) % ibu; pixel = (pixel << 1) | (((((char *) &px)[bits >> 3]) >> (bits & 7)) & 1); plane = plane + (bpl * height); } if (ibpp != depth) pixel &= lbt; if (storePixel(pixel, pmap, iptr)) return (XpmNoMemory); } } else if (image->format == ZPixmap) { for (y = 0; y < height; y++) for (x = 0; x < width; x++, iptr++) { src = &data[ZINDEX(x, y, image)]; dst = (char *) &px; px = 0; for (i = (ibpp + 7) >> 3; --i >= 0;) *dst++ = *src++; ZNORMALIZE(&px, image); pixel = 0; for (i = sizeof(unsigned long); --i >= 0;) pixel = (pixel << 8) | ((unsigned char *) &px)[i]; if (ibpp == 4) { if (x & 1) pixel >>= 4; else pixel &= 0xf; } if (ibpp != depth) pixel &= lbt; if (storePixel(pixel, pmap, iptr)) return (XpmNoMemory); } } else return (XpmColorError); /* actually a bad image */ return (XpmSuccess); } /* * scan pixels of a 32-bits Z image data structure */ #if !defined(WORD64) && !defined(LONG64) static unsigned long byteorderpixel = MSBFirst << 24; #endif static int GetImagePixels32(image, width, height, pmap) XImage *image; unsigned int width; unsigned int height; PixelsMap *pmap; { unsigned char *addr; unsigned char *data; unsigned int *iptr; int x, y; unsigned long lbt; Pixel pixel; int depth; data = (unsigned char *) image->data; iptr = pmap->pixelindex; depth = image->depth; lbt = low_bits_table[depth]; #if !defined(WORD64) && !defined(LONG64) if (*((char *) &byteorderpixel) == image->byte_order) { for (y = 0; y < height; y++) for (x = 0; x < width; x++, iptr++) { addr = &data[ZINDEX32(x, y, image)]; pixel = *((unsigned long *) addr); if (depth != 32) pixel &= lbt; if (storePixel(pixel, pmap, iptr)) return (XpmNoMemory); } } else #endif if (image->byte_order == MSBFirst) for (y = 0; y < height; y++) for (x = 0; x < width; x++, iptr++) { addr = &data[ZINDEX32(x, y, image)]; pixel = ((unsigned long) addr[0] << 24 | (unsigned long) addr[1] << 16 | (unsigned long) addr[2] << 8 | addr[4]); if (depth != 32) pixel &= lbt; if (storePixel(pixel, pmap, iptr)) return (XpmNoMemory); } else for (y = 0; y < height; y++) for (x = 0; x < width; x++, iptr++) { addr = &data[ZINDEX32(x, y, image)]; pixel = (addr[0] | (unsigned long) addr[1] << 8 | (unsigned long) addr[2] << 16 | (unsigned long) addr[3] << 24); if (depth != 32) pixel &= lbt; if (storePixel(pixel, pmap, iptr)) return (XpmNoMemory); } return (XpmSuccess); } /* * scan pixels of a 16-bits Z image data structure */ static int GetImagePixels16(image, width, height, pmap) XImage *image; unsigned int width; unsigned int height; PixelsMap *pmap; { unsigned char *addr; unsigned char *data; unsigned int *iptr; int x, y; unsigned long lbt; Pixel pixel; int depth; data = (unsigned char *) image->data; iptr = pmap->pixelindex; depth = image->depth; lbt = low_bits_table[depth]; if (image->byte_order == MSBFirst) for (y = 0; y < height; y++) for (x = 0; x < width; x++, iptr++) { addr = &data[ZINDEX16(x, y, image)]; pixel = addr[0] << 8 | addr[1]; if (depth != 16) pixel &= lbt; if (storePixel(pixel, pmap, iptr)) return (XpmNoMemory); } else for (y = 0; y < height; y++) for (x = 0; x < width; x++, iptr++) { addr = &data[ZINDEX16(x, y, image)]; pixel = addr[0] | addr[1] << 8; if (depth != 16) pixel &= lbt; if (storePixel(pixel, pmap, iptr)) return (XpmNoMemory); } return (XpmSuccess); } /* * scan pixels of a 8-bits Z image data structure */ static int GetImagePixels8(image, width, height, pmap) XImage *image; unsigned int width; unsigned int height; PixelsMap *pmap; { unsigned int *iptr; unsigned char *data; int x, y; unsigned long lbt; Pixel pixel; int depth; data = (unsigned char *) image->data; iptr = pmap->pixelindex; depth = image->depth; lbt = low_bits_table[depth]; for (y = 0; y < height; y++) for (x = 0; x < width; x++, iptr++) { pixel = data[ZINDEX8(x, y, image)]; if (depth != 8) pixel &= lbt; if (storePixel(pixel, pmap, iptr)) return (XpmNoMemory); } return (XpmSuccess); } /* * scan pixels of a 1-bit depth Z image data structure */ static int GetImagePixels1(image, width, height, pmap, storeFunc) XImage *image; unsigned int width; unsigned int height; PixelsMap *pmap; int (*storeFunc) (); { unsigned int *iptr; int x, y; char *data; Pixel pixel; int xoff, yoff, offset, bpl; data = image->data; iptr = pmap->pixelindex; offset = image->xoffset; bpl = image->bytes_per_line; if (image->bitmap_bit_order == MSBFirst) for (y = 0; y < height; y++) for (x = 0; x < width; x++, iptr++) { xoff = x + offset; yoff = y * bpl + (xoff >> 3); xoff &= 7; pixel = (data[yoff] & (0x80 >> xoff)) ? 1 : 0; if ((*storeFunc) (pixel, pmap, iptr)) return (XpmNoMemory); } else for (y = 0; y < height; y++) for (x = 0; x < width; x++, iptr++) { xoff = x + offset; yoff = y * bpl + (xoff >> 3); xoff &= 7; pixel = (data[yoff] & (1 << xoff)) ? 1 : 0; if ((*storeFunc) (pixel, pmap, iptr)) return (XpmNoMemory); } return (XpmSuccess); } #else /* ndef FOR_MSW */ static int MSWGetImagePixels(display, image, width, height, pmap, storeFunc) Display *display; XImage *image; unsigned int width; unsigned int height; PixelsMap *pmap; int (*storeFunc) (); { unsigned int *iptr; unsigned int x, y; Pixel pixel; iptr = pmap->pixelindex; SelectObject(*display, image->bitmap); for (y = 0; y < height; y++) { for (x = 0; x < width; x++, iptr++) { pixel = GetPixel(*display, x, y); if ((*storeFunc) (pixel, pmap, iptr)) return (XpmNoMemory); } } return (XpmSuccess); } #endif #ifndef FOR_MSW int XpmCreateXpmImageFromPixmap(display, pixmap, shapemask, xpmimage, attributes) Display *display; Pixmap pixmap; Pixmap shapemask; XpmImage *xpmimage; XpmAttributes *attributes; { XImage *ximage = NULL; XImage *shapeimage = NULL; unsigned int width = 0; unsigned int height = 0; int ErrorStatus; /* get geometry */ if (attributes && attributes->valuemask & XpmSize) { width = attributes->width; height = attributes->height; } /* get the ximages */ if (pixmap) xpmCreateImageFromPixmap(display, pixmap, &ximage, &width, &height); if (shapemask) xpmCreateImageFromPixmap(display, shapemask, &shapeimage, &width, &height); /* create the related XpmImage */ ErrorStatus = XpmCreateXpmImageFromImage(display, ximage, shapeimage, xpmimage, attributes); /* destroy the ximages */ if (ximage) XDestroyImage(ximage); if (shapeimage) XDestroyImage(shapeimage); return (ErrorStatus); } #endif /* ndef FOR_MSW */