/src/ghostpdl/base/gdevp14.c
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1 | | /* Copyright (C) 2001-2022 Artifex Software, Inc. |
2 | | All Rights Reserved. |
3 | | |
4 | | This software is provided AS-IS with no warranty, either express or |
5 | | implied. |
6 | | |
7 | | This software is distributed under license and may not be copied, |
8 | | modified or distributed except as expressly authorized under the terms |
9 | | of the license contained in the file LICENSE in this distribution. |
10 | | |
11 | | Refer to licensing information at http://www.artifex.com or contact |
12 | | Artifex Software, Inc., 1305 Grant Avenue - Suite 200, Novato, |
13 | | CA 94945, U.S.A., +1(415)492-9861, for further information. |
14 | | */ |
15 | | |
16 | | /* Compositing devices for implementing PDF 1.4 imaging model */ |
17 | | |
18 | | #include "assert_.h" |
19 | | #include "math_.h" |
20 | | #include "memory_.h" |
21 | | #include "gx.h" |
22 | | #include "gserrors.h" |
23 | | #include "gscdefs.h" |
24 | | #include "gxdevice.h" |
25 | | #include "gsdevice.h" |
26 | | #include "gsstruct.h" |
27 | | #include "gxgstate.h" |
28 | | #include "gxdcolor.h" |
29 | | #include "gxiparam.h" |
30 | | #include "gstparam.h" |
31 | | #include "gxblend.h" |
32 | | #include "gxtext.h" |
33 | | #include "gsimage.h" |
34 | | #include "gsrect.h" |
35 | | #include "gscoord.h" |
36 | | #include "gzstate.h" |
37 | | #include "gdevdevn.h" |
38 | | #include "gdevmem.h" |
39 | | #include "gdevp14.h" |
40 | | #include "gdevprn.h" /* for prn_device structures */ |
41 | | #include "gdevppla.h" /* for gdev_prn_open_planar */ |
42 | | #include "gdevdevnprn.h" |
43 | | #include "gscdevn.h" |
44 | | #include "gsovrc.h" |
45 | | #include "gxcmap.h" |
46 | | #include "gscolor1.h" |
47 | | #include "gstrans.h" |
48 | | #include "gsutil.h" |
49 | | #include "gxcldev.h" |
50 | | #include "gxclpath.h" |
51 | | #include "gxdcconv.h" |
52 | | #include "gsptype2.h" |
53 | | #include "gxpcolor.h" |
54 | | #include "gsptype1.h" |
55 | | #include "gzcpath.h" |
56 | | #include "gxpaint.h" |
57 | | #include "gsicc_manage.h" |
58 | | #include "gsicc_cache.h" |
59 | | #include "gxclist.h" |
60 | | #include "gxiclass.h" |
61 | | #include "gximage.h" |
62 | | #include "gsmatrix.h" |
63 | | #include "gxdevsop.h" |
64 | | #include "gsicc.h" |
65 | | #ifdef WITH_CAL |
66 | | #include "cal.h" |
67 | | #define CAL_SLOP 16 |
68 | | #else |
69 | | #define CAL_SLOP 0 |
70 | | #endif |
71 | | #include "assert_.h" |
72 | | #include "gxgetbit.h" |
73 | | |
74 | | #if RAW_DUMP |
75 | | unsigned int global_index = 0; |
76 | | unsigned int clist_band_count = 0; |
77 | | #endif |
78 | | |
79 | | #define DUMP_MASK_STACK 0 |
80 | | |
81 | | /* Static prototypes */ |
82 | | /* Used for filling rects when we are doing a fill with a pattern that |
83 | | has transparency */ |
84 | | static int pdf14_tile_pattern_fill(gx_device * pdev, const gs_gstate * pgs, |
85 | | gx_path * ppath, const gx_fill_params * params, |
86 | | const gx_device_color * pdevc, const gx_clip_path * pcpath); |
87 | | static pdf14_mask_t *pdf14_mask_element_new(gs_memory_t *memory); |
88 | | static void pdf14_free_smask_color(pdf14_device * pdev); |
89 | | static int compute_group_device_int_rect(pdf14_device *pdev, gs_int_rect *rect, |
90 | | const gs_rect *pbbox, gs_gstate *pgs); |
91 | | static int pdf14_clist_update_params(pdf14_clist_device * pdev, |
92 | | const gs_gstate * pgs, |
93 | | bool crop_blend_params, |
94 | | gs_pdf14trans_params_t *group_params); |
95 | | static int pdf14_mark_fill_rectangle_ko_simple(gx_device * dev, int x, int y, |
96 | | int w, int h, gx_color_index color, |
97 | | const gx_device_color *pdc, |
98 | | bool devn); |
99 | | static int pdf14_copy_alpha_color(gx_device * dev, const byte * data, int data_x, |
100 | | int aa_raster, gx_bitmap_id id, int x, int y, int w, int h, |
101 | | gx_color_index color, const gx_device_color *pdc, |
102 | | int depth, bool devn); |
103 | | |
104 | | /* Functions for dealing with soft mask color */ |
105 | | static int pdf14_decrement_smask_color(gs_gstate * pgs, gx_device * dev); |
106 | | static int pdf14_increment_smask_color(gs_gstate * pgs, gx_device * dev); |
107 | | |
108 | | /* |
109 | | * We chose the blending color space based upon the process color model of the |
110 | | * output device. For gray, RGB, CMYK, or CMYK+spot devices, the choice is |
111 | | * usually simple. For other devices or if the user is doing custom color |
112 | | * processing then the user may want to control this choice. |
113 | | */ |
114 | | #define AUTO_USE_CUSTOM_BLENDING 0 |
115 | | #define ALWAYS_USE_CUSTOM_BLENDING 1 |
116 | | #define DO_NOT_USE_CUSTOM_BLENDING 2 |
117 | | |
118 | | #define CUSTOM_BLENDING_MODE AUTO_USE_CUSTOM_BLENDING |
119 | | |
120 | | # define INCR(v) DO_NOTHING |
121 | | |
122 | | /* Forward prototypes */ |
123 | | void pdf14_cmyk_cs_to_cmyk_cm(const gx_device *, frac, frac, frac, frac, frac *); |
124 | | static int gs_pdf14_device_push(gs_memory_t *mem, gs_gstate * pgs, |
125 | | gx_device ** pdev, gx_device * target, |
126 | | const gs_pdf14trans_t * pdf14pct); |
127 | | static int gs_pdf14_clist_device_push(gs_memory_t * mem, gs_gstate * pgs, |
128 | | gx_device ** pdev, gx_device * target, |
129 | | const gs_pdf14trans_t * pdf14pct); |
130 | | static int pdf14_tile_pattern_fill(gx_device * pdev, |
131 | | const gs_gstate * pgs, gx_path * ppath, |
132 | | const gx_fill_params * params, |
133 | | const gx_device_color * pdevc, const gx_clip_path * pcpath); |
134 | | static pdf14_mask_t * pdf14_mask_element_new(gs_memory_t * memory); |
135 | | #ifdef DEBUG |
136 | | static void pdf14_debug_mask_stack_state(pdf14_ctx *ctx); |
137 | | #endif |
138 | | |
139 | | /* A structure used by the pdf14 device so that |
140 | | we can do the proper dance when the alphabuf |
141 | | device is being used */ |
142 | | typedef struct pdf14_abuf_state_s { |
143 | | bool op_ca_eq_CA; |
144 | | bool path_empty; |
145 | | float stroke_alpha; |
146 | | float fill_alpha; |
147 | | gs_gstate* pgs; |
148 | | gs_blend_mode_t blend_mode; |
149 | | bool group_needed; |
150 | | OP_FS_STATE orig_state; |
151 | | } pdf14_abuf_state_t; |
152 | | |
153 | | /* Buffer stack data structure */ |
154 | | gs_private_st_ptrs7(st_pdf14_buf, pdf14_buf, "pdf14_buf", |
155 | | pdf14_buf_enum_ptrs, pdf14_buf_reloc_ptrs, |
156 | | saved, data, backdrop, transfer_fn, mask_stack, |
157 | | matte, group_color_info); |
158 | | |
159 | | gs_private_st_ptrs3(st_pdf14_ctx, pdf14_ctx, "pdf14_ctx", |
160 | | pdf14_ctx_enum_ptrs, pdf14_ctx_reloc_ptrs, |
161 | | stack, mask_stack, base_color); |
162 | | |
163 | | gs_private_st_ptrs1(st_pdf14_clr, pdf14_group_color_t, "pdf14_clr", |
164 | | pdf14_clr_enum_ptrs, pdf14_clr_reloc_ptrs, previous); |
165 | | |
166 | | gs_private_st_ptrs2(st_pdf14_mask, pdf14_mask_t, "pdf_mask", |
167 | | pdf14_mask_enum_ptrs, pdf14_mask_reloc_ptrs, |
168 | | rc_mask, previous); |
169 | | |
170 | | gs_private_st_ptrs1(st_pdf14_rcmask, pdf14_rcmask_t, "pdf_rcmask", |
171 | | pdf14_rcmask_enum_ptrs, pdf14_rcmask_reloc_ptrs, |
172 | | mask_buf); |
173 | | |
174 | | gs_private_st_ptrs1(st_pdf14_smaskcolor, pdf14_smaskcolor_t, "pdf14_smaskcolor", |
175 | | pdf14_smaskcolor_enum_ptrs, pdf14_smaskcolor_reloc_ptrs, |
176 | | profiles); |
177 | | |
178 | | /* ------ The device descriptors ------ */ |
179 | | |
180 | | /* |
181 | | * Default X and Y resolution. |
182 | | */ |
183 | | #define X_DPI 72 |
184 | | #define Y_DPI 72 |
185 | | |
186 | | static int pdf14_initialize_device(gx_device *dev); |
187 | | |
188 | | static int pdf14_open(gx_device * pdev); |
189 | | static dev_proc_close_device(pdf14_close); |
190 | | static int pdf14_output_page(gx_device * pdev, int num_copies, int flush); |
191 | | static dev_proc_put_params(pdf14_put_params); |
192 | | static dev_proc_get_color_comp_index(pdf14_cmykspot_get_color_comp_index); |
193 | | static dev_proc_get_color_comp_index(pdf14_rgbspot_get_color_comp_index); |
194 | | static dev_proc_get_color_comp_index(pdf14_grayspot_get_color_comp_index); |
195 | | static dev_proc_get_color_mapping_procs(pdf14_cmykspot_get_color_mapping_procs); |
196 | | static dev_proc_get_color_mapping_procs(pdf14_rgbspot_get_color_mapping_procs); |
197 | | static dev_proc_get_color_mapping_procs(pdf14_grayspot_get_color_mapping_procs); |
198 | | dev_proc_encode_color(pdf14_encode_color); |
199 | | dev_proc_encode_color(pdf14_encode_color_tag); |
200 | | dev_proc_decode_color(pdf14_decode_color); |
201 | | dev_proc_encode_color(pdf14_encode_color16); |
202 | | dev_proc_encode_color(pdf14_encode_color16_tag); |
203 | | dev_proc_decode_color(pdf14_decode_color16); |
204 | | static dev_proc_fill_rectangle(pdf14_fill_rectangle); |
205 | | static dev_proc_fill_rectangle_hl_color(pdf14_fill_rectangle_hl_color); |
206 | | static dev_proc_fill_path(pdf14_fill_path); |
207 | | static dev_proc_fill_stroke_path(pdf14_fill_stroke_path); |
208 | | static dev_proc_copy_mono(pdf14_copy_mono); |
209 | | static dev_proc_fill_mask(pdf14_fill_mask); |
210 | | static dev_proc_stroke_path(pdf14_stroke_path); |
211 | | static dev_proc_begin_typed_image(pdf14_begin_typed_image); |
212 | | static dev_proc_text_begin(pdf14_text_begin); |
213 | | static dev_proc_composite(pdf14_composite); |
214 | | static dev_proc_composite(pdf14_forward_composite); |
215 | | static dev_proc_begin_transparency_group(pdf14_begin_transparency_group); |
216 | | static dev_proc_end_transparency_group(pdf14_end_transparency_group); |
217 | | static dev_proc_begin_transparency_mask(pdf14_begin_transparency_mask); |
218 | | static dev_proc_end_transparency_mask(pdf14_end_transparency_mask); |
219 | | static dev_proc_dev_spec_op(pdf14_dev_spec_op); |
220 | | static dev_proc_push_transparency_state(pdf14_push_transparency_state); |
221 | | static dev_proc_pop_transparency_state(pdf14_pop_transparency_state); |
222 | | static dev_proc_ret_devn_params(pdf14_ret_devn_params); |
223 | | static dev_proc_update_spot_equivalent_colors(pdf14_update_spot_equivalent_colors); |
224 | | static dev_proc_copy_alpha(pdf14_copy_alpha); |
225 | | static dev_proc_copy_planes(pdf14_copy_planes); |
226 | | static dev_proc_copy_alpha_hl_color(pdf14_copy_alpha_hl_color); |
227 | | static dev_proc_discard_transparency_layer(pdf14_discard_trans_layer); |
228 | | static dev_proc_strip_tile_rect_devn(pdf14_strip_tile_rect_devn); |
229 | | static const gx_color_map_procs * |
230 | | pdf14_get_cmap_procs(const gs_gstate *, const gx_device *); |
231 | | |
232 | | #define XSIZE (int)(8.5 * X_DPI) /* 8.5 x 11 inch page, by default */ |
233 | | #define YSIZE (int)(11 * Y_DPI) |
234 | | |
235 | | /* 24-bit color. */ |
236 | | |
237 | | static void |
238 | | pdf14_procs_initialize(gx_device *dev, |
239 | | dev_proc_get_color_mapping_procs(get_color_mapping_procs), |
240 | | dev_proc_get_color_comp_index(get_color_comp_index), |
241 | | dev_proc_encode_color(encode_color), |
242 | | dev_proc_decode_color(decode_color)) |
243 | 1.21M | { |
244 | 1.21M | set_dev_proc(dev, initialize_device, pdf14_initialize_device); |
245 | 1.21M | set_dev_proc(dev, open_device, pdf14_open); |
246 | 1.21M | set_dev_proc(dev, output_page, pdf14_output_page); |
247 | 1.21M | set_dev_proc(dev, close_device, pdf14_close); |
248 | 1.21M | set_dev_proc(dev, map_rgb_color, encode_color); |
249 | 1.21M | set_dev_proc(dev, map_color_rgb, decode_color); |
250 | 1.21M | set_dev_proc(dev, fill_rectangle, pdf14_fill_rectangle); |
251 | 1.21M | set_dev_proc(dev, copy_mono, pdf14_copy_mono); |
252 | 1.21M | set_dev_proc(dev, get_params, gx_forward_get_params); |
253 | 1.21M | set_dev_proc(dev, put_params, pdf14_put_params); |
254 | 1.21M | set_dev_proc(dev, copy_alpha, pdf14_copy_alpha); |
255 | 1.21M | set_dev_proc(dev, fill_path, pdf14_fill_path); |
256 | 1.21M | set_dev_proc(dev, stroke_path, pdf14_stroke_path); |
257 | 1.21M | set_dev_proc(dev, fill_mask, pdf14_fill_mask); |
258 | 1.21M | set_dev_proc(dev, begin_typed_image, pdf14_begin_typed_image); |
259 | 1.21M | set_dev_proc(dev, composite, pdf14_composite); |
260 | 1.21M | set_dev_proc(dev, text_begin, pdf14_text_begin); |
261 | 1.21M | set_dev_proc(dev, begin_transparency_group, pdf14_begin_transparency_group); |
262 | 1.21M | set_dev_proc(dev, end_transparency_group, pdf14_end_transparency_group); |
263 | 1.21M | set_dev_proc(dev, begin_transparency_mask, pdf14_begin_transparency_mask); |
264 | 1.21M | set_dev_proc(dev, end_transparency_mask, pdf14_end_transparency_mask); |
265 | 1.21M | set_dev_proc(dev, discard_transparency_layer, pdf14_discard_trans_layer); |
266 | 1.21M | set_dev_proc(dev, get_color_mapping_procs, get_color_mapping_procs); |
267 | 1.21M | set_dev_proc(dev, get_color_comp_index, get_color_comp_index); |
268 | 1.21M | set_dev_proc(dev, encode_color, encode_color); |
269 | 1.21M | set_dev_proc(dev, decode_color, decode_color); |
270 | 1.21M | set_dev_proc(dev, fill_rectangle_hl_color, pdf14_fill_rectangle_hl_color); |
271 | 1.21M | set_dev_proc(dev, update_spot_equivalent_colors, gx_forward_update_spot_equivalent_colors); |
272 | 1.21M | set_dev_proc(dev, ret_devn_params, pdf14_ret_devn_params); |
273 | 1.21M | set_dev_proc(dev, push_transparency_state, pdf14_push_transparency_state); |
274 | 1.21M | set_dev_proc(dev, pop_transparency_state, pdf14_pop_transparency_state); |
275 | 1.21M | set_dev_proc(dev, dev_spec_op, pdf14_dev_spec_op); |
276 | 1.21M | set_dev_proc(dev, copy_planes, pdf14_copy_planes); |
277 | 1.21M | set_dev_proc(dev, set_graphics_type_tag, gx_forward_set_graphics_type_tag); |
278 | 1.21M | set_dev_proc(dev, strip_tile_rect_devn, pdf14_strip_tile_rect_devn); |
279 | 1.21M | set_dev_proc(dev, copy_alpha_hl_color, pdf14_copy_alpha_hl_color); |
280 | 1.21M | set_dev_proc(dev, fill_stroke_path, pdf14_fill_stroke_path); |
281 | 1.21M | } |
282 | | |
283 | | static void |
284 | | pdf14_Gray_initialize_device_procs(gx_device *dev) |
285 | 171k | { |
286 | 171k | pdf14_procs_initialize(dev, |
287 | 171k | gx_default_DevGray_get_color_mapping_procs, |
288 | 171k | gx_default_DevGray_get_color_comp_index, |
289 | 171k | pdf14_encode_color, |
290 | 171k | pdf14_decode_color); |
291 | 171k | } |
292 | | |
293 | | static void |
294 | | pdf14_RGB_initialize_device_procs(gx_device *dev) |
295 | 825k | { |
296 | 825k | pdf14_procs_initialize(dev, |
297 | 825k | gx_default_DevRGB_get_color_mapping_procs, |
298 | 825k | gx_default_DevRGB_get_color_comp_index, |
299 | 825k | pdf14_encode_color, |
300 | 825k | pdf14_decode_color); |
301 | 825k | } |
302 | | |
303 | | static void |
304 | | pdf14_CMYK_initialize_device_procs(gx_device *dev) |
305 | 187k | { |
306 | 187k | pdf14_procs_initialize(dev, |
307 | 187k | gx_default_DevCMYK_get_color_mapping_procs, |
308 | 187k | gx_default_DevCMYK_get_color_comp_index, |
309 | 187k | pdf14_encode_color, |
310 | 187k | pdf14_decode_color); |
311 | 187k | } |
312 | | |
313 | | static void |
314 | | pdf14_CMYKspot_initialize_device_procs(gx_device *dev) |
315 | 26.1k | { |
316 | 26.1k | pdf14_procs_initialize(dev, |
317 | 26.1k | pdf14_cmykspot_get_color_mapping_procs, |
318 | 26.1k | pdf14_cmykspot_get_color_comp_index, |
319 | 26.1k | pdf14_encode_color, |
320 | 26.1k | pdf14_decode_color); |
321 | 26.1k | } |
322 | | |
323 | | static void |
324 | | pdf14_RGBspot_initialize_device_procs(gx_device *dev) |
325 | 4.66k | { |
326 | 4.66k | pdf14_procs_initialize(dev, |
327 | 4.66k | pdf14_rgbspot_get_color_mapping_procs, |
328 | 4.66k | pdf14_rgbspot_get_color_comp_index, |
329 | 4.66k | pdf14_encode_color, |
330 | 4.66k | pdf14_decode_color); |
331 | 4.66k | } |
332 | | |
333 | | static void |
334 | | pdf14_Grayspot_initialize_device_procs(gx_device *dev) |
335 | 0 | { |
336 | 0 | pdf14_procs_initialize(dev, |
337 | 0 | pdf14_grayspot_get_color_mapping_procs, |
338 | 0 | pdf14_grayspot_get_color_comp_index, |
339 | 0 | pdf14_encode_color, |
340 | 0 | pdf14_decode_color); |
341 | 0 | } |
342 | | |
343 | | static void |
344 | | pdf14_custom_initialize_device_procs(gx_device *dev) |
345 | 0 | { |
346 | 0 | pdf14_procs_initialize(dev, |
347 | 0 | gx_forward_get_color_mapping_procs, |
348 | 0 | gx_forward_get_color_comp_index, |
349 | 0 | gx_forward_encode_color, |
350 | 0 | gx_forward_decode_color); |
351 | 0 | } |
352 | | |
353 | | static struct_proc_finalize(pdf14_device_finalize); |
354 | | |
355 | | gs_private_st_composite_use_final(st_pdf14_device, pdf14_device, "pdf14_device", |
356 | | pdf14_device_enum_ptrs, pdf14_device_reloc_ptrs, |
357 | | pdf14_device_finalize); |
358 | | |
359 | | static int pdf14_put_image(gx_device * dev, gs_gstate * pgs, |
360 | | gx_device * target); |
361 | | static int pdf14_cmykspot_put_image(gx_device * dev, gs_gstate * pgs, |
362 | | gx_device * target); |
363 | | static int pdf14_custom_put_image(gx_device * dev, gs_gstate * pgs, |
364 | | gx_device * target); |
365 | | |
366 | | /* Alter pdf14 device color model based upon group or softmask. This occurs |
367 | | post clist or in immediate rendering case. Data stored with buffer */ |
368 | | static pdf14_group_color_t* pdf14_push_color_model(gx_device *dev, |
369 | | gs_transparency_color_t group_color, int64_t icc_hashcode, |
370 | | cmm_profile_t *iccprofile, bool is_mask); |
371 | | static void pdf14_pop_color_model(gx_device* dev, pdf14_group_color_t* group_color); |
372 | | |
373 | | /* Alter clist writer device color model based upon group or softmask. Data |
374 | | stored in the device color model stack */ |
375 | | static int pdf14_clist_push_color_model(gx_device* dev, gx_device* cdev, gs_gstate* pgs, |
376 | | const gs_pdf14trans_t* pdf14pct, gs_memory_t* mem, bool is_mask); |
377 | | static int pdf14_clist_pop_color_model(gx_device* dev, gs_gstate* pgs); |
378 | | |
379 | | /* Used for cleaning up the stack if things go wrong */ |
380 | | static void pdf14_pop_group_color(gx_device *dev, const gs_gstate *pgs); |
381 | | |
382 | | static const pdf14_procs_t gray_pdf14_procs = { |
383 | | pdf14_unpack_additive, |
384 | | pdf14_put_image, |
385 | | pdf14_unpack16_additive |
386 | | }; |
387 | | |
388 | | static const pdf14_procs_t rgb_pdf14_procs = { |
389 | | pdf14_unpack_additive, |
390 | | pdf14_put_image, |
391 | | pdf14_unpack16_additive |
392 | | }; |
393 | | |
394 | | static const pdf14_procs_t cmyk_pdf14_procs = { |
395 | | pdf14_unpack_subtractive, |
396 | | pdf14_put_image, |
397 | | pdf14_unpack16_subtractive |
398 | | }; |
399 | | |
400 | | static const pdf14_procs_t cmykspot_pdf14_procs = { |
401 | | pdf14_unpack_custom, /* should never be used since we will use devn values */ |
402 | | pdf14_cmykspot_put_image, |
403 | | pdf14_unpack16_custom /* should never be used since we will use devn values */ |
404 | | }; |
405 | | |
406 | | static const pdf14_procs_t rgbspot_pdf14_procs = { |
407 | | pdf14_unpack_rgb_mix, |
408 | | pdf14_cmykspot_put_image, |
409 | | pdf14_unpack16_rgb_mix |
410 | | }; |
411 | | |
412 | | static const pdf14_procs_t grayspot_pdf14_procs = { |
413 | | pdf14_unpack_gray_mix, |
414 | | pdf14_cmykspot_put_image, |
415 | | pdf14_unpack16_gray_mix |
416 | | }; |
417 | | |
418 | | static const pdf14_procs_t custom_pdf14_procs = { |
419 | | pdf14_unpack_custom, |
420 | | pdf14_custom_put_image, |
421 | | pdf14_unpack16_custom |
422 | | }; |
423 | | |
424 | | static const pdf14_nonseparable_blending_procs_t gray_blending_procs = { |
425 | | art_blend_luminosity_custom_8, |
426 | | art_blend_saturation_custom_8, |
427 | | art_blend_luminosity_custom_16, |
428 | | art_blend_saturation_custom_16 |
429 | | }; |
430 | | |
431 | | static const pdf14_nonseparable_blending_procs_t rgb_blending_procs = { |
432 | | art_blend_luminosity_rgb_8, |
433 | | art_blend_saturation_rgb_8, |
434 | | art_blend_luminosity_rgb_16, |
435 | | art_blend_saturation_rgb_16 |
436 | | }; |
437 | | |
438 | | static const pdf14_nonseparable_blending_procs_t cmyk_blending_procs = { |
439 | | art_blend_luminosity_cmyk_8, |
440 | | art_blend_saturation_cmyk_8, |
441 | | art_blend_luminosity_cmyk_16, |
442 | | art_blend_saturation_cmyk_16 |
443 | | }; |
444 | | |
445 | | static const pdf14_nonseparable_blending_procs_t rgbspot_blending_procs = { |
446 | | art_blend_luminosity_rgb_8, |
447 | | art_blend_saturation_rgb_8, |
448 | | art_blend_luminosity_rgb_16, |
449 | | art_blend_saturation_rgb_16 |
450 | | }; |
451 | | |
452 | | static const pdf14_nonseparable_blending_procs_t grayspot_blending_procs = { |
453 | | art_blend_luminosity_custom_8, |
454 | | art_blend_saturation_custom_8, |
455 | | art_blend_luminosity_custom_16, |
456 | | art_blend_saturation_custom_16 |
457 | | }; |
458 | | |
459 | | static const pdf14_nonseparable_blending_procs_t custom_blending_procs = { |
460 | | art_blend_luminosity_custom_8, |
461 | | art_blend_saturation_custom_8, |
462 | | art_blend_luminosity_custom_16, |
463 | | art_blend_saturation_custom_16 |
464 | | }; |
465 | | |
466 | | const pdf14_device gs_pdf14_Gray_device = { |
467 | | std_device_std_color_full_body_type(pdf14_device, |
468 | | pdf14_Gray_initialize_device_procs, |
469 | | "pdf14gray", |
470 | | &st_pdf14_device, |
471 | | XSIZE, YSIZE, X_DPI, Y_DPI, 8, |
472 | | 0, 0, 0, 0, 0, 0), |
473 | | { 0 }, /* Procs */ |
474 | | NULL, /* target */ |
475 | | { 0 }, /* devn_params - not used */ |
476 | | &gray_pdf14_procs, |
477 | | &gray_blending_procs, |
478 | | 1 |
479 | | }; |
480 | | |
481 | | const pdf14_device gs_pdf14_RGB_device = { |
482 | | std_device_color_stype_body(pdf14_device, |
483 | | pdf14_RGB_initialize_device_procs, |
484 | | "pdf14RGB", |
485 | | &st_pdf14_device, |
486 | | XSIZE, YSIZE, X_DPI, Y_DPI, 24, 255, 256), |
487 | | { 0 }, /* Procs */ |
488 | | NULL, /* target */ |
489 | | { 0 }, /* devn_params - not used */ |
490 | | &rgb_pdf14_procs, |
491 | | &rgb_blending_procs, |
492 | | 3 |
493 | | }; |
494 | | |
495 | | const pdf14_device gs_pdf14_CMYK_device = { |
496 | | std_device_std_color_full_body_type(pdf14_device, |
497 | | pdf14_CMYK_initialize_device_procs, |
498 | | "pdf14cmyk", |
499 | | &st_pdf14_device, |
500 | | XSIZE, YSIZE, X_DPI, Y_DPI, 32, |
501 | | 0, 0, 0, 0, 0, 0), |
502 | | { 0 }, /* Procs */ |
503 | | NULL, /* target */ |
504 | | { 0 }, /* devn_params - not used */ |
505 | | &cmyk_pdf14_procs, |
506 | | &cmyk_blending_procs, |
507 | | 4 |
508 | | }; |
509 | | |
510 | | const pdf14_device gs_pdf14_CMYKspot_device = { |
511 | | std_device_part1_(pdf14_device, |
512 | | pdf14_CMYKspot_initialize_device_procs, |
513 | | "pdf14cmykspot", |
514 | | &st_pdf14_device, |
515 | | open_init_closed), |
516 | | dci_values(GX_DEVICE_COLOR_MAX_COMPONENTS,64,255,255,256,256), |
517 | | std_device_part2_(XSIZE, YSIZE, X_DPI, Y_DPI), |
518 | | offset_margin_values(0, 0, 0, 0, 0, 0), |
519 | | std_device_part3_(), |
520 | | { 0 }, /* Procs */ |
521 | | NULL, /* target */ |
522 | | /* DeviceN parameters */ |
523 | | { 8, /* Not used - Bits per color */ |
524 | | DeviceCMYKComponents, /* Names of color model colorants */ |
525 | | 4, /* Number colorants for CMYK */ |
526 | | 0, /* MaxSeparations has not been specified */ |
527 | | -1, /* PageSpotColors has not been specified */ |
528 | | {0}, /* SeparationNames */ |
529 | | 0, /* SeparationOrder names */ |
530 | | {0, 1, 2, 3, 4, 5, 6, 7 } /* Initial component SeparationOrder */ |
531 | | }, |
532 | | &cmykspot_pdf14_procs, |
533 | | &cmyk_blending_procs, |
534 | | 4 |
535 | | }; |
536 | | |
537 | | const pdf14_device gs_pdf14_RGBspot_device = { |
538 | | std_device_part1_(pdf14_device, |
539 | | pdf14_RGBspot_initialize_device_procs, |
540 | | "pdf14rgbspot", |
541 | | &st_pdf14_device, |
542 | | open_init_closed), |
543 | | dci_values(GX_DEVICE_COLOR_MAX_COMPONENTS,64,255,255,256,256), |
544 | | std_device_part2_(XSIZE, YSIZE, X_DPI, Y_DPI), |
545 | | offset_margin_values(0, 0, 0, 0, 0, 0), |
546 | | std_device_part3_(), |
547 | | { 0 }, /* Procs */ |
548 | | NULL, /* target */ |
549 | | /* DeviceN parameters */ |
550 | | { 8, /* Not used - Bits per color */ |
551 | | 0, /* Names of color model colorants */ |
552 | | 3, /* Number colorants for RGB */ |
553 | | 0, /* MaxSeparations has not been specified */ |
554 | | -1, /* PageSpotColors has not been specified */ |
555 | | { 0 }, /* SeparationNames */ |
556 | | 0, /* SeparationOrder names */ |
557 | | { 0, 1, 2, 3, 4, 5, 6, 7 } /* Initial component SeparationOrder */ |
558 | | }, |
559 | | &rgbspot_pdf14_procs, |
560 | | &rgbspot_blending_procs, |
561 | | 3 |
562 | | }; |
563 | | |
564 | | const pdf14_device gs_pdf14_Grayspot_device = { |
565 | | std_device_part1_(pdf14_device, |
566 | | pdf14_Grayspot_initialize_device_procs, |
567 | | "pdf14grayspot", |
568 | | &st_pdf14_device, |
569 | | open_init_closed), |
570 | | dci_values(GX_DEVICE_COLOR_MAX_COMPONENTS,64,255,255,256,256), |
571 | | std_device_part2_(XSIZE, YSIZE, X_DPI, Y_DPI), |
572 | | offset_margin_values(0, 0, 0, 0, 0, 0), |
573 | | std_device_part3_(), |
574 | | { 0 }, /* Procs */ |
575 | | NULL, /* target */ |
576 | | /* DeviceN parameters */ |
577 | | { 8, /* Not used - Bits per color */ |
578 | | 0, /* Names of color model colorants */ |
579 | | 3, /* Number colorants for RGB */ |
580 | | 0, /* MaxSeparations has not been specified */ |
581 | | -1, /* PageSpotColors has not been specified */ |
582 | | { 0 }, /* SeparationNames */ |
583 | | 0, /* SeparationOrder names */ |
584 | | { 0, 1, 2, 3, 4, 5, 6, 7 } /* Initial component SeparationOrder */ |
585 | | }, |
586 | | &grayspot_pdf14_procs, |
587 | | &grayspot_blending_procs, |
588 | | 1 |
589 | | }; |
590 | | |
591 | | /* |
592 | | * The 'custom' PDF 1.4 compositor device is for working with those devices |
593 | | * which support spot colors but do not have a CMYK process color model. |
594 | | * |
595 | | * This causes some problems with the Hue, Saturation, Color, and Luminosity |
596 | | * blending modes. These blending modes are 'non separable' and depend upon |
597 | | * knowing the details of the blending color space. However we use the |
598 | | * process color model of the output device for our blending color space. |
599 | | * With an unknown process color model, we have to fall back to some 'guesses' |
600 | | * about how to treat these blending modes. |
601 | | */ |
602 | | const pdf14_device gs_pdf14_custom_device = { |
603 | | std_device_part1_(pdf14_device, |
604 | | pdf14_custom_initialize_device_procs, |
605 | | "pdf14custom", |
606 | | &st_pdf14_device, |
607 | | open_init_closed), |
608 | | dci_values(GX_DEVICE_COLOR_MAX_COMPONENTS,64,255,255,256,256), |
609 | | std_device_part2_(XSIZE, YSIZE, X_DPI, Y_DPI), |
610 | | offset_margin_values(0, 0, 0, 0, 0, 0), |
611 | | std_device_part3_(), |
612 | | { 0 }, /* Procs */ |
613 | | NULL, /* target */ |
614 | | /* DeviceN parameters */ |
615 | | { 8, /* Not used - Bits per color */ |
616 | | DeviceCMYKComponents, /* Names of color model colorants */ |
617 | | 4, /* Number colorants for CMYK */ |
618 | | 0, /* MaxSeparations has not been specified */ |
619 | | -1, /* PageSpotColors has not been specified */ |
620 | | {0}, /* SeparationNames */ |
621 | | 0, /* SeparationOrder names */ |
622 | | {0, 1, 2, 3, 4, 5, 6, 7 } /* Initial component SeparationOrder */ |
623 | | }, |
624 | | &custom_pdf14_procs, |
625 | | &custom_blending_procs, |
626 | | 4 |
627 | | }; |
628 | | |
629 | | /* Devices used for pdf14-accum-* device, one for each image colorspace, */ |
630 | | /* Gray, RGB, CMYK, DeviceN. Before calling gdev_prn_open, the following */ |
631 | | /* are set from the target device: width, height, xdpi, ydpi, MaxBitmap. */ |
632 | | |
633 | | static dev_proc_print_page(no_print_page); |
634 | | static dev_proc_ret_devn_params(pdf14_accum_ret_devn_params); |
635 | | static dev_proc_get_color_comp_index(pdf14_accum_get_color_comp_index); |
636 | | static dev_proc_get_color_mapping_procs(pdf14_accum_get_color_mapping_procs); |
637 | | static dev_proc_update_spot_equivalent_colors(pdf14_accum_update_spot_equivalent_colors); |
638 | | |
639 | | static int |
640 | | no_print_page(gx_device_printer *pdev, gp_file *prn_stream) |
641 | 0 | { |
642 | 0 | return_error(gs_error_unknownerror); |
643 | 0 | } |
644 | | |
645 | | struct gx_device_pdf14_accum_s { |
646 | | gx_devn_prn_device_common; |
647 | | gx_device *save_p14dev; /* the non-clist pdf14 deivce saved for after accum */ |
648 | | }; |
649 | | typedef struct gx_device_pdf14_accum_s gx_device_pdf14_accum; |
650 | | |
651 | | int |
652 | | pdf14_accum_dev_spec_op(gx_device *pdev, int dev_spec_op, void *data, int size) |
653 | 3.06M | { |
654 | 3.06M | gx_device_pdf14_accum *adev = (gx_device_pdf14_accum *)pdev; |
655 | | |
656 | 3.06M | if (dev_spec_op == gxdso_device_child) { |
657 | 799 | gxdso_device_child_request *req = (gxdso_device_child_request *)data; |
658 | 799 | if (size < sizeof(*req)) |
659 | 0 | return gs_error_unknownerror; |
660 | 799 | req->target = adev->save_p14dev; |
661 | 799 | req->n = 0; |
662 | 799 | return 0; |
663 | 799 | } |
664 | | |
665 | 3.06M | return gdev_prn_dev_spec_op(pdev, dev_spec_op, data, size); |
666 | 3.06M | } |
667 | | |
668 | | gs_private_st_suffix_add1_final(st_gx_devn_accum_device, gx_device_pdf14_accum, |
669 | | "gx_device_pdf14_accum", pdf14_accum_device_enum_ptrs, pdf14_accum_device_reloc_ptrs, |
670 | | gx_devn_prn_device_finalize, st_gx_devn_prn_device, save_p14dev); |
671 | | |
672 | | static void |
673 | | pdf14_accum_Gray_initialize_device_procs(gx_device *dev) |
674 | 67 | { |
675 | 67 | gdev_prn_initialize_device_procs_gray8(dev); |
676 | | |
677 | 67 | set_dev_proc(dev, encode_color, gx_default_8bit_map_gray_color); |
678 | 67 | set_dev_proc(dev, decode_color, gx_default_8bit_map_color_gray); |
679 | 67 | } |
680 | | |
681 | | const gx_device_pdf14_accum pdf14_accum_Gray = { |
682 | | prn_device_stype_body(gx_device_pdf14_accum, |
683 | | pdf14_accum_Gray_initialize_device_procs, |
684 | | "pdf14-accum-Gray", |
685 | | &st_gx_devn_accum_device, |
686 | | 0/*width*/, 0/*height*/, 300/*xdpi*/, 300/*ydpi*/, |
687 | | 0/*lm*/, 0/*bm*/, 0/*rm*/, 0/*tm*/, |
688 | | 1/*ncomp*/, 8/*depth*/, 255/*max_gray*/, 0/*max_color*/, |
689 | | 256/*dither_grays*/, 0/*dither_colors*/, |
690 | | no_print_page), |
691 | | { 0 }, /* devn_params - not used */ |
692 | | { 0 }, /* equivalent_cmyk_color_params - not used */ |
693 | | 0/*save_p14dev*/ |
694 | | }; |
695 | | |
696 | | static void |
697 | | pdf14_accum_RGB_initialize_device_procs(gx_device *dev) |
698 | 851 | { |
699 | 851 | gdev_prn_initialize_device_procs_rgb(dev); |
700 | 851 | } |
701 | | |
702 | | const gx_device_pdf14_accum pdf14_accum_RGB = { |
703 | | prn_device_stype_body(gx_device_pdf14_accum, |
704 | | pdf14_accum_RGB_initialize_device_procs, |
705 | | "pdf14-accum-RGB", |
706 | | &st_gx_devn_accum_device, |
707 | | 0/*width*/, 0/*height*/, 300/*xdpi*/, 300/*ydpi*/, |
708 | | 0/*lm*/, 0/*bm*/, 0/*rm*/, 0/*tm*/, |
709 | | 3/*ncomp*/, 24/*depth*/, 0/*max_gray*/, 255/*max_color*/, |
710 | | 1/*dither_grays*/, 256/*dither_colors*/, |
711 | | no_print_page), |
712 | | { 0 }, /* devn_params - not used */ |
713 | | { 0 }, /* equivalent_cmyk_color_params - not used */ |
714 | | 0/*save_p14dev*/ |
715 | | }; |
716 | | |
717 | | static void |
718 | | pdf14_accum_CMYK_initialize_device_procs(gx_device *dev) |
719 | 0 | { |
720 | 0 | gdev_prn_initialize_device_procs_cmyk8(dev); |
721 | |
|
722 | 0 | set_dev_proc(dev, encode_color, cmyk_8bit_map_cmyk_color); |
723 | 0 | set_dev_proc(dev, decode_color, cmyk_8bit_map_color_cmyk); |
724 | 0 | } |
725 | | |
726 | | const gx_device_pdf14_accum pdf14_accum_CMYK = { |
727 | | prn_device_stype_body(gx_device_pdf14_accum, |
728 | | pdf14_accum_CMYK_initialize_device_procs, |
729 | | "pdf14-accum-CMYK", |
730 | | &st_gx_devn_accum_device, |
731 | | 0/*width*/, 0/*height*/, 300/*xdpi*/, 300/*ydpi*/, |
732 | | 0/*lm*/, 0/*bm*/, 0/*rm*/, 0/*tm*/, |
733 | | 4/*ncomp*/, 32/*depth*/, 255/*max_gray*/, 255/*max_color*/, |
734 | | 256/*dither_grays*/, 256/*dither_colors*/, |
735 | | no_print_page), |
736 | | { 0 }, /* devn_params - not used */ |
737 | | { 0 }, /* equivalent_cmyk_color_params - not used */ |
738 | | 0/*save_p14dev*/ |
739 | | }; |
740 | | |
741 | | static void |
742 | | pdf14_accum_initialize_device_procs_cmykspot(gx_device *dev) |
743 | 0 | { |
744 | 0 | pdf14_accum_CMYK_initialize_device_procs(dev); |
745 | |
|
746 | 0 | set_dev_proc(dev, get_color_mapping_procs, pdf14_accum_get_color_mapping_procs); |
747 | 0 | set_dev_proc(dev, get_color_comp_index, pdf14_accum_get_color_comp_index); |
748 | 0 | set_dev_proc(dev, update_spot_equivalent_colors, pdf14_accum_update_spot_equivalent_colors); |
749 | 0 | set_dev_proc(dev, ret_devn_params, pdf14_accum_ret_devn_params); |
750 | 0 | } |
751 | | |
752 | | const gx_device_pdf14_accum pdf14_accum_CMYKspot = { |
753 | | prn_device_stype_body(gx_device_pdf14_accum, |
754 | | pdf14_accum_initialize_device_procs_cmykspot, |
755 | | "pdf14-accum-CMYKspot", |
756 | | &st_gx_devn_accum_device, |
757 | | 0/*width*/, 0/*height*/, 300/*xdpi*/, 300/*ydpi*/, |
758 | | 0/*lm*/, 0/*bm*/, 0/*rm*/, 0/*tm*/, |
759 | | 4/*ncomp*/, 32/*depth*/, 255/*max_gray*/, 255/*max_color*/, |
760 | | 256/*dither_grays*/, 256/*dither_colors*/, |
761 | | no_print_page), |
762 | | /* DeviceN parameters */ |
763 | | { 8, /* Not used - Bits per color */ |
764 | | DeviceCMYKComponents, /* Names of color model colorants */ |
765 | | 4, /* Number colorants for CMYK */ |
766 | | 0, /* MaxSeparations has not been specified */ |
767 | | -1, /* PageSpotColors has not been specified */ |
768 | | { 0 }, /* SeparationNames */ |
769 | | 0, /* SeparationOrder names */ |
770 | | {0, 1, 2, 3, 4, 5, 6, 7 } /* Initial component SeparationOrder */ |
771 | | }, |
772 | | { true }, /* equivalent_cmyk_color_params */ |
773 | | 0/*save_p14dev*/ |
774 | | }; |
775 | | |
776 | | /* GC procedures */ |
777 | | static |
778 | 0 | ENUM_PTRS_WITH(pdf14_device_enum_ptrs, pdf14_device *pdev) |
779 | 0 | { |
780 | 0 | index -= 5; |
781 | 0 | if (index < pdev->devn_params.separations.num_separations) |
782 | 0 | ENUM_RETURN(pdev->devn_params.separations.names[index].data); |
783 | 0 | index -= pdev->devn_params.separations.num_separations; |
784 | 0 | if (index < pdev->devn_params.pdf14_separations.num_separations) |
785 | 0 | ENUM_RETURN(pdev->devn_params.pdf14_separations.names[index].data); |
786 | 0 | return 0; |
787 | 0 | } |
788 | 0 | case 0: return ENUM_OBJ(pdev->ctx); |
789 | 0 | case 1: return ENUM_OBJ(pdev->color_model_stack); |
790 | 0 | case 2: return ENUM_OBJ(pdev->smaskcolor); |
791 | 0 | case 3: ENUM_RETURN(gx_device_enum_ptr(pdev->target)); |
792 | 0 | case 4: ENUM_RETURN(gx_device_enum_ptr(pdev->pclist_device)); |
793 | 0 | ENUM_PTRS_END |
794 | | |
795 | 0 | static RELOC_PTRS_WITH(pdf14_device_reloc_ptrs, pdf14_device *pdev) |
796 | 0 | { |
797 | 0 | { |
798 | 0 | int i; |
799 | |
|
800 | 0 | for (i = 0; i < pdev->devn_params.separations.num_separations; ++i) { |
801 | 0 | RELOC_PTR(pdf14_device, devn_params.separations.names[i].data); |
802 | 0 | } |
803 | 0 | } |
804 | 0 | RELOC_VAR(pdev->ctx); |
805 | 0 | RELOC_VAR(pdev->smaskcolor); |
806 | 0 | RELOC_VAR(pdev->color_model_stack); |
807 | 0 | pdev->target = gx_device_reloc_ptr(pdev->target, gcst); |
808 | 0 | pdev->pclist_device = gx_device_reloc_ptr(pdev->pclist_device, gcst); |
809 | 0 | } |
810 | 0 | RELOC_PTRS_END |
811 | | |
812 | | /* ------ Private definitions ------ */ |
813 | | |
814 | | static void |
815 | | resolve_matte(pdf14_buf *maskbuf, byte *src_data, int src_planestride, int src_rowstride, |
816 | | int width, int height, cmm_profile_t *src_profile, int deep) |
817 | 0 | { |
818 | 0 | if (deep) { |
819 | 0 | int x, y, i; |
820 | 0 | uint16_t *mask_row_ptr = (uint16_t *)maskbuf->data; |
821 | 0 | uint16_t *src_row_ptr = (uint16_t *)src_data; |
822 | 0 | uint16_t *mask_tr_fn = (uint16_t *)maskbuf->transfer_fn; |
823 | |
|
824 | 0 | src_planestride >>= 1; |
825 | 0 | src_rowstride >>= 1; |
826 | |
|
827 | 0 | for (y = 0; y < height; y++) { |
828 | 0 | uint16_t *mask_curr_ptr = mask_row_ptr; |
829 | 0 | uint16_t *src_curr_ptr = src_row_ptr; |
830 | 0 | for (x = 0; x < width; x++) { |
831 | 0 | uint16_t idx = *mask_curr_ptr; |
832 | 0 | byte top = idx>>8; |
833 | 0 | uint16_t a = mask_tr_fn[top]; |
834 | 0 | int b = mask_tr_fn[top+1]-a; |
835 | 0 | uint16_t matte_alpha = a + ((0x80 + b*(idx & 0xff))>>8); |
836 | | |
837 | | /* matte's happen rarely enough that we allow ourselves to |
838 | | * resort to 64bit here. */ |
839 | 0 | if (matte_alpha != 0 && matte_alpha != 0xffff) { |
840 | 0 | for (i = 0; i < src_profile->num_comps; i++) { |
841 | 0 | int val = src_curr_ptr[i * src_planestride] - maskbuf->matte[i]; |
842 | 0 | int temp = (((int64_t)val) * 0xffff / matte_alpha) + maskbuf->matte[i]; |
843 | | |
844 | | /* clip */ |
845 | 0 | if (temp > 0xffff) |
846 | 0 | src_curr_ptr[i * src_planestride] = 0xffff; |
847 | 0 | else if (temp < 0) |
848 | 0 | src_curr_ptr[i * src_planestride] = 0; |
849 | 0 | else |
850 | 0 | src_curr_ptr[i * src_planestride] = temp; |
851 | 0 | } |
852 | 0 | } |
853 | 0 | mask_curr_ptr++; |
854 | 0 | src_curr_ptr++; |
855 | 0 | } |
856 | 0 | src_row_ptr += src_rowstride; |
857 | 0 | mask_row_ptr += (maskbuf->rowstride>>1); |
858 | 0 | } |
859 | 0 | } else { |
860 | 0 | int x, y, i; |
861 | 0 | byte *mask_row_ptr = maskbuf->data; |
862 | 0 | byte *src_row_ptr = src_data; |
863 | 0 | byte *mask_tr_fn = maskbuf->transfer_fn; |
864 | |
|
865 | 0 | for (y = 0; y < height; y++) { |
866 | 0 | byte *mask_curr_ptr = mask_row_ptr; |
867 | 0 | byte *src_curr_ptr = src_row_ptr; |
868 | 0 | for (x = 0; x < width; x++) { |
869 | 0 | byte matte_alpha = mask_tr_fn[*mask_curr_ptr]; |
870 | 0 | if (matte_alpha != 0 && matte_alpha != 0xff) { |
871 | 0 | for (i = 0; i < src_profile->num_comps; i++) { |
872 | 0 | byte matte = maskbuf->matte[i]>>8; |
873 | 0 | int val = src_curr_ptr[i * src_planestride] - matte; |
874 | 0 | int temp = ((((val * 0xff) << 8) / matte_alpha) >> 8) + matte; |
875 | | |
876 | | /* clip */ |
877 | 0 | if (temp > 0xff) |
878 | 0 | src_curr_ptr[i * src_planestride] = 0xff; |
879 | 0 | else if (temp < 0) |
880 | 0 | src_curr_ptr[i * src_planestride] = 0; |
881 | 0 | else |
882 | 0 | src_curr_ptr[i * src_planestride] = temp; |
883 | 0 | } |
884 | 0 | } |
885 | 0 | mask_curr_ptr++; |
886 | 0 | src_curr_ptr++; |
887 | 0 | } |
888 | 0 | src_row_ptr += src_rowstride; |
889 | 0 | mask_row_ptr += maskbuf->rowstride; |
890 | 0 | } |
891 | 0 | } |
892 | 0 | } |
893 | | |
894 | | /* Transform of color data and copy noncolor data. Used in |
895 | | group pop and during the pdf14 put image calls when the blend color space |
896 | | is different than the target device color space. The function will try do |
897 | | in-place conversion if possible. If not, it will do an allocation. The |
898 | | put_image call needs to know if an allocation was made so that it can adjust |
899 | | for the fact that we likely don't have a full page any longer and we don't |
900 | | need to do the offset to our data in the buffer. Bug 700686: If we are in |
901 | | a softmask that includes a matte entry, then we need to undo the matte |
902 | | entry here at this time in the image's native color space not the parent |
903 | | color space. The endian_swap term here is only set to true if the data |
904 | | has been baked as BE during the put_image blending operation and we are |
905 | | on a LE machine. */ |
906 | | static forceinline pdf14_buf* |
907 | | template_transform_color_buffer(gs_gstate *pgs, pdf14_ctx *ctx, gx_device *dev, |
908 | | pdf14_buf *src_buf, byte *src_data, cmm_profile_t *src_profile, |
909 | | cmm_profile_t *des_profile, int x0, int y0, int width, int height, bool *did_alloc, |
910 | | bool has_matte, bool deep, bool endian_swap) |
911 | 4.01k | { |
912 | 4.01k | gsicc_rendering_param_t rendering_params; |
913 | 4.01k | gsicc_link_t *icc_link; |
914 | 4.01k | gsicc_bufferdesc_t src_buff_desc; |
915 | 4.01k | gsicc_bufferdesc_t des_buff_desc; |
916 | 4.01k | int src_planestride = src_buf->planestride; |
917 | 4.01k | int src_rowstride = src_buf->rowstride; |
918 | 4.01k | int src_n_planes = src_buf->n_planes; |
919 | 4.01k | int src_n_chan = src_buf->n_chan; |
920 | 4.01k | int des_planestride = src_planestride; |
921 | 4.01k | int des_rowstride = src_rowstride; |
922 | 4.01k | int des_n_planes = src_n_planes; |
923 | 4.01k | int des_n_chan = src_n_chan; |
924 | 4.01k | int diff; |
925 | 4.01k | int k, j; |
926 | 4.01k | byte *des_data = NULL; |
927 | 4.01k | pdf14_buf *output = src_buf; |
928 | 4.01k | pdf14_mask_t *mask_stack; |
929 | 4.01k | pdf14_buf *maskbuf; |
930 | 4.01k | int code; |
931 | | |
932 | 4.01k | *did_alloc = false; |
933 | | |
934 | | /* Same profile */ |
935 | 4.01k | if (gsicc_get_hash(src_profile) == gsicc_get_hash(des_profile)) |
936 | 0 | return src_buf; |
937 | | |
938 | | /* Define the rendering intent get the link */ |
939 | 4.01k | rendering_params.black_point_comp = gsBLACKPTCOMP_ON; |
940 | 4.01k | rendering_params.graphics_type_tag = GS_IMAGE_TAG; |
941 | 4.01k | rendering_params.override_icc = false; |
942 | 4.01k | rendering_params.preserve_black = gsBKPRESNOTSPECIFIED; |
943 | 4.01k | rendering_params.rendering_intent = gsRELATIVECOLORIMETRIC; /* Use relative intent */ |
944 | 4.01k | rendering_params.cmm = gsCMM_DEFAULT; |
945 | 4.01k | icc_link = gsicc_get_link_profile(pgs, dev, src_profile, des_profile, |
946 | 4.01k | &rendering_params, pgs->memory, false); |
947 | 4.01k | if (icc_link == NULL) |
948 | 0 | return NULL; |
949 | | |
950 | | /* If different data sizes, we have to do an allocation */ |
951 | 4.01k | diff = des_profile->num_comps - src_profile->num_comps; |
952 | 4.01k | if (diff != 0) { |
953 | 3.86k | byte *src_ptr; |
954 | 3.86k | byte *des_ptr; |
955 | | |
956 | 3.86k | *did_alloc = true; |
957 | 3.86k | des_rowstride = ((width + 3) & -4)<<deep; |
958 | 3.86k | des_planestride = height * des_rowstride; |
959 | 3.86k | des_n_planes = src_n_planes + diff; |
960 | 3.86k | des_n_chan = src_n_chan + diff; |
961 | 3.86k | des_data = gs_alloc_bytes(ctx->memory, |
962 | 3.86k | (size_t)des_planestride * des_n_planes + CAL_SLOP, |
963 | 3.86k | "pdf14_transform_color_buffer"); |
964 | 3.86k | if (des_data == NULL) |
965 | 0 | return NULL; |
966 | | |
967 | | /* Copy over the noncolor planes. May only be a dirty part, so have |
968 | | to copy row by row */ |
969 | 3.86k | src_ptr = src_data; |
970 | 3.86k | des_ptr = des_data; |
971 | 46.5k | for (j = 0; j < height; j++) { |
972 | 85.4k | for (k = 0; k < (src_n_planes - src_profile->num_comps); k++) { |
973 | 42.7k | memcpy(des_ptr + des_planestride * (k + des_profile->num_comps), |
974 | 42.7k | src_ptr + src_planestride * (k + src_profile->num_comps), |
975 | 42.7k | width<<deep); |
976 | 42.7k | } |
977 | 42.7k | src_ptr += src_rowstride; |
978 | 42.7k | des_ptr += des_rowstride; |
979 | 42.7k | } |
980 | 3.86k | } else |
981 | 157 | des_data = src_data; |
982 | | |
983 | | /* Set up the buffer descriptors. */ |
984 | 4.01k | gsicc_init_buffer(&src_buff_desc, src_profile->num_comps, 1<<deep, false, |
985 | 4.01k | false, true, src_planestride, src_rowstride, height, width); |
986 | 4.01k | gsicc_init_buffer(&des_buff_desc, des_profile->num_comps, 1<<deep, false, |
987 | 4.01k | false, true, des_planestride, des_rowstride, height, width); |
988 | | |
989 | 4.01k | src_buff_desc.endian_swap = endian_swap; |
990 | 4.01k | des_buff_desc.endian_swap = endian_swap; |
991 | | |
992 | | /* If we have a matte entry, undo the pre-blending now. Also set pdf14 |
993 | | context to ensure that this is not done again during the group |
994 | | composition */ |
995 | 4.01k | if (has_matte && |
996 | | /* Should always happen, but check for safety */ |
997 | 4.01k | ((mask_stack = ctx->mask_stack) != NULL) && |
998 | 4.01k | ((maskbuf = mask_stack->rc_mask->mask_buf) != NULL)) |
999 | 0 | { |
1000 | 0 | resolve_matte(maskbuf, src_data, src_planestride, src_rowstride, width, height, src_profile, deep); |
1001 | 0 | } |
1002 | | |
1003 | | /* Transform the data. Since the pdf14 device should be using RGB, CMYK or |
1004 | | Gray buffers, this transform does not need to worry about the cmap procs |
1005 | | of the target device. */ |
1006 | 4.01k | code = (icc_link->procs.map_buffer)(dev, icc_link, &src_buff_desc, &des_buff_desc, |
1007 | 4.01k | src_data, des_data); |
1008 | 4.01k | gsicc_release_link(icc_link); |
1009 | 4.01k | if (code < 0) |
1010 | 0 | return NULL; |
1011 | | |
1012 | 4.01k | output->planestride = des_planestride; |
1013 | 4.01k | output->rowstride = des_rowstride; |
1014 | 4.01k | output->n_planes = des_n_planes; |
1015 | 4.01k | output->n_chan = des_n_chan; |
1016 | | /* If not in-place conversion, then release. */ |
1017 | 4.01k | if (des_data != src_data) { |
1018 | 3.86k | gs_free_object(ctx->memory, output->data, |
1019 | 3.86k | "pdf14_transform_color_buffer"); |
1020 | 3.86k | output->data = des_data; |
1021 | | /* Note, this is needed for case where we did a put image, as the |
1022 | | resulting transformed buffer may not be a full page. */ |
1023 | 3.86k | output->rect.p.x = x0; |
1024 | 3.86k | output->rect.p.y = y0; |
1025 | 3.86k | output->rect.q.x = x0 + width; |
1026 | 3.86k | output->rect.q.y = y0 + height; |
1027 | 3.86k | } |
1028 | 4.01k | return output; |
1029 | 4.01k | } |
1030 | | |
1031 | | /* This is a routine to do memset's but with 16 bit values. |
1032 | | * Note, that we still take bytes, NOT "num values to set". |
1033 | | * We assume dest is 16 bit aligned. We assume that bytes is |
1034 | | * a multiple of 2. */ |
1035 | | static void gs_memset16(byte *dest_, uint16_t value, int bytes) |
1036 | 0 | { |
1037 | 0 | uint16_t *dest = (uint16_t *)(void *)dest_; |
1038 | 0 | uint32_t v; |
1039 | 0 | if (bytes < 0) |
1040 | 0 | return; |
1041 | 0 | if (((intptr_t)dest) & 2) { |
1042 | 0 | *dest++ = value; |
1043 | 0 | bytes--; |
1044 | 0 | if (bytes == 0) |
1045 | 0 | return; |
1046 | 0 | } |
1047 | 0 | v = value | (value<<16); |
1048 | 0 | bytes -= 2; |
1049 | 0 | while (bytes > 0) { |
1050 | 0 | *(uint32_t *)dest = v; |
1051 | 0 | dest += 2; |
1052 | 0 | bytes -= 4; |
1053 | 0 | } |
1054 | 0 | bytes += 2; |
1055 | 0 | if (bytes & 2) { |
1056 | 0 | *dest = value; |
1057 | 0 | } |
1058 | 0 | } |
1059 | | |
1060 | | static pdf14_buf* |
1061 | | pdf14_transform_color_buffer_no_matte(gs_gstate *pgs, pdf14_ctx *ctx, gx_device *dev, |
1062 | | pdf14_buf *src_buf, byte *src_data, cmm_profile_t *src_profile, |
1063 | | cmm_profile_t *des_profile, int x0, int y0, int width, int height, bool *did_alloc, |
1064 | | bool deep, bool endian_swap) |
1065 | 4.01k | { |
1066 | 4.01k | if (deep) |
1067 | 0 | return template_transform_color_buffer(pgs, ctx, dev, src_buf, src_data, src_profile, |
1068 | 0 | des_profile, x0, y0, width, height, did_alloc, false, true, endian_swap); |
1069 | 4.01k | else |
1070 | 4.01k | return template_transform_color_buffer(pgs, ctx, dev, src_buf, src_data, src_profile, |
1071 | 4.01k | des_profile, x0, y0, width, height, did_alloc, false, false, endian_swap); |
1072 | 4.01k | } |
1073 | | |
1074 | | static pdf14_buf* |
1075 | | pdf14_transform_color_buffer_with_matte(gs_gstate *pgs, pdf14_ctx *ctx, gx_device *dev, |
1076 | | pdf14_buf *src_buf, byte *src_data, cmm_profile_t *src_profile, |
1077 | | cmm_profile_t *des_profile, int x0, int y0, int width, int height, bool *did_alloc, |
1078 | | bool deep, bool endian_swap) |
1079 | 0 | { |
1080 | 0 | if (deep) |
1081 | 0 | return template_transform_color_buffer(pgs, ctx, dev, src_buf, src_data, src_profile, |
1082 | 0 | des_profile, x0, y0, width, height, did_alloc, true, true, endian_swap); |
1083 | 0 | else |
1084 | 0 | return template_transform_color_buffer(pgs, ctx, dev, src_buf, src_data, src_profile, |
1085 | 0 | des_profile, x0, y0, width, height, did_alloc, true, false, endian_swap); |
1086 | 0 | } |
1087 | | |
1088 | | /** |
1089 | | * pdf14_buf_new: Allocate a new PDF 1.4 buffer. |
1090 | | * @n_chan: Number of pixel channels including alpha. |
1091 | | * |
1092 | | * Return value: Newly allocated buffer, or NULL on failure. |
1093 | | **/ |
1094 | | static pdf14_buf * |
1095 | | pdf14_buf_new(gs_int_rect *rect, bool has_tags, bool has_alpha_g, |
1096 | | bool has_shape, bool idle, int n_chan, int num_spots, |
1097 | | gs_memory_t *memory, bool deep) |
1098 | 834k | { |
1099 | | |
1100 | | /* Note that alpha_g is the alpha for the GROUP */ |
1101 | | /* This is distinct from the alpha that may also exist */ |
1102 | | /* for the objects within the group. Hence it can introduce */ |
1103 | | /* yet another plane */ |
1104 | | |
1105 | 834k | pdf14_buf *result; |
1106 | 834k | int rowstride = ((rect->q.x - rect->p.x + 3) & -4)<<deep; |
1107 | 834k | int height = (rect->q.y - rect->p.y); |
1108 | 834k | int n_planes = n_chan + (has_shape ? 1 : 0) + (has_alpha_g ? 1 : 0) + |
1109 | 834k | (has_tags ? 1 : 0); |
1110 | 834k | int planestride; |
1111 | 834k | double dsize = (((double) rowstride) * height) * n_planes; |
1112 | | |
1113 | 834k | if (dsize > (double)max_uint) |
1114 | 0 | return NULL; |
1115 | | |
1116 | 834k | result = gs_alloc_struct(memory, pdf14_buf, &st_pdf14_buf, |
1117 | 834k | "pdf14_buf_new"); |
1118 | 834k | if (result == NULL) |
1119 | 0 | return result; |
1120 | | |
1121 | 834k | result->memory = memory; |
1122 | 834k | result->backdrop = NULL; |
1123 | 834k | result->saved = NULL; |
1124 | 834k | result->isolated = false; |
1125 | 834k | result->knockout = false; |
1126 | 834k | result->has_alpha_g = has_alpha_g; |
1127 | 834k | result->has_shape = has_shape; |
1128 | 834k | result->has_tags = has_tags; |
1129 | 834k | result->rect = *rect; |
1130 | 834k | result->n_chan = n_chan; |
1131 | 834k | result->n_planes = n_planes; |
1132 | 834k | result->rowstride = rowstride; |
1133 | 834k | result->transfer_fn = NULL; |
1134 | 834k | result->is_ident = true; |
1135 | 834k | result->matte_num_comps = 0; |
1136 | 834k | result->matte = NULL; |
1137 | 834k | result->mask_stack = NULL; |
1138 | 834k | result->idle = idle; |
1139 | 834k | result->mask_id = 0; |
1140 | 834k | result->num_spots = num_spots; |
1141 | 834k | result->deep = deep; |
1142 | 834k | result->page_group = false; |
1143 | 834k | result->group_color_info = NULL; |
1144 | 834k | result->group_popped = false; |
1145 | | |
1146 | 834k | if (idle || height <= 0) { |
1147 | | /* Empty clipping - will skip all drawings. */ |
1148 | 369k | result->planestride = 0; |
1149 | 369k | result->data = 0; |
1150 | 464k | } else { |
1151 | 464k | planestride = rowstride * height; |
1152 | 464k | result->planestride = planestride; |
1153 | 464k | result->data = gs_alloc_bytes(memory, |
1154 | 464k | (size_t)planestride * n_planes + CAL_SLOP, |
1155 | 464k | "pdf14_buf_new"); |
1156 | 464k | if (result->data == NULL) { |
1157 | 0 | gs_free_object(memory, result, "pdf14_buf_new"); |
1158 | 0 | return NULL; |
1159 | 0 | } |
1160 | 464k | if (has_alpha_g) { |
1161 | 78.4k | int alpha_g_plane = n_chan + (has_shape ? 1 : 0); |
1162 | | /* Memsetting by 0, so this copes with the deep case too */ |
1163 | 78.4k | memset(result->data + alpha_g_plane * planestride, 0, planestride); |
1164 | 78.4k | } |
1165 | 464k | if (has_tags) { |
1166 | 0 | int tags_plane = n_chan + (has_shape ? 1 : 0) + (has_alpha_g ? 1 : 0); |
1167 | | /* Memsetting by 0, so this copes with the deep case too */ |
1168 | 0 | memset (result->data + tags_plane * planestride, |
1169 | 0 | GS_UNTOUCHED_TAG, planestride); |
1170 | 0 | } |
1171 | 464k | } |
1172 | | /* Initialize dirty box with an invalid rectangle (the reversed rectangle). |
1173 | | * Any future drawing will make it valid again, so we won't blend back |
1174 | | * more than we need. */ |
1175 | 834k | result->dirty.p.x = rect->q.x; |
1176 | 834k | result->dirty.p.y = rect->q.y; |
1177 | 834k | result->dirty.q.x = rect->p.x; |
1178 | 834k | result->dirty.q.y = rect->p.y; |
1179 | 834k | return result; |
1180 | 834k | } |
1181 | | |
1182 | | static void |
1183 | | pdf14_buf_free(pdf14_buf *buf) |
1184 | 834k | { |
1185 | 834k | pdf14_group_color_t *group_color_info = buf->group_color_info; |
1186 | 834k | gs_memory_t *memory = buf->memory; |
1187 | | |
1188 | 834k | if (buf->mask_stack && buf->mask_stack->rc_mask) |
1189 | 834k | rc_decrement(buf->mask_stack->rc_mask, "pdf14_buf_free"); |
1190 | | |
1191 | 834k | gs_free_object(memory, buf->mask_stack, "pdf14_buf_free"); |
1192 | 834k | gs_free_object(memory, buf->transfer_fn, "pdf14_buf_free"); |
1193 | 834k | gs_free_object(memory, buf->matte, "pdf14_buf_free"); |
1194 | 834k | gs_free_object(memory, buf->data, "pdf14_buf_free"); |
1195 | | |
1196 | 1.66M | while (group_color_info) { |
1197 | 834k | if (group_color_info->icc_profile != NULL) { |
1198 | 834k | gsicc_adjust_profile_rc(group_color_info->icc_profile, -1, "pdf14_buf_free"); |
1199 | 834k | } |
1200 | 834k | buf->group_color_info = group_color_info->previous; |
1201 | 834k | gs_free_object(memory, group_color_info, "pdf14_buf_free"); |
1202 | 834k | group_color_info = buf->group_color_info; |
1203 | 834k | } |
1204 | | |
1205 | 834k | gs_free_object(memory, buf->backdrop, "pdf14_buf_free"); |
1206 | 834k | gs_free_object(memory, buf, "pdf14_buf_free"); |
1207 | 834k | } |
1208 | | |
1209 | | static void |
1210 | | rc_pdf14_maskbuf_free(gs_memory_t * mem, void *ptr_in, client_name_t cname) |
1211 | 396k | { |
1212 | | /* Ending the mask buffer. */ |
1213 | 396k | pdf14_rcmask_t *rcmask = (pdf14_rcmask_t * ) ptr_in; |
1214 | | /* free the pdf14 buffer. */ |
1215 | 396k | if ( rcmask->mask_buf != NULL ){ |
1216 | 39.1k | pdf14_buf_free(rcmask->mask_buf); |
1217 | 39.1k | } |
1218 | 396k | gs_free_object(mem, rcmask, "rc_pdf14_maskbuf_free"); |
1219 | 396k | } |
1220 | | |
1221 | | static pdf14_rcmask_t * |
1222 | | pdf14_rcmask_new(gs_memory_t *memory) |
1223 | 396k | { |
1224 | 396k | pdf14_rcmask_t *result; |
1225 | | |
1226 | 396k | result = gs_alloc_struct(memory, pdf14_rcmask_t, &st_pdf14_rcmask, |
1227 | 396k | "pdf14_maskbuf_new"); |
1228 | 396k | if (result == NULL) |
1229 | 0 | return NULL; |
1230 | 396k | rc_init_free(result, memory, 1, rc_pdf14_maskbuf_free); |
1231 | 396k | result->mask_buf = NULL; |
1232 | 396k | result->memory = memory; |
1233 | 396k | return result; |
1234 | 396k | } |
1235 | | |
1236 | | static pdf14_ctx * |
1237 | | pdf14_ctx_new(gx_device *dev, bool deep) |
1238 | 261k | { |
1239 | 261k | pdf14_ctx *result; |
1240 | 261k | gs_memory_t *memory = dev->memory->stable_memory; |
1241 | | |
1242 | 261k | result = gs_alloc_struct(memory, pdf14_ctx, &st_pdf14_ctx, "pdf14_ctx_new"); |
1243 | 261k | if (result == NULL) |
1244 | 0 | return result; |
1245 | 261k | result->stack = NULL; |
1246 | 261k | result->mask_stack = pdf14_mask_element_new(memory); |
1247 | 261k | result->mask_stack->rc_mask = pdf14_rcmask_new(memory); |
1248 | 261k | result->memory = memory; |
1249 | 261k | result->smask_depth = 0; |
1250 | 261k | result->smask_blend = false; |
1251 | 261k | result->deep = deep; |
1252 | 261k | result->base_color = NULL; |
1253 | 261k | return result; |
1254 | 261k | } |
1255 | | |
1256 | | static void |
1257 | | pdf14_ctx_free(pdf14_ctx *ctx) |
1258 | 261k | { |
1259 | 261k | pdf14_buf *buf, *next; |
1260 | | |
1261 | 261k | if (ctx->base_color) { |
1262 | 121k | gsicc_adjust_profile_rc(ctx->base_color->icc_profile, -1, "pdf14_ctx_free"); |
1263 | 121k | gs_free_object(ctx->memory, ctx->base_color, "pdf14_ctx_free"); |
1264 | 121k | } |
1265 | 261k | if (ctx->mask_stack) { |
1266 | | /* A mask was created but was not used in this band. */ |
1267 | 102k | rc_decrement(ctx->mask_stack->rc_mask, "pdf14_ctx_free"); |
1268 | 102k | gs_free_object(ctx->memory, ctx->mask_stack, "pdf14_ctx_free"); |
1269 | 102k | } |
1270 | 495k | for (buf = ctx->stack; buf != NULL; buf = next) { |
1271 | 233k | next = buf->saved; |
1272 | 233k | pdf14_buf_free(buf); |
1273 | 233k | } |
1274 | 261k | gs_free_object (ctx->memory, ctx, "pdf14_ctx_free"); |
1275 | 261k | } |
1276 | | |
1277 | | /** |
1278 | | * pdf14_find_backdrop_buf: Find backdrop buffer. |
1279 | | * |
1280 | | * Return value: Backdrop buffer for current group operation, or NULL |
1281 | | * if backdrop is fully transparent. |
1282 | | **/ |
1283 | | static pdf14_buf * |
1284 | | pdf14_find_backdrop_buf(pdf14_ctx *ctx, bool *is_backdrop) |
1285 | 239k | { |
1286 | | /* Our new buffer is buf */ |
1287 | 239k | pdf14_buf *buf = ctx->stack; |
1288 | | |
1289 | 239k | *is_backdrop = false; |
1290 | | |
1291 | 239k | if (buf != NULL) { |
1292 | | /* If the new buffer is isolated there is no backdrop */ |
1293 | 239k | if (buf->isolated) return NULL; |
1294 | | |
1295 | | /* If the previous buffer is a knockout group |
1296 | | then we need to use its backdrop as the backdrop. If |
1297 | | it was isolated then that back drop was NULL */ |
1298 | 78.4k | if (buf->saved != NULL && buf->saved->knockout) { |
1299 | | /* Per the spec, if we have a non-isolated group |
1300 | | in a knockout group the non-isolated group |
1301 | | uses the backdrop of its parent group (the knockout group) |
1302 | | as its own backdrop. The non-isolated group must |
1303 | | go through the standard re-composition operation |
1304 | | to avoid the double application of the backdrop */ |
1305 | 41 | *is_backdrop = true; |
1306 | 41 | return buf->saved; |
1307 | 41 | } |
1308 | | /* This should be the non-isolated case where its parent is |
1309 | | not a knockout */ |
1310 | 78.4k | if (buf->saved != NULL) { |
1311 | 78.4k | return buf->saved; |
1312 | 78.4k | } |
1313 | 78.4k | } |
1314 | 0 | return NULL; |
1315 | 239k | } |
1316 | | |
1317 | | static pdf14_group_color_t* |
1318 | | pdf14_make_base_group_color(gx_device* dev) |
1319 | 121k | { |
1320 | 121k | pdf14_device* pdev = (pdf14_device*)dev; |
1321 | 121k | pdf14_group_color_t* group_color; |
1322 | 121k | bool deep = pdev->ctx->deep; |
1323 | | |
1324 | 121k | if_debug0m('v', dev->memory, "[v]pdf14_make_base_group_color\n"); |
1325 | | |
1326 | 121k | group_color = gs_alloc_struct(pdev->ctx->memory, |
1327 | 121k | pdf14_group_color_t, &st_pdf14_clr, |
1328 | 121k | "pdf14_make_base_group_color"); |
1329 | | |
1330 | 121k | if (group_color == NULL) |
1331 | 0 | return NULL; |
1332 | 121k | memset(group_color, 0, sizeof(pdf14_group_color_t)); |
1333 | | |
1334 | 121k | group_color->blend_procs = pdev->blend_procs; |
1335 | 121k | group_color->polarity = pdev->color_info.polarity; |
1336 | 121k | group_color->num_components = pdev->color_info.num_components; |
1337 | 121k | group_color->isadditive = pdev->ctx->additive; |
1338 | 121k | group_color->unpack_procs = pdev->pdf14_procs; |
1339 | 121k | group_color->max_color = pdev->color_info.max_color = deep ? 65535 : 255; |
1340 | 121k | group_color->max_gray = pdev->color_info.max_gray = deep ? 65535 : 255; |
1341 | 121k | group_color->depth = pdev->color_info.depth; |
1342 | 121k | group_color->decode = dev_proc(pdev, decode_color); |
1343 | 121k | group_color->encode = dev_proc(pdev, encode_color); |
1344 | 121k | group_color->group_color_mapping_procs = dev_proc(pdev, get_color_mapping_procs); |
1345 | 121k | group_color->group_color_comp_index = dev_proc(pdev, get_color_comp_index); |
1346 | 121k | memcpy(&(group_color->comp_bits), &(pdev->color_info.comp_bits), |
1347 | 121k | GX_DEVICE_COLOR_MAX_COMPONENTS); |
1348 | 121k | memcpy(&(group_color->comp_shift), &(pdev->color_info.comp_shift), |
1349 | 121k | GX_DEVICE_COLOR_MAX_COMPONENTS); |
1350 | 121k | group_color->get_cmap_procs = pdf14_get_cmap_procs; |
1351 | 121k | group_color->icc_profile = |
1352 | 121k | pdev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE]; |
1353 | 121k | gsicc_adjust_profile_rc(group_color->icc_profile, 1, "pdf14_make_base_group_color"); |
1354 | | |
1355 | 121k | return group_color; |
1356 | 121k | } |
1357 | | |
1358 | | /* This wil create the first buffer when we have |
1359 | | either the first drawing operation or transparency |
1360 | | group push. At that time, the color space in which |
1361 | | we are going to be doing the alpha blend will be known. */ |
1362 | | static int |
1363 | | pdf14_initialize_ctx(gx_device* dev, int n_chan, bool additive, const gs_gstate* pgs) |
1364 | 155M | { |
1365 | 155M | pdf14_device* pdev = (pdf14_device*)dev; |
1366 | 155M | bool has_tags = device_encodes_tags(dev); |
1367 | 155M | int num_spots = pdev->ctx->num_spots; |
1368 | 155M | pdf14_buf* buf; |
1369 | 155M | gs_memory_t* memory = dev->memory->stable_memory; |
1370 | | |
1371 | | /* Check for a blank idle group as a base group */ |
1372 | 155M | if (pdev->ctx->stack != NULL && pdev->ctx->stack->group_popped && |
1373 | 155M | pdev->ctx->stack->idle) { |
1374 | 0 | pdf14_buf_free(pdev->ctx->stack); |
1375 | 0 | pdev->ctx->stack = NULL; |
1376 | 0 | } |
1377 | | |
1378 | 155M | if (pdev->ctx->stack != NULL) |
1379 | 155M | return 0; |
1380 | | |
1381 | 155M | if_debug2m('v', dev->memory, "[v]pdf14_initialize_ctx: width = %d, height = %d\n", |
1382 | 135k | dev->width, dev->height); |
1383 | | |
1384 | 135k | buf = pdf14_buf_new(&(pdev->ctx->rect), has_tags, false, false, false, n_chan + 1, |
1385 | 135k | num_spots, memory, pdev->ctx->deep); |
1386 | 135k | if (buf == NULL) { |
1387 | 0 | return gs_error_VMerror; |
1388 | 0 | } |
1389 | 135k | if_debug5m('v', memory, |
1390 | 135k | "[v]base buf: %d x %d, %d color channels, %d planes, deep=%d\n", |
1391 | 135k | buf->rect.q.x, buf->rect.q.y, buf->n_chan, buf->n_planes, pdev->ctx->deep); |
1392 | | |
1393 | | /* This check is not really needed */ |
1394 | 135k | if (buf->data != NULL) { |
1395 | | /* Memsetting by 0, so this copes with the deep case too */ |
1396 | 135k | if (buf->has_tags) { |
1397 | 0 | memset(buf->data, 0, (size_t)buf->planestride * (buf->n_planes - 1)); |
1398 | 0 | } |
1399 | 135k | else { |
1400 | 135k | memset(buf->data, 0, (size_t)buf->planestride * buf->n_planes); |
1401 | 135k | } |
1402 | 135k | } |
1403 | 135k | buf->saved = NULL; |
1404 | 135k | pdev->ctx->stack = buf; |
1405 | 135k | pdev->ctx->n_chan = n_chan; |
1406 | 135k | pdev->ctx->additive = additive; |
1407 | | |
1408 | | /* Every buffer needs group color information including the base |
1409 | | one that is created for when we have no group */ |
1410 | 135k | buf->group_color_info = gs_alloc_struct(pdev->memory->stable_memory, |
1411 | 135k | pdf14_group_color_t, &st_pdf14_clr, "pdf14_initialize_ctx"); |
1412 | 135k | if (buf->group_color_info == NULL) |
1413 | 0 | return gs_error_VMerror; |
1414 | | |
1415 | 135k | if (pgs != NULL) |
1416 | 69.9k | buf->group_color_info->get_cmap_procs = pgs->get_cmap_procs; |
1417 | 65.6k | else |
1418 | 65.6k | buf->group_color_info->get_cmap_procs = pdf14_get_cmap_procs; |
1419 | | |
1420 | 135k | buf->group_color_info->group_color_mapping_procs = |
1421 | 135k | dev_proc(pdev, get_color_mapping_procs); |
1422 | 135k | buf->group_color_info->group_color_comp_index = |
1423 | 135k | dev_proc(pdev, get_color_comp_index); |
1424 | 135k | buf->group_color_info->blend_procs = pdev->blend_procs; |
1425 | 135k | buf->group_color_info->polarity = pdev->color_info.polarity; |
1426 | 135k | buf->group_color_info->num_components = pdev->color_info.num_components; |
1427 | 135k | buf->group_color_info->isadditive = pdev->ctx->additive; |
1428 | 135k | buf->group_color_info->unpack_procs = pdev->pdf14_procs; |
1429 | 135k | buf->group_color_info->depth = pdev->color_info.depth; |
1430 | 135k | buf->group_color_info->max_color = pdev->color_info.max_color; |
1431 | 135k | buf->group_color_info->max_gray = pdev->color_info.max_gray; |
1432 | 135k | buf->group_color_info->encode = dev_proc(pdev, encode_color); |
1433 | 135k | buf->group_color_info->decode = dev_proc(pdev, decode_color); |
1434 | 135k | memcpy(&(buf->group_color_info->comp_bits), &(pdev->color_info.comp_bits), |
1435 | 135k | GX_DEVICE_COLOR_MAX_COMPONENTS); |
1436 | 135k | memcpy(&(buf->group_color_info->comp_shift), &(pdev->color_info.comp_shift), |
1437 | 135k | GX_DEVICE_COLOR_MAX_COMPONENTS); |
1438 | 135k | buf->group_color_info->previous = NULL; /* used during clist writing */ |
1439 | 135k | buf->group_color_info->icc_profile = |
1440 | 135k | pdev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE]; |
1441 | 135k | if (buf->group_color_info->icc_profile != NULL) |
1442 | 135k | gsicc_adjust_profile_rc(buf->group_color_info->icc_profile, 1, "pdf14_initialize_ctx"); |
1443 | | |
1444 | 135k | return 0; |
1445 | 135k | } |
1446 | | |
1447 | | static pdf14_group_color_t* |
1448 | | pdf14_clone_group_color_info(gx_device* pdev, pdf14_group_color_t* src) |
1449 | 13.0k | { |
1450 | 13.0k | pdf14_group_color_t* des = gs_alloc_struct(pdev->memory->stable_memory, |
1451 | 13.0k | pdf14_group_color_t, &st_pdf14_clr, "pdf14_clone_group_color_info"); |
1452 | 13.0k | if (des == NULL) |
1453 | 0 | return NULL; |
1454 | | |
1455 | 13.0k | memcpy(des, src, sizeof(pdf14_group_color_t)); |
1456 | 13.0k | if (des->icc_profile != NULL) |
1457 | 13.0k | gsicc_adjust_profile_rc(des->icc_profile, 1, "pdf14_clone_group_color_info"); |
1458 | 13.0k | des->previous = NULL; /* used during clist writing for state stack */ |
1459 | | |
1460 | 13.0k | return des; |
1461 | 13.0k | } |
1462 | | |
1463 | | static int |
1464 | | pdf14_push_transparency_group(pdf14_ctx *ctx, gs_int_rect *rect, bool isolated, |
1465 | | bool knockout, uint16_t alpha, uint16_t shape, uint16_t opacity, |
1466 | | gs_blend_mode_t blend_mode, bool idle, uint mask_id, |
1467 | | int numcomps, bool cm_back_drop, bool shade_group, |
1468 | | cmm_profile_t *group_profile, cmm_profile_t *tos_profile, |
1469 | | pdf14_group_color_t* group_color, gs_gstate *pgs, |
1470 | | gx_device *dev) |
1471 | 561k | { |
1472 | 561k | pdf14_buf *tos = ctx->stack; |
1473 | 561k | pdf14_buf *buf, * pdf14_backdrop; |
1474 | 561k | bool has_shape = false; |
1475 | 561k | bool is_backdrop; |
1476 | 561k | int num_spots; |
1477 | | |
1478 | 561k | if_debug1m('v', ctx->memory, |
1479 | 561k | "[v]pdf14_push_transparency_group, idle = %d\n", idle); |
1480 | | |
1481 | 561k | if (tos != NULL) |
1482 | 463k | has_shape = tos->has_shape || tos->knockout; |
1483 | | |
1484 | 561k | if (ctx->smask_depth > 0) |
1485 | 959 | num_spots = 0; |
1486 | 560k | else |
1487 | 560k | num_spots = ctx->num_spots; |
1488 | | |
1489 | | |
1490 | 561k | buf = pdf14_buf_new(rect, ctx->has_tags, !isolated, has_shape, idle, numcomps + 1, |
1491 | 561k | num_spots, ctx->memory, ctx->deep); |
1492 | 561k | if (buf == NULL) |
1493 | 0 | return_error(gs_error_VMerror); |
1494 | | |
1495 | 561k | if_debug4m('v', ctx->memory, |
1496 | 561k | "[v]base buf: %d x %d, %d color channels, %d planes\n", |
1497 | 561k | buf->rect.q.x, buf->rect.q.y, buf->n_chan, buf->n_planes); |
1498 | 561k | buf->isolated = isolated; |
1499 | 561k | buf->knockout = knockout; |
1500 | 561k | buf->alpha = alpha; |
1501 | 561k | buf->shape = shape; |
1502 | 561k | buf->opacity = opacity; |
1503 | 561k | buf->blend_mode = blend_mode; |
1504 | 561k | buf->mask_id = mask_id; |
1505 | 561k | buf->mask_stack = ctx->mask_stack; /* Save because the group rendering may |
1506 | | set up another (nested) mask. */ |
1507 | 561k | ctx->mask_stack = NULL; /* Clean the mask field for rendering this group. |
1508 | | See pdf14_pop_transparency_group how to handle it. */ |
1509 | 561k | buf->saved = tos; |
1510 | 561k | buf->group_color_info = group_color; |
1511 | | |
1512 | 561k | if (tos == NULL) |
1513 | 98.3k | buf->page_group = true; |
1514 | | |
1515 | 561k | ctx->stack = buf; |
1516 | 561k | if (buf->data == NULL) |
1517 | 322k | return 0; |
1518 | 239k | if (idle) |
1519 | 0 | return 0; |
1520 | 239k | pdf14_backdrop = pdf14_find_backdrop_buf(ctx, &is_backdrop); |
1521 | | |
1522 | | /* Initializes buf->data with the backdrop or as opaque */ |
1523 | 239k | if (pdf14_backdrop == NULL || (is_backdrop && pdf14_backdrop->backdrop == NULL)) { |
1524 | | /* Note, don't clear out tags set by pdf14_buf_new == GS_UNKNOWN_TAG */ |
1525 | | /* Memsetting by 0, so this copes with the deep case too */ |
1526 | 160k | memset(buf->data, 0, (size_t)buf->planestride * |
1527 | 160k | (buf->n_chan + |
1528 | 160k | (buf->has_shape ? 1 : 0) + |
1529 | 160k | (buf->has_alpha_g ? 1 : 0))); |
1530 | 160k | } else { |
1531 | 78.4k | if (!cm_back_drop) { |
1532 | 78.4k | pdf14_preserve_backdrop(buf, pdf14_backdrop, is_backdrop |
1533 | | #if RAW_DUMP |
1534 | | , ctx->memory |
1535 | | #endif |
1536 | 78.4k | ); |
1537 | 78.4k | } else { |
1538 | | /* We must have an non-isolated group with a mismatch in color spaces. |
1539 | | In this case, we can't just copy the buffer but must CM it */ |
1540 | 0 | pdf14_preserve_backdrop_cm(buf, group_profile, pdf14_backdrop, tos_profile, |
1541 | 0 | ctx->memory, pgs, dev, is_backdrop); |
1542 | 0 | } |
1543 | 78.4k | } |
1544 | | |
1545 | | /* If our new group is a non-isolated knockout group, we have to maintain |
1546 | | a copy of the backdrop in case we are drawing nonisolated groups on top of the |
1547 | | knockout group. They have to always blend with the groups backdrop |
1548 | | not what is currently drawn in the group. Selection of the backdrop |
1549 | | depends upon the properties of the parent group. For example, if |
1550 | | the parent itself is a knockout group we actually |
1551 | | need to blend with its backdrop. This could be NULL if the parent was |
1552 | | an isolated knockout group. */ |
1553 | 239k | if (buf->knockout && pdf14_backdrop != NULL) { |
1554 | 4.90k | buf->backdrop = gs_alloc_bytes(ctx->memory, |
1555 | 4.90k | (size_t)buf->planestride * buf->n_planes + CAL_SLOP, |
1556 | 4.90k | "pdf14_push_transparency_group"); |
1557 | 4.90k | if (buf->backdrop == NULL) { |
1558 | 0 | return gs_throw(gs_error_VMerror, "Knockout backdrop allocation failed"); |
1559 | 0 | } |
1560 | | |
1561 | 4.90k | memcpy(buf->backdrop, buf->data, |
1562 | 4.90k | (size_t)buf->planestride * buf->n_planes); |
1563 | | |
1564 | | #if RAW_DUMP |
1565 | | /* Dump the current buffer to see what we have. */ |
1566 | | dump_raw_buffer(ctx->memory, |
1567 | | ctx->stack->rect.q.y - ctx->stack->rect.p.y, |
1568 | | ctx->stack->rowstride >> buf->deep, buf->n_planes, |
1569 | | ctx->stack->planestride, ctx->stack->rowstride, |
1570 | | "KnockoutBackDrop", buf->backdrop, buf->deep); |
1571 | | global_index++; |
1572 | | #endif |
1573 | 4.90k | } |
1574 | | #if RAW_DUMP |
1575 | | /* Dump the current buffer to see what we have. */ |
1576 | | dump_raw_buffer(ctx->memory, |
1577 | | ctx->stack->rect.q.y-ctx->stack->rect.p.y, |
1578 | | ctx->stack->rowstride>>buf->deep, ctx->stack->n_planes, |
1579 | | ctx->stack->planestride, ctx->stack->rowstride, |
1580 | | "TransGroupPush", ctx->stack->data, buf->deep); |
1581 | | global_index++; |
1582 | | #endif |
1583 | 239k | return 0; |
1584 | 239k | } |
1585 | | |
1586 | | static int |
1587 | | pdf14_pop_transparency_group(gs_gstate *pgs, pdf14_ctx *ctx, |
1588 | | const pdf14_nonseparable_blending_procs_t * pblend_procs, |
1589 | | int tos_num_color_comp, cmm_profile_t *curr_icc_profile, gx_device *dev) |
1590 | 561k | { |
1591 | 561k | pdf14_buf *tos = ctx->stack; |
1592 | 561k | pdf14_buf *nos = tos->saved; |
1593 | 561k | pdf14_mask_t *mask_stack = tos->mask_stack; |
1594 | 561k | pdf14_buf *maskbuf; |
1595 | 561k | int x0, x1, y0, y1; |
1596 | 561k | int nos_num_color_comp; |
1597 | 561k | bool no_icc_match; |
1598 | 561k | pdf14_device *pdev = (pdf14_device *)dev; |
1599 | 561k | bool overprint = pdev->overprint; |
1600 | 561k | gx_color_index drawn_comps = pdev->drawn_comps_stroke | pdev->drawn_comps_fill; |
1601 | 561k | bool has_matte = false; |
1602 | 561k | int code = 0; |
1603 | | |
1604 | | #ifdef DEBUG |
1605 | | pdf14_debug_mask_stack_state(ctx); |
1606 | | #endif |
1607 | 561k | if (mask_stack == NULL) { |
1608 | 282k | maskbuf = NULL; |
1609 | 282k | } |
1610 | 278k | else { |
1611 | 278k | maskbuf = mask_stack->rc_mask->mask_buf; |
1612 | 278k | } |
1613 | | |
1614 | 561k | if (maskbuf != NULL && maskbuf->matte != NULL) |
1615 | 360 | has_matte = true; |
1616 | | |
1617 | | /* Check if this is our last buffer, if yes, there is nothing to |
1618 | | compose to. Keep this buffer until we have the put image. |
1619 | | If we have another group push, this group must be destroyed. |
1620 | | This only occurs sometimes when at clist creation time |
1621 | | push_shfill_group occured and nothing was drawn in this group. |
1622 | | There is also the complication if we have a softmask. There |
1623 | | are two approaches to this problem. Apply the softmask during |
1624 | | the put image or handle it now. I choose the later as the |
1625 | | put_image code is already way to complicated. */ |
1626 | 561k | if (nos == NULL && maskbuf == NULL) { |
1627 | 98.1k | tos->group_popped = true; |
1628 | 98.1k | return 0; |
1629 | 98.1k | } |
1630 | | |
1631 | | /* Here is the case with the soft mask. Go ahead and create a new |
1632 | | target buffer (nos) with the same color information etc, but blank |
1633 | | and go ahead and do the blend with the softmask so that it gets applied. */ |
1634 | 463k | if (nos == NULL && maskbuf != NULL) { |
1635 | 0 | nos = pdf14_buf_new(&(tos->rect), ctx->has_tags, !tos->isolated, tos->has_shape, |
1636 | 0 | tos->idle, tos->n_chan, tos->num_spots, ctx->memory, ctx->deep); |
1637 | 0 | if (nos == NULL) { |
1638 | 0 | code = gs_error_VMerror; |
1639 | 0 | goto exit; |
1640 | 0 | } |
1641 | | |
1642 | 0 | if_debug4m('v', ctx->memory, |
1643 | 0 | "[v] special buffer for softmask application: %d x %d, %d color channels, %d planes\n", |
1644 | 0 | nos->rect.q.x, nos->rect.q.y, nos->n_chan, nos->n_planes); |
1645 | |
|
1646 | 0 | nos->dirty = tos->dirty; |
1647 | 0 | nos->isolated = tos->isolated; |
1648 | 0 | nos->knockout = tos->knockout; |
1649 | 0 | nos->alpha = 65535; |
1650 | 0 | nos->shape = 65535; |
1651 | 0 | nos->opacity = 65535; |
1652 | 0 | nos->blend_mode = tos->blend_mode; |
1653 | 0 | nos->mask_id = tos->mask_id; |
1654 | 0 | nos->group_color_info = pdf14_clone_group_color_info(dev, tos->group_color_info); |
1655 | |
|
1656 | 0 | if (nos->data != NULL) |
1657 | 0 | memset(nos->data, 0, |
1658 | 0 | (size_t)nos->planestride * |
1659 | 0 | (nos->n_chan + |
1660 | 0 | (nos->has_shape ? 1 : 0) + |
1661 | 0 | (nos->has_alpha_g ? 1 : 0))); |
1662 | 0 | } |
1663 | | |
1664 | | /* Before we get started, lets see if we have somehow gotten into |
1665 | | what should be an impossible situation where the group color |
1666 | | information does not match the buffer color information. This |
1667 | | can occur is there were memory issues that have perhaps blown |
1668 | | away information, or in the example of Bug 705197 the PDF interpreter |
1669 | | reuses a pattern during a circular reference causing an aliasing |
1670 | | of two nested patterns, one of which has a softmask. The change in |
1671 | | the buffer size of the inner one blows away the buffer of the |
1672 | | outer one leading to a mismatch of color spaces. Here |
1673 | | we can at least catch the case when the color space sizes have |
1674 | | changed and avoid buffer over-runs that would occur when we try |
1675 | | to do the group composition */ |
1676 | 463k | if (nos->n_chan - 1 != nos->group_color_info->num_components || |
1677 | 463k | tos->n_chan - 1 != tos_num_color_comp) |
1678 | 0 | return_error(gs_error_Fatal); |
1679 | | |
1680 | 463k | nos_num_color_comp = nos->group_color_info->num_components - tos->num_spots; |
1681 | 463k | tos_num_color_comp = tos_num_color_comp - tos->num_spots; |
1682 | | |
1683 | | /* Sanitise the dirty rectangles, in case some of the drawing routines |
1684 | | * have made them overly large. */ |
1685 | 463k | rect_intersect(tos->dirty, tos->rect); |
1686 | 463k | rect_intersect(nos->dirty, nos->rect); |
1687 | | /* dirty = the marked bbox. rect = the entire bounds of the buffer. */ |
1688 | | /* Everything marked on tos that fits onto nos needs to be merged down. */ |
1689 | 463k | y0 = max(tos->dirty.p.y, nos->rect.p.y); |
1690 | 463k | y1 = min(tos->dirty.q.y, nos->rect.q.y); |
1691 | 463k | x0 = max(tos->dirty.p.x, nos->rect.p.x); |
1692 | 463k | x1 = min(tos->dirty.q.x, nos->rect.q.x); |
1693 | 463k | if (ctx->mask_stack) { |
1694 | | /* This can occur when we have a situation where we are ending out of |
1695 | | a group that has internal to it a soft mask and another group. |
1696 | | The soft mask left over from the previous trans group pop is put |
1697 | | into ctx->masbuf, since it is still active if another trans group |
1698 | | push occurs to use it. If one does not occur, but instead we find |
1699 | | ourselves popping from a parent group, then this softmask is no |
1700 | | longer needed. We will rc_decrement and set it to NULL. */ |
1701 | 117 | rc_decrement(ctx->mask_stack->rc_mask, "pdf14_pop_transparency_group"); |
1702 | 117 | if (ctx->mask_stack->rc_mask == NULL ){ |
1703 | 117 | gs_free_object(ctx->memory, ctx->mask_stack, "pdf14_pop_transparency_group"); |
1704 | 117 | } |
1705 | 117 | ctx->mask_stack = NULL; |
1706 | 117 | } |
1707 | 463k | ctx->mask_stack = mask_stack; /* Restore the mask saved by pdf14_push_transparency_group. */ |
1708 | 463k | tos->mask_stack = NULL; /* Clean the pointer sinse the mask ownership is now passed to ctx. */ |
1709 | 463k | if (tos->idle) |
1710 | 317k | goto exit; |
1711 | 145k | if (maskbuf != NULL && maskbuf->data == NULL && maskbuf->alpha == 255) |
1712 | 0 | goto exit; |
1713 | | |
1714 | | #if RAW_DUMP |
1715 | | /* Dump the current buffer to see what we have. */ |
1716 | | dump_raw_buffer(ctx->memory, |
1717 | | ctx->stack->rect.q.y-ctx->stack->rect.p.y, |
1718 | | ctx->stack->rowstride>>ctx->stack->deep, ctx->stack->n_planes, |
1719 | | ctx->stack->planestride, ctx->stack->rowstride, |
1720 | | "aaTrans_Group_Pop", ctx->stack->data, ctx->stack->deep); |
1721 | | global_index++; |
1722 | | #endif |
1723 | | /* Note currently if a pattern space has transparency, the ICC profile is not used |
1724 | | for blending purposes. Instead we rely upon the gray, rgb, or cmyk parent space. |
1725 | | This is partially due to the fact that pdf14_pop_transparency_group and |
1726 | | pdf14_push_transparnecy_group have no real ICC interaction and those are the |
1727 | | operations called in the tile transparency code. Instead we may want to |
1728 | | look at pdf14_begin_transparency_group and pdf14_end_transparency group which |
1729 | | is where all the ICC information is handled. We will return to look at that later */ |
1730 | 145k | if (nos->group_color_info->icc_profile != NULL) { |
1731 | 145k | no_icc_match = !gsicc_profiles_equal(nos->group_color_info->icc_profile, curr_icc_profile); |
1732 | 145k | } else { |
1733 | | /* Let the other tests make the decision if we need to transform */ |
1734 | 0 | no_icc_match = false; |
1735 | 0 | } |
1736 | | /* If the color spaces are different and we actually did do a swap of |
1737 | | the procs for color */ |
1738 | 145k | if ((nos->group_color_info->group_color_mapping_procs != NULL && |
1739 | 145k | nos_num_color_comp != tos_num_color_comp) || no_icc_match) { |
1740 | 1.34k | if (x0 < x1 && y0 < y1) { |
1741 | 1.30k | pdf14_buf *result; |
1742 | 1.30k | bool did_alloc; /* We don't care here */ |
1743 | | |
1744 | 1.30k | if (has_matte) { |
1745 | 0 | result = pdf14_transform_color_buffer_with_matte(pgs, ctx, dev, |
1746 | 0 | tos, tos->data, curr_icc_profile, nos->group_color_info->icc_profile, |
1747 | 0 | tos->rect.p.x, tos->rect.p.y, tos->rect.q.x - tos->rect.p.x, |
1748 | 0 | tos->rect.q.y - tos->rect.p.y, &did_alloc, tos->deep, false); |
1749 | 0 | has_matte = false; |
1750 | 1.30k | } else { |
1751 | 1.30k | result = pdf14_transform_color_buffer_no_matte(pgs, ctx, dev, |
1752 | 1.30k | tos, tos->data, curr_icc_profile, nos->group_color_info->icc_profile, |
1753 | 1.30k | tos->rect.p.x, tos->rect.p.y, tos->rect.q.x - tos->rect.p.x, |
1754 | 1.30k | tos->rect.q.y - tos->rect.p.y, &did_alloc, tos->deep, false); |
1755 | 1.30k | } |
1756 | 1.30k | if (result == NULL) { |
1757 | | /* Clean up and return error code */ |
1758 | 0 | code = gs_error_unknownerror; |
1759 | 0 | goto exit; |
1760 | 0 | } |
1761 | | |
1762 | | #if RAW_DUMP |
1763 | | /* Dump the current buffer to see what we have. */ |
1764 | | dump_raw_buffer(ctx->memory, |
1765 | | ctx->stack->rect.q.y-ctx->stack->rect.p.y, |
1766 | | ctx->stack->rowstride>>ctx->stack->deep, ctx->stack->n_chan, |
1767 | | ctx->stack->planestride, ctx->stack->rowstride, |
1768 | | "aCMTrans_Group_ColorConv", ctx->stack->data, |
1769 | | ctx->stack->deep); |
1770 | | #endif |
1771 | | /* compose. never do overprint in this case */ |
1772 | 1.30k | pdf14_compose_group(tos, nos, maskbuf, x0, x1, y0, y1, nos->n_chan, |
1773 | 1.30k | nos->group_color_info->isadditive, |
1774 | 1.30k | nos->group_color_info->blend_procs, |
1775 | 1.30k | has_matte, false, drawn_comps, ctx->memory, dev); |
1776 | 1.30k | } |
1777 | 144k | } else { |
1778 | | /* Group color spaces are the same. No color conversions needed */ |
1779 | 144k | if (x0 < x1 && y0 < y1) |
1780 | 89.6k | pdf14_compose_group(tos, nos, maskbuf, x0, x1, y0, y1, nos->n_chan, |
1781 | 89.6k | ctx->additive, pblend_procs, has_matte, overprint, |
1782 | 89.6k | drawn_comps, ctx->memory, dev); |
1783 | 144k | } |
1784 | 463k | exit: |
1785 | 463k | ctx->stack = nos; |
1786 | | /* We want to detect the cases where we have luminosity soft masks embedded |
1787 | | within one another. The "alpha" channel really needs to be merged into |
1788 | | the luminosity channel in this case. This will occur during the mask pop */ |
1789 | 463k | if (ctx->smask_depth > 0 && maskbuf != NULL) { |
1790 | | /* Set the trigger so that we will blend if not alpha. Since |
1791 | | we have softmasks embedded in softmasks */ |
1792 | 363 | ctx->smask_blend = true; |
1793 | 363 | } |
1794 | 463k | if_debug1m('v', ctx->memory, "[v]pop buf, idle=%d\n", tos->idle); |
1795 | 463k | pdf14_buf_free(tos); |
1796 | 463k | if (code < 0) |
1797 | 0 | return_error(code); |
1798 | 463k | return 0; |
1799 | 463k | } |
1800 | | |
1801 | | /* |
1802 | | * Create a transparency mask that will be used as the mask for |
1803 | | * the next transparency group that is created afterwards. |
1804 | | * The sequence of calls is: |
1805 | | * push_mask, draw the mask, pop_mask, push_group, draw the group, pop_group |
1806 | | */ |
1807 | | static int |
1808 | | pdf14_push_transparency_mask(pdf14_ctx *ctx, gs_int_rect *rect, uint16_t bg_alpha, |
1809 | | byte *transfer_fn, bool is_ident, bool idle, |
1810 | | bool replacing, uint mask_id, |
1811 | | gs_transparency_mask_subtype_t subtype, |
1812 | | int numcomps, int Background_components, |
1813 | | const float Background[], int Matte_components, |
1814 | | const float Matte[], const float GrayBackground, |
1815 | | pdf14_group_color_t* group_color) |
1816 | 137k | { |
1817 | 137k | pdf14_buf *buf; |
1818 | 137k | int i; |
1819 | | |
1820 | 137k | if_debug2m('v', ctx->memory, |
1821 | 137k | "[v]pdf14_push_transparency_mask, idle=%d, replacing=%d\n", |
1822 | 137k | idle, replacing); |
1823 | 137k | ctx->smask_depth += 1; |
1824 | | |
1825 | 137k | if (ctx->stack == NULL) { |
1826 | 0 | return_error(gs_error_VMerror); |
1827 | 0 | } |
1828 | | |
1829 | | /* An optimization to consider is that if the SubType is Alpha |
1830 | | then we really should only be allocating the alpha band and |
1831 | | only draw with that channel. Current architecture makes that |
1832 | | a bit tricky. We need to create this based upon the size of |
1833 | | the color space + an alpha channel. NOT the device size |
1834 | | or the previous ctx size */ |
1835 | | /* A mask doesn't worry about tags */ |
1836 | 137k | buf = pdf14_buf_new(rect, false, false, false, idle, numcomps + 1, 0, |
1837 | 137k | ctx->memory, ctx->deep); |
1838 | 137k | if (buf == NULL) |
1839 | 0 | return_error(gs_error_VMerror); |
1840 | 137k | buf->alpha = bg_alpha; |
1841 | 137k | buf->is_ident = is_ident; |
1842 | | /* fill in, but these values aren't really used */ |
1843 | 137k | buf->isolated = true; |
1844 | 137k | buf->knockout = false; |
1845 | 137k | buf->shape = 0xffff; |
1846 | 137k | buf->blend_mode = BLEND_MODE_Normal; |
1847 | 137k | buf->transfer_fn = transfer_fn; |
1848 | 137k | buf->matte_num_comps = Matte_components; |
1849 | 137k | buf->group_color_info = group_color; |
1850 | | |
1851 | 137k | if (Matte_components) { |
1852 | 360 | buf->matte = (uint16_t *)gs_alloc_bytes(ctx->memory, Matte_components * sizeof(uint16_t) + CAL_SLOP, |
1853 | 360 | "pdf14_push_transparency_mask"); |
1854 | 360 | if (buf->matte == NULL) |
1855 | 0 | return_error(gs_error_VMerror); |
1856 | 1.44k | for (i = 0; i < Matte_components; i++) { |
1857 | 1.08k | buf->matte[i] = (uint16_t) floor(Matte[i] * 65535.0 + 0.5); |
1858 | 1.08k | } |
1859 | 360 | } |
1860 | 137k | buf->mask_id = mask_id; |
1861 | | /* If replacing=false, we start the mask for an image with SMask. |
1862 | | In this case the image's SMask temporary replaces the |
1863 | | mask of the containing group. Save the containing droup's mask |
1864 | | in buf->mask_stack */ |
1865 | 137k | buf->mask_stack = ctx->mask_stack; |
1866 | 137k | if (buf->mask_stack){ |
1867 | 28.9k | rc_increment(buf->mask_stack->rc_mask); |
1868 | 28.9k | } |
1869 | | #if RAW_DUMP |
1870 | | /* Dump the current buffer to see what we have. */ |
1871 | | if (ctx->stack->planestride > 0 ){ |
1872 | | dump_raw_buffer(ctx->memory, |
1873 | | ctx->stack->rect.q.y-ctx->stack->rect.p.y, |
1874 | | ctx->stack->rowstride>>ctx->stack->deep, ctx->stack->n_planes, |
1875 | | ctx->stack->planestride, ctx->stack->rowstride, |
1876 | | "Raw_Buf_PreSmask", ctx->stack->data, ctx->stack->deep); |
1877 | | global_index++; |
1878 | | } |
1879 | | #endif |
1880 | 137k | buf->saved = ctx->stack; |
1881 | 137k | ctx->stack = buf; |
1882 | | /* Soft Mask related information so we know how to |
1883 | | compute luminosity when we pop the soft mask */ |
1884 | 137k | buf->SMask_SubType = subtype; |
1885 | 137k | if (buf->data != NULL) { |
1886 | | /* We need to initialize it to the BC if it existed */ |
1887 | | /* According to the spec, the CS has to be the same */ |
1888 | | /* If the back ground component is black, then don't bother |
1889 | | with this. Since we are forcing the rendering to gray |
1890 | | earlier now, go ahead and just use the GrayBackGround color |
1891 | | directly. */ |
1892 | 89.6k | if ( Background_components && GrayBackground != 0.0 ) { |
1893 | 36 | if (buf->deep) { |
1894 | 0 | uint16_t gray = (uint16_t) (65535.0 * GrayBackground); |
1895 | 0 | gs_memset16(buf->data, gray, buf->planestride); |
1896 | | /* If we have a background component that was not black, then we |
1897 | | need to set the alpha for this mask as if we had drawn in the |
1898 | | entire soft mask buffer */ |
1899 | 0 | gs_memset16(buf->data + buf->planestride, 65535, |
1900 | 0 | buf->planestride *(buf->n_chan - 1)); |
1901 | 36 | } else { |
1902 | 36 | unsigned char gray = (unsigned char) (255.0 * GrayBackground); |
1903 | 36 | memset(buf->data, gray, buf->planestride); |
1904 | | /* If we have a background component that was not black, then we |
1905 | | need to set the alpha for this mask as if we had drawn in the |
1906 | | entire soft mask buffer */ |
1907 | 36 | memset(buf->data + buf->planestride, 255, |
1908 | 36 | (size_t)buf->planestride * (buf->n_chan - 1)); |
1909 | 36 | } |
1910 | 89.6k | } else { |
1911 | | /* Compose mask with opaque background */ |
1912 | 89.6k | memset(buf->data, 0, (size_t)buf->planestride * buf->n_chan); |
1913 | 89.6k | } |
1914 | 89.6k | } |
1915 | 137k | return 0; |
1916 | 137k | } |
1917 | | |
1918 | | static void pdf14_free_mask_stack(pdf14_ctx *ctx, gs_memory_t *memory) |
1919 | 28.9k | { |
1920 | 28.9k | pdf14_mask_t *mask_stack = ctx->mask_stack; |
1921 | | |
1922 | 28.9k | if (mask_stack->rc_mask != NULL) { |
1923 | 66 | pdf14_mask_t *curr_mask = mask_stack; |
1924 | 66 | pdf14_mask_t *old_mask; |
1925 | 132 | while (curr_mask != NULL) { |
1926 | | /* Force to decrement until free */ |
1927 | 198 | while (curr_mask->rc_mask != NULL) |
1928 | 132 | rc_decrement(curr_mask->rc_mask, "pdf14_free_mask_stack"); |
1929 | 66 | old_mask = curr_mask; |
1930 | 66 | curr_mask = curr_mask->previous; |
1931 | 66 | gs_free_object(old_mask->memory, old_mask, "pdf14_free_mask_stack"); |
1932 | 66 | } |
1933 | 28.8k | } else { |
1934 | 28.8k | gs_free_object(memory, mask_stack, "pdf14_free_mask_stack"); |
1935 | 28.8k | } |
1936 | 28.9k | ctx->mask_stack = NULL; |
1937 | 28.9k | } |
1938 | | |
1939 | | static int |
1940 | | pdf14_pop_transparency_mask(pdf14_ctx *ctx, gs_gstate *pgs, gx_device *dev) |
1941 | 137k | { |
1942 | 137k | pdf14_buf* tos = ctx->stack; |
1943 | 137k | pdf14_buf* nos = tos->saved; |
1944 | 137k | byte *new_data_buf; |
1945 | 137k | int icc_match; |
1946 | 137k | cmm_profile_t *des_profile = nos->group_color_info->icc_profile; /* If set, this should be a gray profile */ |
1947 | 137k | cmm_profile_t *src_profile; |
1948 | 137k | gsicc_rendering_param_t rendering_params; |
1949 | 137k | gsicc_link_t *icc_link; |
1950 | 137k | gsicc_rendering_param_t render_cond; |
1951 | 137k | cmm_dev_profile_t *dev_profile; |
1952 | 137k | int code = 0; |
1953 | | |
1954 | 137k | dev_proc(dev, get_profile)(dev, &dev_profile); |
1955 | 137k | gsicc_extract_profile(GS_UNKNOWN_TAG, dev_profile, &src_profile, |
1956 | 137k | &render_cond); |
1957 | 137k | ctx->smask_depth -= 1; |
1958 | | /* icc_match == -1 means old non-icc code. |
1959 | | icc_match == 0 means use icc code |
1960 | | icc_match == 1 mean no conversion needed */ |
1961 | 137k | if (des_profile != NULL && src_profile != NULL ) { |
1962 | 137k | icc_match = gsicc_profiles_equal(des_profile, src_profile); |
1963 | 137k | } else { |
1964 | 0 | icc_match = -1; |
1965 | 0 | } |
1966 | 137k | if_debug1m('v', ctx->memory, "[v]pdf14_pop_transparency_mask, idle=%d\n", |
1967 | 137k | tos->idle); |
1968 | 137k | ctx->stack = tos->saved; |
1969 | 137k | tos->saved = NULL; /* To avoid issues with GC */ |
1970 | 137k | if (tos->mask_stack) { |
1971 | | /* During the soft mask push, the mask_stack was copied (not moved) from |
1972 | | the ctx to the tos mask_stack. We are done with this now so it is safe to |
1973 | | just set to NULL. However, before we do that we must perform |
1974 | | rc decrement to match the increment that occured was made. Also, |
1975 | | if this is the last ref count of the rc_mask, we should free the |
1976 | | buffer now since no other groups need it. */ |
1977 | 28.9k | rc_decrement(tos->mask_stack->rc_mask, |
1978 | 28.9k | "pdf14_pop_transparency_mask(tos->mask_stack->rc_mask)"); |
1979 | 28.9k | if (tos->mask_stack->rc_mask) { |
1980 | 28.8k | if (tos->mask_stack->rc_mask->rc.ref_count == 1){ |
1981 | 28.7k | rc_decrement(tos->mask_stack->rc_mask, |
1982 | 28.7k | "pdf14_pop_transparency_mask(tos->mask_stack->rc_mask)"); |
1983 | 28.7k | } |
1984 | 28.8k | } |
1985 | 28.9k | tos->mask_stack = NULL; |
1986 | 28.9k | } |
1987 | 137k | if (tos->data == NULL ) { |
1988 | | /* This can occur in clist rendering if the soft mask does |
1989 | | not intersect the current band. It would be nice to |
1990 | | catch this earlier and just avoid creating the structure |
1991 | | to begin with. For now we need to delete the structure |
1992 | | that was created. Only delete if the alpha value is 65535 */ |
1993 | 47.4k | if ((tos->alpha == 65535 && tos->is_ident) || |
1994 | 47.4k | (!tos->is_ident && (tos->transfer_fn[tos->alpha>>8] == 255))) { |
1995 | 1.99k | pdf14_buf_free(tos); |
1996 | 1.99k | if (ctx->mask_stack != NULL) { |
1997 | 427 | pdf14_free_mask_stack(ctx, ctx->memory); |
1998 | 427 | } |
1999 | 45.4k | } else { |
2000 | | /* Assign as mask buffer */ |
2001 | 45.4k | if (ctx->mask_stack != NULL) { |
2002 | 7.74k | pdf14_free_mask_stack(ctx, ctx->memory); |
2003 | 7.74k | } |
2004 | 45.4k | ctx->mask_stack = pdf14_mask_element_new(ctx->memory); |
2005 | 45.4k | ctx->mask_stack->rc_mask = pdf14_rcmask_new(ctx->memory); |
2006 | 45.4k | ctx->mask_stack->rc_mask->mask_buf = tos; |
2007 | 45.4k | } |
2008 | 47.4k | ctx->smask_blend = false; /* just in case */ |
2009 | 89.6k | } else { |
2010 | | /* If we are already in the source space then there is no reason |
2011 | | to do the transformation */ |
2012 | | /* Lets get this to a monochrome buffer and map it to a luminance only value */ |
2013 | | /* This will reduce our memory. We won't reuse the existing one, due */ |
2014 | | /* Due to the fact that on certain systems we may have issues recovering */ |
2015 | | /* the data after a resize */ |
2016 | 89.6k | new_data_buf = gs_alloc_bytes(ctx->memory, tos->planestride + CAL_SLOP, |
2017 | 89.6k | "pdf14_pop_transparency_mask"); |
2018 | 89.6k | if (new_data_buf == NULL) |
2019 | 0 | return_error(gs_error_VMerror); |
2020 | | /* Initialize with 0. Need to do this since in Smask_Luminosity_Mapping |
2021 | | we won't be filling everything during the remap if it had not been |
2022 | | written into by the PDF14 fill rect */ |
2023 | 89.6k | memset(new_data_buf, 0, tos->planestride); |
2024 | | /* If the subtype was alpha, then just grab the alpha channel now |
2025 | | and we are all done */ |
2026 | 89.6k | if (tos->SMask_SubType == TRANSPARENCY_MASK_Alpha) { |
2027 | 10.8k | ctx->smask_blend = false; /* not used in this case */ |
2028 | 10.8k | smask_copy(tos->rect.q.y - tos->rect.p.y, |
2029 | 10.8k | (tos->rect.q.x - tos->rect.p.x)<<tos->deep, |
2030 | 10.8k | tos->rowstride, |
2031 | 10.8k | (tos->data)+tos->planestride, new_data_buf); |
2032 | | #if RAW_DUMP |
2033 | | /* Dump the current buffer to see what we have. */ |
2034 | | dump_raw_buffer(ctx->memory, |
2035 | | tos->rect.q.y-tos->rect.p.y, |
2036 | | tos->rowstride>>tos->deep, tos->n_planes, |
2037 | | tos->planestride, tos->rowstride, |
2038 | | "SMask_Pop_Alpha(Mask_Plane1)",tos->data, |
2039 | | tos->deep); |
2040 | | global_index++; |
2041 | | #endif |
2042 | 78.8k | } else { |
2043 | 78.8k | if (icc_match == 1 || tos->n_chan == 2) { |
2044 | | #if RAW_DUMP |
2045 | | /* Dump the current buffer to see what we have. */ |
2046 | | dump_raw_buffer(ctx->memory, |
2047 | | tos->rect.q.y-tos->rect.p.y, |
2048 | | tos->rowstride>>tos->deep, tos->n_planes, |
2049 | | tos->planestride, tos->rowstride, |
2050 | | "SMask_Pop_Lum(Mask_Plane0)",tos->data, |
2051 | | tos->deep); |
2052 | | global_index++; |
2053 | | #endif |
2054 | | /* There is no need to color convert. Data is already gray scale. |
2055 | | We just need to copy the gray plane. However it is |
2056 | | possible that the soft mask could have a soft mask which |
2057 | | would end us up with some alpha blending information |
2058 | | (Bug691803). In fact, according to the spec, the alpha |
2059 | | blending has to occur. See FTS test fts_26_2601.pdf |
2060 | | for an example of this. Softmask buffer is intialized |
2061 | | with BG values. It would be nice to keep track if buffer |
2062 | | ever has a alpha value not 1 so that we could detect and |
2063 | | avoid this blend if not needed. */ |
2064 | 78.8k | smask_blend(tos->data, tos->rect.q.x - tos->rect.p.x, |
2065 | 78.8k | tos->rect.q.y - tos->rect.p.y, tos->rowstride, |
2066 | 78.8k | tos->planestride, tos->deep); |
2067 | | #if RAW_DUMP |
2068 | | /* Dump the current buffer to see what we have. */ |
2069 | | dump_raw_buffer(ctx->memory, |
2070 | | tos->rect.q.y-tos->rect.p.y, |
2071 | | tos->rowstride>>tos->deep, tos->n_planes, |
2072 | | tos->planestride, tos->rowstride, |
2073 | | "SMask_Pop_Lum_Post_Blend",tos->data, |
2074 | | tos->deep); |
2075 | | global_index++; |
2076 | | #endif |
2077 | 78.8k | smask_copy(tos->rect.q.y - tos->rect.p.y, |
2078 | 78.8k | (tos->rect.q.x - tos->rect.p.x)<<tos->deep, |
2079 | 78.8k | tos->rowstride, tos->data, new_data_buf); |
2080 | 78.8k | } else { |
2081 | 0 | if ( icc_match == -1 ) { |
2082 | | /* The slow old fashioned way */ |
2083 | 0 | smask_luminosity_mapping(tos->rect.q.y - tos->rect.p.y , |
2084 | 0 | tos->rect.q.x - tos->rect.p.x,tos->n_chan, |
2085 | 0 | tos->rowstride, tos->planestride, |
2086 | 0 | tos->data, new_data_buf, ctx->additive, tos->SMask_SubType, |
2087 | 0 | tos->deep |
2088 | | #if RAW_DUMP |
2089 | | , ctx->memory |
2090 | | #endif |
2091 | 0 | ); |
2092 | 0 | } else { |
2093 | | /* ICC case where we use the CMM */ |
2094 | | /* Request the ICC link for the transform that we will need to use */ |
2095 | 0 | rendering_params.black_point_comp = gsBLACKPTCOMP_OFF; |
2096 | 0 | rendering_params.graphics_type_tag = GS_IMAGE_TAG; |
2097 | 0 | rendering_params.override_icc = false; |
2098 | 0 | rendering_params.preserve_black = gsBKPRESNOTSPECIFIED; |
2099 | 0 | rendering_params.rendering_intent = gsRELATIVECOLORIMETRIC; |
2100 | 0 | rendering_params.cmm = gsCMM_DEFAULT; |
2101 | 0 | icc_link = gsicc_get_link_profile(pgs, dev, des_profile, |
2102 | 0 | src_profile, &rendering_params, pgs->memory, false); |
2103 | 0 | code = smask_icc(dev, tos->rect.q.y - tos->rect.p.y, |
2104 | 0 | tos->rect.q.x - tos->rect.p.x, tos->n_chan, |
2105 | 0 | tos->rowstride, tos->planestride, |
2106 | 0 | tos->data, new_data_buf, icc_link, tos->deep); |
2107 | | /* Release the link */ |
2108 | 0 | gsicc_release_link(icc_link); |
2109 | 0 | } |
2110 | 0 | } |
2111 | 78.8k | } |
2112 | | /* Free the old object, NULL test was above */ |
2113 | 89.6k | gs_free_object(ctx->memory, tos->data, "pdf14_pop_transparency_mask"); |
2114 | 89.6k | tos->data = new_data_buf; |
2115 | | /* Data is single channel now */ |
2116 | 89.6k | tos->n_chan = 1; |
2117 | 89.6k | tos->n_planes = 1; |
2118 | | /* Assign as reference counted mask buffer */ |
2119 | 89.6k | if (ctx->mask_stack != NULL) { |
2120 | | /* In this case, the source file is wacky as it already had a |
2121 | | softmask and now is getting a replacement. We need to clean |
2122 | | up the softmask stack before doing this free and creating |
2123 | | a new stack. Bug 693312 */ |
2124 | 20.7k | pdf14_free_mask_stack(ctx, ctx->memory); |
2125 | 20.7k | } |
2126 | 89.6k | ctx->mask_stack = pdf14_mask_element_new(ctx->memory); |
2127 | 89.6k | if (ctx->mask_stack == NULL) |
2128 | 0 | return gs_note_error(gs_error_VMerror); |
2129 | 89.6k | ctx->mask_stack->rc_mask = pdf14_rcmask_new(ctx->memory); |
2130 | 89.6k | if (ctx->mask_stack->rc_mask == NULL) |
2131 | 0 | return gs_note_error(gs_error_VMerror); |
2132 | 89.6k | ctx->mask_stack->rc_mask->mask_buf = tos; |
2133 | 89.6k | } |
2134 | 137k | return code; |
2135 | 137k | } |
2136 | | |
2137 | | static pdf14_mask_t * |
2138 | | pdf14_mask_element_new(gs_memory_t *memory) |
2139 | 396k | { |
2140 | 396k | pdf14_mask_t *result; |
2141 | | |
2142 | 396k | result = gs_alloc_struct(memory, pdf14_mask_t, &st_pdf14_mask, |
2143 | 396k | "pdf14_mask_element_new"); |
2144 | 396k | if (result == NULL) |
2145 | 0 | return NULL; |
2146 | | /* Get the reference counted mask */ |
2147 | 396k | result->rc_mask = NULL; |
2148 | 396k | result->previous = NULL; |
2149 | 396k | result->memory = memory; |
2150 | 396k | return result; |
2151 | 396k | } |
2152 | | |
2153 | | static int |
2154 | | pdf14_push_transparency_state(gx_device *dev, gs_gstate *pgs) |
2155 | 0 | { |
2156 | | /* We need to push the current soft mask. We need to |
2157 | | be able to recover it if we draw a new one and |
2158 | | then obtain a Q operation ( a pop ) */ |
2159 | |
|
2160 | 0 | pdf14_device *pdev = (pdf14_device *)dev; |
2161 | 0 | pdf14_ctx *ctx = pdev->ctx; |
2162 | 0 | pdf14_mask_t *new_mask; |
2163 | |
|
2164 | 0 | if_debug0m('v', ctx->memory, "pdf14_push_transparency_state\n"); |
2165 | | /* We need to push the current mask buffer */ |
2166 | | /* Allocate a new element for the stack. |
2167 | | Don't do anything if there is no mask present.*/ |
2168 | 0 | if (ctx->mask_stack != NULL) { |
2169 | 0 | new_mask = pdf14_mask_element_new(ctx->memory); |
2170 | | /* Duplicate and make the link */ |
2171 | 0 | new_mask->rc_mask = ctx->mask_stack->rc_mask; |
2172 | 0 | rc_increment(new_mask->rc_mask); |
2173 | 0 | new_mask->previous = ctx->mask_stack; |
2174 | 0 | ctx->mask_stack = new_mask; |
2175 | 0 | } |
2176 | | #ifdef DEBUG |
2177 | | pdf14_debug_mask_stack_state(pdev->ctx); |
2178 | | #endif |
2179 | 0 | return 0; |
2180 | 0 | } |
2181 | | |
2182 | | static int |
2183 | | pdf14_pop_transparency_state(gx_device *dev, gs_gstate *pgs) |
2184 | 1.00M | { |
2185 | | /* Pop the soft mask. It is no longer needed. Likely due to |
2186 | | a Q that has occurred. */ |
2187 | 1.00M | pdf14_device *pdev = (pdf14_device *)dev; |
2188 | 1.00M | pdf14_ctx *ctx = pdev->ctx; |
2189 | 1.00M | pdf14_mask_t *old_mask; |
2190 | | |
2191 | 1.00M | if_debug0m('v', ctx->memory, "pdf14_pop_transparency_state\n"); |
2192 | | /* rc decrement the current link after we break it from |
2193 | | the list, then free the stack element. Don't do |
2194 | | anything if there is no mask present. */ |
2195 | 1.00M | if (ctx->mask_stack != NULL) { |
2196 | 166k | old_mask = ctx->mask_stack; |
2197 | 166k | ctx->mask_stack = ctx->mask_stack->previous; |
2198 | 166k | if (old_mask->rc_mask) { |
2199 | 166k | rc_decrement(old_mask->rc_mask, "pdf14_pop_transparency_state"); |
2200 | 166k | } |
2201 | 166k | gs_free_object(old_mask->memory, old_mask, "pdf14_pop_transparency_state"); |
2202 | | /* We need to have some special handling here for when we have nested |
2203 | | soft masks. There may be a copy in the stack that we may need to |
2204 | | adjust. */ |
2205 | 166k | if (ctx->smask_depth > 0) { |
2206 | 33 | if (ctx->stack != NULL && ctx->stack->mask_stack != NULL) { |
2207 | 0 | ctx->stack->mask_stack = ctx->mask_stack; |
2208 | 0 | } |
2209 | 33 | } |
2210 | 166k | } |
2211 | | #ifdef DEBUG |
2212 | | pdf14_debug_mask_stack_state(pdev->ctx); |
2213 | | #endif |
2214 | 1.00M | return 0; |
2215 | 1.00M | } |
2216 | | |
2217 | | static int |
2218 | | pdf14_open(gx_device *dev) |
2219 | 261k | { |
2220 | 261k | pdf14_device *pdev = (pdf14_device *)dev; |
2221 | | |
2222 | | /* If we are reenabling the device dont create a new ctx. Bug 697456 */ |
2223 | 261k | if (pdev->ctx == NULL) { |
2224 | 261k | bool has_tags = device_encodes_tags(dev); |
2225 | 261k | int bits_per_comp = ((dev->color_info.depth - has_tags*8) / |
2226 | 261k | dev->color_info.num_components); |
2227 | 261k | pdev->ctx = pdf14_ctx_new(dev, bits_per_comp > 8); |
2228 | 261k | if (pdev->ctx == NULL) |
2229 | 0 | return_error(gs_error_VMerror); |
2230 | | |
2231 | 261k | pdev->ctx->rect.p.x = 0; |
2232 | 261k | pdev->ctx->rect.p.y = 0; |
2233 | 261k | pdev->ctx->rect.q.x = dev->width; |
2234 | 261k | pdev->ctx->rect.q.y = dev->height; |
2235 | 261k | pdev->ctx->has_tags = has_tags; |
2236 | 261k | pdev->ctx->num_spots = pdev->color_info.num_components - pdev->num_std_colorants; |
2237 | 261k | pdev->ctx->additive = (pdev->color_info.polarity == GX_CINFO_POLARITY_ADDITIVE); |
2238 | 261k | pdev->ctx->n_chan = pdev->color_info.num_components; |
2239 | 261k | } |
2240 | 261k | pdev->free_devicen = true; |
2241 | 261k | pdev->text_group = PDF14_TEXTGROUP_NO_BT; |
2242 | 261k | return 0; |
2243 | 261k | } |
2244 | | |
2245 | | static const gx_cm_color_map_procs pdf14_DeviceCMYKspot_procs = { |
2246 | | pdf14_gray_cs_to_cmyk_cm, pdf14_rgb_cs_to_cmyk_cm, pdf14_cmyk_cs_to_cmyk_cm |
2247 | | }; |
2248 | | |
2249 | | static const gx_cm_color_map_procs pdf14_DeviceRGBspot_procs = { |
2250 | | pdf14_gray_cs_to_rgbspot_cm, pdf14_rgb_cs_to_rgbspot_cm, pdf14_cmyk_cs_to_rgbspot_cm |
2251 | | }; |
2252 | | |
2253 | | static const gx_cm_color_map_procs pdf14_DeviceGrayspot_procs = { |
2254 | | pdf14_gray_cs_to_grayspot_cm, pdf14_rgb_cs_to_grayspot_cm, pdf14_cmyk_cs_to_grayspot_cm |
2255 | | }; |
2256 | | |
2257 | | static const gx_cm_color_map_procs * |
2258 | | pdf14_cmykspot_get_color_mapping_procs(const gx_device * dev, const gx_device **tdev) |
2259 | 2.20M | { |
2260 | 2.20M | *tdev = dev; |
2261 | 2.20M | return &pdf14_DeviceCMYKspot_procs; |
2262 | 2.20M | } |
2263 | | |
2264 | | static const gx_cm_color_map_procs * |
2265 | | pdf14_rgbspot_get_color_mapping_procs(const gx_device * dev, const gx_device **tdev) |
2266 | 4.48M | { |
2267 | 4.48M | *tdev = dev; |
2268 | 4.48M | return &pdf14_DeviceRGBspot_procs; |
2269 | 4.48M | } |
2270 | | |
2271 | | static const gx_cm_color_map_procs * |
2272 | | pdf14_grayspot_get_color_mapping_procs(const gx_device * dev, const gx_device **tdev) |
2273 | 0 | { |
2274 | 0 | *tdev = dev; |
2275 | 0 | return &pdf14_DeviceGrayspot_procs; |
2276 | 0 | } |
2277 | | |
2278 | | static void |
2279 | | be_rev_cpy(uint16_t *dst,const uint16_t *src,int n) |
2280 | 0 | { |
2281 | 0 | for (; n != 0; n--) { |
2282 | 0 | uint16_t in = *src++; |
2283 | 0 | ((byte *)dst)[0] = in>>8; |
2284 | 0 | ((byte *)dst)[1] = in; |
2285 | 0 | dst++; |
2286 | 0 | } |
2287 | 0 | } |
2288 | | |
2289 | | /* Used to pass along information about the buffer created by the |
2290 | | pdf14 device. This is used by the pattern accumulator when the |
2291 | | pattern contains transparency. Note that if free_device is true then |
2292 | | we need to go ahead and get the buffer data copied and free up the |
2293 | | device. This only occurs at the end of a pattern accumulation operation */ |
2294 | | int |
2295 | | pdf14_get_buffer_information(const gx_device * dev, |
2296 | | gx_pattern_trans_t *transbuff, gs_memory_t *mem, |
2297 | | bool free_device) |
2298 | 17.6k | { |
2299 | 17.6k | const pdf14_device * pdev = (pdf14_device *)dev; |
2300 | 17.6k | pdf14_buf *buf; |
2301 | 17.6k | gs_int_rect rect; |
2302 | 17.6k | int x1,y1,width,height; |
2303 | | |
2304 | 17.6k | if ( pdev->ctx == NULL){ |
2305 | 0 | return 0; /* this can occur if the pattern is a clist */ |
2306 | 0 | } |
2307 | | #ifdef DEBUG |
2308 | | pdf14_debug_mask_stack_state(pdev->ctx); |
2309 | | #endif |
2310 | 17.6k | buf = pdev->ctx->stack; |
2311 | 17.6k | rect = buf->rect; |
2312 | 17.6k | transbuff->buf = (free_device ? NULL : buf); |
2313 | 17.6k | x1 = min(pdev->width, rect.q.x); |
2314 | 17.6k | y1 = min(pdev->height, rect.q.y); |
2315 | 17.6k | width = x1 - rect.p.x; |
2316 | 17.6k | height = y1 - rect.p.y; |
2317 | | |
2318 | 17.6k | transbuff->n_chan = buf->n_chan; |
2319 | 17.6k | transbuff->has_tags = buf->has_tags; |
2320 | 17.6k | transbuff->has_shape = buf->has_shape; |
2321 | 17.6k | transbuff->width = buf->rect.q.x - buf->rect.p.x; |
2322 | 17.6k | transbuff->height = buf->rect.q.y - buf->rect.p.y; |
2323 | 17.6k | transbuff->deep = buf->deep; |
2324 | | |
2325 | 17.6k | if (width <= 0 || height <= 0 || buf->data == NULL) { |
2326 | 1.52k | transbuff->planestride = 0; |
2327 | 1.52k | transbuff->rowstride = 0; |
2328 | 1.52k | return 0; |
2329 | 1.52k | } |
2330 | | |
2331 | 16.1k | if (free_device) { |
2332 | 6.11k | transbuff->pdev14 = NULL; |
2333 | 6.11k | transbuff->rect = rect; |
2334 | 6.11k | if ((width < transbuff->width) || (height < transbuff->height)) { |
2335 | | /* If the bbox is smaller than the whole buffer than go ahead and |
2336 | | create a new one to use. This can occur if we drew in a smaller |
2337 | | area than was specified by the transparency group rect. */ |
2338 | 0 | int rowstride = ((width + 3) & -4)<<buf->deep; |
2339 | 0 | int planestride = rowstride * height; |
2340 | 0 | int k, j; |
2341 | 0 | byte *buff_ptr_src, *buff_ptr_des; |
2342 | |
|
2343 | 0 | transbuff->planestride = planestride; |
2344 | 0 | transbuff->rowstride = rowstride; |
2345 | 0 | transbuff->transbytes = |
2346 | 0 | gs_alloc_bytes(mem, |
2347 | 0 | (size_t)planestride * |
2348 | 0 | (buf->n_chan + |
2349 | 0 | buf->has_tags ? 1 : 0) + CAL_SLOP, |
2350 | 0 | "pdf14_get_buffer_information"); |
2351 | 0 | if (transbuff->transbytes == NULL) |
2352 | 0 | return gs_error_VMerror; |
2353 | | |
2354 | 0 | transbuff->mem = mem; |
2355 | 0 | if (transbuff->deep) { |
2356 | 0 | for (j = 0; j < transbuff->n_chan; j++) { |
2357 | 0 | buff_ptr_src = buf->data + j * buf->planestride + |
2358 | 0 | buf->rowstride * rect.p.y + (rect.p.x<<buf->deep); |
2359 | 0 | buff_ptr_des = transbuff->transbytes + j * planestride; |
2360 | 0 | for (k = 0; k < height; k++) { |
2361 | 0 | be_rev_cpy((uint16_t *)buff_ptr_des, (const uint16_t *)buff_ptr_src, rowstride>>1); |
2362 | 0 | buff_ptr_des += rowstride; |
2363 | 0 | buff_ptr_src += buf->rowstride; |
2364 | 0 | } |
2365 | 0 | } |
2366 | 0 | } else { |
2367 | 0 | for (j = 0; j < transbuff->n_chan; j++) { |
2368 | 0 | buff_ptr_src = buf->data + j * buf->planestride + |
2369 | 0 | buf->rowstride * rect.p.y + (rect.p.x<<buf->deep); |
2370 | 0 | buff_ptr_des = transbuff->transbytes + j * planestride; |
2371 | 0 | for (k = 0; k < height; k++) { |
2372 | 0 | memcpy(buff_ptr_des, buff_ptr_src, rowstride); |
2373 | 0 | buff_ptr_des += rowstride; |
2374 | 0 | buff_ptr_src += buf->rowstride; |
2375 | 0 | } |
2376 | 0 | } |
2377 | 0 | } |
2378 | |
|
2379 | 6.11k | } else { |
2380 | | /* The entire buffer is used. Go ahead and grab the pointer and |
2381 | | clear the pointer in the pdf14 device data buffer so it is not |
2382 | | freed when we close the device */ |
2383 | 6.11k | transbuff->planestride = buf->planestride; |
2384 | 6.11k | transbuff->rowstride = buf->rowstride; |
2385 | 6.11k | transbuff->transbytes = buf->data; |
2386 | 6.11k | transbuff->mem = buf->memory; |
2387 | 6.11k | buf->data = NULL; /* So that the buffer is not freed */ |
2388 | 6.11k | if (transbuff->deep) { |
2389 | | /* We have the data in native endian. We need it in big endian. Do an in-place conversion. */ |
2390 | | /* FIXME: This is a nop on big endian machines. Is the compiler smart enough to spot that? */ |
2391 | 0 | uint16_t *buff_ptr; |
2392 | 0 | int j, k, z; |
2393 | 0 | int rowstride = transbuff->rowstride>>1; |
2394 | 0 | int planestride = transbuff->planestride; |
2395 | 0 | for (j = 0; j < transbuff->n_chan; j++) { |
2396 | 0 | buff_ptr = (uint16_t *)(transbuff->transbytes + j * planestride); |
2397 | 0 | for (k = 0; k < height; k++) { |
2398 | 0 | for (z = 0; z < width; z++) { |
2399 | 0 | uint16_t in = buff_ptr[z]; |
2400 | 0 | ((byte *)(&buff_ptr[z]))[0] = in>>8; |
2401 | 0 | ((byte *)(&buff_ptr[z]))[1] = in; |
2402 | 0 | } |
2403 | 0 | buff_ptr += rowstride; |
2404 | 0 | } |
2405 | 0 | } |
2406 | 0 | } |
2407 | 6.11k | } |
2408 | | #if RAW_DUMP |
2409 | | /* Dump the buffer that should be going into the pattern */; |
2410 | | dump_raw_buffer_be(buf->memory, |
2411 | | height, width, transbuff->n_chan, |
2412 | | transbuff->planestride, transbuff->rowstride, |
2413 | | "pdf14_pattern_buff", transbuff->transbytes, |
2414 | | transbuff->deep); |
2415 | | global_index++; |
2416 | | #endif |
2417 | | /* Go ahead and free up the pdf14 device */ |
2418 | 6.11k | dev_proc(dev, close_device)((gx_device *)dev); |
2419 | 9.99k | } else { |
2420 | | /* Here we are coming from one of the fill image / pattern / mask |
2421 | | operations */ |
2422 | 9.99k | transbuff->pdev14 = dev; |
2423 | 9.99k | transbuff->planestride = buf->planestride; |
2424 | 9.99k | transbuff->rowstride = buf->rowstride; |
2425 | 9.99k | transbuff->transbytes = buf->data; |
2426 | 9.99k | transbuff->mem = buf->memory; |
2427 | 9.99k | transbuff->rect = rect; |
2428 | | #if RAW_DUMP |
2429 | | /* Dump the buffer that should be going into the pattern */; |
2430 | | dump_raw_buffer(buf->memory, |
2431 | | height, width, buf->n_chan, |
2432 | | pdev->ctx->stack->planestride, pdev->ctx->stack->rowstride, |
2433 | | "pdf14_pattern_buff", |
2434 | | buf->data, |
2435 | | transbuff->deep); |
2436 | | global_index++; |
2437 | | #endif |
2438 | 9.99k | } |
2439 | 16.1k | return 0; |
2440 | 16.1k | } |
2441 | | |
2442 | | typedef void(*blend_image_row_proc_t) (const byte *gs_restrict buf_ptr, |
2443 | | int planestride, int width, int num_comp, uint16_t bg, byte *gs_restrict linebuf); |
2444 | | |
2445 | | |
2446 | | static int |
2447 | | pdf14_put_image_color_convert(const pdf14_device* dev, gs_gstate* pgs, cmm_profile_t* src_profile, |
2448 | | cmm_dev_profile_t* dev_target_profile, pdf14_buf** buf, |
2449 | | byte** buf_ptr, bool was_blended, int x, int y, int width, int height) |
2450 | 2.71k | { |
2451 | 2.71k | pdf14_buf* cm_result = NULL; |
2452 | 2.71k | cmm_profile_t* des_profile; |
2453 | 2.71k | gsicc_rendering_param_t render_cond; |
2454 | 2.71k | bool did_alloc; |
2455 | 2.71k | bool endian_swap; |
2456 | | |
2457 | 2.71k | gsicc_extract_profile(GS_UNKNOWN_TAG, dev_target_profile, &des_profile, |
2458 | 2.71k | &render_cond); |
2459 | | |
2460 | | #if RAW_DUMP |
2461 | | dump_raw_buffer(dev->ctx->memory, |
2462 | | height, width, (*buf)->n_planes, (*buf)->planestride, |
2463 | | (*buf)->rowstride, "pdf14_put_image_color_convert_pre", *buf_ptr, (*buf)->deep); |
2464 | | global_index++; |
2465 | | #endif |
2466 | | |
2467 | | /* If we are doing a 16 bit buffer it will be big endian if we have already done the |
2468 | | blend, otherwise it will be native endian. GS expects its 16bit buffers to be BE |
2469 | | but for sanity pdf14 device maintains 16bit buffers in native format. The CMM |
2470 | | will need to know if it is dealing with native or BE data. */ |
2471 | 2.71k | if (was_blended && (*buf)->deep) { |
2472 | | /* Data is in BE. If we are in a LE machine, CMM will need to swap for |
2473 | | color conversion */ |
2474 | | #if ARCH_IS_BIG_ENDIAN |
2475 | | endian_swap = false; |
2476 | | #else |
2477 | 0 | endian_swap = true; |
2478 | 0 | #endif |
2479 | 2.71k | } else { |
2480 | | /* Data is in native format. No swap needed for CMM */ |
2481 | 2.71k | endian_swap = false; |
2482 | 2.71k | } |
2483 | | |
2484 | 2.71k | cm_result = pdf14_transform_color_buffer_no_matte(pgs, dev->ctx, (gx_device*) dev, *buf, |
2485 | 2.71k | *buf_ptr, src_profile, des_profile, x, y, width, |
2486 | 2.71k | height, &did_alloc, (*buf)->deep, endian_swap); |
2487 | | |
2488 | 2.71k | if (cm_result == NULL) |
2489 | 0 | return_error(gs_error_VMerror); |
2490 | | |
2491 | | /* Update */ |
2492 | 2.71k | *buf = cm_result; |
2493 | | |
2494 | | /* Make sure our buf_ptr is pointing to the proper location */ |
2495 | 2.71k | if (did_alloc) |
2496 | 2.71k | *buf_ptr = cm_result->data; /* Note the lack of offset */ |
2497 | | |
2498 | | #if RAW_DUMP |
2499 | | dump_raw_buffer(dev->ctx->memory, |
2500 | | height, width, (*buf)->n_planes, (*buf)->planestride, |
2501 | | (*buf)->rowstride, "pdf14_put_image_color_convert_post", *buf_ptr, (*buf)->deep); |
2502 | | global_index++; |
2503 | | #endif |
2504 | 2.71k | return 0; |
2505 | 2.71k | } |
2506 | | |
2507 | | /** |
2508 | | * pdf14_put_image: Put rendered image to target device. |
2509 | | * @pdev: The PDF 1.4 rendering device. |
2510 | | * @pgs: State for image draw operation. |
2511 | | * @target: The target device. |
2512 | | * |
2513 | | * Puts the rendered image in @pdev's buffer to @target. This is called |
2514 | | * as part of the sequence of popping the PDF 1.4 device filter. |
2515 | | * |
2516 | | * Return code: negative on error. |
2517 | | **/ |
2518 | | static int |
2519 | | pdf14_put_image(gx_device * dev, gs_gstate * pgs, gx_device * target) |
2520 | 244k | { |
2521 | 244k | const pdf14_device * pdev = (pdf14_device *)dev; |
2522 | 244k | int code; |
2523 | 244k | gs_image1_t image; |
2524 | 244k | gx_image_enum_common_t *info; |
2525 | 244k | pdf14_buf *buf = pdev->ctx->stack; |
2526 | 244k | gs_int_rect rect; |
2527 | 244k | int y; |
2528 | 244k | int num_comp; |
2529 | 244k | byte *linebuf, *linebuf_unaligned; |
2530 | 244k | gs_color_space *pcs; |
2531 | 244k | int x1, y1, width, height; |
2532 | 244k | byte *buf_ptr; |
2533 | 244k | int num_rows_left; |
2534 | 244k | cmm_profile_t* src_profile = NULL; |
2535 | 244k | cmm_profile_t* des_profile = NULL; |
2536 | 244k | cmm_dev_profile_t *pdf14dev_profile; |
2537 | 244k | cmm_dev_profile_t *dev_target_profile; |
2538 | 244k | uint16_t bg; |
2539 | 244k | bool has_tags = device_encodes_tags(dev); |
2540 | 244k | bool deep = pdev->ctx->deep; |
2541 | 244k | int planestride; |
2542 | 244k | int rowstride; |
2543 | 244k | blend_image_row_proc_t blend_row; |
2544 | 244k | bool color_mismatch = false; |
2545 | 244k | bool supports_alpha = false; |
2546 | 244k | int i; |
2547 | 244k | int alpha_offset, tag_offset; |
2548 | 244k | const byte* buf_ptrs[GS_CLIENT_COLOR_MAX_COMPONENTS]; |
2549 | 244k | int rendering_intent_saved; |
2550 | | |
2551 | | /* Nothing was ever drawn. */ |
2552 | 244k | if (buf == NULL) |
2553 | 24.0k | return 0; |
2554 | | |
2555 | 220k | bg = buf->group_color_info->isadditive ? 65535 : 0; |
2556 | 220k | src_profile = buf->group_color_info->icc_profile; |
2557 | | |
2558 | 220k | num_comp = buf->n_chan - 1; |
2559 | 220k | rect = buf->rect; |
2560 | 220k | planestride = buf->planestride; |
2561 | 220k | rowstride = buf->rowstride; |
2562 | | |
2563 | | /* Make sure that this is the only item on the stack. Fuzzing revealed a |
2564 | | potential problem. Bug 694190 */ |
2565 | 220k | if (buf->saved != NULL) { |
2566 | 3 | return gs_throw(gs_error_unknownerror, "PDF14 device push/pop out of sync"); |
2567 | 3 | } |
2568 | 220k | if_debug0m('v', dev->memory, "[v]pdf14_put_image\n"); |
2569 | 220k | rect_intersect(rect, buf->dirty); |
2570 | 220k | x1 = min(pdev->width, rect.q.x); |
2571 | 220k | y1 = min(pdev->height, rect.q.y); |
2572 | 220k | width = x1 - rect.p.x; |
2573 | 220k | height = y1 - rect.p.y; |
2574 | | #ifdef DUMP_TO_PNG |
2575 | | dump_planar_rgba(pdev->memory, buf); |
2576 | | #endif |
2577 | 220k | if (width <= 0 || height <= 0 || buf->data == NULL) |
2578 | 44.2k | return 0; |
2579 | 175k | buf_ptr = buf->data + (rect.p.y - buf->rect.p.y) * buf->rowstride + ((rect.p.x - buf->rect.p.x) << deep); |
2580 | | |
2581 | | /* Check that target is OK. From fuzzing results the target could have been |
2582 | | destroyed, for e.g if it were a pattern accumulator that was closed |
2583 | | prematurely (Bug 694154). We should always be able to to get an ICC |
2584 | | profile from the target. */ |
2585 | 175k | code = dev_proc(target, get_profile)(target, &dev_target_profile); |
2586 | 175k | if (code < 0) |
2587 | 0 | return code; |
2588 | 175k | if (dev_target_profile == NULL) |
2589 | 0 | return gs_throw_code(gs_error_Fatal); |
2590 | | |
2591 | 175k | if (src_profile == NULL) { |
2592 | 0 | code = dev_proc(dev, get_profile)(dev, &pdf14dev_profile); |
2593 | 0 | if (code < 0) { |
2594 | 0 | return code; |
2595 | 0 | } |
2596 | 0 | src_profile = pdf14dev_profile->device_profile[GS_DEFAULT_DEVICE_PROFILE]; |
2597 | 0 | } |
2598 | | |
2599 | | /* Check if we have a color conversion issue */ |
2600 | 175k | des_profile = dev_target_profile->device_profile[GS_DEFAULT_DEVICE_PROFILE]; |
2601 | 175k | if (!gsicc_profiles_equal(des_profile, src_profile)) |
2602 | 11.3k | color_mismatch = true; |
2603 | | |
2604 | | /* Check if target supports alpha */ |
2605 | 175k | supports_alpha = dev_proc(target, dev_spec_op)(target, gxdso_supports_alpha, NULL, 0); |
2606 | 175k | code = 0; |
2607 | | |
2608 | | #if RAW_DUMP |
2609 | | dump_raw_buffer(pdev->ctx->memory, height, width, buf->n_planes, |
2610 | | pdev->ctx->stack->planestride, pdev->ctx->stack->rowstride, |
2611 | | "pre_final_blend", buf_ptr, deep); |
2612 | | #endif |
2613 | | |
2614 | | /* Note. The logic below will need a little rework if we ever |
2615 | | have a device that has tags and alpha support */ |
2616 | 175k | if (supports_alpha) { |
2617 | 0 | if (!color_mismatch) { |
2618 | 0 | alpha_offset = num_comp; |
2619 | 0 | tag_offset = buf->has_tags ? buf->n_chan : 0; |
2620 | |
|
2621 | 0 | for (i = 0; i < buf->n_planes; i++) |
2622 | 0 | buf_ptrs[i] = buf_ptr + i * planestride; |
2623 | 0 | code = dev_proc(target, put_image) (target, target, buf_ptrs, num_comp, |
2624 | 0 | rect.p.x, rect.p.y, width, height, |
2625 | 0 | rowstride, alpha_offset, |
2626 | 0 | tag_offset); |
2627 | | /* Right now code has number of rows written */ |
2628 | 0 | } else { |
2629 | | /* In this case, just color convert and maintain alpha. This is a case |
2630 | | where we either either blend in the right color space and have no |
2631 | | alpha for the output device or hand back the wrong color space with |
2632 | | alpha data. We choose the later. */ |
2633 | 0 | code = pdf14_put_image_color_convert(pdev, pgs, src_profile, |
2634 | 0 | dev_target_profile, &buf, &buf_ptr, false, rect.p.x, rect.p.y, |
2635 | 0 | width, height); |
2636 | 0 | if (code < 0) |
2637 | 0 | return code; |
2638 | | |
2639 | | /* reset */ |
2640 | 0 | rowstride = buf->rowstride; |
2641 | 0 | planestride = buf->planestride; |
2642 | 0 | num_comp = buf->n_chan - 1; |
2643 | 0 | alpha_offset = num_comp; |
2644 | 0 | tag_offset = buf->has_tags ? buf->n_chan : 0; |
2645 | | |
2646 | | /* And then out */ |
2647 | 0 | for (i = 0; i < buf->n_planes; i++) |
2648 | 0 | buf_ptrs[i] = buf_ptr + i * planestride; |
2649 | 0 | code = dev_proc(target, put_image) (target, target, buf_ptrs, num_comp, |
2650 | 0 | rect.p.x, rect.p.y, width, height, rowstride, alpha_offset, |
2651 | 0 | tag_offset); |
2652 | | /* Right now code has number of rows written */ |
2653 | 0 | } |
2654 | 175k | } else if (has_tags) { |
2655 | | /* We are going out to a device that supports tags */ |
2656 | 0 | if (deep) { |
2657 | 0 | gx_blend_image_buffer16(buf_ptr, width, height, rowstride, |
2658 | 0 | buf->planestride, num_comp, bg, false); |
2659 | 0 | } else { |
2660 | 0 | gx_blend_image_buffer(buf_ptr, width, height, rowstride, |
2661 | 0 | buf->planestride, num_comp, bg >> 8); |
2662 | 0 | } |
2663 | |
|
2664 | | #if RAW_DUMP |
2665 | | dump_raw_buffer(pdev->ctx->memory, height, width, buf->n_planes, |
2666 | | pdev->ctx->stack->planestride, pdev->ctx->stack->rowstride, |
2667 | | "post_final_blend", buf_ptr, deep); |
2668 | | #endif |
2669 | | |
2670 | | /* Take care of color issues */ |
2671 | 0 | if (color_mismatch) { |
2672 | | /* In this case, just color convert and maintain alpha. This is a case |
2673 | | where we either either blend in the right color space and have no |
2674 | | alpha for the output device or hand back the wrong color space with |
2675 | | alpha data. We choose the later. */ |
2676 | 0 | code = pdf14_put_image_color_convert(pdev, pgs, src_profile, dev_target_profile, |
2677 | 0 | &buf, &buf_ptr, true, rect.p.x, rect.p.y, width, height); |
2678 | 0 | if (code < 0) |
2679 | 0 | return code; |
2680 | |
|
2681 | | #if RAW_DUMP |
2682 | | dump_raw_buffer(pdev->ctx->memory, height, width, buf->n_planes, |
2683 | | pdev->ctx->stack->planestride, pdev->ctx->stack->rowstride, |
2684 | | "final_color_manage", buf_ptr, deep); |
2685 | | global_index++; |
2686 | | #endif |
2687 | 0 | } |
2688 | | |
2689 | | /* reset */ |
2690 | 0 | rowstride = buf->rowstride; |
2691 | 0 | planestride = buf->planestride; |
2692 | 0 | num_comp = buf->n_chan - 1; |
2693 | 0 | alpha_offset = 0; /* It is there but this indicates we have done the blend */ |
2694 | 0 | tag_offset = buf->has_tags ? buf->n_chan : 0; |
2695 | | |
2696 | | /* And then out */ |
2697 | 0 | for (i = 0; i < buf->n_planes; i++) |
2698 | 0 | buf_ptrs[i] = buf_ptr + i * planestride; |
2699 | 0 | code = dev_proc(target, put_image) (target, target, buf_ptrs, num_comp, |
2700 | 0 | rect.p.x, rect.p.y, width, height, rowstride, alpha_offset, |
2701 | 0 | tag_offset); |
2702 | | /* Right now code has number of rows written */ |
2703 | |
|
2704 | 0 | } |
2705 | | |
2706 | | /* If code > 0 then put image worked. Let it finish and then exit */ |
2707 | 175k | if (code > 0) { |
2708 | | /* We processed some or all of the rows. Continue until we are done */ |
2709 | 0 | num_rows_left = height - code; |
2710 | 0 | while (num_rows_left > 0) { |
2711 | 0 | code = dev_proc(target, put_image) (target, target, buf_ptrs, num_comp, |
2712 | 0 | rect.p.x, rect.p.y + code, width, |
2713 | 0 | num_rows_left, rowstride, |
2714 | 0 | alpha_offset, tag_offset); |
2715 | 0 | num_rows_left = num_rows_left - code; |
2716 | 0 | } |
2717 | 0 | return 0; |
2718 | 0 | } |
2719 | | |
2720 | | /* Target device did not support alpha or tags. |
2721 | | * Set color space in preparation for sending an image. |
2722 | | * color conversion will occur after blending with through |
2723 | | * the begin typed image work flow. |
2724 | | */ |
2725 | | |
2726 | 175k | planestride = buf->planestride; |
2727 | 175k | rowstride = buf->rowstride; |
2728 | 175k | code = gs_cspace_build_ICC(&pcs, NULL, pgs->memory); |
2729 | 175k | if (code < 0) |
2730 | 0 | return code; |
2731 | | /* Need to set this to avoid color management during the image color render |
2732 | | operation. Exception is for the special case when the destination was |
2733 | | CIELAB. Then we need to convert from default RGB to CIELAB in the put |
2734 | | image operation. That will happen here as we should have set the profile |
2735 | | for the pdf14 device to RGB and the target will be CIELAB. In addition, |
2736 | | the case when we have a blend color space that is different than the |
2737 | | target device color space */ |
2738 | 175k | pcs->cmm_icc_profile_data = src_profile; |
2739 | | |
2740 | | /* pcs takes a reference to the profile data it just retrieved. */ |
2741 | 175k | gsicc_adjust_profile_rc(pcs->cmm_icc_profile_data, 1, "pdf14_put_image"); |
2742 | 175k | gsicc_set_icc_range(&(pcs->cmm_icc_profile_data)); |
2743 | 175k | gs_image_t_init_adjust(&image, pcs, false); |
2744 | 175k | image.ImageMatrix.xx = (float)width; |
2745 | 175k | image.ImageMatrix.yy = (float)height; |
2746 | 175k | image.Width = width; |
2747 | 175k | image.Height = height; |
2748 | 175k | image.BitsPerComponent = deep ? 16 : 8; |
2749 | 175k | image.ColorSpace = pcs; |
2750 | 175k | ctm_only_writable(pgs).xx = (float)width; |
2751 | 175k | ctm_only_writable(pgs).xy = 0; |
2752 | 175k | ctm_only_writable(pgs).yx = 0; |
2753 | 175k | ctm_only_writable(pgs).yy = (float)height; |
2754 | 175k | ctm_only_writable(pgs).tx = (float)rect.p.x; |
2755 | 175k | ctm_only_writable(pgs).ty = (float)rect.p.y; |
2756 | | /* Make sure that the relative colorimetric rendering intent is |
2757 | | used for this image. */ |
2758 | 175k | rendering_intent_saved = pgs->renderingintent; |
2759 | 175k | pgs->renderingintent = gsRELATIVECOLORIMETRIC; |
2760 | 175k | code = dev_proc(target, begin_typed_image) (target, |
2761 | 175k | pgs, NULL, |
2762 | 175k | (gs_image_common_t *)&image, |
2763 | 175k | NULL, NULL, NULL, |
2764 | 175k | pgs->memory, &info); |
2765 | 175k | pgs->renderingintent = rendering_intent_saved; |
2766 | 175k | if (code < 0) { |
2767 | 0 | rc_decrement_only_cs(pcs, "pdf14_put_image"); |
2768 | 0 | return code; |
2769 | 0 | } |
2770 | | #if RAW_DUMP |
2771 | | /* Dump the current buffer to see what we have. */ |
2772 | | dump_raw_buffer(pdev->ctx->memory, |
2773 | | pdev->ctx->stack->rect.q.y-pdev->ctx->stack->rect.p.y, |
2774 | | pdev->ctx->stack->rect.q.x-pdev->ctx->stack->rect.p.x, |
2775 | | pdev->ctx->stack->n_planes, |
2776 | | pdev->ctx->stack->planestride, pdev->ctx->stack->rowstride, |
2777 | | "pdF14_putimage", pdev->ctx->stack->data, deep); |
2778 | | dump_raw_buffer(pdev->ctx->memory, |
2779 | | height, width, buf->n_planes, |
2780 | | pdev->ctx->stack->planestride, pdev->ctx->stack->rowstride, |
2781 | | "PDF14_PUTIMAGE_SMALL", buf_ptr, deep); |
2782 | | global_index++; |
2783 | | clist_band_count++; |
2784 | | #endif |
2785 | | /* Allocate on 32-byte border for AVX CMYK case. Four byte overflow for RGB case */ |
2786 | | /* 28 byte overflow for AVX CMYK case. */ |
2787 | 175k | #define SSE_ALIGN 32 |
2788 | 175k | #define SSE_OVERFLOW 28 |
2789 | 175k | linebuf_unaligned = gs_alloc_bytes(pdev->memory, width * (num_comp<<deep) + SSE_ALIGN + SSE_OVERFLOW, "pdf14_put_image"); |
2790 | 175k | if (linebuf_unaligned == NULL) |
2791 | 0 | return gs_error_VMerror; |
2792 | 175k | linebuf = linebuf_unaligned + ((-(intptr_t)linebuf_unaligned) & (SSE_ALIGN-1)); |
2793 | | |
2794 | 175k | blend_row = deep ? gx_build_blended_image_row16 : |
2795 | 175k | gx_build_blended_image_row; |
2796 | | #ifdef WITH_CAL |
2797 | | blend_row = cal_get_blend_row(pdev->memory->gs_lib_ctx->core->cal_ctx, |
2798 | | blend_row, num_comp, deep); |
2799 | | #endif |
2800 | | |
2801 | 175k | if (!deep) |
2802 | 175k | bg >>= 8; |
2803 | 2.01M | for (y = 0; y < height; y++) { |
2804 | 1.83M | gx_image_plane_t planes; |
2805 | 1.83M | int rows_used; |
2806 | | |
2807 | 1.83M | blend_row(buf_ptr, buf->planestride, width, num_comp, bg, linebuf); |
2808 | 1.83M | planes.data = linebuf; |
2809 | 1.83M | planes.data_x = 0; |
2810 | 1.83M | planes.raster = width * num_comp; |
2811 | 1.83M | info->procs->plane_data(info, &planes, 1, &rows_used); |
2812 | | /* todo: check return value */ |
2813 | 1.83M | buf_ptr += buf->rowstride; |
2814 | 1.83M | } |
2815 | 175k | gs_free_object(pdev->memory, linebuf_unaligned, "pdf14_put_image"); |
2816 | 175k | info->procs->end_image(info, true); |
2817 | | /* This will also decrement the device profile */ |
2818 | 175k | rc_decrement_only_cs(pcs, "pdf14_put_image"); |
2819 | 175k | return code; |
2820 | 175k | } |
2821 | | |
2822 | | /* Overprint simulation with spots. Collapse to CMYK */ |
2823 | | static void |
2824 | | template_spots_to_cmyk(byte *buf_ptr, int width, int height, int rowstride, |
2825 | | int planestride, int num_comp, int spot_start, int tag_offset, |
2826 | | cmyk_composite_map *map, bool keep_alpha) |
2827 | 0 | { |
2828 | 0 | int comp_num; |
2829 | 0 | uint cyan, magenta, yellow, black; |
2830 | 0 | cmyk_composite_map *cmyk_map_entry; |
2831 | 0 | int x, y; |
2832 | 0 | int position; |
2833 | 0 | byte comp, a; |
2834 | |
|
2835 | 0 | for (y = 0; y < height; y++) { |
2836 | 0 | position = y * rowstride; |
2837 | 0 | for (x = 0; x < width; x++) { |
2838 | 0 | a = buf_ptr[position + planestride * num_comp]; |
2839 | 0 | if (a != 0) { |
2840 | 0 | cyan = buf_ptr[position] * frac_1; |
2841 | 0 | magenta = buf_ptr[position + planestride] * frac_1; |
2842 | 0 | yellow = buf_ptr[position + planestride * 2] * frac_1; |
2843 | 0 | black = buf_ptr[position + planestride * 3] * frac_1; |
2844 | 0 | cmyk_map_entry = &(map[4]); |
2845 | 0 | for (comp_num = spot_start; comp_num < num_comp; comp_num++) { |
2846 | 0 | comp = buf_ptr[position + planestride * comp_num]; |
2847 | 0 | cyan += cmyk_map_entry->c * comp; |
2848 | 0 | magenta += cmyk_map_entry->m * comp; |
2849 | 0 | yellow += cmyk_map_entry->y * comp; |
2850 | 0 | black += cmyk_map_entry->k * comp; |
2851 | 0 | cmyk_map_entry++; |
2852 | 0 | } |
2853 | 0 | cyan /= frac_1; |
2854 | 0 | magenta /= frac_1; |
2855 | 0 | yellow /= frac_1; |
2856 | 0 | black /= frac_1; |
2857 | |
|
2858 | 0 | if (cyan > 255) |
2859 | 0 | cyan = 255; |
2860 | 0 | if (magenta > 255) |
2861 | 0 | magenta = 255; |
2862 | 0 | if (yellow > 255) |
2863 | 0 | yellow = 255; |
2864 | 0 | if (black > 255) |
2865 | 0 | black = 255; |
2866 | |
|
2867 | 0 | buf_ptr[position] = cyan; |
2868 | 0 | buf_ptr[position + planestride] = magenta; |
2869 | 0 | buf_ptr[position + planestride * 2] = yellow; |
2870 | 0 | buf_ptr[position + planestride * 3] = black; |
2871 | 0 | } |
2872 | 0 | if (keep_alpha) { |
2873 | | /* Move the alpha and tag data */ |
2874 | 0 | buf_ptr[position + planestride * 4] = a; |
2875 | 0 | if (tag_offset > 0) { |
2876 | 0 | buf_ptr[position + planestride * 5] = |
2877 | 0 | buf_ptr[position + planestride * tag_offset]; |
2878 | 0 | } |
2879 | 0 | } else { |
2880 | | /* Remove alpha but keep tags */ |
2881 | 0 | if (tag_offset > 0) { |
2882 | 0 | buf_ptr[position + planestride * 4] = |
2883 | 0 | buf_ptr[position + planestride * tag_offset]; |
2884 | 0 | } |
2885 | |
|
2886 | 0 | } |
2887 | 0 | position += 1; |
2888 | 0 | } |
2889 | 0 | } |
2890 | 0 | } |
2891 | | |
2892 | | static void |
2893 | | template_spots_to_cmyk_16(byte *buf_ptr_, int width, int height, int rowstride, |
2894 | | int planestride, int num_comp, int spot_start, int tag_offset, |
2895 | | cmyk_composite_map *map, bool keep_alpha) |
2896 | 0 | { |
2897 | 0 | int comp_num; |
2898 | 0 | ulong cyan, magenta, yellow, black; |
2899 | 0 | cmyk_composite_map *cmyk_map_entry; |
2900 | 0 | int x, y; |
2901 | 0 | int position; |
2902 | 0 | ulong comp, a; |
2903 | 0 | uint16_t *buf_ptr = (uint16_t *)(void *)buf_ptr_; |
2904 | | |
2905 | | /* planestride and rowstride are in bytes, and we want them in shorts */ |
2906 | 0 | planestride >>= 1; |
2907 | 0 | rowstride >>= 1; |
2908 | |
|
2909 | 0 | for (y = 0; y < height; y++) { |
2910 | 0 | position = y * rowstride; |
2911 | 0 | for (x = 0; x < width; x++) { |
2912 | 0 | a = buf_ptr[position + planestride * num_comp]; |
2913 | 0 | if (a != 0) { |
2914 | 0 | cyan = (ulong)buf_ptr[position] * frac_1_long; |
2915 | 0 | magenta = (ulong)buf_ptr[position + planestride] * frac_1_long; |
2916 | 0 | yellow = (ulong)buf_ptr[position + planestride * 2] * frac_1_long; |
2917 | 0 | black = (ulong)buf_ptr[position + planestride * 3] * frac_1_long; |
2918 | 0 | cmyk_map_entry = &(map[4]); |
2919 | 0 | for (comp_num = spot_start; comp_num < num_comp; comp_num++) { |
2920 | 0 | comp = buf_ptr[position + planestride * comp_num]; |
2921 | 0 | cyan += (ulong)cmyk_map_entry->c * comp; |
2922 | 0 | magenta += (ulong)cmyk_map_entry->m * comp; |
2923 | 0 | yellow += (ulong)cmyk_map_entry->y * comp; |
2924 | 0 | black += (ulong)cmyk_map_entry->k * comp; |
2925 | 0 | cmyk_map_entry++; |
2926 | 0 | } |
2927 | 0 | cyan /= frac_1_long; |
2928 | 0 | magenta /= frac_1_long; |
2929 | 0 | yellow /= frac_1_long; |
2930 | 0 | black /= frac_1_long; |
2931 | |
|
2932 | 0 | if (cyan > 65535) |
2933 | 0 | cyan = 65535; |
2934 | 0 | if (magenta > 65535) |
2935 | 0 | magenta = 65535; |
2936 | 0 | if (yellow > 65535) |
2937 | 0 | yellow = 65535; |
2938 | 0 | if (black > 65535) |
2939 | 0 | black = 65535; |
2940 | |
|
2941 | | #if ARCH_IS_BIG_ENDIAN |
2942 | | buf_ptr[position] = cyan; |
2943 | | buf_ptr[position + planestride] = magenta; |
2944 | | buf_ptr[position + planestride * 2] = yellow; |
2945 | | buf_ptr[position + planestride * 3] = black; |
2946 | | #else |
2947 | 0 | ((byte *)&buf_ptr[position])[0] = cyan >> 8; |
2948 | 0 | ((byte *)&buf_ptr[position])[1] = cyan; |
2949 | 0 | ((byte *)&buf_ptr[position + planestride])[0] = magenta >> 8; |
2950 | 0 | ((byte *)&buf_ptr[position + planestride])[1] = magenta; |
2951 | 0 | ((byte *)&buf_ptr[position + planestride * 2])[0] = yellow >> 8; |
2952 | 0 | ((byte *)&buf_ptr[position + planestride * 2])[1] = yellow; |
2953 | 0 | ((byte *)&buf_ptr[position + planestride * 3])[0] = black >> 8; |
2954 | 0 | ((byte *)&buf_ptr[position + planestride * 3])[1] = black; |
2955 | 0 | #endif |
2956 | 0 | } |
2957 | | /* Move the alpha and tag data */ |
2958 | | #if ARCH_IS_BIG_ENDIAN |
2959 | | if (keep_alpha) { |
2960 | | buf_ptr[position + planestride * 4] = a; |
2961 | | if (tag_offset > 0) { |
2962 | | buf_ptr[position + planestride * 5] = |
2963 | | buf_ptr[position + planestride * tag_offset]; |
2964 | | } |
2965 | | } else { |
2966 | | if (tag_offset > 0) { |
2967 | | buf_ptr[position + planestride * 4] = |
2968 | | buf_ptr[position + planestride * tag_offset]; |
2969 | | } |
2970 | | } |
2971 | | #else |
2972 | 0 | if (keep_alpha) { |
2973 | 0 | ((byte *)&buf_ptr[position + planestride * 4])[0] = a >> 8; |
2974 | 0 | ((byte *)&buf_ptr[position + planestride * 4])[1] = a; |
2975 | 0 | if (tag_offset > 0) { |
2976 | 0 | ((byte *)&buf_ptr[position + planestride * 5])[0] = |
2977 | 0 | buf_ptr[position + planestride * tag_offset] >> 8; |
2978 | 0 | ((byte *)&buf_ptr[position + planestride * 5])[1] = |
2979 | 0 | buf_ptr[position + planestride * tag_offset]; |
2980 | 0 | } |
2981 | 0 | } else { |
2982 | 0 | if (tag_offset > 0) { |
2983 | 0 | ((byte *)&buf_ptr[position + planestride * 4])[0] = |
2984 | 0 | buf_ptr[position + planestride * tag_offset] >> 8; |
2985 | 0 | ((byte *)&buf_ptr[position + planestride * 4])[1] = |
2986 | 0 | buf_ptr[position + planestride * tag_offset]; |
2987 | 0 | } |
2988 | 0 | } |
2989 | 0 | #endif |
2990 | 0 | position += 1; |
2991 | 0 | } |
2992 | 0 | } |
2993 | 0 | } |
2994 | | |
2995 | | static void |
2996 | | pdf14_spots_to_cmyk(byte *buf_ptr, int width, int height, int rowstride, |
2997 | | int planestride, int num_comp, int spot_start, int tag_offset, |
2998 | | cmyk_composite_map *map, bool keep_alpha, bool deep) |
2999 | 0 | { |
3000 | 0 | if (deep) { |
3001 | 0 | if (keep_alpha) { |
3002 | 0 | if (tag_offset > 0) { |
3003 | 0 | template_spots_to_cmyk_16(buf_ptr, width, height, rowstride, |
3004 | 0 | planestride, num_comp, spot_start, tag_offset, |
3005 | 0 | map, true); |
3006 | 0 | } else { |
3007 | 0 | template_spots_to_cmyk_16(buf_ptr, width, height, rowstride, |
3008 | 0 | planestride, num_comp, spot_start, 0, |
3009 | 0 | map, true); |
3010 | 0 | } |
3011 | 0 | } else { |
3012 | 0 | if (tag_offset > 0) { |
3013 | 0 | template_spots_to_cmyk_16(buf_ptr, width, height, rowstride, |
3014 | 0 | planestride, num_comp, spot_start, tag_offset, |
3015 | 0 | map, false); |
3016 | 0 | } else { |
3017 | 0 | template_spots_to_cmyk_16(buf_ptr, width, height, rowstride, |
3018 | 0 | planestride, num_comp, spot_start, 0, |
3019 | 0 | map, false); |
3020 | 0 | } |
3021 | 0 | } |
3022 | 0 | } else { |
3023 | 0 | if (keep_alpha) { |
3024 | 0 | if (tag_offset > 0) { |
3025 | 0 | template_spots_to_cmyk(buf_ptr, width, height, rowstride, |
3026 | 0 | planestride, num_comp, spot_start, tag_offset, |
3027 | 0 | map, true); |
3028 | 0 | } else { |
3029 | 0 | template_spots_to_cmyk(buf_ptr, width, height, rowstride, |
3030 | 0 | planestride, num_comp, spot_start, 0, |
3031 | 0 | map, true); |
3032 | 0 | } |
3033 | 0 | } else { |
3034 | 0 | if (tag_offset > 0) { |
3035 | 0 | template_spots_to_cmyk(buf_ptr, width, height, rowstride, |
3036 | 0 | planestride, num_comp, spot_start, tag_offset, |
3037 | 0 | map, false); |
3038 | 0 | } else { |
3039 | 0 | template_spots_to_cmyk(buf_ptr, width, height, rowstride, |
3040 | 0 | planestride, num_comp, spot_start, 0, |
3041 | 0 | map, false); |
3042 | 0 | } |
3043 | 0 | } |
3044 | 0 | } |
3045 | 0 | } |
3046 | | |
3047 | | /* This is for the case where we have mixture of spots and additive color. |
3048 | | For example, RGB + spots or Gray + spots */ |
3049 | | static void |
3050 | | pdf14_blend_image_mixed_buffer(byte* buf_ptr, int width, int height, int rowstride, |
3051 | | int planestride, int num_comp, int spot_start) |
3052 | 2.71k | { |
3053 | 2.71k | int x, y; |
3054 | 2.71k | int position; |
3055 | 2.71k | byte comp, a; |
3056 | 2.71k | int tmp, comp_num; |
3057 | | |
3058 | 33.6k | for (y = 0; y < height; y++) { |
3059 | 30.9k | position = y * rowstride; |
3060 | 42.4M | for (x = 0; x < width; x++) { |
3061 | 42.4M | a = buf_ptr[position + planestride * num_comp]; |
3062 | 42.4M | if ((a + 1) & 0xfe) { |
3063 | 584k | a ^= 0xff; |
3064 | 2.33M | for (comp_num = 0; comp_num < spot_start; comp_num++) { |
3065 | 1.75M | comp = buf_ptr[position + planestride * comp_num]; |
3066 | 1.75M | tmp = ((0xff - comp) * a) + 0x80; |
3067 | 1.75M | comp += (tmp + (tmp >> 8)) >> 8; |
3068 | 1.75M | buf_ptr[position + planestride * comp_num] = comp; |
3069 | 1.75M | } |
3070 | 584k | for (comp_num = spot_start; comp_num < num_comp; comp_num++) { |
3071 | 0 | comp = buf_ptr[position + planestride * comp_num]; |
3072 | 0 | tmp = ((-comp) * a) + 0x80; |
3073 | 0 | comp += (tmp + (tmp >> 8)) >> 8; |
3074 | 0 | buf_ptr[position + planestride * comp_num] = comp; |
3075 | 0 | } |
3076 | 41.8M | } else if (a == 0) { |
3077 | 10.1M | for (comp_num = 0; comp_num < spot_start; comp_num++) { |
3078 | 7.62M | buf_ptr[position + planestride * comp_num] = 0xff; |
3079 | 7.62M | } |
3080 | 2.54M | for (comp_num = spot_start; comp_num < num_comp; comp_num++) { |
3081 | 0 | buf_ptr[position + planestride * comp_num] = 0; |
3082 | 0 | } |
3083 | 2.54M | } |
3084 | 42.4M | position += 1; |
3085 | 42.4M | } |
3086 | 30.9k | } |
3087 | 2.71k | } |
3088 | | |
3089 | | static void |
3090 | | pdf14_blend_image_mixed_buffer16(byte* buf_ptr_, int width, int height, int rowstride, |
3091 | | int planestride, int num_comp, int spot_start) |
3092 | 0 | { |
3093 | 0 | uint16_t* buf_ptr = (uint16_t*)(void*)buf_ptr_; |
3094 | 0 | int x, y; |
3095 | 0 | int position; |
3096 | 0 | int comp, a; |
3097 | 0 | int tmp, comp_num; |
3098 | | |
3099 | | /* planestride and rowstride are in bytes, and we want them in shorts */ |
3100 | 0 | planestride >>= 1; |
3101 | 0 | rowstride >>= 1; |
3102 | | |
3103 | | /* Note that the input here is native endian, and the output must be in big endian! */ |
3104 | 0 | for (y = 0; y < height; y++) { |
3105 | 0 | position = y * rowstride; |
3106 | 0 | for (x = 0; x < width; x++) { |
3107 | | /* composite RGBA (or CMYKA, etc.) pixel with over solid background */ |
3108 | 0 | a = buf_ptr[position + planestride * num_comp]; |
3109 | 0 | if (a == 0) { |
3110 | 0 | for (comp_num = 0; comp_num < spot_start; comp_num++) { |
3111 | 0 | buf_ptr[position + planestride * comp_num] = 0xffff; |
3112 | 0 | } |
3113 | 0 | for (comp_num = spot_start; comp_num < num_comp; comp_num++) { |
3114 | 0 | buf_ptr[position + planestride * comp_num] = 0; |
3115 | 0 | } |
3116 | 0 | } else if (a == 0xffff) { |
3117 | | #if ARCH_IS_BIG_ENDIAN |
3118 | | #else |
3119 | | /* Convert from native -> big endian */ |
3120 | 0 | for (comp_num = 0; comp_num < num_comp; comp_num++) { |
3121 | 0 | comp = buf_ptr[position + planestride * comp_num]; |
3122 | 0 | ((byte*)&buf_ptr[position + planestride * comp_num])[0] = comp >> 8; |
3123 | 0 | ((byte*)&buf_ptr[position + planestride * comp_num])[1] = comp; |
3124 | 0 | } |
3125 | 0 | #endif |
3126 | 0 | } else { |
3127 | 0 | a ^= 0xffff; |
3128 | 0 | a += a >> 15; /* a is now 0 to 0x10000 */ |
3129 | 0 | a >>= 1; /* We can only use 15 bits as bg-comp has a sign bit we can't lose */ |
3130 | 0 | for (comp_num = 0; comp_num < spot_start; comp_num++) { |
3131 | 0 | comp = buf_ptr[position + planestride * comp_num]; |
3132 | 0 | tmp = ((0xffff - comp) * a) + 0x4000; |
3133 | 0 | comp += (tmp >> 15); /* Errors in bit 16 upwards will be ignored */ |
3134 | | /* Store as big endian */ |
3135 | 0 | ((byte*)&buf_ptr[position + planestride * comp_num])[0] = comp >> 8; |
3136 | 0 | ((byte*)&buf_ptr[position + planestride * comp_num])[1] = comp; |
3137 | 0 | } |
3138 | 0 | for (comp_num = spot_start; comp_num < num_comp; comp_num++) { |
3139 | 0 | comp = buf_ptr[position + planestride * comp_num]; |
3140 | 0 | tmp = ((0 - comp) * a) + 0x4000; |
3141 | 0 | comp += (tmp >> 15); /* Errors in bit 16 upwards will be ignored */ |
3142 | | /* Store as big endian */ |
3143 | 0 | ((byte*)&buf_ptr[position + planestride * comp_num])[0] = comp >> 8; |
3144 | 0 | ((byte*)&buf_ptr[position + planestride * comp_num])[1] = comp; |
3145 | 0 | } |
3146 | 0 | } |
3147 | 0 | position += 1; |
3148 | 0 | } |
3149 | 0 | } |
3150 | 0 | } |
3151 | | |
3152 | | static int |
3153 | | pdf14_put_blended_image_cmykspot(gx_device* dev, gx_device* target, |
3154 | | gs_gstate* pgs, pdf14_buf* buf, int planestride_in, |
3155 | | int rowstride_in, int x0, int y0, int width, int height, |
3156 | | int num_comp, uint16_t bg, bool has_tags, gs_int_rect rect_in, |
3157 | | gs_separations* pseparations, bool deep) |
3158 | 6.37k | { |
3159 | 6.37k | pdf14_device* pdev = (pdf14_device*)dev; |
3160 | 6.37k | int code = 0; |
3161 | 6.37k | int y; |
3162 | 6.37k | int num_rows_left; |
3163 | 6.37k | int i; |
3164 | 6.37k | gs_int_rect rect = rect_in; |
3165 | 6.37k | int planestride = planestride_in; |
3166 | 6.37k | int rowstride = rowstride_in; |
3167 | 6.37k | byte* buf_ptr = NULL; |
3168 | 6.37k | cmm_profile_t* src_profile = buf->group_color_info->icc_profile; |
3169 | 6.37k | cmm_profile_t* des_profile = NULL; |
3170 | 6.37k | cmm_dev_profile_t* dev_target_profile; |
3171 | 6.37k | cmm_dev_profile_t* pdf14dev_profile; |
3172 | 6.37k | bool color_mismatch = false; |
3173 | 6.37k | bool supports_alpha = false; |
3174 | 6.37k | const byte* buf_ptrs[GS_CLIENT_COLOR_MAX_COMPONENTS]; |
3175 | 6.37k | int alpha_offset = num_comp; |
3176 | 6.37k | int tag_offset = has_tags ? num_comp + 1 : 0; |
3177 | 6.37k | gs_color_space *pcs; |
3178 | 6.37k | gs_image1_t image; |
3179 | 6.37k | gx_image_enum_common_t *info; |
3180 | 6.37k | gx_image_plane_t planes[GS_IMAGE_MAX_COMPONENTS]; |
3181 | 6.37k | pdf14_buf *cm_result = NULL; |
3182 | 6.37k | bool did_alloc; |
3183 | 6.37k | bool target_sep_device = dev_proc(target, dev_spec_op)(target, gxdso_supports_devn, NULL, 0); |
3184 | 6.37k | bool has_spots = pdev->ctx->num_spots > 0; |
3185 | 6.37k | bool blend_spots = !target_sep_device && has_spots; |
3186 | | |
3187 | | /* Check if group color space is CMYK based */ |
3188 | 6.37k | code = dev_proc(target, get_profile)(target, &dev_target_profile); |
3189 | 6.37k | if (code < 0) |
3190 | 0 | return code; |
3191 | 6.37k | if (dev_target_profile == NULL) |
3192 | 0 | return gs_throw_code(gs_error_Fatal); |
3193 | | |
3194 | 6.37k | if (src_profile == NULL) { |
3195 | 0 | code = dev_proc(dev, get_profile)(dev, &pdf14dev_profile); |
3196 | 0 | if (code < 0) { |
3197 | 0 | return code; |
3198 | 0 | } |
3199 | 0 | src_profile = pdf14dev_profile->device_profile[GS_DEFAULT_DEVICE_PROFILE]; |
3200 | 0 | } |
3201 | | |
3202 | | /* If the target device does not support spot colors and we have spot colors |
3203 | | here due to overprint simulation (blend_spots == true), then we will need to convert the base |
3204 | | colors to CMYK if it is RGB or Gray so tha we can blend in the spot colors */ |
3205 | 6.37k | if (blend_spots && src_profile->data_cs != gsCMYK) { |
3206 | |
|
3207 | 0 | cm_result = pdf14_transform_color_buffer_no_matte(pgs, pdev->ctx, (gx_device *)dev, buf, |
3208 | 0 | buf->data, src_profile, pgs->icc_manager->default_cmyk, 0, 0, buf->rect.q.x, |
3209 | 0 | buf->rect.q.y, &did_alloc, buf->deep, false); |
3210 | 0 | if (cm_result == NULL) |
3211 | 0 | return_error(gs_error_VMerror); |
3212 | | |
3213 | | /* Update */ |
3214 | 0 | buf = cm_result; |
3215 | 0 | src_profile = pgs->icc_manager->default_cmyk; |
3216 | 0 | num_comp = buf->n_chan - 1; |
3217 | 0 | bg = 0; |
3218 | 0 | tag_offset = has_tags ? num_comp + 1 : 0; |
3219 | 0 | alpha_offset = num_comp; |
3220 | |
|
3221 | | #if RAW_DUMP |
3222 | | buf_ptr = buf->data + (rect.p.y - buf->rect.p.y) * buf->rowstride + ((rect.p.x - buf->rect.p.x) << deep); |
3223 | | dump_raw_buffer(target->memory, height, width, buf->n_planes, planestride, rowstride, |
3224 | | "convertbase_to_cmyk_for_spot_blend", buf_ptr, deep); |
3225 | | global_index++; |
3226 | | #endif |
3227 | 0 | } |
3228 | | |
3229 | | /* Fix order map if needed */ |
3230 | 29.1k | for (i = 0; i < num_comp; i++) { |
3231 | 22.7k | pdev->devn_params.separation_order_map[i] = i; |
3232 | 22.7k | } |
3233 | | |
3234 | | /* Check if we have a color conversion issue */ |
3235 | 6.37k | des_profile = dev_target_profile->device_profile[GS_DEFAULT_DEVICE_PROFILE]; |
3236 | 6.37k | if (!gsicc_profiles_equal(des_profile, src_profile)) |
3237 | 2.71k | color_mismatch = true; |
3238 | | |
3239 | | /* Check if target supports alpha */ |
3240 | 6.37k | supports_alpha = dev_proc(target, dev_spec_op)(target, gxdso_supports_alpha, NULL, 0); |
3241 | 6.37k | code = 0; |
3242 | | |
3243 | 6.37k | buf_ptr = buf->data + (rect.p.y - buf->rect.p.y) * buf->rowstride + ((rect.p.x - buf->rect.p.x) << deep); |
3244 | | |
3245 | | /* Note. The logic below will need a little rework if we ever |
3246 | | have a device that has tags and alpha support */ |
3247 | 6.37k | if (supports_alpha) { |
3248 | | |
3249 | | /* If doing simulated overprint, Bring the spot color channels into |
3250 | | CMYK. Data is planar and 16 bit data in native format. */ |
3251 | 0 | if (pdev->overprint_sim && pdev->devn_params.page_spot_colors > 0) { |
3252 | 0 | cmyk_composite_map cmyk_map[GX_DEVICE_MAX_SEPARATIONS]; /* Fracs */ |
3253 | | |
3254 | | /* In the clist case, we need to get equiv spots out of the pseudo-band. */ |
3255 | 0 | if (pdev->pclist_device != NULL) { |
3256 | 0 | gx_device_clist_reader *pcrdev = (gx_device_clist_reader *)(pdev->pclist_device); |
3257 | |
|
3258 | 0 | code = clist_read_op_equiv_cmyk_colors(pcrdev, &(pdev->op_pequiv_cmyk_colors)); |
3259 | 0 | if (code < 0) |
3260 | 0 | return code; |
3261 | 0 | } |
3262 | 0 | build_cmyk_map(dev, num_comp, &(pdev->op_pequiv_cmyk_colors), cmyk_map); |
3263 | | |
3264 | | /* Now we go to big endian */ |
3265 | 0 | pdf14_spots_to_cmyk(buf_ptr, width, height, rowstride, |
3266 | 0 | planestride, num_comp, src_profile->num_comps, |
3267 | 0 | tag_offset, cmyk_map, true, deep); |
3268 | | |
3269 | | /* Reset buffer information. We have CMYK+alpha and maybe tags */ |
3270 | 0 | buf->n_chan = buf->n_chan - buf->num_spots; |
3271 | 0 | buf->n_planes = buf->n_planes - buf->num_spots; |
3272 | 0 | buf->num_spots = 0; |
3273 | 0 | num_comp = buf->n_chan - 1; |
3274 | 0 | tag_offset = has_tags ? buf->n_planes - 1 : 0; /* Tags at end */ |
3275 | 0 | } |
3276 | | |
3277 | 0 | if (!color_mismatch) { |
3278 | 0 | for (i = 0; i < buf->n_planes; i++) |
3279 | 0 | buf_ptrs[i] = buf_ptr + i * planestride; |
3280 | 0 | code = dev_proc(target, put_image) (target, target, buf_ptrs, num_comp, |
3281 | 0 | rect.p.x, rect.p.y, width, height, |
3282 | 0 | rowstride, alpha_offset, tag_offset); |
3283 | | /* Right now code has number of rows written */ |
3284 | 0 | } else { |
3285 | | /* In this case, just color convert and maintain alpha. |
3286 | | This is a case where we either either blend in the |
3287 | | right color space and have no alpha for the output |
3288 | | device or hand back the wrong color space with |
3289 | | alpha data. We choose the later. */ |
3290 | 0 | code = pdf14_put_image_color_convert(pdev, pgs, src_profile, |
3291 | 0 | dev_target_profile, &buf, &buf_ptr, false, rect.p.x, |
3292 | 0 | rect.p.y, width, height); |
3293 | 0 | if (code < 0) |
3294 | 0 | return code; |
3295 | | |
3296 | | /* reset */ |
3297 | 0 | rowstride = buf->rowstride; |
3298 | 0 | planestride = buf->planestride; |
3299 | 0 | num_comp = buf->n_chan - 1; |
3300 | 0 | alpha_offset = num_comp; |
3301 | 0 | tag_offset = buf->has_tags ? buf->n_chan : 0; |
3302 | | |
3303 | | /* And then out */ |
3304 | 0 | for (i = 0; i < buf->n_planes; i++) |
3305 | 0 | buf_ptrs[i] = buf_ptr + i * planestride; |
3306 | 0 | code = dev_proc(target, put_image) (target, target, buf_ptrs, num_comp, |
3307 | 0 | rect.p.x, rect.p.y, width, height, rowstride, alpha_offset, |
3308 | 0 | tag_offset); |
3309 | | /* Right now code has number of rows written. Writing continues below */ |
3310 | 0 | } |
3311 | 6.37k | } else { |
3312 | | /* Device could not handle the alpha data (we actually don't have |
3313 | | a device that does spot colorants and has an alpha channel so |
3314 | | the above code is untested. Go ahead and preblend now and then |
3315 | | color convert if needed */ |
3316 | | #if RAW_DUMP |
3317 | | /* Dump before and after the blend to make sure we are doing that ok */ |
3318 | | dump_raw_buffer(target->memory, height, width, buf->n_planes, planestride, rowstride, |
3319 | | "pre_put_image_blend_image", buf_ptr, deep); |
3320 | | global_index++; |
3321 | | #endif |
3322 | | |
3323 | 6.37k | if (color_mismatch && (src_profile->data_cs == gsRGB || src_profile->data_cs == gsGRAY)) { |
3324 | 2.71k | if (deep) { |
3325 | | /* In this case, we are NOT going to bring the spots into the CMYK |
3326 | | equivalent colors, since otherwise src_profile would be CMYK based. So |
3327 | | 16 bit data will be converted now from native endian to big endian during |
3328 | | the blending process */ |
3329 | 0 | pdf14_blend_image_mixed_buffer16(buf_ptr, width, height, rowstride, |
3330 | 0 | planestride, num_comp, src_profile->num_comps); |
3331 | 2.71k | } else { |
3332 | 2.71k | pdf14_blend_image_mixed_buffer(buf_ptr, width, height, rowstride, |
3333 | 2.71k | planestride, num_comp, src_profile->num_comps); |
3334 | 2.71k | } |
3335 | 3.66k | } else { |
3336 | 3.66k | if (deep) { |
3337 | | /* In this case, if blend_spots == true, we will shortly be bringing |
3338 | | the spot colors to CMYK equivalent colors. It is at that time that |
3339 | | we will convert from native endian to big endian. In all other |
3340 | | cases this blending will due to conversion from native to BE */ |
3341 | 0 | bool keep_native = (blend_spots == true); |
3342 | |
|
3343 | 0 | gx_blend_image_buffer16(buf_ptr, width, height, rowstride, |
3344 | 0 | planestride, num_comp, bg, keep_native); |
3345 | 3.66k | } else { |
3346 | 3.66k | gx_blend_image_buffer(buf_ptr, width, height, rowstride, |
3347 | 3.66k | planestride, num_comp, bg >> 8); |
3348 | 3.66k | } |
3349 | 3.66k | } |
3350 | | |
3351 | | #if RAW_DUMP |
3352 | | dump_raw_buffer_be(target->memory, height, width, buf->n_planes, planestride, rowstride, |
3353 | | "post_put_image_blend_image", buf_ptr, deep); |
3354 | | global_index++; |
3355 | | #endif |
3356 | | |
3357 | | /* If doing simulated overprint and we are not going to a sep device and |
3358 | | we have spot colors, then bring the spot color channels into CMYK |
3359 | | (We should have already converted our base color space to CMYK if it was RGB or gray). |
3360 | | At this point, data is planar and 16 bit data is still in native format. It is |
3361 | | here that 16 bit data will be converted to BE. Otherwise it will have been converted |
3362 | | above during the alpha blend operation. */ |
3363 | 6.37k | if (blend_spots) { |
3364 | 0 | cmyk_composite_map cmyk_map[GX_DEVICE_MAX_SEPARATIONS]; /* Fracs */ |
3365 | | |
3366 | | /* In the clist case, we need to get equiv spots out of the |
3367 | | pseudo-band. */ |
3368 | 0 | if (pdev->pclist_device != NULL) { |
3369 | 0 | gx_device_clist_reader *pcrdev = (gx_device_clist_reader *)(pdev->pclist_device); |
3370 | 0 | code = clist_read_op_equiv_cmyk_colors(pcrdev, &(pdev->op_pequiv_cmyk_colors)); |
3371 | 0 | if (code < 0) |
3372 | 0 | return code; |
3373 | 0 | } |
3374 | | |
3375 | 0 | build_cmyk_map(dev, num_comp, &(pdev->op_pequiv_cmyk_colors), cmyk_map); |
3376 | 0 | pdf14_spots_to_cmyk(buf_ptr, width, height, rowstride, |
3377 | 0 | planestride, num_comp, src_profile->num_comps, |
3378 | 0 | tag_offset, cmyk_map, false, deep); |
3379 | | |
3380 | | /* Reset buffer information. We have CMYK and maybe tags */ |
3381 | 0 | num_comp = 4; |
3382 | 0 | alpha_offset = 0; |
3383 | 0 | buf->n_chan = buf->n_chan - buf->num_spots - 1; /* No spots or alpha */ |
3384 | 0 | buf->n_planes = buf->n_planes - buf->num_spots - 1; /* No spots or alpha */ |
3385 | 0 | tag_offset = has_tags ? buf->n_chan : 0; /* Tags at end */ |
3386 | 0 | buf->num_spots = 0; |
3387 | |
|
3388 | | #if RAW_DUMP |
3389 | | dump_raw_buffer(target->memory, height, width, buf->n_planes, planestride, rowstride, |
3390 | | "post_put_image_spot_to_cmyk", buf_ptr, deep); |
3391 | | global_index++; |
3392 | | #endif |
3393 | 0 | } |
3394 | | |
3395 | | /* Map to the destination color space */ |
3396 | 6.37k | if (color_mismatch) { |
3397 | 2.71k | code = pdf14_put_image_color_convert(pdev, pgs, src_profile, dev_target_profile, |
3398 | 2.71k | &buf, &buf_ptr, true, rect.p.x, rect.p.y, width, height); |
3399 | 2.71k | if (code < 0) |
3400 | 0 | return code; |
3401 | | |
3402 | | /* reset */ |
3403 | 2.71k | rowstride = buf->rowstride; |
3404 | 2.71k | planestride = buf->planestride; |
3405 | 2.71k | num_comp = buf->n_chan; |
3406 | 2.71k | tag_offset = buf->has_tags ? buf->n_chan : 0; |
3407 | 2.71k | } |
3408 | | |
3409 | | #if RAW_DUMP |
3410 | | /* Dump after the CS transform */ |
3411 | | dump_raw_buffer_be(target->memory, height, width, buf->n_planes, planestride, rowstride, |
3412 | | "post_put_image_color_convert", buf_ptr, deep); |
3413 | | global_index++; |
3414 | | /* clist_band_count++; */ |
3415 | | #endif |
3416 | | |
3417 | | /* Try put_image again. This can occur if the |
3418 | | target, like psdcmyk and tiffsep, support put_image */ |
3419 | 6.37k | alpha_offset = 0; |
3420 | 38.2k | for (i = 0; i < buf->n_planes; i++) |
3421 | 31.8k | buf_ptrs[i] = buf_ptr + i * planestride; |
3422 | 6.37k | code = dev_proc(target, put_image) (target, target, buf_ptrs, num_comp, |
3423 | 6.37k | rect.p.x, rect.p.y, width, height, |
3424 | 6.37k | rowstride, alpha_offset, tag_offset); |
3425 | 6.37k | } |
3426 | | |
3427 | | /* Put image was succesful. We processed some or all of the rows. |
3428 | | Continue until we are done */ |
3429 | 6.37k | if (code > 0) { |
3430 | 41 | num_rows_left = height - code; |
3431 | 41 | while (num_rows_left > 0) { |
3432 | 0 | code = dev_proc(target, put_image) (target, target, buf_ptrs, num_comp, |
3433 | 0 | rect.p.x, rect.p.y + code, width, num_rows_left, rowstride, |
3434 | 0 | alpha_offset, tag_offset); |
3435 | 0 | if (code < 0) { |
3436 | 0 | return code; |
3437 | 0 | } |
3438 | 0 | num_rows_left = num_rows_left - code; |
3439 | 0 | } |
3440 | 41 | return 0; |
3441 | 41 | } |
3442 | | |
3443 | | /* Sep devices all support put_image (tiffsep and psdcmyk) |
3444 | | as well as those devices that support alpha (pngalpha, |
3445 | | png16malpha). If we are here, then we are doing an |
3446 | | overprint simulation on some other device. Image data |
3447 | | is aleady blended and in device color space. */ |
3448 | 6.33k | code = gs_cspace_build_ICC(&pcs, NULL, pgs->memory); |
3449 | 6.33k | if (code < 0) |
3450 | 0 | return code; |
3451 | | |
3452 | | /* Already in destination CS */ |
3453 | 6.33k | pcs->cmm_icc_profile_data = des_profile; |
3454 | | |
3455 | | /* pcs takes a reference to the profile data it just retrieved. */ |
3456 | 6.33k | gsicc_adjust_profile_rc(pcs->cmm_icc_profile_data, 1, "pdf14_put_blended_image_cmykspot"); |
3457 | 6.33k | gsicc_set_icc_range(&(pcs->cmm_icc_profile_data)); |
3458 | 6.33k | gs_image_t_init_adjust(&image, pcs, false); |
3459 | 6.33k | image.ImageMatrix.xx = (float)width; |
3460 | 6.33k | image.ImageMatrix.yy = (float)height; |
3461 | 6.33k | image.Width = width; |
3462 | 6.33k | image.Height = height; |
3463 | 6.33k | image.BitsPerComponent = deep ? 16 : 8; |
3464 | 6.33k | image.ColorSpace = pcs; |
3465 | 6.33k | image.format = gs_image_format_component_planar; |
3466 | | |
3467 | 6.33k | ctm_only_writable(pgs).xx = (float)width; |
3468 | 6.33k | ctm_only_writable(pgs).xy = 0; |
3469 | 6.33k | ctm_only_writable(pgs).yx = 0; |
3470 | 6.33k | ctm_only_writable(pgs).yy = (float)height; |
3471 | 6.33k | ctm_only_writable(pgs).tx = (float)rect.p.x; |
3472 | 6.33k | ctm_only_writable(pgs).ty = (float)rect.p.y; |
3473 | 6.33k | code = dev_proc(target, begin_typed_image) (target, |
3474 | 6.33k | pgs, NULL, (gs_image_common_t *)&image, |
3475 | 6.33k | NULL, NULL, NULL, pgs->memory, &info); |
3476 | 6.33k | if (code < 0) { |
3477 | 0 | rc_decrement_only_cs(pcs, "pdf14_put_blended_image_cmykspot"); |
3478 | 0 | return code; |
3479 | 0 | } |
3480 | | #if RAW_DUMP |
3481 | | /* Dump the current buffer to see what we have. */ |
3482 | | dump_raw_buffer(pdev->ctx->memory, |
3483 | | pdev->ctx->stack->rect.q.y - pdev->ctx->stack->rect.p.y, |
3484 | | pdev->ctx->stack->rect.q.x - pdev->ctx->stack->rect.p.x, |
3485 | | pdev->ctx->stack->n_planes, |
3486 | | pdev->ctx->stack->planestride, pdev->ctx->stack->rowstride, |
3487 | | "put_image_final_big", pdev->ctx->stack->data, deep); |
3488 | | dump_raw_buffer(pdev->ctx->memory, |
3489 | | height, width, buf->n_planes, |
3490 | | pdev->ctx->stack->planestride, pdev->ctx->stack->rowstride, |
3491 | | "put_image_final_small", buf_ptr, deep); |
3492 | | global_index++; |
3493 | | clist_band_count++; |
3494 | | #endif |
3495 | | |
3496 | 34.3k | for (i = 0; i < num_comp; i++) { |
3497 | 28.0k | planes[i].data = buf_ptr + i * planestride; |
3498 | 28.0k | planes[i].data_x = 0; |
3499 | 28.0k | planes[i].raster = buf->rowstride; |
3500 | 28.0k | } |
3501 | | |
3502 | 74.8k | for (y = 0; y < height; y++) { |
3503 | 68.4k | int rows_used; |
3504 | | |
3505 | 68.4k | info->procs->plane_data(info, (const gx_image_plane_t*) &planes, 1, &rows_used); |
3506 | | |
3507 | 373k | for (i = 0; i < num_comp; i++) { |
3508 | 304k | planes[i].data += buf->rowstride; |
3509 | 304k | } |
3510 | 68.4k | } |
3511 | 6.33k | info->procs->end_image(info, true); |
3512 | | |
3513 | | /* This will also decrement the profile */ |
3514 | 6.33k | rc_decrement_only_cs(pcs, "pdf14_put_blended_image_cmykspot"); |
3515 | 6.33k | return code; |
3516 | 6.33k | } |
3517 | | |
3518 | | /** |
3519 | | * pdf14_cmykspot_put_image: Put rendered image to target device. |
3520 | | * @pdev: The PDF 1.4 rendering device. |
3521 | | * @pgs: State for image draw operation. |
3522 | | * @target: The target device. |
3523 | | * |
3524 | | * Puts the rendered image in @pdev's buffer to @target. This is called |
3525 | | * as part of the sequence of popping the PDF 1.4 device filter. |
3526 | | * |
3527 | | * Return code: negative on error. |
3528 | | **/ |
3529 | | static int |
3530 | | pdf14_cmykspot_put_image(gx_device *dev, gs_gstate *pgs, gx_device *target) |
3531 | 9.64k | { |
3532 | 9.64k | pdf14_device *pdev = (pdf14_device *)dev; |
3533 | 9.64k | pdf14_buf *buf = pdev->ctx->stack; |
3534 | 9.64k | gs_int_rect rect; |
3535 | 9.64k | int x1, y1, width, height; |
3536 | 9.64k | gs_devn_params *pdevn_params = &pdev->devn_params; |
3537 | 9.64k | gs_separations *pseparations = &pdevn_params->separations; |
3538 | 9.64k | int planestride; |
3539 | 9.64k | int rowstride; |
3540 | 9.64k | bool deep = pdev->ctx->deep; |
3541 | 9.64k | uint16_t bg; |
3542 | 9.64k | int num_comp; |
3543 | | |
3544 | | /* Nothing was ever drawn. */ |
3545 | 9.64k | if (buf == NULL) |
3546 | 2.17k | return 0; |
3547 | | |
3548 | 7.47k | bg = buf->group_color_info->isadditive ? 65535 : 0; |
3549 | 7.47k | num_comp = buf->n_chan - 1; |
3550 | 7.47k | rect = buf->rect; |
3551 | 7.47k | planestride = buf->planestride; |
3552 | 7.47k | rowstride = buf->rowstride; |
3553 | | |
3554 | | /* Make sure that this is the only item on the stack. Fuzzing revealed a |
3555 | | potential problem. Bug 694190 */ |
3556 | 7.47k | if (buf->saved != NULL) { |
3557 | 0 | return gs_throw(gs_error_unknownerror, "PDF14 device push/pop out of sync"); |
3558 | 0 | } |
3559 | 7.47k | if_debug0m('v', dev->memory, "[v]pdf14_cmykspot_put_image\n"); |
3560 | 7.47k | rect_intersect(rect, buf->dirty); |
3561 | 7.47k | x1 = min(pdev->width, rect.q.x); |
3562 | 7.47k | y1 = min(pdev->height, rect.q.y); |
3563 | 7.47k | width = x1 - rect.p.x; |
3564 | 7.47k | height = y1 - rect.p.y; |
3565 | 7.47k | if (width <= 0 || height <= 0 || buf->data == NULL) |
3566 | 1.10k | return 0; |
3567 | | |
3568 | | #if RAW_DUMP |
3569 | | /* Dump the current buffer to see what we have. */ |
3570 | | dump_raw_buffer(pdev->ctx->memory, |
3571 | | pdev->ctx->stack->rect.q.y-pdev->ctx->stack->rect.p.y, |
3572 | | pdev->ctx->stack->rect.q.x-pdev->ctx->stack->rect.p.x, |
3573 | | pdev->ctx->stack->n_planes, |
3574 | | pdev->ctx->stack->planestride, pdev->ctx->stack->rowstride, |
3575 | | "CMYK_SPOT_PUTIMAGE", pdev->ctx->stack->data, |
3576 | | pdev->ctx->stack->deep); |
3577 | | |
3578 | | global_index++; |
3579 | | clist_band_count++; |
3580 | | #endif |
3581 | | |
3582 | 6.37k | return pdf14_put_blended_image_cmykspot(dev, target, pgs, |
3583 | 6.37k | buf, planestride, rowstride, |
3584 | 6.37k | rect.p.x, rect.p.y, width, height, num_comp, bg, |
3585 | 6.37k | buf->has_tags, rect, pseparations, deep); |
3586 | 7.47k | } |
3587 | | |
3588 | | /** |
3589 | | * pdf14_custom_put_image: Put rendered image to target device. |
3590 | | * @pdev: The PDF 1.4 rendering device. |
3591 | | * @pgs: State for image draw operation. |
3592 | | * @target: The target device. |
3593 | | * |
3594 | | * Puts the rendered image in @pdev's buffer to @target. This is called |
3595 | | * as part of the sequence of popping the PDF 1.4 device filter. |
3596 | | * |
3597 | | * Return code: negative on error. |
3598 | | **/ |
3599 | | static int |
3600 | | pdf14_custom_put_image(gx_device * dev, gs_gstate * pgs, gx_device * target) |
3601 | 0 | { |
3602 | 0 | pdf14_device * pdev = (pdf14_device *)dev; |
3603 | 0 | pdf14_buf *buf = pdev->ctx->stack; |
3604 | 0 | bool deep = pdev->ctx->deep; |
3605 | 0 | gs_int_rect rect; |
3606 | 0 | int x0, y0; |
3607 | 0 | int planestride; |
3608 | 0 | int rowstride; |
3609 | 0 | int num_comp; |
3610 | 0 | uint16_t bg; |
3611 | 0 | int x1, y1, width, height; |
3612 | 0 | byte *buf_ptr; |
3613 | | |
3614 | | /* Nothing was ever drawn. */ |
3615 | 0 | if (buf == NULL) |
3616 | 0 | return 0; |
3617 | | |
3618 | 0 | bg = pdev->ctx->additive ? 0xffff : 0; |
3619 | 0 | num_comp = buf->n_chan - 1; |
3620 | 0 | rect = buf->rect; |
3621 | 0 | x0 = rect.p.x; |
3622 | 0 | y0 = rect.p.y; |
3623 | 0 | planestride = buf->planestride; |
3624 | 0 | rowstride = buf->rowstride; |
3625 | | |
3626 | | /* Make sure that this is the only item on the stack. Fuzzing revealed a |
3627 | | potential problem. Bug 694190 */ |
3628 | 0 | if (buf->saved != NULL) { |
3629 | 0 | return gs_throw(gs_error_unknownerror, "PDF14 device push/pop out of sync"); |
3630 | 0 | } |
3631 | 0 | if_debug0m('v', dev->memory, "[v]pdf14_custom_put_image\n"); |
3632 | 0 | rect_intersect(rect, buf->dirty); |
3633 | 0 | x1 = min(pdev->width, rect.q.x); |
3634 | 0 | y1 = min(pdev->height, rect.q.y); |
3635 | 0 | width = x1 - rect.p.x; |
3636 | 0 | height = y1 - rect.p.y; |
3637 | 0 | if (width <= 0 || height <= 0 || buf->data == NULL) |
3638 | 0 | return 0; |
3639 | 0 | buf_ptr = buf->data + (rect.p.y - buf->rect.p.y) * buf->rowstride + ((rect.p.x - buf->rect.p.x)<<deep); |
3640 | |
|
3641 | 0 | return gx_put_blended_image_custom(target, buf_ptr, |
3642 | 0 | planestride, rowstride, |
3643 | 0 | x0, y0, width, height, num_comp, bg, deep); |
3644 | 0 | } |
3645 | | |
3646 | | /* This is rather nasty: in the event we are interrupted (by an error) between a push and pop |
3647 | | * of one or more groups, we have to cycle through any ICC profile changes since the push |
3648 | | * putting everything back how it was, and cleaning up the reference counts. |
3649 | | */ |
3650 | | static void pdf14_cleanup_group_color_profiles (pdf14_device *pdev) |
3651 | 531k | { |
3652 | 531k | if (pdev->ctx && pdev->ctx->stack) { |
3653 | 233k | pdf14_buf *buf, *next; |
3654 | | |
3655 | 233k | for (buf = pdev->ctx->stack->saved; buf != NULL; buf = next) { |
3656 | 22 | pdf14_group_color_t *group_color_info = buf->group_color_info; |
3657 | 22 | next = buf->saved; |
3658 | 44 | while (group_color_info) { |
3659 | 22 | if (group_color_info->icc_profile != NULL) { |
3660 | 22 | cmm_profile_t *group_profile; |
3661 | 22 | gsicc_rendering_param_t render_cond; |
3662 | 22 | cmm_dev_profile_t *dev_profile; |
3663 | 22 | int code = dev_proc((gx_device *)pdev, get_profile)((gx_device *)pdev, &dev_profile); |
3664 | | |
3665 | 22 | if (code >= 0) { |
3666 | 22 | gsicc_extract_profile(GS_UNKNOWN_TAG, dev_profile, &group_profile, |
3667 | 22 | &render_cond); |
3668 | | |
3669 | 22 | gsicc_adjust_profile_rc(pdev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE], |
3670 | 22 | -1, "pdf14_end_transparency_group"); |
3671 | 22 | pdev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE] = |
3672 | 22 | group_color_info->icc_profile; |
3673 | 22 | group_color_info->icc_profile = NULL; |
3674 | 22 | } |
3675 | 22 | } |
3676 | | |
3677 | 22 | group_color_info = group_color_info->previous; |
3678 | 22 | } |
3679 | 22 | } |
3680 | 233k | } |
3681 | 531k | } |
3682 | | |
3683 | | static int |
3684 | | pdf14_close(gx_device *dev) |
3685 | 267k | { |
3686 | 267k | pdf14_device *pdev = (pdf14_device *)dev; |
3687 | | |
3688 | 267k | pdf14_cleanup_group_color_profiles(pdev); |
3689 | | |
3690 | 267k | if (pdev->ctx) { |
3691 | 261k | pdf14_ctx_free(pdev->ctx); |
3692 | 261k | pdev->ctx = NULL; |
3693 | 261k | } |
3694 | 267k | return 0; |
3695 | 267k | } |
3696 | | |
3697 | | /* This is called when something has gone wrong and the interpreter received a |
3698 | | stop while in the middle of doing something with the PDF14 device. We need |
3699 | | to clean up and end this in a graceful manner */ |
3700 | | static int |
3701 | | pdf14_discard_trans_layer(gx_device *dev, gs_gstate * pgs) |
3702 | 0 | { |
3703 | 0 | pdf14_device *pdev = (pdf14_device *)dev; |
3704 | | /* The things that need to be cleaned up */ |
3705 | 0 | pdf14_ctx *ctx = pdev->ctx; |
3706 | 0 | pdf14_smaskcolor_t *smaskcolor = pdev->smaskcolor; |
3707 | 0 | pdf14_group_color_t *group_color = pdev->color_model_stack; |
3708 | | |
3709 | | /* Free up the smask color */ |
3710 | 0 | if (smaskcolor != NULL) { |
3711 | 0 | smaskcolor->ref_count = 1; |
3712 | 0 | pdf14_decrement_smask_color(pgs, dev); |
3713 | 0 | pdev->smaskcolor = NULL; |
3714 | 0 | } |
3715 | | |
3716 | | /* Free up the nested color procs and decrement the profiles */ |
3717 | 0 | if (group_color != NULL) { |
3718 | 0 | while (group_color->previous != NULL) |
3719 | 0 | pdf14_pop_group_color(dev, pgs); |
3720 | 0 | gs_free_object(dev->memory->stable_memory, group_color, "pdf14_discard_trans_layer"); |
3721 | 0 | pdev->color_model_stack = NULL; |
3722 | 0 | } |
3723 | | |
3724 | | /* Start the context clean up */ |
3725 | 0 | if (ctx != NULL) { |
3726 | 0 | pdf14_buf *buf, *next; |
3727 | 0 | pdf14_group_color_t *procs, *prev_procs; |
3728 | |
|
3729 | 0 | if (ctx->mask_stack != NULL) { |
3730 | 0 | pdf14_free_mask_stack(ctx, ctx->memory); |
3731 | 0 | } |
3732 | | |
3733 | | /* Now the stack of buffers */ |
3734 | 0 | for (buf = ctx->stack; buf != NULL; buf = next) { |
3735 | 0 | next = buf->saved; |
3736 | |
|
3737 | 0 | gs_free_object(ctx->memory, buf->transfer_fn, "pdf14_discard_trans_layer"); |
3738 | 0 | gs_free_object(ctx->memory, buf->matte, "pdf14_discard_trans_layer"); |
3739 | 0 | gs_free_object(ctx->memory, buf->data, "pdf14_discard_trans_layer"); |
3740 | 0 | gs_free_object(ctx->memory, buf->backdrop, "pdf14_discard_trans_layer"); |
3741 | | /* During the soft mask push, the mask_stack was copied (not moved) from |
3742 | | the ctx to the tos mask_stack. We are done with this now so it is safe |
3743 | | to free this one object */ |
3744 | 0 | gs_free_object(ctx->memory, buf->mask_stack, "pdf14_discard_trans_layer"); |
3745 | 0 | for (procs = buf->group_color_info; procs != NULL; procs = prev_procs) { |
3746 | 0 | prev_procs = procs->previous; |
3747 | 0 | gs_free_object(ctx->memory, procs, "pdf14_discard_trans_layer"); |
3748 | 0 | } |
3749 | 0 | gs_free_object(ctx->memory, buf, "pdf14_discard_trans_layer"); |
3750 | 0 | } |
3751 | | /* Finally the context itself */ |
3752 | 0 | gs_free_object(ctx->memory, ctx, "pdf14_discard_trans_layer"); |
3753 | 0 | pdev->ctx = NULL; |
3754 | 0 | } |
3755 | 0 | return 0; |
3756 | 0 | } |
3757 | | |
3758 | | static int |
3759 | | pdf14_output_page(gx_device * dev, int num_copies, int flush) |
3760 | 0 | { |
3761 | 0 | pdf14_device * pdev = (pdf14_device *)dev; |
3762 | |
|
3763 | 0 | if (pdev->target != NULL) |
3764 | 0 | return (*dev_proc(pdev->target, output_page)) (pdev->target, num_copies, flush); |
3765 | 0 | return 0; |
3766 | 0 | } |
3767 | | |
3768 | 1.85M | #define COPY_PARAM(p) dev->p = target->p |
3769 | 1.32M | #define COPY_ARRAY_PARAM(p) memcpy(dev->p, target->p, sizeof(dev->p)) |
3770 | | |
3771 | | /* |
3772 | | * Copy device parameters back from a target. This copies all standard |
3773 | | * parameters related to page size and resolution, but not any of the |
3774 | | * color-related parameters, as the pdf14 device retains its own color |
3775 | | * handling. This routine is parallel to gx_device_copy_params(). |
3776 | | * Note that it DOES copy the devn_params since these are required to |
3777 | | * keep agreement with colorant name->number mapping, and don't change |
3778 | | * with the pdf14 color handling. |
3779 | | */ |
3780 | | static void |
3781 | | gs_pdf14_device_copy_params(gx_device *dev, const gx_device *target) |
3782 | 264k | { |
3783 | 264k | cmm_dev_profile_t *profile_targ; |
3784 | 264k | cmm_dev_profile_t *profile_dev14; |
3785 | 264k | pdf14_device *pdev = (pdf14_device*) dev; |
3786 | 264k | cmm_profile_t *blend_profile = NULL; |
3787 | 264k | int k; |
3788 | | |
3789 | 264k | COPY_PARAM(width); |
3790 | 264k | COPY_PARAM(height); |
3791 | 264k | COPY_ARRAY_PARAM(MediaSize); |
3792 | 264k | COPY_ARRAY_PARAM(ImagingBBox); |
3793 | 264k | COPY_PARAM(ImagingBBox_set); |
3794 | 264k | COPY_ARRAY_PARAM(HWResolution); |
3795 | 264k | COPY_ARRAY_PARAM(Margins); |
3796 | 264k | COPY_ARRAY_PARAM(HWMargins); |
3797 | 264k | COPY_PARAM(PageCount); |
3798 | 264k | COPY_PARAM(MaxPatternBitmap); |
3799 | 264k | COPY_PARAM(graphics_type_tag); |
3800 | 264k | COPY_PARAM(interpolate_control); |
3801 | 264k | memcpy(&(dev->space_params), &(target->space_params), sizeof(gdev_space_params)); |
3802 | | |
3803 | 264k | if (dev->icc_struct == NULL) { |
3804 | 264k | dev->icc_struct = gsicc_new_device_profile_array(dev); |
3805 | 264k | profile_dev14 = dev->icc_struct; |
3806 | 264k | dev_proc((gx_device *) target, get_profile)((gx_device *) target, |
3807 | 264k | &(profile_targ)); |
3808 | | |
3809 | 1.32M | for (k = 0; k < NUM_DEVICE_PROFILES; k++) { |
3810 | 1.05M | if (profile_targ->device_profile[k] != NULL) { |
3811 | 264k | gsicc_adjust_profile_rc(profile_targ->device_profile[k], 1, "gs_pdf14_device_copy_params"); |
3812 | 264k | } |
3813 | 1.05M | if (profile_dev14->device_profile[k] != NULL) { |
3814 | 0 | gsicc_adjust_profile_rc(profile_dev14->device_profile[k], -1, "gs_pdf14_device_copy_params"); |
3815 | 0 | } |
3816 | 1.05M | profile_dev14->device_profile[k] = profile_targ->device_profile[k]; |
3817 | 1.05M | profile_dev14->rendercond[k] = profile_targ->rendercond[k]; |
3818 | 1.05M | } |
3819 | | |
3820 | 264k | dev->icc_struct->devicegraytok = profile_targ->devicegraytok; |
3821 | 264k | dev->icc_struct->graydetection = profile_targ->graydetection; |
3822 | 264k | dev->icc_struct->pageneutralcolor = profile_targ->pageneutralcolor; |
3823 | 264k | dev->icc_struct->supports_devn = profile_targ->supports_devn; |
3824 | 264k | dev->icc_struct->usefastcolor = profile_targ->usefastcolor; |
3825 | 264k | dev->icc_struct->blacktext = profile_targ->blacktext; |
3826 | 264k | dev->icc_struct->blackvector = profile_targ->blackvector; |
3827 | 264k | dev->icc_struct->blackthresholdL = profile_targ->blackthresholdL; |
3828 | 264k | dev->icc_struct->blackthresholdC = profile_targ->blackthresholdC; |
3829 | | |
3830 | 264k | switch (pdev->blend_cs_state) { |
3831 | 264k | case PDF14_BLEND_CS_UNSPECIFIED: |
3832 | 264k | case PDF14_BLEND_CS_TARGET_CIELAB: |
3833 | | /* PDF14_BLEND_CS_TARGET_CIELAB handled |
3834 | | during the device push, when we have |
3835 | | access to the pgs */ |
3836 | 264k | break; |
3837 | 0 | case PDF14_BLEND_CS_OUTPUTINTENT: |
3838 | 0 | blend_profile = profile_targ->oi_profile; |
3839 | 0 | break; |
3840 | 0 | case PDF14_BLEND_CS_SPECIFIED: |
3841 | 0 | blend_profile = profile_targ->blend_profile; |
3842 | 0 | break; |
3843 | 0 | default: |
3844 | 0 | break; |
3845 | 264k | } |
3846 | | |
3847 | 264k | if (blend_profile != NULL) { |
3848 | | /* Set the device profile to the blend profile. Note only default profile is set */ |
3849 | 0 | gsicc_adjust_profile_rc(blend_profile, 1, "gs_pdf14_device_copy_params"); |
3850 | 0 | gsicc_adjust_profile_rc(profile_dev14->device_profile[GS_DEFAULT_DEVICE_PROFILE], -1, "gs_pdf14_device_copy_params"); |
3851 | 0 | profile_dev14->device_profile[GS_DEFAULT_DEVICE_PROFILE] = blend_profile; |
3852 | 0 | } |
3853 | | |
3854 | 264k | profile_dev14->overprint_control = profile_targ->overprint_control; |
3855 | 264k | } |
3856 | 264k | #undef COPY_ARRAY_PARAM |
3857 | 264k | #undef COPY_PARAM |
3858 | 264k | } |
3859 | | |
3860 | | /* |
3861 | | * This is a forwarding version of the put_params device proc. It is only |
3862 | | * used when the PDF 1.4 compositor devices are closed. The routine will |
3863 | | * check if the target device has closed and, if so, close itself. The routine |
3864 | | * also sync the device parameters. |
3865 | | */ |
3866 | | static int |
3867 | | pdf14_forward_put_params(gx_device * dev, gs_param_list * plist) |
3868 | 0 | { |
3869 | 0 | pdf14_device * pdev = (pdf14_device *)dev; |
3870 | 0 | gx_device * tdev = pdev->target; |
3871 | 0 | bool was_open = tdev->is_open; |
3872 | 0 | int code = 0; |
3873 | |
|
3874 | 0 | if (tdev != 0 && (code = dev_proc(tdev, put_params)(tdev, plist)) >= 0) { |
3875 | 0 | gx_device_decache_colors(dev); |
3876 | 0 | if (!tdev->is_open) { |
3877 | 0 | code = gs_closedevice(dev); |
3878 | 0 | if (code == 0) |
3879 | 0 | code = was_open ? 1 : 0; /* target device closed */ |
3880 | 0 | } |
3881 | 0 | gx_device_copy_params(dev, tdev); |
3882 | 0 | } |
3883 | 0 | return code; |
3884 | 0 | } |
3885 | | |
3886 | | /* Function prototypes */ |
3887 | | int put_param_pdf14_spot_names(gx_device * pdev, |
3888 | | gs_separations * pseparations, gs_param_list * plist); |
3889 | 41.2k | #define PDF14NumSpotColorsParamName "PDF14NumSpotColors" |
3890 | | |
3891 | | /* |
3892 | | * The put_params method for the PDF 1.4 device will check if the |
3893 | | * target device has closed and, if so, close itself. Note: This routine is |
3894 | | * currently being used by both the pdf14_clist_device and the pdf_device. |
3895 | | * Please make sure that any changes are either applicable to both devices |
3896 | | * or clone the routine for each device. |
3897 | | */ |
3898 | | static int |
3899 | | pdf14_put_params(gx_device * dev, gs_param_list * plist) |
3900 | 0 | { |
3901 | 0 | pdf14_device * pdev = (pdf14_device *)dev; |
3902 | 0 | gx_device * tdev = pdev->target; |
3903 | 0 | bool was_open = tdev->is_open; |
3904 | 0 | int code = 0; |
3905 | |
|
3906 | 0 | if (tdev != 0 && (code = dev_proc(tdev, put_params)(tdev, plist)) >= 0) { |
3907 | 0 | gx_device_decache_colors(dev); |
3908 | 0 | if (!tdev->is_open) { |
3909 | 0 | code = gs_closedevice(dev); |
3910 | 0 | if (code == 0) |
3911 | 0 | code = was_open ? 1 : 0; /* target device closed */ |
3912 | 0 | } |
3913 | 0 | gs_pdf14_device_copy_params(dev, tdev); |
3914 | 0 | } |
3915 | 0 | return code; |
3916 | 0 | } |
3917 | | |
3918 | | /* |
3919 | | * Copy marking related parameters into the PDF 1.4 device structure for use |
3920 | | * by pdf14_fill_rectangle. |
3921 | | */ |
3922 | | static void |
3923 | | pdf14_set_marking_params(gx_device *dev, const gs_gstate *pgs) |
3924 | 6.73M | { |
3925 | 6.73M | pdf14_device * pdev = (pdf14_device *)dev; |
3926 | | |
3927 | 6.73M | if (pgs->alphaisshape) { |
3928 | 74.2k | pdev->opacity = 1.0; |
3929 | 74.2k | if (pgs->is_fill_color) { |
3930 | 70.2k | pdev->shape = pgs->fillconstantalpha; |
3931 | 70.2k | } else { |
3932 | 3.99k | pdev->shape = pgs->strokeconstantalpha; |
3933 | 3.99k | } |
3934 | 6.65M | } else { |
3935 | 6.65M | pdev->shape = 1.0; |
3936 | 6.65M | if (pgs->is_fill_color) { |
3937 | 3.15M | pdev->opacity = pgs->fillconstantalpha; |
3938 | 3.50M | } else { |
3939 | 3.50M | pdev->opacity = pgs->strokeconstantalpha; |
3940 | 3.50M | } |
3941 | 6.65M | } |
3942 | 6.73M | pdev->alpha = pdev->opacity * pdev->shape; |
3943 | 6.73M | pdev->blend_mode = pgs->blend_mode; |
3944 | 6.73M | if (pdev->icc_struct->overprint_control != gs_overprint_control_disable) { |
3945 | 6.73M | pdev->overprint = pgs->overprint; |
3946 | 6.73M | pdev->stroke_overprint = pgs->stroke_overprint; |
3947 | 6.73M | } else { |
3948 | 0 | pdev->overprint = false; |
3949 | 0 | pdev->stroke_overprint = false; |
3950 | 0 | } |
3951 | | |
3952 | 6.73M | pdev->fillconstantalpha = pgs->fillconstantalpha; |
3953 | 6.73M | pdev->strokeconstantalpha = pgs->strokeconstantalpha; |
3954 | | |
3955 | 6.73M | if (pgs->is_fill_color) |
3956 | 3.22M | pdev->op_state = PDF14_OP_STATE_FILL; |
3957 | 3.50M | else |
3958 | 3.50M | pdev->op_state = PDF14_OP_STATE_STROKE; |
3959 | | |
3960 | 6.73M | if_debug6m('v', dev->memory, |
3961 | 6.73M | "[v]set_marking_params, opacity = %g, shape = %g, bm = %d, op = %d, eop = %d seop = %d\n", |
3962 | 6.73M | pdev->opacity, pdev->shape, pgs->blend_mode, pgs->overprint, pdev->effective_overprint_mode, |
3963 | 6.73M | pdev->stroke_effective_op_mode); |
3964 | 6.73M | } |
3965 | | |
3966 | | static void |
3967 | | update_lop_for_pdf14(gs_gstate *pgs, const gx_drawing_color *pdcolor) |
3968 | 5.10M | { |
3969 | 5.10M | bool hastrans = false; |
3970 | | |
3971 | | /* We'd really rather not have to set the pdf14 bit in the lop, as this |
3972 | | * makes other operations much slower. We have no option however, if the |
3973 | | * current colour involves transparency, or if it's anything other than |
3974 | | * a completely solid (or transparent) operation in the normal blend mode. |
3975 | | */ |
3976 | 5.10M | if (pdcolor != NULL) |
3977 | 5.10M | { |
3978 | 5.10M | if (gx_dc_is_pattern1_color(pdcolor) && |
3979 | 5.10M | gx_pattern1_get_transptr(pdcolor) != NULL) { |
3980 | 6.11k | hastrans = true; |
3981 | 5.10M | } else if (gx_dc_is_pattern2_color(pdcolor)) { |
3982 | | /* FIXME: Here we assume that ALL type 2 patterns are |
3983 | | * transparent - this test could be better. */ |
3984 | 11.0k | hastrans = true; |
3985 | 11.0k | } |
3986 | 5.10M | } |
3987 | | /* The only idempotent blend modes are Normal, Darken and Lighten. |
3988 | | This appears to be the only place where this test is done so |
3989 | | not adding a is_idempotent method */ |
3990 | 5.10M | if ((pgs->blend_mode != BLEND_MODE_Normal && |
3991 | 5.10M | pgs->blend_mode != BLEND_MODE_Darken && |
3992 | 5.10M | pgs->blend_mode != BLEND_MODE_Lighten) || |
3993 | 5.10M | (pgs->fillconstantalpha != 1.0) || |
3994 | 5.10M | (pgs->strokeconstantalpha != 1.0) || |
3995 | 5.10M | (hastrans)) |
3996 | 172k | { |
3997 | | /* |
3998 | | * The blend operations are not idempotent. Force non-idempotent |
3999 | | * filling and stroking operations. |
4000 | | */ |
4001 | 172k | pgs->log_op |= lop_pdf14; |
4002 | 172k | } |
4003 | 5.10M | } |
4004 | | |
4005 | | static int |
4006 | | push_shfill_group(pdf14_clist_device *pdev, |
4007 | | gs_gstate *pgs, |
4008 | | gs_fixed_rect *box) |
4009 | 8 | { |
4010 | 8 | gs_transparency_group_params_t params = { 0 }; |
4011 | 8 | int code; |
4012 | 8 | gs_rect cb; |
4013 | 8 | gs_gstate fudged_pgs = *pgs; |
4014 | | |
4015 | 8 | params.shade_group = true; |
4016 | | |
4017 | | /* gs_begin_transparency_group takes a bbox that it then |
4018 | | * transforms by ctm. Our bbox has already been transformed, |
4019 | | * so clear out the ctm. */ |
4020 | 8 | fudged_pgs.ctm.xx = 1.0; |
4021 | 8 | fudged_pgs.ctm.xy = 0; |
4022 | 8 | fudged_pgs.ctm.yx = 0; |
4023 | 8 | fudged_pgs.ctm.yy = 1.0; |
4024 | 8 | fudged_pgs.ctm.tx = 0; |
4025 | 8 | fudged_pgs.ctm.ty = 0; |
4026 | 8 | cb.p.x = fixed2int_pixround(box->p.x); |
4027 | 8 | cb.p.y = fixed2int_pixround(box->p.y); |
4028 | 8 | cb.q.x = fixed2int_pixround(box->q.x); |
4029 | 8 | cb.q.y = fixed2int_pixround(box->q.y); |
4030 | | |
4031 | 8 | params.Isolated = false; |
4032 | 8 | params.Knockout = true; |
4033 | 8 | params.page_group = false; |
4034 | 8 | params.group_opacity = fudged_pgs.fillconstantalpha; |
4035 | 8 | params.group_shape = 1.0; |
4036 | 8 | code = gs_begin_transparency_group(&fudged_pgs, ¶ms, &cb, PDF14_BEGIN_TRANS_GROUP); |
4037 | | |
4038 | | /* We have the group handle the blendmode and the opacity, |
4039 | | * and continue with the existing graphics state reset |
4040 | | * to normal, opaque operation. We could do it the other |
4041 | | * way around, but this way means that if we push a knockout |
4042 | | * group for a stroke, and then the code calls back into |
4043 | | * the fill operation as part of doing the stroking, we don't |
4044 | | * push another one. */ |
4045 | 8 | gs_setblendmode(pgs, BLEND_MODE_Normal); |
4046 | 8 | gs_setfillconstantalpha(pgs, 1.0); |
4047 | 8 | gs_setstrokeconstantalpha(pgs, 1.0); |
4048 | 8 | if (pdev) { |
4049 | 8 | code = pdf14_clist_update_params(pdev, pgs, false, NULL); |
4050 | 8 | if (code < 0) |
4051 | 0 | return code; |
4052 | 8 | } |
4053 | | |
4054 | 8 | return code; |
4055 | 8 | } |
4056 | | |
4057 | | static int |
4058 | | pop_shfill_group(gs_gstate *pgs) |
4059 | 8 | { |
4060 | 8 | return gs_end_transparency_group(pgs); |
4061 | 8 | } |
4062 | | |
4063 | | static int |
4064 | | pdf14_fill_path(gx_device *dev, const gs_gstate *pgs, |
4065 | | gx_path *ppath, const gx_fill_params *params, |
4066 | | const gx_drawing_color *pdcolor, |
4067 | | const gx_clip_path *pcpath) |
4068 | 3.70M | { |
4069 | 3.70M | gs_gstate new_pgs = *pgs; |
4070 | 3.70M | int code = 0; |
4071 | 3.70M | gs_pattern2_instance_t *pinst = NULL; |
4072 | 3.70M | int push_group = 0; |
4073 | | |
4074 | 3.70M | code = pdf14_initialize_ctx(dev, dev->color_info.num_components, |
4075 | 3.70M | dev->color_info.polarity != GX_CINFO_POLARITY_SUBTRACTIVE, pgs); |
4076 | 3.70M | if (code < 0) |
4077 | 0 | return code; |
4078 | | |
4079 | 3.70M | if (pdcolor == NULL) |
4080 | 0 | return_error(gs_error_unknownerror); /* color must be defined */ |
4081 | 3.70M | ((pdf14_device *)dev)->op_state = pgs->is_fill_color ? PDF14_OP_STATE_FILL : PDF14_OP_STATE_STROKE; |
4082 | 3.70M | if (gx_dc_is_pattern1_color(pdcolor)){ |
4083 | 94.0k | if( gx_pattern1_get_transptr(pdcolor) != NULL || |
4084 | 94.0k | gx_pattern1_clist_has_trans(pdcolor) ){ |
4085 | | /* In this case, we need to push a transparency group |
4086 | | and tile the pattern color, which is stored in |
4087 | | a pdf14 device buffer in the ctile object memember |
4088 | | variable ttrans */ |
4089 | | #if RAW_DUMP |
4090 | | /* Since we do not get a put_image to view what |
4091 | | we have do it now */ |
4092 | | if (gx_pattern1_get_transptr(pdcolor) != NULL) { |
4093 | | const pdf14_device * ppatdev14 = (const pdf14_device *) |
4094 | | pdcolor->colors.pattern.p_tile->ttrans->pdev14; |
4095 | | if (ppatdev14 != NULL) { /* can occur during clist reading */ |
4096 | | byte *buf_ptr = ppatdev14->ctx->stack->data + |
4097 | | ppatdev14->ctx->stack->rect.p.y * |
4098 | | ppatdev14->ctx->stack->rowstride + |
4099 | | ppatdev14->ctx->stack->rect.p.x; |
4100 | | dump_raw_buffer(ppatdev14->ctx->memory, |
4101 | | (ppatdev14->ctx->stack->rect.q.y - |
4102 | | ppatdev14->ctx->stack->rect.p.y), |
4103 | | (ppatdev14->ctx->stack->rect.q.x - |
4104 | | ppatdev14->ctx->stack->rect.p.x), |
4105 | | ppatdev14->ctx->stack->n_planes, |
4106 | | ppatdev14->ctx->stack->planestride, |
4107 | | ppatdev14->ctx->stack->rowstride, |
4108 | | "Pattern_Fill", buf_ptr, |
4109 | | ppatdev14->ctx->stack->deep); |
4110 | | global_index++; |
4111 | | } else { |
4112 | | gx_pattern_trans_t *patt_trans = |
4113 | | pdcolor->colors.pattern.p_tile->ttrans; |
4114 | | dump_raw_buffer(patt_trans->mem, |
4115 | | patt_trans->rect.q.y-patt_trans->rect.p.y, |
4116 | | patt_trans->rect.q.x-patt_trans->rect.p.x, |
4117 | | patt_trans->n_chan, |
4118 | | patt_trans->planestride, patt_trans->rowstride, |
4119 | | "Pattern_Fill_clist", |
4120 | | patt_trans->transbytes + |
4121 | | patt_trans->rect.p.y * patt_trans->rowstride + |
4122 | | (patt_trans->rect.p.x<<patt_trans->deep), |
4123 | | patt_trans->deep); |
4124 | | global_index++; |
4125 | | } |
4126 | | } |
4127 | | #endif |
4128 | 13.0k | pdf14_set_marking_params(dev, &new_pgs); |
4129 | 13.0k | code = pdf14_tile_pattern_fill(dev, &new_pgs, ppath, |
4130 | 13.0k | params, pdcolor, pcpath); |
4131 | 13.0k | new_pgs.trans_device = NULL; |
4132 | 13.0k | new_pgs.has_transparency = false; |
4133 | 13.0k | return code; |
4134 | 13.0k | } |
4135 | 94.0k | } |
4136 | 3.69M | if (gx_dc_is_pattern2_color(pdcolor) || |
4137 | 3.69M | pdcolor->type == &gx_dc_devn_masked) { |
4138 | | /* Non-idempotent blends require a transparency |
4139 | | * group to be pushed because shadings might |
4140 | | * paint several pixels twice. */ |
4141 | 24 | push_group = pgs->fillconstantalpha != 1.0 || |
4142 | 24 | !blend_is_idempotent(gs_currentblendmode(pgs)); |
4143 | 24 | pinst = |
4144 | 24 | (gs_pattern2_instance_t *)pdcolor->ccolor.pattern; |
4145 | 24 | pinst->saved->has_transparency = true; |
4146 | | /* The transparency color space operations are driven |
4147 | | by the pdf14 clist writer device. */ |
4148 | 24 | pinst->saved->trans_device = dev; |
4149 | 24 | } |
4150 | 3.69M | if (push_group) { |
4151 | 0 | gs_fixed_rect box; |
4152 | 0 | if (pcpath) |
4153 | 0 | gx_cpath_outer_box(pcpath, &box); |
4154 | 0 | else |
4155 | 0 | (*dev_proc(dev, get_clipping_box)) (dev, &box); |
4156 | 0 | if (ppath) { |
4157 | 0 | gs_fixed_rect path_box; |
4158 | |
|
4159 | 0 | gx_path_bbox(ppath, &path_box); |
4160 | 0 | if (box.p.x < path_box.p.x) |
4161 | 0 | box.p.x = path_box.p.x; |
4162 | 0 | if (box.p.y < path_box.p.y) |
4163 | 0 | box.p.y = path_box.p.y; |
4164 | 0 | if (box.q.x > path_box.q.x) |
4165 | 0 | box.q.x = path_box.q.x; |
4166 | 0 | if (box.q.y > path_box.q.y) |
4167 | 0 | box.q.y = path_box.q.y; |
4168 | 0 | } |
4169 | | /* Group alpha set from fill value. push_shfill_group does reset to 1.0 */ |
4170 | 0 | code = push_shfill_group(NULL, &new_pgs, &box); |
4171 | 0 | } else |
4172 | 3.69M | update_lop_for_pdf14(&new_pgs, pdcolor); |
4173 | 3.69M | pdf14_set_marking_params(dev, &new_pgs); |
4174 | 3.69M | if (code >= 0) { |
4175 | 3.69M | new_pgs.trans_device = dev; |
4176 | 3.69M | new_pgs.has_transparency = true; |
4177 | | /* ppath can permissibly be NULL here, if we want to have a |
4178 | | * shading or a pattern fill the clipping path. This upsets |
4179 | | * coverity, which is not smart enough to realise that the |
4180 | | * validity of a NULL ppath depends on the type of pdcolor. |
4181 | | * We'll mark it as a false positive. */ |
4182 | 3.69M | code = gx_default_fill_path(dev, &new_pgs, ppath, params, pdcolor, pcpath); |
4183 | 3.69M | new_pgs.trans_device = NULL; |
4184 | 3.69M | new_pgs.has_transparency = false; |
4185 | 3.69M | } |
4186 | 3.69M | if (code >= 0 && push_group) { |
4187 | 0 | code = pop_shfill_group(&new_pgs); |
4188 | 0 | pdf14_set_marking_params(dev, pgs); |
4189 | 0 | } |
4190 | 3.69M | if (pinst != NULL){ |
4191 | 24 | pinst->saved->trans_device = NULL; |
4192 | 24 | } |
4193 | 3.69M | return code; |
4194 | 3.70M | } |
4195 | | |
4196 | | static int |
4197 | | pdf14_stroke_path(gx_device *dev, const gs_gstate *pgs, |
4198 | | gx_path *ppath, const gx_stroke_params *params, |
4199 | | const gx_drawing_color *pdcolor, |
4200 | | const gx_clip_path *pcpath) |
4201 | 386k | { |
4202 | 386k | gs_gstate new_pgs = *pgs; |
4203 | 386k | int push_group = 0; |
4204 | 386k | int code = 0; |
4205 | | |
4206 | 386k | if (pdcolor == NULL) |
4207 | 0 | return_error(gs_error_unknownerror); /* color must be defined */ |
4208 | | |
4209 | 386k | code = pdf14_initialize_ctx(dev, dev->color_info.num_components, |
4210 | 386k | dev->color_info.polarity != GX_CINFO_POLARITY_SUBTRACTIVE, pgs); |
4211 | 386k | if (code < 0) |
4212 | 0 | return code; |
4213 | | |
4214 | 386k | if (gx_dc_is_pattern2_color(pdcolor)) { |
4215 | | /* Non-idempotent blends require a transparency |
4216 | | * group to be pushed because shadings might |
4217 | | * paint several pixels twice. */ |
4218 | 0 | push_group = pgs->strokeconstantalpha != 1.0 || |
4219 | 0 | !blend_is_idempotent(gs_currentblendmode(pgs)); |
4220 | 0 | } |
4221 | 386k | if (push_group) { |
4222 | 0 | gs_fixed_rect box; |
4223 | 0 | if (pcpath) |
4224 | 0 | gx_cpath_outer_box(pcpath, &box); |
4225 | 0 | else |
4226 | 0 | (*dev_proc(dev, get_clipping_box)) (dev, &box); |
4227 | | |
4228 | | /* For fill_path, we accept ppath == NULL to mean |
4229 | | * fill the entire clipping region. That makes no |
4230 | | * sense for stroke_path, hence ppath is always non |
4231 | | * NULL here. */ |
4232 | 0 | { |
4233 | 0 | gs_fixed_rect path_box; |
4234 | 0 | gs_fixed_point expansion; |
4235 | |
|
4236 | 0 | gx_path_bbox(ppath, &path_box); |
4237 | | /* Expand the path bounding box by the scaled line width. */ |
4238 | 0 | if (gx_stroke_path_expansion(pgs, ppath, &expansion) < 0) { |
4239 | | /* The expansion is so large it caused a limitcheck. */ |
4240 | 0 | path_box.p.x = path_box.p.y = min_fixed; |
4241 | 0 | path_box.q.x = path_box.q.y = max_fixed; |
4242 | 0 | } else { |
4243 | 0 | expansion.x += pgs->fill_adjust.x; |
4244 | 0 | expansion.y += pgs->fill_adjust.y; |
4245 | | /* |
4246 | | * It's theoretically possible for the following computations to |
4247 | | * overflow, so we need to check for this. |
4248 | | */ |
4249 | 0 | path_box.p.x = (path_box.p.x < min_fixed + expansion.x ? min_fixed : |
4250 | 0 | path_box.p.x - expansion.x); |
4251 | 0 | path_box.p.y = (path_box.p.y < min_fixed + expansion.y ? min_fixed : |
4252 | 0 | path_box.p.y - expansion.y); |
4253 | 0 | path_box.q.x = (path_box.q.x > max_fixed - expansion.x ? max_fixed : |
4254 | 0 | path_box.q.x + expansion.x); |
4255 | 0 | path_box.q.y = (path_box.q.y > max_fixed - expansion.y ? max_fixed : |
4256 | 0 | path_box.q.y + expansion.y); |
4257 | 0 | } |
4258 | 0 | if (box.p.x < path_box.p.x) |
4259 | 0 | box.p.x = path_box.p.x; |
4260 | 0 | if (box.p.y < path_box.p.y) |
4261 | 0 | box.p.y = path_box.p.y; |
4262 | 0 | if (box.q.x > path_box.q.x) |
4263 | 0 | box.q.x = path_box.q.x; |
4264 | 0 | if (box.q.y > path_box.q.y) |
4265 | 0 | box.q.y = path_box.q.y; |
4266 | 0 | } |
4267 | | /* Group alpha set from fill value. push_shfill_group does reset to 1.0 */ |
4268 | 0 | new_pgs.fillconstantalpha = new_pgs.strokeconstantalpha; |
4269 | 0 | code = push_shfill_group(NULL, &new_pgs, &box); |
4270 | 0 | } else |
4271 | 386k | update_lop_for_pdf14(&new_pgs, pdcolor); |
4272 | 386k | pdf14_set_marking_params(dev, &new_pgs); |
4273 | 386k | if (code >= 0) { |
4274 | 386k | PDF14_OP_FS_STATE save_op_state = ((pdf14_device *)dev)->op_state; |
4275 | | |
4276 | 386k | ((pdf14_device*)dev)->op_state = PDF14_OP_STATE_STROKE; |
4277 | 386k | code = gx_default_stroke_path(dev, &new_pgs, ppath, params, pdcolor, pcpath); |
4278 | 386k | ((pdf14_device*)dev)->op_state = save_op_state; |
4279 | 386k | } |
4280 | 386k | if (code >= 0 && push_group) { |
4281 | 0 | code = pop_shfill_group(&new_pgs); |
4282 | 0 | pdf14_set_marking_params(dev, pgs); |
4283 | 0 | } |
4284 | | |
4285 | 386k | return code; |
4286 | 386k | } |
4287 | | |
4288 | | /* Pull out steps of transparency updates for fill/stroke |
4289 | | so that they can be invoked elsewhere (e.g. |
4290 | | when the abuf device is handling the stroke/fill */ |
4291 | | |
4292 | | /* Set-up prior to fill operation in fill-stroke */ |
4293 | | static int |
4294 | | pdf14_fill_stroke_prefill(gx_device* dev, gs_gstate* pgs, gx_path* ppath, |
4295 | | const gx_clip_path* pcpath, float fill_alpha, float stroke_alpha, |
4296 | | gs_blend_mode_t blend_mode, bool* op_ca_eq_CA, bool* path_empty, gs_log2_scale_point path_log2scale) |
4297 | 6.08k | { |
4298 | 6.08k | int code = 0; |
4299 | 6.08k | gs_transparency_group_params_t params = { 0 }; |
4300 | 6.08k | gs_fixed_rect clip_bbox; |
4301 | 6.08k | gs_rect bbox, group_stroke_box; |
4302 | 6.08k | gs_fixed_rect path_bbox; |
4303 | 6.08k | int expansion_code; |
4304 | 6.08k | gs_fixed_point expansion; |
4305 | 6.08k | pdf14_device* p14dev = (pdf14_device*)dev; |
4306 | | |
4307 | 6.08k | *path_empty = false; |
4308 | | |
4309 | 6.08k | if ((pgs->fillconstantalpha == 0.0 && pgs->strokeconstantalpha == 0.0) || |
4310 | 6.08k | (pgs->ctm.xx == 0.0 && pgs->ctm.xy == 0.0 && pgs->ctm.yx == 0.0 && pgs->ctm.yy == 0.0)) |
4311 | 7 | return 0; |
4312 | | |
4313 | 6.08k | code = gx_curr_fixed_bbox(pgs, &clip_bbox, NO_PATH); |
4314 | 6.08k | if (code < 0 && code != gs_error_unknownerror) |
4315 | 0 | return code; |
4316 | | |
4317 | 6.08k | if (code == gs_error_unknownerror) { |
4318 | | /* didn't get clip box from gx_curr_fixed_bbox */ |
4319 | 0 | clip_bbox.p.x = clip_bbox.p.y = 0; |
4320 | 0 | clip_bbox.q.x = int2fixed(dev->width); |
4321 | 0 | clip_bbox.q.y = int2fixed(dev->height); |
4322 | 0 | } |
4323 | 6.08k | if (pcpath) |
4324 | 6.08k | rect_intersect(clip_bbox, pcpath->outer_box); |
4325 | | |
4326 | | /* expand the ppath using stroke expansion rule, then intersect it */ |
4327 | 6.08k | code = gx_path_bbox(ppath, &path_bbox); |
4328 | | |
4329 | | /* If we are coming from the abuf device, the path has been scaled |
4330 | | by a factor (see alpha_buffer_init). Undo the scaling here so |
4331 | | on the path_bbox so that we get the proper bounding box for our group. */ |
4332 | 6.08k | if (path_log2scale.x != 0 || path_log2scale.y != 0) { |
4333 | 0 | path_bbox.p.x = path_bbox.p.x >> path_log2scale.x; |
4334 | 0 | path_bbox.q.x = path_bbox.q.x >> path_log2scale.x; |
4335 | 0 | path_bbox.p.y = path_bbox.p.y >> path_log2scale.y; |
4336 | 0 | path_bbox.q.y = path_bbox.q.y >> path_log2scale.y; |
4337 | 0 | } |
4338 | | |
4339 | 6.08k | if (code == gs_error_nocurrentpoint && ppath->segments->contents.subpath_first == 0) { |
4340 | 3.04k | *path_empty = true; |
4341 | 3.04k | return 0; /* ignore empty path -- could try to send back a positive code for this but |
4342 | | there are simply too many return cases that I can't account for. */ |
4343 | 3.04k | } |
4344 | 3.03k | if (code < 0) |
4345 | 0 | return code; |
4346 | | |
4347 | 3.03k | expansion_code = gx_stroke_path_expansion(pgs, ppath, &expansion); |
4348 | 3.03k | if (expansion_code >= 0) { |
4349 | 2.64k | path_bbox.p.x -= expansion.x; |
4350 | 2.64k | path_bbox.p.y -= expansion.y; |
4351 | 2.64k | path_bbox.q.x += expansion.x; |
4352 | 2.64k | path_bbox.q.y += expansion.y; |
4353 | 2.64k | } |
4354 | 3.03k | rect_intersect(path_bbox, clip_bbox); |
4355 | 3.03k | bbox.p.x = fixed2float(path_bbox.p.x); |
4356 | 3.03k | bbox.p.y = fixed2float(path_bbox.p.y); |
4357 | 3.03k | bbox.q.x = fixed2float(path_bbox.q.x); |
4358 | 3.03k | bbox.q.y = fixed2float(path_bbox.q.y); |
4359 | | |
4360 | 3.03k | code = gs_bbox_transform_inverse(&bbox, &ctm_only(pgs), &group_stroke_box); |
4361 | 3.03k | if (code < 0) |
4362 | 0 | return code; |
4363 | | |
4364 | 3.03k | if (p14dev->overprint != pgs->overprint || p14dev->stroke_overprint != pgs->stroke_overprint) { |
4365 | 0 | p14dev->overprint = pgs->overprint; |
4366 | 0 | p14dev->stroke_overprint = pgs->stroke_overprint; |
4367 | 0 | } |
4368 | | |
4369 | | /* See if overprint is enabled for both stroke and fill AND if ca == CA */ |
4370 | 3.03k | if (fill_alpha == stroke_alpha && |
4371 | 3.03k | p14dev->overprint && p14dev->stroke_overprint && |
4372 | 3.03k | dev->color_info.polarity == GX_CINFO_POLARITY_SUBTRACTIVE) { |
4373 | | |
4374 | | /* Push a non-isolated non-knockout group with alpha = 1.0 and |
4375 | | compatible overprint mode. Group will be composited with |
4376 | | original alpha and blend mode */ |
4377 | 0 | *op_ca_eq_CA = true; |
4378 | 0 | params.Isolated = false; |
4379 | 0 | params.group_color_type = UNKNOWN; |
4380 | 0 | params.Knockout = false; |
4381 | 0 | params.page_group = false; |
4382 | 0 | params.group_opacity = 1.0; |
4383 | 0 | params.group_shape = fill_alpha; |
4384 | | |
4385 | | /* non-isolated non-knockout group pushed with original alpha and blend mode */ |
4386 | 0 | code = gs_begin_transparency_group(pgs, ¶ms, &group_stroke_box, PDF14_BEGIN_TRANS_GROUP); |
4387 | 0 | if (code < 0) |
4388 | 0 | return code; |
4389 | | |
4390 | | /* Change fill alpha to 1.0 and blend mode to compatible overprint for actual drawing */ |
4391 | 0 | (void)gs_setfillconstantalpha(pgs, 1.0); |
4392 | 0 | (void)gs_setblendmode(pgs, BLEND_MODE_CompatibleOverprint); /* Can never fail */ |
4393 | |
|
4394 | 3.03k | } else { |
4395 | | /* Push a non-isolated knockout group. Do not change the alpha or |
4396 | | blend modes. Note: we need to draw those that have alpha = 0 */ |
4397 | 3.03k | *op_ca_eq_CA = false; |
4398 | 3.03k | params.Isolated = false; |
4399 | 3.03k | params.group_color_type = UNKNOWN; |
4400 | 3.03k | params.Knockout = true; |
4401 | 3.03k | params.page_group = false; |
4402 | 3.03k | params.group_shape = 1.0; |
4403 | 3.03k | params.group_opacity = 1.0; |
4404 | | |
4405 | | /* non-isolated knockout group is pushed with alpha = 1.0 and Normal blend mode */ |
4406 | 3.03k | (void)gs_setblendmode(pgs, BLEND_MODE_Normal); /* Can never fail */ |
4407 | 3.03k | code = gs_begin_transparency_group(pgs, ¶ms, &group_stroke_box, PDF14_BEGIN_TRANS_GROUP); |
4408 | 3.03k | if (code < 0) |
4409 | 0 | return code; |
4410 | | |
4411 | | /* restore blend mode for actual drawing in the group */ |
4412 | 3.03k | (void)gs_setblendmode(pgs, blend_mode); /* Can never fail */ |
4413 | | |
4414 | | /* If we are in an overprint situation, set the blend mode to compatible |
4415 | | overprint */ |
4416 | 3.03k | if ((p14dev->icc_struct->overprint_control != gs_overprint_control_disable) && pgs->overprint && |
4417 | 3.03k | dev->color_info.polarity == GX_CINFO_POLARITY_SUBTRACTIVE) |
4418 | 0 | (void)gs_setblendmode(pgs, BLEND_MODE_CompatibleOverprint); /* Can never fail */ |
4419 | 3.03k | } |
4420 | 3.03k | p14dev->op_state = PDF14_OP_STATE_FILL; |
4421 | 3.03k | return code; |
4422 | 3.03k | } |
4423 | | |
4424 | | /* Set-up prior to stroke operation in fill-stroke */ |
4425 | | static void |
4426 | | pdf14_fill_stroke_prestroke(gx_device* dev, gs_gstate* pgs, float stroke_alpha, |
4427 | | gs_blend_mode_t blend_mode, bool op_ca_eq_CA) |
4428 | 3.04k | { |
4429 | 3.04k | pdf14_device* p14dev = (pdf14_device*)dev; |
4430 | | |
4431 | 3.04k | if (op_ca_eq_CA) { |
4432 | 7 | (void)gs_setstrokeconstantalpha(pgs, 1.0); |
4433 | 3.03k | } else { |
4434 | 3.03k | if ((p14dev->icc_struct->overprint_control != gs_overprint_control_disable) && pgs->overprint && |
4435 | 3.03k | dev->color_info.polarity == GX_CINFO_POLARITY_SUBTRACTIVE) |
4436 | 0 | (void)gs_setblendmode(pgs, blend_mode); /* Can never fail */ |
4437 | | |
4438 | | /* Note that the stroke can end up doing fill methods */ |
4439 | 3.03k | (void)gs_setfillconstantalpha(pgs, stroke_alpha); |
4440 | | |
4441 | 3.03k | if ((p14dev->icc_struct->overprint_control != gs_overprint_control_disable) && pgs->stroke_overprint && |
4442 | 3.03k | dev->color_info.polarity == GX_CINFO_POLARITY_SUBTRACTIVE) |
4443 | 0 | (void)gs_setblendmode(pgs, BLEND_MODE_CompatibleOverprint); /* Can never fail */ |
4444 | 3.03k | } |
4445 | 3.04k | p14dev->op_state = PDF14_OP_STATE_STROKE; |
4446 | 3.04k | } |
4447 | | |
4448 | | /* Cleanup after the stroke in fill-stroke */ |
4449 | | static void |
4450 | | pdf14_fill_stroke_poststroke(gx_device* dev, gs_gstate* pgs, float fill_alpha, bool op_ca_eq_CA) |
4451 | 3.04k | { |
4452 | 3.04k | if (!op_ca_eq_CA) { |
4453 | | /* Bug 703324 we need to reset the fill constant alpha in the graphics |
4454 | | * state to the correct saved value. We also need to reset the 'opacity' member of the |
4455 | | * device, because some device methods (eg fill_masked_image) don't take a graphics |
4456 | | * state pointer as a parameter and so are unable to set the opacity value themselves. |
4457 | | * We therefore need to make sure it is set according to the current fill state. |
4458 | | */ |
4459 | 0 | (void)gs_setfillconstantalpha(pgs, fill_alpha); |
4460 | 0 | pdf14_set_marking_params(dev, pgs); |
4461 | 0 | } |
4462 | 3.04k | } |
4463 | | |
4464 | | /* cleanup in fill-stroke */ |
4465 | | static int |
4466 | | pdf14_fill_stroke_cleanup(gx_device* dev, gs_gstate* pgs, float fill_alpha, float stroke_alpha, |
4467 | | gs_blend_mode_t blend_mode, PDF14_OP_FS_STATE save_op_state) |
4468 | 3.04k | { |
4469 | 3.04k | pdf14_device* p14dev = (pdf14_device*)dev; |
4470 | 3.04k | int code2; |
4471 | 3.04k | int code = 0; |
4472 | | |
4473 | | /* Restore the state */ |
4474 | 3.04k | p14dev->op_state = save_op_state; |
4475 | 3.04k | (void)gs_setblendmode(pgs, blend_mode); /* Can never fail */ |
4476 | 3.04k | (void)gs_setstrokeconstantalpha(pgs, stroke_alpha); |
4477 | 3.04k | (void)gs_setfillconstantalpha(pgs, fill_alpha); |
4478 | | |
4479 | 3.04k | code2 = gs_end_transparency_group(pgs); |
4480 | 3.04k | if (code2 < 0) { |
4481 | | /* At this point things have gone very wrong. We should just shut down */ |
4482 | 0 | code = gs_abort_pdf14trans_device(pgs); |
4483 | 0 | return code2; |
4484 | 0 | } |
4485 | 3.04k | return code; |
4486 | 3.04k | } |
4487 | | |
4488 | | static int |
4489 | | pdf14_fill_stroke_path(gx_device *dev, const gs_gstate *cpgs, gx_path *ppath, |
4490 | | const gx_fill_params *fill_params, const gx_drawing_color *pdcolor_fill, |
4491 | | const gx_stroke_params *stroke_params, const gx_drawing_color *pdcolor_stroke, |
4492 | | const gx_clip_path *pcpath) |
4493 | 30.8k | { |
4494 | 30.8k | bool op_ca_eq_CA; |
4495 | 30.8k | bool path_empty; |
4496 | 30.8k | int code; |
4497 | 30.8k | float stroke_alpha = cpgs->strokeconstantalpha; |
4498 | 30.8k | float fill_alpha = cpgs->fillconstantalpha; |
4499 | 30.8k | gs_blend_mode_t blend_mode = cpgs->blend_mode; |
4500 | 30.8k | pdf14_device* p14dev = (pdf14_device*)dev; |
4501 | 30.8k | PDF14_OP_FS_STATE save_op_state = p14dev->op_state; |
4502 | 30.8k | gs_log2_scale_point path_log2scale; |
4503 | 30.8k | bool group_needed = true; |
4504 | 30.8k | gx_device* curr_pgs_dev = cpgs->device; |
4505 | | |
4506 | 30.8k | union { |
4507 | 30.8k | const gs_gstate* cpgs; |
4508 | 30.8k | gs_gstate* pgs; |
4509 | 30.8k | } const_breaker; |
4510 | 30.8k | gs_gstate* pgs; |
4511 | | |
4512 | | /* Break const just once, neatly */ |
4513 | 30.8k | const_breaker.cpgs = cpgs; |
4514 | 30.8k | pgs = const_breaker.pgs; |
4515 | 30.8k | path_log2scale.x = 0; |
4516 | 30.8k | path_log2scale.y = 0; |
4517 | | |
4518 | 30.8k | code = pdf14_initialize_ctx(dev, dev->color_info.num_components, |
4519 | 30.8k | dev->color_info.polarity != GX_CINFO_POLARITY_SUBTRACTIVE, pgs); |
4520 | 30.8k | if (code < 0) |
4521 | 0 | return code; |
4522 | | |
4523 | | /* From looking at what AR is doing, it appears that if alpha is 1 and |
4524 | | * blend is normal we don't do a group push. Just do the stroke |
4525 | | * and the fill, even with overprint */ |
4526 | 30.8k | if (stroke_alpha == 1 && fill_alpha == 1 && blend_mode == BLEND_MODE_Normal) |
4527 | 24.7k | group_needed = false; |
4528 | | |
4529 | 30.8k | if (group_needed) { |
4530 | 6.08k | pgs->device = dev; /* This is needed due to the gs_trans calls. This method |
4531 | | can be called on the clist writer side when dealing |
4532 | | with the abuf/pdf14 interaction. Those calls have to |
4533 | | go through the gs_trans API not the gx_trans or pdf14 |
4534 | | methods. Perhaps these methods should have a different |
4535 | | suffix, but they are static methods here in the pdf14 |
4536 | | file. */ |
4537 | 6.08k | code = pdf14_fill_stroke_prefill(dev, pgs, ppath, pcpath, fill_alpha, stroke_alpha, |
4538 | 6.08k | blend_mode, &op_ca_eq_CA, &path_empty, path_log2scale); |
4539 | 6.08k | pgs->device = curr_pgs_dev; |
4540 | 6.08k | if (code < 0) |
4541 | 0 | goto cleanup; |
4542 | 6.08k | if (path_empty) |
4543 | 3.04k | return 0; |
4544 | 6.08k | } |
4545 | | |
4546 | 27.7k | code = pdf14_fill_path(dev, pgs, ppath, fill_params, pdcolor_fill, pcpath); |
4547 | 27.7k | if (code < 0) |
4548 | 0 | goto cleanup; |
4549 | | |
4550 | 27.7k | if (group_needed) |
4551 | 3.04k | pdf14_fill_stroke_prestroke(dev, pgs, stroke_alpha, blend_mode, op_ca_eq_CA); |
4552 | 27.7k | gs_swapcolors_quick(pgs); |
4553 | | |
4554 | | |
4555 | | #if RAW_DUMP |
4556 | | /* Dump the current buffer to see what we have. */ |
4557 | | dump_raw_buffer(p14dev->ctx->memory, |
4558 | | p14dev->ctx->stack->rect.q.y - p14dev->ctx->stack->rect.p.y, |
4559 | | p14dev->ctx->stack->rowstride >> p14dev->ctx->stack->deep, p14dev->ctx->stack->n_planes, |
4560 | | p14dev->ctx->stack->planestride, p14dev->ctx->stack->rowstride, |
4561 | | "BeforeStrokeOnFillStroke", p14dev->ctx->stack->data, p14dev->ctx->stack->deep); |
4562 | | global_index++; |
4563 | | #endif |
4564 | | |
4565 | 27.7k | code = pdf14_stroke_path(dev, pgs, ppath, stroke_params, pdcolor_stroke, pcpath); |
4566 | 27.7k | gs_swapcolors_quick(pgs); |
4567 | 27.7k | if (code < 0) { |
4568 | 0 | goto cleanup; |
4569 | 0 | } |
4570 | | |
4571 | | #if RAW_DUMP |
4572 | | /* Dump the current buffer to see what we have. */ |
4573 | | dump_raw_buffer(p14dev->ctx->memory, |
4574 | | p14dev->ctx->stack->rect.q.y - p14dev->ctx->stack->rect.p.y, |
4575 | | p14dev->ctx->stack->rowstride >> p14dev->ctx->stack->deep, p14dev->ctx->stack->n_planes, |
4576 | | p14dev->ctx->stack->planestride, p14dev->ctx->stack->rowstride, |
4577 | | "AfterStrokeOnFillStroke", p14dev->ctx->stack->data, p14dev->ctx->stack->deep); |
4578 | | global_index++; |
4579 | | #endif |
4580 | 27.7k | if (group_needed) |
4581 | 3.04k | pdf14_fill_stroke_poststroke(dev, pgs, fill_alpha, save_op_state); |
4582 | | |
4583 | 27.7k | cleanup: |
4584 | 27.7k | if (group_needed) { |
4585 | 3.04k | pgs->device = dev; /* This is needed due to the gs_trans calls */ |
4586 | 3.04k | code = pdf14_fill_stroke_cleanup(dev, pgs, fill_alpha, stroke_alpha, blend_mode, |
4587 | 3.04k | save_op_state); |
4588 | 3.04k | pgs->device = curr_pgs_dev; |
4589 | 3.04k | } |
4590 | 27.7k | return code; |
4591 | 27.7k | } |
4592 | | |
4593 | | static int |
4594 | | pdf14_copy_alpha(gx_device * dev, const byte * data, int data_x, |
4595 | | int aa_raster, gx_bitmap_id id, int x, int y, int w, int h, |
4596 | | gx_color_index color, int depth) |
4597 | 0 | { |
4598 | 0 | return pdf14_copy_alpha_color(dev, data, data_x, aa_raster, id, x, y, w, h, |
4599 | 0 | color, NULL, depth, false); |
4600 | 0 | } |
4601 | | |
4602 | | static int |
4603 | | pdf14_copy_alpha_hl_color(gx_device * dev, const byte * data, int data_x, |
4604 | | int aa_raster, gx_bitmap_id id, int x, int y, int w, int h, |
4605 | | const gx_drawing_color *pdcolor, int depth) |
4606 | 0 | { |
4607 | 0 | return pdf14_copy_alpha_color(dev, data, data_x, aa_raster, id, x, y, w, h, |
4608 | 0 | 0, pdcolor, depth, true); |
4609 | 0 | } |
4610 | | |
4611 | | static int |
4612 | | do_pdf14_copy_alpha_color(gx_device * dev, const byte * data, int data_x, |
4613 | | int aa_raster, gx_bitmap_id id, int x, int y, |
4614 | | int w, int h, gx_color_index color, |
4615 | | const gx_device_color *pdc, int depth, bool devn) |
4616 | 0 | { |
4617 | 0 | const byte *aa_row; |
4618 | 0 | pdf14_device *pdev = (pdf14_device *)dev; |
4619 | 0 | pdf14_buf *buf = pdev->ctx->stack; |
4620 | 0 | int i, j, k; |
4621 | 0 | byte *line, *dst_ptr; |
4622 | 0 | byte src[PDF14_MAX_PLANES]; |
4623 | 0 | byte dst[PDF14_MAX_PLANES] = { 0 }; |
4624 | 0 | gs_blend_mode_t blend_mode = pdev->blend_mode; |
4625 | 0 | bool additive = pdev->ctx->additive; |
4626 | 0 | int rowstride = buf->rowstride; |
4627 | 0 | int planestride = buf->planestride; |
4628 | 0 | gs_graphics_type_tag_t curr_tag = GS_UNKNOWN_TAG; /* Quiet compiler */ |
4629 | 0 | bool has_alpha_g = buf->has_alpha_g; |
4630 | 0 | bool has_shape = buf->has_shape; |
4631 | 0 | bool has_tags = buf->has_tags; |
4632 | 0 | bool knockout = buf->knockout; |
4633 | 0 | bool tag_blend = blend_mode == BLEND_MODE_Normal || |
4634 | 0 | blend_mode == BLEND_MODE_Compatible || |
4635 | 0 | blend_mode == BLEND_MODE_CompatibleOverprint; |
4636 | 0 | int num_chan = buf->n_chan; |
4637 | 0 | int num_comp = num_chan - 1; |
4638 | 0 | int shape_off = num_chan * planestride; |
4639 | 0 | int alpha_g_off = shape_off + (has_shape ? planestride : 0); |
4640 | 0 | int tag_off = alpha_g_off + (has_alpha_g ? planestride : 0); |
4641 | 0 | bool overprint = pdev->op_state == PDF14_OP_STATE_FILL ? pdev->overprint : pdev->stroke_overprint; |
4642 | 0 | gx_color_index drawn_comps = pdev->op_state == PDF14_OP_STATE_FILL ? |
4643 | 0 | pdev->drawn_comps_fill : pdev->drawn_comps_stroke; |
4644 | 0 | gx_color_index comps; |
4645 | 0 | byte shape = 0; /* Quiet compiler. */ |
4646 | 0 | byte src_alpha; |
4647 | 0 | int alpha2_aa, alpha_aa, sx; |
4648 | 0 | int alpha_aa_act; |
4649 | 0 | int xoff; |
4650 | 0 | gx_color_index mask = ((gx_color_index)1 << 8) - 1; |
4651 | 0 | int shift = 8; |
4652 | |
|
4653 | 0 | if (buf->data == NULL) |
4654 | 0 | return 0; |
4655 | 0 | aa_row = data; |
4656 | 0 | if (has_tags) { |
4657 | 0 | curr_tag = (color >> (num_comp*8)) & 0xff; |
4658 | 0 | } |
4659 | |
|
4660 | 0 | if (devn) { |
4661 | 0 | if (additive) { |
4662 | 0 | for (j = 0; j < num_comp; j++) { |
4663 | 0 | src[j] = ((pdc->colors.devn.values[j]) >> shift & mask); |
4664 | 0 | } |
4665 | 0 | } else { |
4666 | 0 | for (j = 0; j < num_comp; j++) { |
4667 | 0 | src[j] = 255 - ((pdc->colors.devn.values[j]) >> shift & mask); |
4668 | 0 | } |
4669 | 0 | } |
4670 | 0 | } else |
4671 | 0 | pdev->pdf14_procs->unpack_color(num_comp, color, pdev, src); |
4672 | 0 | src_alpha = src[num_comp] = (byte)floor (255 * pdev->alpha + 0.5); |
4673 | 0 | if (has_shape) |
4674 | 0 | shape = (byte)floor (255 * pdev->shape + 0.5); |
4675 | | /* Limit the area we write to the bounding rectangle for this buffer */ |
4676 | 0 | if (x < buf->rect.p.x) { |
4677 | 0 | xoff = data_x + buf->rect.p.x - x; |
4678 | 0 | w += x - buf->rect.p.x; |
4679 | 0 | x = buf->rect.p.x; |
4680 | 0 | } else { |
4681 | 0 | xoff = data_x; |
4682 | 0 | } |
4683 | 0 | if (y < buf->rect.p.y) { |
4684 | 0 | h += y - buf->rect.p.y; |
4685 | 0 | aa_row -= (y - buf->rect.p.y) * aa_raster; |
4686 | 0 | y = buf->rect.p.y; |
4687 | 0 | } |
4688 | 0 | if (x + w > buf->rect.q.x) w = buf->rect.q.x - x; |
4689 | 0 | if (y + h > buf->rect.q.y) h = buf->rect.q.y - y; |
4690 | | /* Update the dirty rectangle. */ |
4691 | 0 | if (x < buf->dirty.p.x) buf->dirty.p.x = x; |
4692 | 0 | if (y < buf->dirty.p.y) buf->dirty.p.y = y; |
4693 | 0 | if (x + w > buf->dirty.q.x) buf->dirty.q.x = x + w; |
4694 | 0 | if (y + h > buf->dirty.q.y) buf->dirty.q.y = y + h; |
4695 | 0 | line = buf->data + (x - buf->rect.p.x) + (y - buf->rect.p.y) * rowstride; |
4696 | |
|
4697 | 0 | for (j = 0; j < h; ++j, aa_row += aa_raster) { |
4698 | 0 | dst_ptr = line; |
4699 | 0 | sx = xoff; |
4700 | 0 | for (i = 0; i < w; ++i, ++sx) { |
4701 | | /* Complement the components for subtractive color spaces */ |
4702 | 0 | if (additive) { |
4703 | 0 | for (k = 0; k < num_chan; ++k) /* num_chan includes alpha */ |
4704 | 0 | dst[k] = dst_ptr[k * planestride]; |
4705 | 0 | } else { /* Complement the components for subtractive color spaces */ |
4706 | 0 | for (k = 0; k < num_comp; ++k) |
4707 | 0 | dst[k] = 255 - dst_ptr[k * planestride]; |
4708 | 0 | dst[num_comp] = dst_ptr[num_comp * planestride]; /* alpha */ |
4709 | 0 | } |
4710 | | /* Get the aa alpha from the buffer */ |
4711 | 0 | switch(depth) |
4712 | 0 | { |
4713 | 0 | case 2: /* map 0 - 3 to 0 - 255 */ |
4714 | 0 | alpha_aa = ((aa_row[sx >> 2] >> ((3 - (sx & 3)) << 1)) & 3) * 85; |
4715 | 0 | break; |
4716 | 0 | case 4: |
4717 | 0 | alpha2_aa = aa_row[sx >> 1]; |
4718 | 0 | alpha_aa = (sx & 1 ? alpha2_aa & 0xf : alpha2_aa >> 4) * 17; |
4719 | 0 | break; |
4720 | 0 | case 8: |
4721 | 0 | alpha_aa = aa_row[sx]; |
4722 | 0 | break; |
4723 | 0 | default: |
4724 | 0 | return_error(gs_error_rangecheck); |
4725 | 0 | } |
4726 | 0 | if (alpha_aa != 0) { /* This does happen */ |
4727 | 0 | if (alpha_aa != 255) { |
4728 | | /* We have an alpha value from aa */ |
4729 | 0 | alpha_aa_act = alpha_aa; |
4730 | 0 | if (src_alpha != 255) { |
4731 | | /* Need to combine it with the existing alpha */ |
4732 | 0 | int tmp = src_alpha * alpha_aa_act + 0x80; |
4733 | 0 | alpha_aa_act = (tmp + (tmp >> 8)) >> 8; |
4734 | 0 | } |
4735 | | /* Set our source alpha value appropriately */ |
4736 | 0 | src[num_comp] = alpha_aa_act; |
4737 | 0 | } else { |
4738 | | /* We may have to reset this is it was changed as we |
4739 | | moved across the row */ |
4740 | 0 | src[num_comp] = src_alpha; |
4741 | 0 | } |
4742 | 0 | if (knockout) { |
4743 | 0 | if (buf->isolated) { |
4744 | 0 | art_pdf_knockoutisolated_group_8(dst, src, num_comp); |
4745 | 0 | } else { |
4746 | 0 | art_pdf_composite_knockout_8(dst, src, num_comp, |
4747 | 0 | blend_mode, pdev->blend_procs, pdev); |
4748 | 0 | } |
4749 | 0 | } else { |
4750 | 0 | art_pdf_composite_pixel_alpha_8(dst, src, num_comp, blend_mode, num_comp, |
4751 | 0 | pdev->blend_procs, pdev); |
4752 | 0 | } |
4753 | | /* Complement the results for subtractive color spaces */ |
4754 | 0 | if (additive) { |
4755 | 0 | for (k = 0; k < num_chan; ++k) |
4756 | 0 | dst_ptr[k * planestride] = dst[k]; |
4757 | 0 | } else { |
4758 | 0 | if (overprint && dst_ptr[num_comp * planestride] != 0) { |
4759 | 0 | for (k = 0, comps = drawn_comps; comps != 0; |
4760 | 0 | ++k, comps >>= 1) { |
4761 | 0 | if ((comps & 0x1) != 0) { |
4762 | 0 | dst_ptr[k * planestride] = 255 - dst[k]; |
4763 | 0 | } |
4764 | 0 | } |
4765 | | /* The alpha channel */ |
4766 | 0 | dst_ptr[num_comp * planestride] = dst[num_comp]; |
4767 | 0 | } else { |
4768 | 0 | for (k = 0; k < num_comp; ++k) |
4769 | 0 | dst_ptr[k * planestride] = 255 - dst[k]; |
4770 | | /* The alpha channel */ |
4771 | 0 | dst_ptr[num_comp * planestride] = dst[num_comp]; |
4772 | 0 | } |
4773 | 0 | } |
4774 | 0 | if (has_alpha_g) { |
4775 | 0 | int tmp = (255 - dst_ptr[alpha_g_off]) * (255 - src[num_comp]) + 0x80; |
4776 | 0 | dst_ptr[alpha_g_off] = 255 - ((tmp + (tmp >> 8)) >> 8); |
4777 | 0 | } |
4778 | 0 | if (has_shape) { |
4779 | 0 | int tmp = (255 - dst_ptr[shape_off]) * (255 - shape) + 0x80; |
4780 | 0 | dst_ptr[shape_off] = 255 - ((tmp + (tmp >> 8)) >> 8); |
4781 | 0 | } |
4782 | 0 | if (has_tags) { |
4783 | | /* If alpha is 100% then set to curr_tag, else or */ |
4784 | | /* other than Normal BM, we always OR */ |
4785 | 0 | if (src[num_comp] == 255 && tag_blend) { |
4786 | 0 | dst_ptr[tag_off] = curr_tag; |
4787 | 0 | } else { |
4788 | 0 | dst_ptr[tag_off] |= curr_tag; |
4789 | 0 | } |
4790 | 0 | } |
4791 | 0 | } |
4792 | 0 | ++dst_ptr; |
4793 | 0 | } |
4794 | 0 | line += rowstride; |
4795 | 0 | } |
4796 | 0 | return 0; |
4797 | 0 | } |
4798 | | |
4799 | | static int |
4800 | | do_pdf14_copy_alpha_color_16(gx_device * dev, const byte * data, int data_x, |
4801 | | int aa_raster, gx_bitmap_id id, int x, int y, |
4802 | | int w, int h, gx_color_index color, |
4803 | | const gx_device_color *pdc, int depth, bool devn) |
4804 | 0 | { |
4805 | 0 | const byte *aa_row; |
4806 | 0 | pdf14_device *pdev = (pdf14_device *)dev; |
4807 | 0 | pdf14_buf *buf = pdev->ctx->stack; |
4808 | 0 | int i, j, k; |
4809 | 0 | byte *line; |
4810 | 0 | uint16_t *dst_ptr; |
4811 | 0 | uint16_t src[PDF14_MAX_PLANES]; |
4812 | 0 | uint16_t dst[PDF14_MAX_PLANES] = { 0 }; |
4813 | 0 | gs_blend_mode_t blend_mode = pdev->blend_mode; |
4814 | 0 | bool tag_blend = blend_mode == BLEND_MODE_Normal || |
4815 | 0 | blend_mode == BLEND_MODE_Compatible || |
4816 | 0 | blend_mode == BLEND_MODE_CompatibleOverprint; |
4817 | 0 | bool additive = pdev->ctx->additive; |
4818 | 0 | int rowstride = buf->rowstride; |
4819 | 0 | int planestride = buf->planestride; |
4820 | 0 | gs_graphics_type_tag_t curr_tag = GS_UNKNOWN_TAG; /* Quiet compiler */ |
4821 | 0 | bool has_alpha_g = buf->has_alpha_g; |
4822 | 0 | bool has_shape = buf->has_shape; |
4823 | 0 | bool has_tags = buf->has_tags; |
4824 | 0 | bool knockout = buf->knockout; |
4825 | 0 | int num_chan = buf->n_chan; |
4826 | 0 | int num_comp = num_chan - 1; |
4827 | 0 | int shape_off = num_chan * planestride; |
4828 | 0 | int alpha_g_off = shape_off + (has_shape ? planestride : 0); |
4829 | 0 | int tag_off = alpha_g_off + (has_alpha_g ? planestride : 0); |
4830 | 0 | bool overprint = pdev->op_state == PDF14_OP_STATE_FILL ? pdev->overprint : pdev->stroke_overprint; |
4831 | 0 | gx_color_index drawn_comps = pdev->op_state == PDF14_OP_STATE_FILL ? |
4832 | 0 | pdev->drawn_comps_fill : pdev->drawn_comps_stroke; |
4833 | 0 | gx_color_index comps; |
4834 | 0 | uint16_t shape = 0; /* Quiet compiler. */ |
4835 | 0 | uint16_t src_alpha; |
4836 | 0 | int alpha2_aa, alpha_aa, sx; |
4837 | 0 | int alpha_aa_act; |
4838 | 0 | int xoff; |
4839 | |
|
4840 | 0 | if (buf->data == NULL) |
4841 | 0 | return 0; |
4842 | 0 | aa_row = data; |
4843 | 0 | if (has_tags) { |
4844 | 0 | curr_tag = (color >> (num_comp*16)) & 0xff; |
4845 | 0 | } |
4846 | |
|
4847 | 0 | if (devn) { |
4848 | 0 | if (additive) { |
4849 | 0 | for (j = 0; j < num_comp; j++) { |
4850 | 0 | src[j] = pdc->colors.devn.values[j]; |
4851 | 0 | } |
4852 | 0 | } else { |
4853 | 0 | for (j = 0; j < num_comp; j++) { |
4854 | 0 | src[j] = 65535 - pdc->colors.devn.values[j]; |
4855 | 0 | } |
4856 | 0 | } |
4857 | 0 | } else |
4858 | 0 | pdev->pdf14_procs->unpack_color16(num_comp, color, pdev, src); |
4859 | 0 | src_alpha = src[num_comp] = (uint16_t)floor (65535 * pdev->alpha + 0.5); |
4860 | 0 | if (has_shape) |
4861 | 0 | shape = (uint16_t)floor (65535 * pdev->shape + 0.5); |
4862 | | /* Limit the area we write to the bounding rectangle for this buffer */ |
4863 | 0 | if (x < buf->rect.p.x) { |
4864 | 0 | xoff = data_x + buf->rect.p.x - x; |
4865 | 0 | w += x - buf->rect.p.x; |
4866 | 0 | x = buf->rect.p.x; |
4867 | 0 | } else { |
4868 | 0 | xoff = data_x; |
4869 | 0 | } |
4870 | 0 | if (y < buf->rect.p.y) { |
4871 | 0 | h += y - buf->rect.p.y; |
4872 | 0 | aa_row -= (y - buf->rect.p.y) * aa_raster; |
4873 | 0 | y = buf->rect.p.y; |
4874 | 0 | } |
4875 | 0 | if (x + w > buf->rect.q.x) w = buf->rect.q.x - x; |
4876 | 0 | if (y + h > buf->rect.q.y) h = buf->rect.q.y - y; |
4877 | | /* Update the dirty rectangle. */ |
4878 | 0 | if (x < buf->dirty.p.x) buf->dirty.p.x = x; |
4879 | 0 | if (y < buf->dirty.p.y) buf->dirty.p.y = y; |
4880 | 0 | if (x + w > buf->dirty.q.x) buf->dirty.q.x = x + w; |
4881 | 0 | if (y + h > buf->dirty.q.y) buf->dirty.q.y = y + h; |
4882 | 0 | line = buf->data + (x - buf->rect.p.x)*2 + (y - buf->rect.p.y) * rowstride; |
4883 | |
|
4884 | 0 | planestride >>= 1; |
4885 | 0 | rowstride >>= 1; |
4886 | 0 | alpha_g_off >>= 1; |
4887 | 0 | shape_off >>= 1; |
4888 | 0 | tag_off >>= 1; |
4889 | 0 | for (j = 0; j < h; ++j, aa_row += aa_raster) { |
4890 | 0 | dst_ptr = (uint16_t *)(void *)line; |
4891 | 0 | sx = xoff; |
4892 | 0 | for (i = 0; i < w; ++i, ++sx) { |
4893 | | /* Complement the components for subtractive color spaces */ |
4894 | 0 | if (additive) { |
4895 | 0 | for (k = 0; k < num_chan; ++k) /* num_chan includes alpha */ |
4896 | 0 | dst[k] = dst_ptr[k * planestride]; |
4897 | 0 | } else { /* Complement the components for subtractive color spaces */ |
4898 | 0 | for (k = 0; k < num_comp; ++k) |
4899 | 0 | dst[k] = 65535 - dst_ptr[k * planestride]; |
4900 | 0 | dst[num_comp] = dst_ptr[num_comp * planestride]; /* alpha */ |
4901 | 0 | } |
4902 | | /* Get the aa alpha from the buffer */ |
4903 | 0 | switch(depth) |
4904 | 0 | { |
4905 | 0 | case 2: /* map 0 - 3 to 0 - 255 */ |
4906 | 0 | alpha_aa = ((aa_row[sx >> 2] >> ((3 - (sx & 3)) << 1)) & 3) * 85; |
4907 | 0 | break; |
4908 | 0 | case 4: |
4909 | 0 | alpha2_aa = aa_row[sx >> 1]; |
4910 | 0 | alpha_aa = (sx & 1 ? alpha2_aa & 0xf : alpha2_aa >> 4) * 17; |
4911 | 0 | break; |
4912 | 0 | case 8: |
4913 | 0 | alpha_aa = aa_row[sx]; |
4914 | 0 | break; |
4915 | 0 | default: |
4916 | 0 | return_error(gs_error_rangecheck); |
4917 | 0 | } |
4918 | 0 | if (alpha_aa != 0) { /* This does happen */ |
4919 | 0 | if (alpha_aa != 255) { |
4920 | | /* We have an alpha value from aa */ |
4921 | 0 | alpha_aa_act = alpha_aa * 0x101; |
4922 | 0 | if (src_alpha != 65535) { |
4923 | | /* Need to combine it with the existing alpha */ |
4924 | 0 | int tmp = src_alpha * alpha_aa_act + 0x8000; |
4925 | 0 | alpha_aa_act = (tmp + (tmp >> 16)) >> 16; |
4926 | 0 | } |
4927 | | /* Set our source alpha value appropriately */ |
4928 | 0 | src[num_comp] = alpha_aa_act; |
4929 | 0 | } else { |
4930 | | /* We may have to reset this is it was changed as we |
4931 | | moved across the row */ |
4932 | 0 | src[num_comp] = src_alpha; |
4933 | 0 | } |
4934 | 0 | if (knockout) { |
4935 | 0 | if (buf->isolated) { |
4936 | 0 | art_pdf_knockoutisolated_group_16(dst, src, num_comp); |
4937 | 0 | } else { |
4938 | 0 | art_pdf_composite_knockout_16(dst, src, num_comp, |
4939 | 0 | blend_mode, pdev->blend_procs, pdev); |
4940 | 0 | } |
4941 | 0 | } else { |
4942 | 0 | art_pdf_composite_pixel_alpha_16(dst, src, num_comp, blend_mode, num_comp, |
4943 | 0 | pdev->blend_procs, pdev); |
4944 | 0 | } |
4945 | | /* Complement the results for subtractive color spaces */ |
4946 | 0 | if (additive) { |
4947 | 0 | for (k = 0; k < num_chan; ++k) |
4948 | 0 | dst_ptr[k * planestride] = dst[k]; |
4949 | 0 | } else { |
4950 | 0 | if (overprint && dst_ptr[num_comp * planestride] != 0) { |
4951 | 0 | for (k = 0, comps = drawn_comps; comps != 0; |
4952 | 0 | ++k, comps >>= 1) { |
4953 | 0 | if ((comps & 0x1) != 0) { |
4954 | 0 | dst_ptr[k * planestride] = 65535 - dst[k]; |
4955 | 0 | } |
4956 | 0 | } |
4957 | | /* The alpha channel */ |
4958 | 0 | dst_ptr[num_comp * planestride] = dst[num_comp]; |
4959 | 0 | } else { |
4960 | 0 | for (k = 0; k < num_comp; ++k) |
4961 | 0 | dst_ptr[k * planestride] = 65535 - dst[k]; |
4962 | | /* The alpha channel */ |
4963 | 0 | dst_ptr[num_comp * planestride] = dst[num_comp]; |
4964 | 0 | } |
4965 | 0 | } |
4966 | 0 | if (has_alpha_g) { |
4967 | 0 | int tmp = (65535 - dst_ptr[alpha_g_off]) * (65535 - src[num_comp]) + 0x8000; |
4968 | 0 | dst_ptr[alpha_g_off] = 65535 - ((tmp + (tmp >> 16)) >> 16); |
4969 | 0 | } |
4970 | 0 | if (has_shape) { |
4971 | 0 | int tmp = (65535 - dst_ptr[shape_off]) * (65535 - shape) + 0x8000; |
4972 | 0 | dst_ptr[shape_off] = 65535 - ((tmp + (tmp >> 16)) >> 16); |
4973 | 0 | } |
4974 | 0 | if (has_tags) { |
4975 | | /* If alpha is 100% then set to curr_tag, else or */ |
4976 | | /* other than Normal BM, we always OR */ |
4977 | 0 | if (src[num_comp] == 65535 && tag_blend) { |
4978 | 0 | dst_ptr[tag_off] = curr_tag; |
4979 | 0 | } else { |
4980 | 0 | dst_ptr[tag_off] |= curr_tag; |
4981 | 0 | } |
4982 | 0 | } |
4983 | 0 | } |
4984 | 0 | ++dst_ptr; |
4985 | 0 | } |
4986 | 0 | line += rowstride; |
4987 | 0 | } |
4988 | 0 | return 0; |
4989 | 0 | } |
4990 | | |
4991 | | static int |
4992 | | pdf14_copy_alpha_color(gx_device * dev, const byte * data, int data_x, |
4993 | | int aa_raster, gx_bitmap_id id, int x, int y, int w, int h, |
4994 | | gx_color_index color, const gx_device_color *pdc, |
4995 | | int depth, bool devn) |
4996 | 0 | { |
4997 | 0 | bool deep = device_is_deep(dev); |
4998 | 0 | int code; |
4999 | |
|
5000 | 0 | code = pdf14_initialize_ctx(dev, dev->color_info.num_components, |
5001 | 0 | dev->color_info.polarity != GX_CINFO_POLARITY_SUBTRACTIVE, NULL); |
5002 | 0 | if (code < 0) |
5003 | 0 | return code; |
5004 | | |
5005 | 0 | if (deep) |
5006 | 0 | return do_pdf14_copy_alpha_color_16(dev, data, data_x, aa_raster, |
5007 | 0 | id, x, y, w, h, |
5008 | 0 | color, pdc, depth, devn); |
5009 | 0 | else |
5010 | 0 | return do_pdf14_copy_alpha_color(dev, data, data_x, aa_raster, |
5011 | 0 | id, x, y, w, h, |
5012 | 0 | color, pdc, depth, devn); |
5013 | 0 | } |
5014 | | |
5015 | | static int |
5016 | | pdf14_fill_mask(gx_device * orig_dev, |
5017 | | const byte * data, int dx, int raster, gx_bitmap_id id, |
5018 | | int x, int y, int w, int h, |
5019 | | const gx_drawing_color * pdcolor, int depth, |
5020 | | gs_logical_operation_t lop, const gx_clip_path * pcpath) |
5021 | 5.42M | { |
5022 | 5.42M | gx_device *dev; |
5023 | 5.42M | pdf14_device *p14dev = (pdf14_device *)orig_dev; |
5024 | 5.42M | gx_device_clip cdev; |
5025 | 5.42M | gx_color_tile *ptile = NULL; |
5026 | 5.42M | int code = 0; |
5027 | 5.42M | gs_int_rect group_rect; |
5028 | 5.42M | gx_pattern_trans_t *fill_trans_buffer = NULL; |
5029 | 5.42M | bool has_pattern_trans = false; |
5030 | 5.42M | cmm_dev_profile_t *dev_profile; |
5031 | | |
5032 | 5.42M | if (pdcolor == NULL) |
5033 | 0 | return_error(gs_error_unknownerror); /* color must be defined */ |
5034 | | |
5035 | 5.42M | code = pdf14_initialize_ctx(orig_dev, orig_dev->color_info.num_components, |
5036 | 5.42M | orig_dev->color_info.polarity != GX_CINFO_POLARITY_SUBTRACTIVE, NULL); |
5037 | 5.42M | if (code < 0) |
5038 | 0 | return code; |
5039 | | |
5040 | | /* If we are doing a fill with a pattern that has a transparency then |
5041 | | go ahead and do a push and a pop of the transparency group */ |
5042 | 5.42M | if (gx_dc_is_pattern1_color(pdcolor)) { |
5043 | 0 | if( gx_pattern1_get_transptr(pdcolor) != NULL) { |
5044 | 0 | ptile = pdcolor->colors.pattern.p_tile; |
5045 | | /* Set up things in the ptile so that we get the proper |
5046 | | blending etc */ |
5047 | | /* Set the blending procs and the is_additive setting based |
5048 | | upon the number of channels */ |
5049 | 0 | if (ptile->ttrans->n_chan-1 < 4) { |
5050 | 0 | ptile->ttrans->blending_procs = &rgb_blending_procs; |
5051 | 0 | ptile->ttrans->is_additive = true; |
5052 | 0 | } else { |
5053 | 0 | ptile->ttrans->blending_procs = &cmyk_blending_procs; |
5054 | 0 | ptile->ttrans->is_additive = false; |
5055 | 0 | } |
5056 | | /* Set the procs so that we use the proper filling method. */ |
5057 | 0 | gx_set_pattern_procs_trans((gx_device_color*) pdcolor); |
5058 | | /* Based upon if the tiles overlap pick the type of rect |
5059 | | fill that we will want to use */ |
5060 | 0 | if (ptile->has_overlap) { |
5061 | | /* This one does blending since there is tile overlap */ |
5062 | 0 | ptile->ttrans->pat_trans_fill = &tile_rect_trans_blend; |
5063 | 0 | } else { |
5064 | | /* This one does no blending since there is no tile overlap */ |
5065 | 0 | ptile->ttrans->pat_trans_fill = &tile_rect_trans_simple; |
5066 | 0 | } |
5067 | | /* Push the group */ |
5068 | 0 | group_rect.p.x = x; |
5069 | 0 | group_rect.p.y = max(0,y); |
5070 | 0 | group_rect.q.x = x + w; |
5071 | 0 | group_rect.q.y = y + h; |
5072 | 0 | if (!(w <= 0 || h <= 0)) { |
5073 | |
|
5074 | 0 | pdf14_group_color_t *group_color_info = pdf14_clone_group_color_info((gx_device *) p14dev, p14dev->ctx->stack->group_color_info); |
5075 | 0 | if (group_color_info == NULL) |
5076 | 0 | return gs_error_VMerror; |
5077 | | |
5078 | 0 | code = pdf14_push_transparency_group(p14dev->ctx, &group_rect, |
5079 | 0 | 1, 0, 65535, 65535, 65535, ptile->blending_mode, 0, 0, |
5080 | 0 | ptile->ttrans->n_chan-1, false, false, NULL, NULL, |
5081 | 0 | group_color_info, NULL, NULL); |
5082 | 0 | if (code < 0) |
5083 | 0 | return code; |
5084 | | /* Set up the output buffer information now that we have |
5085 | | pushed the group */ |
5086 | 0 | fill_trans_buffer = new_pattern_trans_buff(p14dev->memory); |
5087 | 0 | pdf14_get_buffer_information((gx_device *) p14dev, |
5088 | 0 | fill_trans_buffer, NULL, false); |
5089 | | /* Store this in the appropriate place in pdcolor. This |
5090 | | is released later after the mask fill */ |
5091 | 0 | ptile->ttrans->fill_trans_buffer = fill_trans_buffer; |
5092 | 0 | has_pattern_trans = true; |
5093 | 0 | } |
5094 | 0 | } |
5095 | 0 | } |
5096 | 5.42M | if (pcpath != 0) { |
5097 | 771k | gx_make_clip_device_on_stack(&cdev, pcpath, orig_dev); |
5098 | 771k | dev = (gx_device *) & cdev; |
5099 | 771k | } else |
5100 | 4.65M | dev = orig_dev; |
5101 | 5.42M | if (depth > 1) { |
5102 | | /****** CAN'T DO ROP OR HALFTONE WITH ALPHA ******/ |
5103 | 0 | code = (*dev_proc(dev, copy_alpha)) |
5104 | 0 | (dev, data, dx, raster, id, x, y, w, h, |
5105 | 0 | gx_dc_pure_color(pdcolor), depth); |
5106 | 5.42M | } else { |
5107 | 5.42M | code = pdcolor->type->fill_masked(pdcolor, data, dx, raster, id, |
5108 | 5.42M | x, y, w, h, dev, lop, false); |
5109 | 5.42M | } |
5110 | 5.42M | if (has_pattern_trans) { |
5111 | 0 | if (code >= 0) |
5112 | 0 | code = dev_proc(dev, get_profile)(dev, &dev_profile); |
5113 | 0 | if (code >= 0) |
5114 | 0 | code = pdf14_pop_transparency_group(NULL, p14dev->ctx, |
5115 | 0 | p14dev->blend_procs, |
5116 | 0 | p14dev->color_info.num_components, |
5117 | 0 | dev_profile->device_profile[GS_DEFAULT_DEVICE_PROFILE], |
5118 | 0 | orig_dev); |
5119 | 0 | gs_free_object(p14dev->memory, ptile->ttrans->fill_trans_buffer, |
5120 | 0 | "pdf14_fill_mask"); |
5121 | 0 | ptile->ttrans->fill_trans_buffer = NULL; /* Avoid GC issues */ |
5122 | 0 | } |
5123 | 5.42M | return code; |
5124 | 5.42M | } |
5125 | | |
5126 | | |
5127 | | |
5128 | | /* Used for filling rects when we are doing a fill with a pattern that |
5129 | | has transparency */ |
5130 | | static int |
5131 | | pdf14_tile_pattern_fill(gx_device * pdev, const gs_gstate * pgs, |
5132 | | gx_path * ppath, const gx_fill_params * params, |
5133 | | const gx_device_color * pdevc, |
5134 | | const gx_clip_path * pcpath) |
5135 | 13.0k | { |
5136 | 13.0k | int code; |
5137 | 13.0k | gs_gstate *pgs_noconst = (gs_gstate *)pgs; /* Break const. */ |
5138 | 13.0k | gs_fixed_rect clip_box; |
5139 | 13.0k | gs_fixed_rect outer_box; |
5140 | 13.0k | pdf14_device * p14dev = (pdf14_device *)pdev; |
5141 | 13.0k | gs_int_rect rect; |
5142 | 13.0k | gx_clip_rect *curr_clip_rect; |
5143 | 13.0k | gx_color_tile *ptile = NULL; |
5144 | 13.0k | int k; |
5145 | 13.0k | gx_pattern_trans_t *fill_trans_buffer = NULL; |
5146 | 13.0k | gs_int_point phase; /* Needed during clist rendering for band offset */ |
5147 | 13.0k | int n_chan_tile; |
5148 | 13.0k | gx_clip_path cpath_intersection; |
5149 | 13.0k | gx_path path_ttrans; |
5150 | 13.0k | gs_blend_mode_t blend_mode; |
5151 | 13.0k | pdf14_group_color_t *group_color_info; |
5152 | | |
5153 | 13.0k | if (ppath == NULL) |
5154 | 0 | return_error(gs_error_unknownerror); /* should not happen */ |
5155 | 13.0k | if (pcpath != NULL) { |
5156 | 12.2k | code = gx_cpath_init_local_shared_nested(&cpath_intersection, pcpath, ppath->memory, 1); |
5157 | 12.2k | } else { |
5158 | 818 | (*dev_proc(pdev, get_clipping_box)) (pdev, &clip_box); |
5159 | 818 | gx_cpath_init_local(&cpath_intersection, ppath->memory); |
5160 | 818 | code = gx_cpath_from_rectangle(&cpath_intersection, &clip_box); |
5161 | 818 | } |
5162 | 13.0k | if (code < 0) |
5163 | 0 | return code; |
5164 | 13.0k | code = gx_cpath_intersect_with_params(&cpath_intersection, ppath, |
5165 | 13.0k | params->rule, pgs_noconst, params); |
5166 | 13.0k | if (code < 0) |
5167 | 0 | return code; |
5168 | | /* One (common) case worth optimising for is where we have a pattern that |
5169 | | * is positioned such that only one repeat of the tile is actually |
5170 | | * visible. In this case, we can restrict the size of the blending group |
5171 | | * we need to produce to be that of the actual area of the tile that is |
5172 | | * used. */ |
5173 | 13.0k | ptile = pdevc->colors.pattern.p_tile; |
5174 | 13.0k | if (ptile->ttrans != NULL) |
5175 | 11.5k | { |
5176 | 11.5k | if ((cpath_intersection.outer_box.p.x < 0) || |
5177 | 11.5k | (cpath_intersection.outer_box.p.y < 0) || |
5178 | 11.5k | (cpath_intersection.outer_box.q.x > int2fixed(ptile->ttrans->width)) || |
5179 | 11.5k | (cpath_intersection.outer_box.q.y > int2fixed(ptile->ttrans->height))) |
5180 | 9.86k | { |
5181 | | /* More than one repeat of the tile would be visible, so we can't |
5182 | | * use the optimisation here. (Actually, this test isn't quite |
5183 | | * right - it actually tests whether more than the '0th' repeat |
5184 | | * of the tile is visible. A better test would test if just one |
5185 | | * repeat of the tile was visible, irrespective of which one. |
5186 | | * This is (hopefully) relatively rare, and would make the code |
5187 | | * below more complex too, so we're ignoring that for now. If it |
5188 | | * becomes evident that it's a case that matters we can revisit |
5189 | | * it.) */ |
5190 | 9.86k | } else { |
5191 | | /* Only the 0th repeat is visible. Restrict the size further to |
5192 | | * just the used area of that patch. */ |
5193 | 1.65k | gx_path_init_local(&path_ttrans, ppath->memory); |
5194 | 1.65k | code = gx_path_add_rectangle(&path_ttrans, |
5195 | 1.65k | int2fixed(ptile->ttrans->rect.p.x), |
5196 | 1.65k | int2fixed(ptile->ttrans->rect.p.y), |
5197 | 1.65k | int2fixed(ptile->ttrans->rect.q.x), |
5198 | 1.65k | int2fixed(ptile->ttrans->rect.q.y)); |
5199 | 1.65k | if (code < 0) |
5200 | 0 | return code; |
5201 | 1.65k | code = gx_cpath_intersect(&cpath_intersection, &path_ttrans, |
5202 | 1.65k | params->rule, pgs_noconst); |
5203 | 1.65k | gx_path_free(&path_ttrans, "pdf14_tile_pattern_fill(path_ttrans)"); |
5204 | 1.65k | if (code < 0) |
5205 | 0 | return code; |
5206 | 1.65k | } |
5207 | 11.5k | } |
5208 | | /* Now let us push a transparency group into which we are |
5209 | | * going to tile the pattern. */ |
5210 | 13.0k | if (ppath != NULL) { |
5211 | 13.0k | pdf14_device save_pdf14_dev; /* save area for p14dev */ |
5212 | | |
5213 | 13.0k | gx_cpath_outer_box(&cpath_intersection, &outer_box); |
5214 | 13.0k | rect.p.x = fixed2int(outer_box.p.x); |
5215 | 13.0k | rect.p.y = fixed2int(outer_box.p.y); |
5216 | 13.0k | rect.q.x = fixed2int_ceiling(outer_box.q.x); |
5217 | 13.0k | rect.q.y = fixed2int_ceiling(outer_box.q.y); |
5218 | | |
5219 | | /* The color space of this group must be the same as that of the |
5220 | | tile. Then when we pop the group, if there is a mismatch between |
5221 | | the tile color space and the current context we will do the proper |
5222 | | conversion. In this way, we ensure that if the tile has any overlapping |
5223 | | occuring it will be blended in the proper manner i.e in the tile |
5224 | | underlying color space. */ |
5225 | 13.0k | if (ptile->cdev == NULL) { |
5226 | 11.5k | if (ptile->ttrans == NULL) |
5227 | 0 | return_error(gs_error_unknownerror); /* should not happen */ |
5228 | 11.5k | n_chan_tile = ptile->ttrans->n_chan; |
5229 | 11.5k | } else { |
5230 | 1.51k | n_chan_tile = ptile->cdev->common.color_info.num_components+1; |
5231 | 1.51k | } |
5232 | 13.0k | blend_mode = ptile->blending_mode; |
5233 | 13.0k | memcpy(&save_pdf14_dev, p14dev, sizeof(pdf14_device)); |
5234 | | |
5235 | 13.0k | group_color_info = pdf14_clone_group_color_info(pdev, p14dev->ctx->stack->group_color_info); |
5236 | 13.0k | if (group_color_info == NULL) |
5237 | 0 | return gs_error_VMerror; |
5238 | | |
5239 | 13.0k | code = pdf14_push_transparency_group(p14dev->ctx, &rect, 1, 0, (uint16_t)floor(65535 * p14dev->alpha + 0.5), |
5240 | 13.0k | (uint16_t)floor(65535 * p14dev->shape + 0.5), (uint16_t)floor(65535 * p14dev->opacity + 0.5), |
5241 | 13.0k | blend_mode, 0, 0, n_chan_tile - 1, false, false, |
5242 | 13.0k | NULL, NULL, group_color_info, pgs_noconst, pdev); |
5243 | 13.0k | if (code < 0) |
5244 | 0 | return code; |
5245 | | |
5246 | | /* Set the blending procs and the is_additive setting based |
5247 | | upon the number of channels */ |
5248 | 13.0k | if (ptile->cdev == NULL) { |
5249 | 11.5k | if (n_chan_tile-1 < 4) { |
5250 | 11.5k | ptile->ttrans->blending_procs = &rgb_blending_procs; |
5251 | 11.5k | ptile->ttrans->is_additive = true; |
5252 | 11.5k | } else { |
5253 | 4 | ptile->ttrans->blending_procs = &cmyk_blending_procs; |
5254 | 4 | ptile->ttrans->is_additive = false; |
5255 | 4 | } |
5256 | 11.5k | } |
5257 | | /* Now lets go through the rect list and fill with the pattern */ |
5258 | | /* First get the buffer that we will be filling */ |
5259 | 13.0k | if (ptile->cdev == NULL) { |
5260 | 11.5k | fill_trans_buffer = new_pattern_trans_buff(pgs->memory); |
5261 | 11.5k | pdf14_get_buffer_information(pdev, fill_trans_buffer, NULL, false); |
5262 | | /* Based upon if the tiles overlap pick the type of rect fill that we will |
5263 | | want to use */ |
5264 | 11.5k | if (ptile->has_overlap) { |
5265 | | /* This one does blending since there is tile overlap */ |
5266 | 18 | ptile->ttrans->pat_trans_fill = &tile_rect_trans_blend; |
5267 | 11.5k | } else { |
5268 | | /* This one does no blending since there is no tile overlap */ |
5269 | 11.5k | ptile->ttrans->pat_trans_fill = &tile_rect_trans_simple; |
5270 | 11.5k | } |
5271 | | /* fill the rectangles */ |
5272 | 11.5k | phase.x = pdevc->phase.x; |
5273 | 11.5k | phase.y = pdevc->phase.y; |
5274 | 11.5k | if (cpath_intersection.rect_list->list.head != NULL){ |
5275 | 0 | curr_clip_rect = cpath_intersection.rect_list->list.head->next; |
5276 | 0 | for( k = 0; k < cpath_intersection.rect_list->list.count && code >= 0; k++){ |
5277 | 0 | if_debug5m('v', pgs->memory, |
5278 | 0 | "[v]pdf14_tile_pattern_fill, (%d, %d), %d x %d pat_id %u \n", |
5279 | 0 | curr_clip_rect->xmin, curr_clip_rect->ymin, |
5280 | 0 | curr_clip_rect->xmax-curr_clip_rect->xmin, |
5281 | 0 | curr_clip_rect->ymax-curr_clip_rect->ymin, (int)ptile->id); |
5282 | 0 | code = gx_trans_pattern_fill_rect(curr_clip_rect->xmin, curr_clip_rect->ymin, |
5283 | 0 | curr_clip_rect->xmax, curr_clip_rect->ymax, ptile, |
5284 | 0 | fill_trans_buffer, phase, pdev, pdevc, 1); |
5285 | 0 | curr_clip_rect = curr_clip_rect->next; |
5286 | 0 | } |
5287 | 11.5k | } else if (cpath_intersection.rect_list->list.count == 1) { |
5288 | | /* The case when there is just a single rect */ |
5289 | 11.5k | if_debug5m('v', pgs->memory, |
5290 | 11.5k | "[v]pdf14_tile_pattern_fill, (%d, %d), %d x %d pat_id %u \n", |
5291 | 11.5k | cpath_intersection.rect_list->list.single.xmin, |
5292 | 11.5k | cpath_intersection.rect_list->list.single.ymin, |
5293 | 11.5k | cpath_intersection.rect_list->list.single.xmax- |
5294 | 11.5k | cpath_intersection.rect_list->list.single.xmin, |
5295 | 11.5k | cpath_intersection.rect_list->list.single.ymax- |
5296 | 11.5k | cpath_intersection.rect_list->list.single.ymin, |
5297 | 11.5k | (int)ptile->id); |
5298 | 11.5k | code = gx_trans_pattern_fill_rect(cpath_intersection.rect_list->list.single.xmin, |
5299 | 11.5k | cpath_intersection.rect_list->list.single.ymin, |
5300 | 11.5k | cpath_intersection.rect_list->list.single.xmax, |
5301 | 11.5k | cpath_intersection.rect_list->list.single.ymax, |
5302 | 11.5k | ptile, fill_trans_buffer, phase, pdev, pdevc, 1); |
5303 | 11.5k | } |
5304 | 11.5k | } else { |
5305 | | /* Clist pattern with transparency. Create a clip device from our |
5306 | | cpath_intersection. The above non-clist case could probably be |
5307 | | done this way too, which will reduce the amount of code here. |
5308 | | That is for another day though due to time constraints*/ |
5309 | 1.51k | gx_device *dev; |
5310 | 1.51k | gx_device_clip clipdev; |
5311 | | |
5312 | 1.51k | gx_make_clip_device_on_stack(&clipdev, &cpath_intersection, pdev); |
5313 | 1.51k | dev = (gx_device *)&clipdev; |
5314 | 1.51k | phase.x = pdevc->phase.x; |
5315 | 1.51k | phase.y = pdevc->phase.y; |
5316 | 1.51k | code = gx_trans_pattern_fill_rect(rect.p.x, rect.p.y, rect.q.x, rect.q.y, |
5317 | 1.51k | ptile, fill_trans_buffer, phase, |
5318 | 1.51k | dev, pdevc, 1); |
5319 | | |
5320 | 1.51k | } |
5321 | | /* We're done drawing with the pattern, remove the reference to the |
5322 | | * pattern device |
5323 | | */ |
5324 | 13.0k | p14dev->pclist_device = NULL; |
5325 | 13.0k | if (code < 0) |
5326 | 0 | return code; |
5327 | | |
5328 | | /* free our buffer object */ |
5329 | 13.0k | if (fill_trans_buffer != NULL) { |
5330 | 11.5k | gs_free_object(pgs->memory, fill_trans_buffer, "pdf14_tile_pattern_fill"); |
5331 | 11.5k | ptile->ttrans->fill_trans_buffer = NULL; /* Avoid GC issues */ |
5332 | 11.5k | } |
5333 | | /* pop our transparency group which will force the blending. |
5334 | | This was all needed for Bug 693498 */ |
5335 | 13.0k | code = pdf14_pop_transparency_group(pgs_noconst, p14dev->ctx, |
5336 | 13.0k | p14dev->blend_procs, |
5337 | 13.0k | p14dev->color_info.num_components, |
5338 | 13.0k | p14dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE], |
5339 | 13.0k | pdev); |
5340 | 13.0k | memcpy(p14dev, &save_pdf14_dev, sizeof(pdf14_device)); |
5341 | 13.0k | p14dev->pclist_device = NULL; |
5342 | 13.0k | } |
5343 | 13.0k | gx_cpath_free(&cpath_intersection, "pdf14_tile_pattern_fill"); |
5344 | 13.0k | return code; |
5345 | 13.0k | } |
5346 | | |
5347 | | /* Useful function that should probably go elsewhere. |
5348 | | * Call this function to find the topmost pdf14 device in the device chain, |
5349 | | * or NULL if there is not one. |
5350 | | */ |
5351 | | static pdf14_device *find_pdf14_device(gx_device *dev) |
5352 | 0 | { |
5353 | 0 | pdf14_device *pdev; |
5354 | |
|
5355 | 0 | if (dev_proc(dev, dev_spec_op)(dev, gxdso_is_pdf14_device, &pdev, sizeof(pdev)) <= 0) |
5356 | 0 | return NULL; |
5357 | 0 | return pdev; |
5358 | 0 | } |
5359 | | |
5360 | | /* Imager render for pattern transparency filling. This is just here to catch |
5361 | | the final flush, at which time we will pop the group and reset a few items */ |
5362 | | static int |
5363 | | pdf14_pattern_trans_render(gx_image_enum * penum, const byte * buffer, int data_x, |
5364 | | uint w, int h, gx_device * dev) |
5365 | 0 | { |
5366 | 0 | int code; |
5367 | 0 | pdf14_device * p14dev; |
5368 | 0 | const gs_gstate * pgs = penum->pgs; |
5369 | 0 | gx_device_color * pdcolor = (penum->icolor1); |
5370 | 0 | gx_color_tile *ptile = pdcolor->colors.pattern.p_tile; |
5371 | | |
5372 | | /* Pass along to the original renderer */ |
5373 | 0 | code = (ptile->ttrans->image_render)(penum, buffer, data_x, w, h, dev); |
5374 | 0 | if (code < 0) |
5375 | 0 | return code; |
5376 | | /* On our final time through here, go ahead and pop the transparency |
5377 | | group and reset the procs in the device color. And free the fill |
5378 | | trans buffer object */ |
5379 | 0 | if (h == 0 && ptile->trans_group_popped == false) { |
5380 | 0 | p14dev = find_pdf14_device(dev); |
5381 | |
|
5382 | 0 | if (p14dev->pclist_device == NULL) { |
5383 | | /* Used if we are on clist writing phase. Would only |
5384 | | occur if we somehow failed in high level clist |
5385 | | image writing */ |
5386 | 0 | code = gs_end_transparency_group((gs_gstate *) pgs); |
5387 | 0 | } else { |
5388 | | /* Used if we are on clist reading phase. If we had high level |
5389 | | image in clist */ |
5390 | 0 | cmm_dev_profile_t *dev_profile; |
5391 | 0 | code = dev_proc(dev, get_profile)(dev, &dev_profile); |
5392 | 0 | if (code < 0) |
5393 | 0 | return code; |
5394 | | |
5395 | 0 | if_debug2m('v', p14dev->ctx->memory, |
5396 | 0 | "[v*] Popping trans group pattern fill, uid = %ld id = %ld \n", |
5397 | 0 | ptile->uid.id, ptile->id); |
5398 | 0 | code = pdf14_pop_transparency_group(NULL, p14dev->ctx, p14dev->blend_procs, |
5399 | 0 | p14dev->color_info.num_components, |
5400 | 0 | dev_profile->device_profile[GS_DEFAULT_DEVICE_PROFILE], |
5401 | 0 | (gx_device *) p14dev); |
5402 | 0 | } |
5403 | 0 | pdcolor->colors.pattern.p_tile->trans_group_popped = true; |
5404 | 0 | gs_free_object(pgs->memory, ptile->ttrans->fill_trans_buffer, |
5405 | 0 | "pdf14_pattern_trans_render"); |
5406 | 0 | ptile->ttrans->fill_trans_buffer = NULL; /* Avoid GC issues */ |
5407 | 0 | } |
5408 | 0 | return code; |
5409 | 0 | } |
5410 | | |
5411 | | /* This function is used to get things in place for filling a mask image |
5412 | | with a pattern that has transparency. It is used by pdf14_begin_type_image |
5413 | | and pdf14_clist_begin_type_image */ |
5414 | | static int |
5415 | | pdf14_patt_trans_image_fill(gx_device * dev, const gs_gstate * pgs, |
5416 | | const gs_matrix *pmat, const gs_image_common_t *pic, |
5417 | | const gs_int_rect * prect, |
5418 | | const gx_drawing_color * pdcolor, |
5419 | | const gx_clip_path * pcpath, gs_memory_t * mem, |
5420 | | gx_image_enum_common_t ** pinfo) |
5421 | 0 | { |
5422 | 0 | const gs_image_t *pim = (const gs_image_t *)pic; |
5423 | 0 | pdf14_device * p14dev = (pdf14_device *)dev; |
5424 | 0 | gx_color_tile *ptile; |
5425 | 0 | int code; |
5426 | 0 | gs_int_rect group_rect; |
5427 | 0 | gx_image_enum *penum; |
5428 | 0 | gs_rect bbox_in, bbox_out; |
5429 | 0 | gx_pattern_trans_t *fill_trans_buffer; |
5430 | |
|
5431 | 0 | ptile = pdcolor->colors.pattern.p_tile; |
5432 | | /* Set up things in the ptile so that we get the proper |
5433 | | blending etc */ |
5434 | | /* Set the blending procs and the is_additive setting based |
5435 | | upon the number of channels */ |
5436 | 0 | if (ptile->ttrans->n_chan-1 < 4) { |
5437 | 0 | ptile->ttrans->blending_procs = &rgb_blending_procs; |
5438 | 0 | ptile->ttrans->is_additive = true; |
5439 | 0 | } else { |
5440 | 0 | ptile->ttrans->blending_procs = &cmyk_blending_procs; |
5441 | 0 | ptile->ttrans->is_additive = false; |
5442 | 0 | } |
5443 | | /* Set the blending mode in the ptile based upon the current |
5444 | | setting in the gs_gstate */ |
5445 | 0 | ptile->blending_mode = pgs->blend_mode; |
5446 | | /* Based upon if the tiles overlap pick the type of rect |
5447 | | fill that we will want to use */ |
5448 | 0 | if (ptile->has_overlap) { |
5449 | | /* This one does blending since there is tile overlap */ |
5450 | 0 | ptile->ttrans->pat_trans_fill = &tile_rect_trans_blend; |
5451 | 0 | } else { |
5452 | | /* This one does no blending since there is no tile overlap */ |
5453 | 0 | ptile->ttrans->pat_trans_fill = &tile_rect_trans_simple; |
5454 | 0 | } |
5455 | | /* Set the procs so that we use the proper filling method. */ |
5456 | 0 | gx_set_pattern_procs_trans((gx_device_color*) pdcolor); |
5457 | | /* Let the imaging stuff get set up */ |
5458 | 0 | code = gx_default_begin_typed_image(dev, pgs, pmat, pic, |
5459 | 0 | prect, pdcolor,pcpath, mem, pinfo); |
5460 | 0 | if (code < 0) |
5461 | 0 | return code; |
5462 | | /* Now Push the group */ |
5463 | | /* First apply the inverse of the image matrix to our |
5464 | | image size to get our bounding box. */ |
5465 | 0 | bbox_in.p.x = 0; |
5466 | 0 | bbox_in.p.y = 0; |
5467 | 0 | bbox_in.q.x = pim->Width; |
5468 | 0 | bbox_in.q.y = pim->Height; |
5469 | 0 | code = gs_bbox_transform_inverse(&bbox_in, &(pim->ImageMatrix), |
5470 | 0 | &bbox_out); |
5471 | 0 | if (code < 0) |
5472 | 0 | return code; |
5473 | | /* That in turn will get hit by the matrix in the gs_gstate */ |
5474 | 0 | code = compute_group_device_int_rect(p14dev, &group_rect, |
5475 | 0 | &bbox_out, (gs_gstate *)pgs); |
5476 | 0 | if (code < 0) |
5477 | 0 | return code; |
5478 | 0 | if (!(pim->Width == 0 || pim->Height == 0)) { |
5479 | 0 | if_debug2m('v', p14dev->ctx->memory, |
5480 | 0 | "[v*] Pushing trans group patt_trans_image_fill, uid = %ld id = %ld \n", |
5481 | 0 | ptile->uid.id, ptile->id); |
5482 | |
|
5483 | 0 | code = pdf14_push_transparency_group(p14dev->ctx, &group_rect, 1, 0, 65535, 65535, |
5484 | 0 | 65535, pgs->blend_mode, 0, 0, |
5485 | 0 | ptile->ttrans->n_chan-1, false, false, |
5486 | 0 | NULL, NULL, NULL, (gs_gstate *)pgs, dev); |
5487 | | |
5488 | | /* Set up the output buffer information now that we have |
5489 | | pushed the group */ |
5490 | 0 | fill_trans_buffer = new_pattern_trans_buff(pgs->memory); |
5491 | 0 | pdf14_get_buffer_information(dev, fill_trans_buffer, NULL, false); |
5492 | | |
5493 | | /* Store this in the appropriate place in pdcolor. This |
5494 | | is released later in pdf14_pattern_trans_render when |
5495 | | we are all done with the mask fill */ |
5496 | 0 | ptile->ttrans->fill_trans_buffer = fill_trans_buffer; |
5497 | | |
5498 | | /* Change the renderer to handle this case so we can catch the |
5499 | | end. We will then pop the group and reset the pdcolor proc. |
5500 | | Keep the base renderer also. */ |
5501 | 0 | penum = (gx_image_enum *) *pinfo; |
5502 | 0 | ptile->ttrans->image_render = penum->render; |
5503 | 0 | penum->render = &pdf14_pattern_trans_render; |
5504 | 0 | ptile->trans_group_popped = false; |
5505 | 0 | } |
5506 | 0 | return code; |
5507 | 0 | } |
5508 | | |
5509 | | static int |
5510 | | pdf14_begin_typed_image(gx_device * dev, const gs_gstate * pgs, |
5511 | | const gs_matrix *pmat, const gs_image_common_t *pic, |
5512 | | const gs_int_rect * prect, |
5513 | | const gx_drawing_color * pdcolor, |
5514 | | const gx_clip_path * pcpath, gs_memory_t * mem, |
5515 | | gx_image_enum_common_t ** pinfo) |
5516 | 121k | { |
5517 | 121k | const gs_image_t *pim = (const gs_image_t *)pic; |
5518 | 121k | int code; |
5519 | | |
5520 | 121k | code = pdf14_initialize_ctx(dev, dev->color_info.num_components, |
5521 | 121k | dev->color_info.polarity != GX_CINFO_POLARITY_SUBTRACTIVE, pgs); |
5522 | 121k | if (code < 0) |
5523 | 0 | return code; |
5524 | | |
5525 | | /* If we are filling an image mask with a pattern that has a transparency |
5526 | | then we need to do some special handling */ |
5527 | 121k | if (pim->ImageMask) { |
5528 | 0 | if (pdcolor != NULL && gx_dc_is_pattern1_color(pdcolor)) { |
5529 | 0 | if( gx_pattern1_get_transptr(pdcolor) != NULL){ |
5530 | | /* If we are in a final run through here for this case then |
5531 | | go ahead and push the transparency group. Also, update |
5532 | | the proc for the pattern color so that we used the |
5533 | | appropriate fill operation. Note that the group |
5534 | | is popped and the proc will be reset when we flush the |
5535 | | image data. This is handled in a special pdf14 image |
5536 | | renderer which will end up installed for this case. |
5537 | | Detect setting of begin_image to gx_no_begin_image. |
5538 | | (final recursive call) */ |
5539 | 0 | if (dev_proc(dev, begin_typed_image) != gx_default_begin_typed_image) { |
5540 | 0 | code = pdf14_patt_trans_image_fill(dev, pgs, pmat, pic, |
5541 | 0 | prect, pdcolor, pcpath, mem, |
5542 | 0 | pinfo); |
5543 | 0 | return code; |
5544 | 0 | } |
5545 | 0 | } |
5546 | 0 | } |
5547 | 0 | } |
5548 | 121k | pdf14_set_marking_params(dev, pgs); |
5549 | 121k | return gx_default_begin_typed_image(dev, pgs, pmat, pic, prect, pdcolor, |
5550 | 121k | pcpath, mem, pinfo); |
5551 | 121k | } |
5552 | | |
5553 | | static void |
5554 | | pdf14_set_params(gs_gstate * pgs, |
5555 | | gx_device * dev, |
5556 | | const gs_pdf14trans_params_t * pparams) |
5557 | 2.25M | { |
5558 | 2.25M | if_debug0m('v', dev->memory, "[v]pdf14_set_params\n"); |
5559 | 2.25M | if (pparams->changed & PDF14_SET_BLEND_MODE) |
5560 | 502k | pgs->blend_mode = pparams->blend_mode; |
5561 | 2.25M | if (pparams->changed & PDF14_SET_TEXT_KNOCKOUT) |
5562 | 253k | pgs->text_knockout = pparams->text_knockout; |
5563 | 2.25M | if (pparams->changed & PDF14_SET_AIS) |
5564 | 80.3k | pgs->alphaisshape = pparams->ais; |
5565 | 2.25M | if (pparams->changed & PDF14_SET_OVERPRINT) |
5566 | 384k | pgs->overprint = pparams->overprint; |
5567 | 2.25M | if (pparams->changed & PDF14_SET_STROKEOVERPRINT) |
5568 | 382k | pgs->stroke_overprint = pparams->stroke_overprint; |
5569 | 2.25M | if (pparams->changed & PDF14_SET_FILLCONSTANTALPHA) |
5570 | 704k | pgs->fillconstantalpha = pparams->fillconstantalpha; |
5571 | 2.25M | if (pparams->changed & PDF14_SET_STROKECONSTANTALPHA) |
5572 | 654k | pgs->strokeconstantalpha = pparams->strokeconstantalpha; |
5573 | 2.25M | if (pparams->changed & PDF14_SET_FILLSTROKE_STATE) { |
5574 | 746k | gs_swapcolors_quick(pgs); |
5575 | 746k | if (pparams->op_fs_state == PDF14_OP_STATE_STROKE) |
5576 | 256k | pgs->is_fill_color = false; |
5577 | 489k | else |
5578 | 489k | pgs->is_fill_color = true; |
5579 | 746k | } |
5580 | 2.25M | pdf14_set_marking_params(dev, pgs); |
5581 | 2.25M | } |
5582 | | |
5583 | | /* |
5584 | | * This open_device method for the PDF 1.4 compositor devices is only used |
5585 | | * when these devices are disabled. This routine is about as close to |
5586 | | * a pure "forwarding" open_device operation as is possible. Its only |
5587 | | * significant function is to ensure that the is_open field of the |
5588 | | * PDF 1.4 compositor devices matches that of the target device. |
5589 | | * |
5590 | | * We assume this procedure is called only if the device is not already |
5591 | | * open, and that gs_opendevice will take care of the is_open flag. |
5592 | | */ |
5593 | | static int |
5594 | | pdf14_forward_open_device(gx_device * dev) |
5595 | 0 | { |
5596 | 0 | gx_device_forward * pdev = (gx_device_forward *)dev; |
5597 | 0 | gx_device * tdev = pdev->target; |
5598 | 0 | int code; |
5599 | | |
5600 | | /* The PDF 1.4 compositing devices must have a target */ |
5601 | 0 | if (tdev == 0) |
5602 | 0 | return_error(gs_error_unknownerror); |
5603 | 0 | if ((code = gs_opendevice(tdev)) >= 0) |
5604 | 0 | gx_device_copy_params(dev, tdev); |
5605 | 0 | return code; |
5606 | 0 | } |
5607 | | |
5608 | | /* |
5609 | | * Convert all device procs to be 'forwarding'. The caller is responsible |
5610 | | * for setting any device procs that should not be forwarded. |
5611 | | */ |
5612 | | static void |
5613 | | pdf14_forward_device_procs(gx_device * dev) |
5614 | 257k | { |
5615 | 257k | gx_device_forward *pdev = (gx_device_forward *)dev; |
5616 | 257k | pdf14_device *p14dev = (pdf14_device*)dev; |
5617 | | |
5618 | | /* If doing simulated overprint with spot colors |
5619 | | then makes sure to reset devn setting */ |
5620 | 257k | if (p14dev->overprint_sim && |
5621 | 257k | p14dev->color_info.num_components > 4) |
5622 | 0 | p14dev->icc_struct->supports_devn = |
5623 | 0 | p14dev->target_support_devn; |
5624 | | |
5625 | | /* |
5626 | | * We are using gx_device_forward_fill_in_procs to set the various procs. |
5627 | | * This will ensure that any new device procs are also set. However that |
5628 | | * routine only changes procs which are NULL. Thus we start by setting all |
5629 | | * procs to NULL. |
5630 | | */ |
5631 | 257k | memset(&(pdev->procs), 0, size_of(pdev->procs)); |
5632 | 257k | gx_device_forward_fill_in_procs(pdev); |
5633 | | /* |
5634 | | * gx_device_forward_fill_in_procs does not forward all procs. |
5635 | | * Set the remainding procs to also forward. |
5636 | | */ |
5637 | 257k | set_dev_proc(dev, close_device, gx_forward_close_device); |
5638 | 257k | set_dev_proc(dev, fill_rectangle, gx_forward_fill_rectangle); |
5639 | 257k | set_dev_proc(dev, fill_rectangle_hl_color, gx_forward_fill_rectangle_hl_color); |
5640 | 257k | set_dev_proc(dev, copy_mono, gx_forward_copy_mono); |
5641 | 257k | set_dev_proc(dev, copy_color, gx_forward_copy_color); |
5642 | 257k | set_dev_proc(dev, get_page_device, gx_forward_get_page_device); |
5643 | 257k | set_dev_proc(dev, strip_tile_rectangle, gx_forward_strip_tile_rectangle); |
5644 | 257k | set_dev_proc(dev, copy_alpha, gx_forward_copy_alpha); |
5645 | 257k | set_dev_proc(dev, get_profile, gx_forward_get_profile); |
5646 | 257k | set_dev_proc(dev, set_graphics_type_tag, gx_forward_set_graphics_type_tag); |
5647 | | /* These are forwarding devices with minor tweaks. */ |
5648 | 257k | set_dev_proc(dev, open_device, pdf14_forward_open_device); |
5649 | 257k | set_dev_proc(dev, put_params, pdf14_forward_put_params); |
5650 | 257k | } |
5651 | | |
5652 | | /* |
5653 | | * Disable the PDF 1.4 compositor device. Once created, the PDF 1.4 |
5654 | | * compositor device is never removed. (We do not have a remove compositor |
5655 | | * method.) However it is no-op'ed when the PDF 1.4 device is popped. This |
5656 | | * routine implements that action. |
5657 | | */ |
5658 | | int |
5659 | | pdf14_disable_device(gx_device * dev) |
5660 | 254k | { |
5661 | 254k | gx_device_forward * pdev = (gx_device_forward *)dev; |
5662 | | |
5663 | 254k | if_debug0m('v', dev->memory, "[v]pdf14_disable_device\n"); |
5664 | 254k | dev->color_info = pdev->target->color_info; |
5665 | 254k | pdf14_forward_device_procs(dev); |
5666 | 254k | set_dev_proc(dev, composite, pdf14_forward_composite); |
5667 | 254k | return 0; |
5668 | 254k | } |
5669 | | |
5670 | | /* |
5671 | | * The default color space for PDF 1.4 blend modes is based upon the process |
5672 | | * color model of the output device. |
5673 | | */ |
5674 | | static pdf14_default_colorspace_t |
5675 | | pdf14_determine_default_blend_cs(gx_device * pdev, bool use_pdf14_accum, |
5676 | | pdf14_blend_cs_t *blend_cs_state) |
5677 | 904k | { |
5678 | | /* If a blend color space was specified, then go ahead and use that to |
5679 | | define the default color space for the blend modes. Only Gray, RGB |
5680 | | or CMYK blend color spaces are allowed. Note we do not allow this |
5681 | | setting if we are dealing with a separation device. */ |
5682 | 904k | cmm_dev_profile_t *dev_profile; |
5683 | 904k | cmm_profile_t *blend_profile = NULL; |
5684 | 904k | pdf14_blend_cs_t temp_cs_state = PDF14_BLEND_CS_UNSPECIFIED; |
5685 | 904k | int code = dev_proc(pdev, get_profile)(pdev, &dev_profile); |
5686 | 904k | bool valid_blend_cs = false; |
5687 | | |
5688 | 904k | *blend_cs_state = PDF14_BLEND_CS_UNSPECIFIED; |
5689 | | |
5690 | | /* Are we using a blend color space or the output intent color space? Also |
5691 | | is there a conflict in the settings. i.e. has someone set a blend color |
5692 | | space and tried to use the output intent with simulate overprint setting. |
5693 | | */ |
5694 | 904k | if (dev_profile->overprint_control == gs_overprint_control_simulate && |
5695 | 904k | dev_profile->oi_profile != NULL && |
5696 | 904k | !gsicc_profiles_equal(dev_profile->oi_profile, dev_profile->device_profile[GS_DEFAULT_DEVICE_PROFILE])) { |
5697 | | /* If blend profile is also set, throw a warning about output intent not being used. We have |
5698 | | possible conflicting command line settings and we will err on using the blend profile |
5699 | | if one was specified. */ |
5700 | 0 | if (dev_profile->blend_profile != NULL && |
5701 | 0 | !gsicc_profiles_equal(dev_profile->blend_profile, dev_profile->oi_profile)) { |
5702 | 0 | blend_profile = dev_profile->blend_profile; |
5703 | 0 | temp_cs_state = PDF14_BLEND_CS_SPECIFIED; |
5704 | 0 | emprintf(pdev->memory, "Warning: OI profile not used for blending CS\n"); |
5705 | 0 | } else { |
5706 | | /* All good, use the output intent profile as we have one |
5707 | | and are doing simulate overprint with a different device |
5708 | | profile set. */ |
5709 | 0 | blend_profile = dev_profile->oi_profile; |
5710 | 0 | temp_cs_state = PDF14_BLEND_CS_OUTPUTINTENT; |
5711 | 0 | } |
5712 | 904k | } else if (dev_profile->blend_profile != NULL && |
5713 | 904k | !gsicc_profiles_equal(dev_profile->blend_profile, dev_profile->device_profile[GS_DEFAULT_DEVICE_PROFILE])) { |
5714 | | /* Blend profile is different than device profile */ |
5715 | 0 | blend_profile = dev_profile->blend_profile; |
5716 | 0 | temp_cs_state = PDF14_BLEND_CS_SPECIFIED; |
5717 | 0 | } |
5718 | | |
5719 | | /* Make sure any blend color space is valid along with other cond */ |
5720 | 904k | if (code == 0 && blend_profile != NULL && !use_pdf14_accum) { |
5721 | 0 | if (!blend_profile->isdevlink && |
5722 | 0 | !blend_profile->islab && |
5723 | 0 | (blend_profile->data_cs == gsGRAY || |
5724 | 0 | blend_profile->data_cs == gsRGB || |
5725 | 0 | blend_profile->data_cs == gsCMYK)) { |
5726 | | /* Also, do not allow the use of the blend space when we are pushing |
5727 | | a pattern pdf14 device. Those should inherit from the parent */ |
5728 | 0 | if (!(gx_device_is_pattern_clist(pdev) || |
5729 | 0 | gx_device_is_pattern_accum(pdev))) { |
5730 | 0 | valid_blend_cs = true; |
5731 | 0 | } |
5732 | 0 | } |
5733 | 0 | } |
5734 | | |
5735 | | /* If num components is one, just go ahead and use gray. This avoids |
5736 | | issues with additive/subtractive mono color devices */ |
5737 | 904k | if (pdev->color_info.polarity == GX_CINFO_POLARITY_ADDITIVE || |
5738 | 904k | pdev->color_info.num_components == 1) { |
5739 | | /* |
5740 | | * Note: We do not allow the SeparationOrder device parameter for |
5741 | | * additive devices. Thus we always have 1 colorant for DeviceGray |
5742 | | * and 3 colorants for DeviceRGB. |
5743 | | */ |
5744 | 864k | if (valid_blend_cs) { |
5745 | 0 | *blend_cs_state = temp_cs_state; |
5746 | 0 | switch (blend_profile->num_comps) { |
5747 | 0 | case 1: |
5748 | 0 | return PDF14_DeviceGray; |
5749 | 0 | case 3: |
5750 | 0 | return PDF14_DeviceRGB; |
5751 | 0 | case 4: |
5752 | 0 | return PDF14_DeviceCMYK; |
5753 | 0 | } |
5754 | 0 | } |
5755 | 864k | if (pdev->color_info.num_components == 1) |
5756 | 186k | return PDF14_DeviceGray; |
5757 | 677k | else |
5758 | 677k | return PDF14_DeviceRGB; |
5759 | 864k | } else { |
5760 | | /* |
5761 | | * Check if the device is CMYK only or CMYK plus spot colors. Note |
5762 | | * the CMYK plus spot colors will not support the blend color space |
5763 | | */ |
5764 | 40.7k | int i, output_comp_num, num_cmyk_used = 0, num_cmyk = 0; |
5765 | | #if CUSTOM_BLENDING_MODE == ALWAYS_USE_CUSTOM_BLENDING |
5766 | | return PDF14_DeviceCustom; |
5767 | | #endif |
5768 | | /* |
5769 | | * Count the number of CMYK process components supported by the output |
5770 | | * device. |
5771 | | */ |
5772 | 203k | for (i = 0; i < 4; i++) { |
5773 | 163k | const char * pcomp_name = (const char *)DeviceCMYKComponents[i]; |
5774 | | |
5775 | 163k | output_comp_num = dev_proc(pdev, get_color_comp_index) |
5776 | 163k | (pdev, pcomp_name, strlen(pcomp_name), NO_COMP_NAME_TYPE_OP); |
5777 | 163k | if (output_comp_num >= 0) { |
5778 | 163k | num_cmyk++; |
5779 | 163k | if (output_comp_num != GX_DEVICE_COLOR_MAX_COMPONENTS) |
5780 | 163k | num_cmyk_used++; |
5781 | 163k | } |
5782 | 163k | } |
5783 | | /* |
5784 | | * Check if the device supports only CMYK. Otherewise we assume that |
5785 | | * the output device supports spot colors. Note: This algorithm can |
5786 | | * be fooled if the SeparationOrder device parameter is being used by |
5787 | | * the output device device to only select CMYK. |
5788 | | */ |
5789 | 40.7k | if (num_cmyk_used == 4 && pdev->color_info.num_components == 4 |
5790 | 40.7k | && pdev->color_info.max_components == 4) { |
5791 | 12.8k | if (valid_blend_cs) { |
5792 | 0 | *blend_cs_state = temp_cs_state; |
5793 | 0 | switch (blend_profile->num_comps) { |
5794 | 0 | case 1: |
5795 | 0 | return PDF14_DeviceGray; |
5796 | 0 | case 3: |
5797 | 0 | return PDF14_DeviceRGB; |
5798 | 0 | case 4: |
5799 | 0 | return PDF14_DeviceCMYK; |
5800 | 0 | } |
5801 | 0 | } |
5802 | 12.8k | return PDF14_DeviceCMYK; |
5803 | 12.8k | } |
5804 | | /* |
5805 | | * Check if we should use the 'custom' PDF 1.4 compositor device. |
5806 | | * This device is only needed for those devices which do not support |
5807 | | * a basic CMYK process color model. |
5808 | | */ |
5809 | 27.9k | #if CUSTOM_BLENDING_MODE == AUTO_USE_CUSTOM_BLENDING |
5810 | 27.9k | if (num_cmyk != 4) |
5811 | 0 | return PDF14_DeviceCustom; |
5812 | 27.9k | #endif |
5813 | | /* |
5814 | | * Otherewise we use a CMYK plus spot colors for blending. |
5815 | | */ |
5816 | 27.9k | if (valid_blend_cs) |
5817 | 0 | *blend_cs_state = temp_cs_state; |
5818 | 27.9k | return PDF14_DeviceCMYKspot; |
5819 | 27.9k | } |
5820 | 904k | } |
5821 | | |
5822 | | /* |
5823 | | * the PDF 1.4 transparency spec says that color space for blending |
5824 | | * operations can be based upon either a color space specified in the |
5825 | | * group or a default value based upon the output device. We are |
5826 | | * currently only using a color space based upon the device. |
5827 | | */ |
5828 | | static int |
5829 | | get_pdf14_device_proto(gx_device *dev, |
5830 | | pdf14_device *pdevproto, |
5831 | | gs_gstate *pgs, |
5832 | | const gs_pdf14trans_t *pdf14pct, |
5833 | | bool use_pdf14_accum) |
5834 | 261k | { |
5835 | 261k | pdf14_blend_cs_t blend_cs_state; |
5836 | 261k | pdf14_default_colorspace_t dev_cs = |
5837 | 261k | pdf14_determine_default_blend_cs(dev, use_pdf14_accum, |
5838 | 261k | &blend_cs_state); |
5839 | 261k | bool deep = device_is_deep(dev); |
5840 | 261k | int num_spots = pdf14pct->params.num_spot_colors; |
5841 | | |
5842 | | /* overprint overide */ |
5843 | 261k | if (pdf14pct->params.overprint_sim_push && |
5844 | 261k | blend_cs_state == PDF14_BLEND_CS_UNSPECIFIED) { |
5845 | 0 | if (pdf14pct->params.num_spot_colors_int > 0) { |
5846 | 0 | dev_cs = PDF14_DeviceCMYKspot; |
5847 | 0 | num_spots = pdf14pct->params.num_spot_colors_int; |
5848 | 0 | } else |
5849 | 0 | dev_cs = PDF14_DeviceCMYK; |
5850 | 0 | } |
5851 | | |
5852 | 261k | switch (dev_cs) { |
5853 | 11.4k | case PDF14_DeviceGray: |
5854 | 11.4k | *pdevproto = gs_pdf14_Gray_device; |
5855 | 11.4k | pdevproto->color_info.max_components = 1; |
5856 | 11.4k | pdevproto->color_info.num_components = |
5857 | 11.4k | pdevproto->color_info.max_components; |
5858 | 11.4k | pdevproto->color_info.depth = 8<<deep; |
5859 | 11.4k | pdevproto->color_info.max_gray = deep ? 65535 : 255; |
5860 | 11.4k | pdevproto->color_info.gray_index = 0; /* Avoid halftoning */ |
5861 | 11.4k | pdevproto->color_info.dither_grays = deep ? 65536 : 256; |
5862 | 11.4k | pdevproto->sep_device = false; |
5863 | 11.4k | break; |
5864 | 238k | case PDF14_DeviceRGB: |
5865 | 238k | *pdevproto = gs_pdf14_RGB_device; |
5866 | 238k | pdevproto->color_info.depth = 24<<deep; |
5867 | 238k | pdevproto->color_info.max_gray = deep ? 65535 : 255; |
5868 | 238k | pdevproto->color_info.dither_grays = deep ? 65536 : 256; |
5869 | 238k | pdevproto->sep_device = false; |
5870 | 238k | break; |
5871 | 0 | case PDF14_DeviceCMYK: |
5872 | 0 | *pdevproto = gs_pdf14_CMYK_device; |
5873 | 0 | pdevproto->color_info.depth = 32<<deep; |
5874 | 0 | pdevproto->color_info.max_gray = deep ? 65535 : 255; |
5875 | 0 | pdevproto->color_info.dither_grays = deep ? 65536 : 256; |
5876 | 0 | pdevproto->sep_device = false; |
5877 | 0 | break; |
5878 | 11.4k | case PDF14_DeviceCMYKspot: |
5879 | 11.4k | *pdevproto = gs_pdf14_CMYKspot_device; |
5880 | | /* Need to figure out how we want to handle the device profile |
5881 | | for this case */ |
5882 | | /* |
5883 | | * The number of components for the PDF14 device is the sum |
5884 | | * of the process components and the number of spot colors |
5885 | | * for the page. |
5886 | | */ |
5887 | 11.4k | if (num_spots >= 0) { |
5888 | 11.4k | pdevproto->color_info.num_components = |
5889 | 11.4k | pdevproto->devn_params.num_std_colorant_names + num_spots; |
5890 | 11.4k | if (pdevproto->color_info.num_components > GS_CLIENT_COLOR_MAX_COMPONENTS) |
5891 | 0 | pdevproto->color_info.num_components = GS_CLIENT_COLOR_MAX_COMPONENTS; |
5892 | 11.4k | pdevproto->color_info.depth = |
5893 | 11.4k | pdevproto->color_info.num_components * (8<<deep); |
5894 | 11.4k | pdevproto->sep_device = true; |
5895 | 11.4k | } |
5896 | 11.4k | break; |
5897 | 0 | case PDF14_DeviceCustom: |
5898 | | /* |
5899 | | * We are using the output device's process color model. The |
5900 | | * color_info for the PDF 1.4 compositing device needs to match |
5901 | | * the output device. |
5902 | | */ |
5903 | 0 | *pdevproto = gs_pdf14_custom_device; |
5904 | 0 | pdevproto->color_info = dev->color_info; |
5905 | | /* The pdf14 device has to be 8 (or 16) bit continuous tone. Force it */ |
5906 | 0 | pdevproto->color_info.depth = |
5907 | 0 | pdevproto->color_info.num_components * (8<<deep); |
5908 | 0 | pdevproto->color_info.max_gray = deep ? 65535 : 255; |
5909 | 0 | pdevproto->color_info.max_color = deep ? 65535 : 255; |
5910 | 0 | pdevproto->color_info.dither_grays = deep ? 65536 : 256; |
5911 | 0 | pdevproto->color_info.dither_colors = deep ? 65536 : 256; |
5912 | 0 | break; |
5913 | 0 | default: /* Should not occur */ |
5914 | 0 | return_error(gs_error_rangecheck); |
5915 | 261k | } |
5916 | 261k | pdevproto->initialize_device_procs((gx_device *)pdevproto); |
5917 | 261k | pdevproto->blend_cs_state = blend_cs_state; |
5918 | 261k | pdevproto->overprint_sim = pdf14pct->params.overprint_sim_push; |
5919 | 261k | return 0; |
5920 | 261k | } |
5921 | | |
5922 | | /* When playing back the clist, we need to know if the buffer device is compatible */ |
5923 | | /* with the pdf14 compositor that was used when writing the clist. Colorspace and */ |
5924 | | /* depth are critical since these must match when reading back colors. */ |
5925 | | bool |
5926 | | pdf14_ok_to_optimize(gx_device *dev) |
5927 | 641k | { |
5928 | 641k | pdf14_blend_cs_t blend_cs_state; |
5929 | 641k | pdf14_default_colorspace_t pdf14_cs = |
5930 | 641k | pdf14_determine_default_blend_cs(dev, false, &blend_cs_state); |
5931 | 641k | gsicc_colorbuffer_t dev_icc_cs; |
5932 | 641k | bool ok = false; |
5933 | 641k | int tag_depth = device_encodes_tags(dev) ? 8 : 0; |
5934 | 641k | cmm_dev_profile_t *dev_profile; |
5935 | 641k | int code = dev_proc(dev, get_profile)(dev, &dev_profile); |
5936 | 641k | bool deep = device_is_deep(dev); |
5937 | | |
5938 | 641k | if (code < 0) |
5939 | 0 | return false; |
5940 | | |
5941 | 641k | check_device_compatible_encoding(dev); |
5942 | | |
5943 | 641k | if (dev->color_info.separable_and_linear != GX_CINFO_SEP_LIN_STANDARD) |
5944 | 293k | return false; |
5945 | | |
5946 | 348k | dev_icc_cs = dev_profile->device_profile[GS_DEFAULT_DEVICE_PROFILE]->data_cs; |
5947 | | /* If the outputprofile is not "standard" then colors converted to device color */ |
5948 | | /* during clist writing won't match the colors written for the pdf14 clist dev */ |
5949 | 348k | if (!(dev_icc_cs == gsGRAY || dev_icc_cs == gsRGB || dev_icc_cs == gsCMYK)) |
5950 | 0 | return false; /* can't handle funky output profiles */ |
5951 | | |
5952 | 348k | switch (pdf14_cs) { |
5953 | 154k | case PDF14_DeviceGray: |
5954 | 154k | ok = dev->color_info.max_gray == (deep ? 65535 : 255) && dev->color_info.depth == (8<<deep) + tag_depth; |
5955 | 154k | break; |
5956 | 177k | case PDF14_DeviceRGB: |
5957 | 177k | ok = dev->color_info.max_color == (deep ? 65535: 255) && dev->color_info.depth == (24<<deep) + tag_depth; |
5958 | 177k | break; |
5959 | 0 | case PDF14_DeviceCMYK: |
5960 | 0 | ok = dev->color_info.max_color == (deep ? 65535 : 255) && dev->color_info.depth == (32<<deep) + tag_depth; |
5961 | 0 | break; |
5962 | 15.9k | case PDF14_DeviceCMYKspot: |
5963 | 15.9k | ok = false; /* punt for this case */ |
5964 | 15.9k | break; |
5965 | 0 | case PDF14_DeviceCustom: |
5966 | | /* |
5967 | | * We are using the output device's process color model. The |
5968 | | * color_info for the PDF 1.4 compositing device needs to match |
5969 | | * the output device, but it may not have been contone. |
5970 | | */ |
5971 | 0 | ok = dev->color_info.depth == dev->color_info.num_components * (8<<deep) + tag_depth; |
5972 | 0 | break; |
5973 | 0 | default: /* Should not occur */ |
5974 | 0 | ok = false; |
5975 | 348k | } |
5976 | 348k | return ok; |
5977 | 348k | } |
5978 | | |
5979 | | /* |
5980 | | * Recreate the PDF 1.4 compositor device. Once created, the PDF 1.4 |
5981 | | * compositor device is never removed. (We do not have a remove compositor |
5982 | | * method.) However it is no-op'ed when the PDF 1.4 device is popped. This |
5983 | | * routine will re-enable the compositor if the PDF 1.4 device is pushed |
5984 | | * again. |
5985 | | */ |
5986 | | static int |
5987 | | pdf14_recreate_device(gs_memory_t *mem, gs_gstate * pgs, |
5988 | | gx_device * dev, const gs_pdf14trans_t * pdf14pct) |
5989 | 0 | { |
5990 | 0 | pdf14_device * pdev = (pdf14_device *)dev; |
5991 | 0 | gx_device * target = pdev->target; |
5992 | 0 | pdf14_device dev_proto; |
5993 | 0 | bool has_tags = device_encodes_tags(dev); |
5994 | 0 | int code; |
5995 | 0 | bool deep = device_is_deep(dev); |
5996 | |
|
5997 | 0 | if_debug0m('v', dev->memory, "[v]pdf14_recreate_device\n"); |
5998 | | |
5999 | | /* |
6000 | | * We will not use the entire prototype device but we will set the |
6001 | | * color related info and the device procs to match the prototype. |
6002 | | */ |
6003 | 0 | code = get_pdf14_device_proto(target, &dev_proto, pgs, |
6004 | 0 | pdf14pct, false); |
6005 | 0 | if (code < 0) |
6006 | 0 | return code; |
6007 | 0 | pdev->color_info = dev_proto.color_info; |
6008 | 0 | pdev->pad = target->pad; |
6009 | 0 | pdev->log2_align_mod = target->log2_align_mod; |
6010 | |
|
6011 | 0 | if (pdf14pct->params.overprint_sim_push && pdf14pct->params.num_spot_colors_int > 0 && !target->is_planar) |
6012 | 0 | pdev->is_planar = true; |
6013 | 0 | else |
6014 | 0 | pdev->is_planar = target->is_planar; |
6015 | 0 | pdev->interpolate_threshold = dev_proc(target, dev_spec_op)(target, gxdso_interpolate_threshold, NULL, 0); |
6016 | |
|
6017 | 0 | pdev->procs = dev_proto.procs; |
6018 | 0 | if (deep) { |
6019 | 0 | set_dev_proc(pdev, encode_color, pdf14_encode_color16); |
6020 | 0 | set_dev_proc(pdev, decode_color, pdf14_decode_color16); |
6021 | 0 | } |
6022 | 0 | if (has_tags) { |
6023 | 0 | set_dev_proc(pdev, encode_color, deep ? pdf14_encode_color16_tag : pdf14_encode_color_tag); |
6024 | 0 | pdev->color_info.comp_shift[pdev->color_info.num_components] = pdev->color_info.depth; |
6025 | 0 | pdev->color_info.depth += 8; |
6026 | 0 | } |
6027 | 0 | pdev->color_info.separable_and_linear = GX_CINFO_SEP_LIN_STANDARD; |
6028 | 0 | gx_device_fill_in_procs((gx_device *)pdev); |
6029 | 0 | pdev->save_get_cmap_procs = pgs->get_cmap_procs; |
6030 | 0 | pgs->get_cmap_procs = pdf14_get_cmap_procs; |
6031 | 0 | gx_set_cmap_procs(pgs, (gx_device *)pdev); |
6032 | 0 | check_device_separable(dev); |
6033 | 0 | return dev_proc(pdev, open_device)(dev); |
6034 | 0 | } |
6035 | | |
6036 | | /* |
6037 | | * Implement the various operations that can be specified via the PDF 1.4 |
6038 | | * create compositor request. |
6039 | | */ |
6040 | | static int |
6041 | | gx_update_pdf14_compositor(gx_device * pdev, gs_gstate * pgs, |
6042 | | const gs_pdf14trans_t * pdf14pct, gs_memory_t * mem ) |
6043 | 5.98M | { |
6044 | 5.98M | pdf14_device *p14dev = (pdf14_device *)pdev; |
6045 | 5.98M | gs_pdf14trans_params_t params = pdf14pct->params; |
6046 | 5.98M | int code = 0; |
6047 | | |
6048 | 5.98M | params.idle = pdf14pct->idle; |
6049 | 5.98M | switch (params.pdf14_op) { |
6050 | 0 | default: /* Should not occur. */ |
6051 | 0 | break; |
6052 | 336 | case PDF14_PUSH_DEVICE: |
6053 | 336 | if (!(params.is_pattern)) { |
6054 | 0 | p14dev->blend_mode = 0; |
6055 | 0 | p14dev->opacity = p14dev->shape = 0.0; |
6056 | 0 | pdf14_recreate_device(mem, pgs, pdev, pdf14pct); |
6057 | 0 | } |
6058 | 336 | break; |
6059 | 0 | case PDF14_ABORT_DEVICE: |
6060 | | /* Something has gone very wrong. Let transparency device clean up |
6061 | | what ever it has allocated and then we are shutting it down */ |
6062 | 0 | code = gx_abort_trans_device(pgs, pdev); |
6063 | 0 | if (p14dev->free_devicen) { |
6064 | 0 | devn_free_params(pdev); |
6065 | 0 | } |
6066 | 0 | pdf14_disable_device(pdev); |
6067 | 0 | pdf14_close(pdev); |
6068 | 0 | break; |
6069 | 254k | case PDF14_POP_DEVICE: |
6070 | 254k | if (!(params.is_pattern)) { |
6071 | 253k | if_debug0m('v', pdev->memory, |
6072 | 253k | "[v]gx_update_pdf14_compositor(PDF14_POP_DEVICE)\n"); |
6073 | 253k | pgs->get_cmap_procs = p14dev->save_get_cmap_procs; |
6074 | 253k | gx_set_cmap_procs(pgs, p14dev->target); |
6075 | | /* Send image out raster data to output device */ |
6076 | 253k | { |
6077 | | /* Make a copy so we can change the ROP */ |
6078 | 253k | gs_gstate new_pgs = *pgs; |
6079 | | |
6080 | | /* We don't use the gs_gstate log_op since this is for the */ |
6081 | | /* clist playback. Putting the image (band in the case of the */ |
6082 | | /* clist) only needs to use the default ROP to copy the data */ |
6083 | 253k | new_pgs.log_op = rop3_default; |
6084 | 253k | code = p14dev->pdf14_procs->put_image(pdev, &new_pgs, p14dev->target); |
6085 | 253k | } |
6086 | | /* Before we disable the device release any deviceN structures. |
6087 | | free_devicen is set if the pdf14 device had inherited its |
6088 | | deviceN parameters from the target clist device. In this |
6089 | | case they should not be freed */ |
6090 | 253k | if (p14dev->free_devicen) { |
6091 | 253k | devn_free_params(pdev); |
6092 | 253k | } |
6093 | 253k | pdf14_disable_device(pdev); |
6094 | 253k | pdf14_close(pdev); |
6095 | 253k | } |
6096 | 254k | break; |
6097 | 98.3k | case PDF14_BEGIN_TRANS_PAGE_GROUP: |
6098 | 548k | case PDF14_BEGIN_TRANS_GROUP: |
6099 | 548k | if (p14dev->smask_constructed || p14dev->depth_within_smask) |
6100 | 107k | p14dev->depth_within_smask++; |
6101 | 548k | p14dev->smask_constructed = 0; |
6102 | 548k | code = gx_begin_transparency_group(pgs, pdev, ¶ms); |
6103 | 548k | break; |
6104 | 509k | case PDF14_END_TRANS_GROUP: |
6105 | 509k | code = gx_end_transparency_group(pgs, pdev); |
6106 | 509k | if (p14dev->depth_within_smask) |
6107 | 107k | p14dev->depth_within_smask--; |
6108 | 509k | break; |
6109 | 18 | case PDF14_BEGIN_TRANS_TEXT_GROUP: |
6110 | 18 | if (p14dev->text_group == PDF14_TEXTGROUP_BT_PUSHED) { |
6111 | 0 | p14dev->text_group = PDF14_TEXTGROUP_MISSING_ET; |
6112 | 0 | emprintf(p14dev->memory, "Warning: Text group pushed but no ET found\n"); |
6113 | 0 | } else |
6114 | 18 | p14dev->text_group = PDF14_TEXTGROUP_BT_NOT_PUSHED; |
6115 | 18 | break; |
6116 | 38.8k | case PDF14_END_TRANS_TEXT_GROUP: |
6117 | 38.8k | if (p14dev->text_group == PDF14_TEXTGROUP_BT_PUSHED) |
6118 | 38.8k | code = gx_end_transparency_group(pgs, pdev); |
6119 | 38.8k | p14dev->text_group = PDF14_TEXTGROUP_NO_BT; /* Hit ET */ |
6120 | 38.8k | break; |
6121 | 1.22M | case PDF14_BEGIN_TRANS_MASK: |
6122 | 1.22M | code = gx_begin_transparency_mask(pgs, pdev, ¶ms); |
6123 | 1.22M | if (code >= 0 && params.subtype != TRANSPARENCY_MASK_None) |
6124 | 137k | p14dev->in_smask_construction++; |
6125 | 1.22M | break; |
6126 | 137k | case PDF14_END_TRANS_MASK: |
6127 | 137k | code = gx_end_transparency_mask(pgs, pdev, ¶ms); |
6128 | 137k | if (code >= 0) { |
6129 | 137k | p14dev->in_smask_construction--; |
6130 | 137k | if (p14dev->in_smask_construction < 0) |
6131 | 0 | p14dev->in_smask_construction = 0; |
6132 | 137k | if (p14dev->in_smask_construction == 0) |
6133 | 136k | p14dev->smask_constructed = 1; |
6134 | 137k | } |
6135 | 137k | break; |
6136 | 2.25M | case PDF14_SET_BLEND_PARAMS: |
6137 | 2.25M | pdf14_set_params(pgs, pdev, &pdf14pct->params); |
6138 | 2.25M | break; |
6139 | 0 | case PDF14_PUSH_TRANS_STATE: |
6140 | 0 | code = gx_push_transparency_state(pgs, pdev); |
6141 | 0 | break; |
6142 | 1.00M | case PDF14_POP_TRANS_STATE: |
6143 | 1.00M | code = gx_pop_transparency_state(pgs, pdev); |
6144 | 1.00M | break; |
6145 | 5.52k | case PDF14_PUSH_SMASK_COLOR: |
6146 | 5.52k | code = pdf14_increment_smask_color(pgs, pdev); |
6147 | 5.52k | break; |
6148 | 5.52k | case PDF14_POP_SMASK_COLOR: |
6149 | 5.52k | code = pdf14_decrement_smask_color(pgs, pdev); |
6150 | 5.52k | break; |
6151 | 5.98M | } |
6152 | 5.98M | return code; |
6153 | 5.98M | } |
6154 | | |
6155 | | /* |
6156 | | * The PDF 1.4 compositor is never removed. (We do not have a 'remove |
6157 | | * compositor' method. However the compositor is disabled when we are not |
6158 | | * doing a page which uses PDF 1.4 transparency. This routine is only active |
6159 | | * when the PDF 1.4 compositor is 'disabled'. It checks for reenabling the |
6160 | | * PDF 1.4 compositor. Otherwise it simply passes create compositor requests |
6161 | | * to the target. |
6162 | | */ |
6163 | | static int |
6164 | | pdf14_forward_composite(gx_device * dev, gx_device * * pcdev, |
6165 | | const gs_composite_t * pct, gs_gstate * pgs, |
6166 | | gs_memory_t * mem, gx_device *cdev) |
6167 | 74 | { |
6168 | 74 | pdf14_device *pdev = (pdf14_device *)dev; |
6169 | 74 | gx_device * tdev = pdev->target; |
6170 | 74 | int code; |
6171 | | |
6172 | 74 | *pcdev = dev; |
6173 | 74 | if (gs_is_pdf14trans_compositor(pct)) { |
6174 | 0 | const gs_pdf14trans_t * pdf14pct = (const gs_pdf14trans_t *) pct; |
6175 | |
|
6176 | 0 | if (pdf14pct->params.pdf14_op == PDF14_PUSH_DEVICE) |
6177 | 0 | return gx_update_pdf14_compositor(dev, pgs, pdf14pct, mem); |
6178 | 0 | return 0; |
6179 | 0 | } |
6180 | 74 | code = dev_proc(tdev, composite)(tdev, pcdev, pct, pgs, mem, cdev); |
6181 | 74 | if (code == 1) { |
6182 | | /* We have created a new compositor that wrapped tdev. This means |
6183 | | * that our target should be updated to point to that. */ |
6184 | 0 | gx_device_set_target((gx_device_forward *)pdev, *pcdev); |
6185 | 0 | code = 0; /* We have not created a new compositor that wrapped dev. */ |
6186 | 0 | } |
6187 | 74 | return code; |
6188 | 74 | } |
6189 | | |
6190 | | /* |
6191 | | * The PDF 1.4 compositor can be handled directly, so just set *pcdev = dev |
6192 | | * and return. Since the gs_pdf14_device only supports the high-level routines |
6193 | | * of the interface, don't bother trying to handle any other compositor. |
6194 | | */ |
6195 | | static int |
6196 | | pdf14_composite(gx_device * dev, gx_device * * pcdev, |
6197 | | const gs_composite_t * pct, gs_gstate * pgs, |
6198 | | gs_memory_t * mem, gx_device *cdev) |
6199 | 13.1M | { |
6200 | 13.1M | pdf14_device *p14dev = (pdf14_device *)dev; |
6201 | 13.1M | if (gs_is_pdf14trans_compositor(pct)) { |
6202 | 5.98M | const gs_pdf14trans_t * pdf14pct = (const gs_pdf14trans_t *) pct; |
6203 | 5.98M | *pcdev = dev; |
6204 | | /* cdev, may be the clist reader device which may contain information that |
6205 | | we will need related to the ICC color spaces that define transparency |
6206 | | groups. We want this propogated through all the pdf14 functions. Store |
6207 | | a pointer to it in the pdf14 device */ |
6208 | 5.98M | p14dev->pclist_device = cdev; |
6209 | 5.98M | return gx_update_pdf14_compositor(dev, pgs, pdf14pct, mem); |
6210 | 7.18M | } else if (gs_is_overprint_compositor(pct)) { |
6211 | | /* If we had an overprint compositer action, then the |
6212 | | color components that were drawn should be updated. |
6213 | | The overprint compositor logic and its interactions |
6214 | | with the clist is a little odd as it passes uninitialized |
6215 | | values around a fair amount. Hence the forced assignement here. |
6216 | | See gx_spot_colors_set_overprint in gscspace for issues... */ |
6217 | 7.18M | const gs_overprint_t * op_pct = (const gs_overprint_t *) pct; |
6218 | 7.18M | gx_color_index drawn_comps; |
6219 | 7.18M | PDF14_OP_FS_STATE curr_state = p14dev->op_state; |
6220 | | |
6221 | 7.18M | p14dev->op_state = op_pct->params.op_state; |
6222 | 7.18M | if (p14dev->op_state == PDF14_OP_STATE_NONE) { |
6223 | 4.76M | if (op_pct->params.retain_any_comps) { |
6224 | 777 | drawn_comps = op_pct->params.drawn_comps; |
6225 | 4.76M | } else { |
6226 | | /* Draw everything. If this parameter was not set, clist does |
6227 | | not fill it in. */ |
6228 | 4.76M | drawn_comps = ((gx_color_index)1 << (p14dev->color_info.num_components)) - (gx_color_index)1; |
6229 | 4.76M | } |
6230 | | |
6231 | 4.76M | if (op_pct->params.is_fill_color) { |
6232 | 2.41M | p14dev->effective_overprint_mode = op_pct->params.effective_opm; |
6233 | 2.41M | p14dev->drawn_comps_fill = drawn_comps; |
6234 | 2.41M | } else { |
6235 | 2.35M | p14dev->stroke_effective_op_mode = op_pct->params.effective_opm; |
6236 | 2.35M | p14dev->drawn_comps_stroke = drawn_comps; |
6237 | 2.35M | } |
6238 | | /* We restore the NONE states as that is used just to force |
6239 | | overprint settings in the overprint compositor communication */ |
6240 | 4.76M | p14dev->op_state = curr_state; |
6241 | 4.76M | } |
6242 | 7.18M | *pcdev = dev; |
6243 | 7.18M | return 0; |
6244 | 7.18M | } else |
6245 | 0 | return gx_no_composite(dev, pcdev, pct, pgs, mem, cdev); |
6246 | 13.1M | } |
6247 | | |
6248 | | static int |
6249 | | pdf14_push_text_group(gx_device *dev, gs_gstate *pgs, |
6250 | | gs_blend_mode_t blend_mode, float opacity, |
6251 | | float shape, bool is_clist) |
6252 | 578 | { |
6253 | 578 | int code; |
6254 | 578 | gs_transparency_group_params_t params = { 0 }; |
6255 | 578 | gs_rect bbox = { 0 }; /* Bounding box is set by parent */ |
6256 | 578 | pdf14_clist_device * pdev = (pdf14_clist_device *)dev; |
6257 | 578 | float alpha = pgs->fillconstantalpha; |
6258 | | |
6259 | | /* Push a non-isolated knock-out group making sure the opacity and blend |
6260 | | mode are correct */ |
6261 | 578 | params.Isolated = false; |
6262 | 578 | params.Knockout = true; |
6263 | 578 | params.page_group = false; |
6264 | 578 | params.text_group = PDF14_TEXTGROUP_BT_PUSHED; |
6265 | 578 | params.group_opacity = 1.0; |
6266 | 578 | params.group_shape = 1.0; |
6267 | | |
6268 | 578 | gs_setfillconstantalpha(pgs, 1.0); |
6269 | 578 | gs_setblendmode(pgs, BLEND_MODE_Normal); |
6270 | | |
6271 | 578 | if (is_clist) { |
6272 | 578 | code = pdf14_clist_update_params(pdev, pgs, false, NULL); |
6273 | 578 | if (code < 0) |
6274 | 0 | return code; |
6275 | 578 | } |
6276 | | |
6277 | 578 | code = gs_begin_transparency_group(pgs, ¶ms, &bbox, PDF14_BEGIN_TRANS_GROUP); |
6278 | 578 | gs_setfillconstantalpha(pgs, alpha); |
6279 | 578 | gs_setblendmode(pgs, blend_mode); |
6280 | 578 | if (code < 0) |
6281 | 0 | return code; |
6282 | | |
6283 | 578 | if (is_clist) { |
6284 | 578 | code = pdf14_clist_update_params(pdev, pgs, false, NULL); |
6285 | 578 | } |
6286 | 578 | return code; |
6287 | 578 | } |
6288 | | |
6289 | | static int |
6290 | | pdf14_text_begin(gx_device * dev, gs_gstate * pgs, |
6291 | | const gs_text_params_t * text, gs_font * font, |
6292 | | const gx_clip_path * pcpath, |
6293 | | gs_text_enum_t ** ppenum) |
6294 | 44 | { |
6295 | 44 | int code; |
6296 | 44 | gs_text_enum_t *penum; |
6297 | 44 | gs_blend_mode_t blend_mode = gs_currentblendmode(pgs); |
6298 | 44 | float opacity = pgs->fillconstantalpha; |
6299 | 44 | float shape = 1.0; |
6300 | 44 | bool blend_issue = !(blend_mode == BLEND_MODE_Normal || blend_mode == BLEND_MODE_Compatible || blend_mode == BLEND_MODE_CompatibleOverprint); |
6301 | 44 | pdf14_device *pdev = (pdf14_device*)dev; |
6302 | 44 | bool draw = !(text->operation & TEXT_DO_NONE); |
6303 | 44 | uint text_mode = gs_currenttextrenderingmode(pgs); |
6304 | 44 | bool text_stroke = (text_mode == 1 || text_mode == 2 || text_mode == 5 || text_mode == 6); |
6305 | 44 | bool text_fill = (text_mode == 0 || text_mode == 2 || text_mode == 4 || text_mode == 6); |
6306 | | |
6307 | 44 | code = pdf14_initialize_ctx(dev, dev->color_info.num_components, |
6308 | 44 | dev->color_info.polarity != GX_CINFO_POLARITY_SUBTRACTIVE, (const gs_gstate*) pgs); |
6309 | 44 | if (code < 0) |
6310 | 0 | return code; |
6311 | | |
6312 | 44 | if_debug0m('v', pgs->memory, "[v]pdf14_text_begin\n"); |
6313 | 44 | pdf14_set_marking_params(dev, pgs); |
6314 | 44 | code = gx_default_text_begin(dev, pgs, text, font, pcpath, &penum); |
6315 | 44 | if (code < 0) |
6316 | 0 | return code; |
6317 | | |
6318 | | /* We may need to push a non-isolated transparency group if the following |
6319 | | is true. |
6320 | | 1) We are not currently in one that we pushed for text and we are in |
6321 | | a BT/ET pair. This is determined by looking at the pdf14 text_group. |
6322 | | 2) The blend mode is not Normal or the opacity is not 1.0 |
6323 | | 3) Text knockout is set to true |
6324 | | 4) We are actually doing a text drawing |
6325 | | |
6326 | | Special note: If text-knockout is set to false while we are within a |
6327 | | BT ET pair, we should pop the group. I need to create a test file for |
6328 | | this case. */ |
6329 | | |
6330 | | /* Catch case where we already pushed a group and are trying to push another one. |
6331 | | In that case, we will pop the current one first, as we don't want to be left |
6332 | | with it. Note that if we have a BT and no other BTs or ETs then this issue |
6333 | | will not be caught until we do the put_image and notice that the stack is not |
6334 | | empty. */ |
6335 | 44 | if (pdev->text_group == PDF14_TEXTGROUP_MISSING_ET) { |
6336 | 0 | code = gs_end_transparency_group(pgs); |
6337 | 0 | if (code < 0) |
6338 | 0 | return code; |
6339 | 0 | pdev->text_group = PDF14_TEXTGROUP_BT_NOT_PUSHED; |
6340 | 0 | } |
6341 | | |
6342 | 44 | if (gs_currenttextknockout(pgs) && (blend_issue || |
6343 | 44 | (pgs->fillconstantalpha != 1.0 && text_fill) || |
6344 | 44 | (pgs->strokeconstantalpha != 1.0 && text_stroke)) && |
6345 | 44 | text_mode != 3 && /* don't bother with invisible text */ |
6346 | 44 | pdev->text_group == PDF14_TEXTGROUP_BT_NOT_PUSHED) |
6347 | 0 | if (draw) { |
6348 | 0 | code = pdf14_push_text_group(dev, pgs, blend_mode, opacity, shape, |
6349 | 0 | false); |
6350 | 0 | } |
6351 | 44 | *ppenum = (gs_text_enum_t *)penum; |
6352 | 44 | return code; |
6353 | 44 | } |
6354 | | |
6355 | | static int |
6356 | | pdf14_initialize_device(gx_device *new_dev) |
6357 | 261k | { |
6358 | 261k | pdf14_device *pdev = (pdf14_device*)new_dev; |
6359 | | |
6360 | 261k | pdev->ctx = NULL; |
6361 | 261k | pdev->color_model_stack = NULL; |
6362 | 261k | pdev->smaskcolor = NULL; |
6363 | | |
6364 | 261k | return 0; |
6365 | 261k | } |
6366 | | |
6367 | | /* |
6368 | | * Implement copy_mono by filling lots of small rectangles. |
6369 | | */ |
6370 | | static int |
6371 | | pdf14_copy_mono(gx_device * dev, |
6372 | | const byte * base, int sourcex, int sraster, gx_bitmap_id id, |
6373 | | int x, int y, int w, int h, gx_color_index zero, gx_color_index one) |
6374 | 5.44M | { |
6375 | 5.44M | const byte *sptr; |
6376 | 5.44M | const byte *line; |
6377 | 5.44M | int sbit, first_bit; |
6378 | 5.44M | int code, sbyte, bit, count; |
6379 | 5.44M | int run_length, startx, current_bit, bit_value; |
6380 | 5.44M | gx_color_index current_color; |
6381 | | |
6382 | 5.44M | fit_copy(dev, base, sourcex, sraster, id, x, y, w, h); |
6383 | 5.44M | line = base + (sourcex >> 3); |
6384 | 5.44M | sbit = sourcex & 7; |
6385 | 5.44M | first_bit = 7 - sbit; |
6386 | | |
6387 | | /* Loop through the height of the specified area. */ |
6388 | 41.1M | while (h-- > 0) { |
6389 | | /* Set up for the start of each line of the area. */ |
6390 | 35.6M | sptr = line; |
6391 | 35.6M | sbyte = *sptr++; |
6392 | | /* The +1 here is 'sacrificial', we are going to decrement it by 1 immediately in |
6393 | | * the loop below so adding 1 means that we don't fall into the bit == 0 |
6394 | | * case and incorrectly read a new byte from the source. This weirdness is because |
6395 | | * the original code wouold read off the end of the buffer if the number of bits in |
6396 | | * the raster was an exact multiple of 8. If it was also a multiple of the word |
6397 | | * size we might read unallocated memory. Moving the 'sbyte = *sptr++' from the end |
6398 | | * of the loop to the beginning meant we would not read past the end of the buffer |
6399 | | * because we would drop out of the 'do ... while (count-- > 0)' loop before |
6400 | | * reading another byte. |
6401 | | */ |
6402 | 35.6M | bit = first_bit + 1; |
6403 | 35.6M | count = w; |
6404 | 35.6M | run_length = 0; |
6405 | 35.6M | startx = x; |
6406 | 35.6M | current_bit = 0; |
6407 | 35.6M | current_color = zero; |
6408 | | |
6409 | | /* Loop across each pixel of a line. */ |
6410 | 485M | do { |
6411 | | /* Move to the next input bit. */ |
6412 | 485M | if (bit == 0) { |
6413 | 42.5M | bit = 7; |
6414 | 42.5M | sbyte = *sptr++; |
6415 | 42.5M | } |
6416 | 442M | else |
6417 | 442M | bit--; |
6418 | 485M | bit_value = (sbyte >> bit) & 1; |
6419 | 485M | if (bit_value == current_bit) { |
6420 | | /* The value did not change, simply increment our run length */ |
6421 | 396M | run_length++; |
6422 | 396M | } else { |
6423 | | /* The value changed, fill the current rectangle. */ |
6424 | 88.3M | if (run_length != 0) { |
6425 | 84.4M | if (current_color != gx_no_color_index) { |
6426 | 36.5M | code = (*dev_proc(dev, fill_rectangle)) |
6427 | 36.5M | (dev, startx, y, run_length, 1, current_color); |
6428 | 36.5M | if (code < 0) |
6429 | 0 | return code; |
6430 | 36.5M | } |
6431 | 84.4M | startx += run_length; |
6432 | 84.4M | } |
6433 | 88.3M | run_length = 1; |
6434 | 88.3M | current_color = bit_value ? one : zero; |
6435 | 88.3M | current_bit = bit_value; |
6436 | 88.3M | } |
6437 | 485M | } while (--count > 0); |
6438 | | /* Fill the last rectangle in the line. */ |
6439 | 35.6M | if (run_length != 0 && current_color != gx_no_color_index) { |
6440 | 15.3M | code = (*dev_proc(dev, fill_rectangle)) |
6441 | 15.3M | (dev, startx, y, run_length, 1, current_color); |
6442 | 15.3M | if (code < 0) |
6443 | 0 | return code; |
6444 | 15.3M | } |
6445 | | /* Move to the next line */ |
6446 | 35.6M | line += sraster; |
6447 | 35.6M | y++; |
6448 | 35.6M | } |
6449 | 5.44M | return 0; |
6450 | 5.44M | } |
6451 | | |
6452 | | /* Added to avoid having to go back and forth between fixed and int |
6453 | | in some of the internal methods used for dealing with tiling |
6454 | | and devn colors */ |
6455 | | static int |
6456 | | pdf14_fill_rectangle_devn(gx_device *dev, int x, int y, int w, int h, |
6457 | | const gx_drawing_color *pdcolor) |
6458 | 0 | { |
6459 | 0 | pdf14_device *pdev = (pdf14_device *)dev; |
6460 | 0 | pdf14_buf *buf; |
6461 | 0 | int code; |
6462 | |
|
6463 | 0 | fit_fill_xywh(dev, x, y, w, h); |
6464 | 0 | if (w <= 0 || h <= 0) |
6465 | 0 | return 0; |
6466 | | |
6467 | 0 | code = pdf14_initialize_ctx(dev, dev->color_info.num_components, |
6468 | 0 | dev->color_info.polarity != GX_CINFO_POLARITY_SUBTRACTIVE, NULL); |
6469 | 0 | if (code < 0) |
6470 | 0 | return code; |
6471 | 0 | buf = pdev->ctx->stack; |
6472 | |
|
6473 | 0 | if (buf->knockout) |
6474 | 0 | return pdf14_mark_fill_rectangle_ko_simple(dev, x, y, w, h, 0, pdcolor, |
6475 | 0 | true); |
6476 | 0 | else |
6477 | 0 | return pdf14_mark_fill_rectangle(dev, x, y, w, h, 0, pdcolor, true); |
6478 | 0 | } |
6479 | | |
6480 | | /* Step through and do rect fills with the devn colors as |
6481 | | we hit each transition in the bitmap. It is possible |
6482 | | that one of the colors is not devn, but is pure and |
6483 | | is set to gx_no_color_index. This type of mix happens |
6484 | | for example from tile_clip_fill_rectangle_hl_color */ |
6485 | | static int |
6486 | | pdf14_copy_mono_devn(gx_device *dev, |
6487 | | const byte *base, int sourcex, int sraster, |
6488 | | int x, int y, int w, int h, const gx_drawing_color *pdcolor0, |
6489 | | const gx_drawing_color *pdcolor1) |
6490 | 0 | { |
6491 | 0 | const byte *sptr; |
6492 | 0 | const byte *line; |
6493 | 0 | int sbit, first_bit; |
6494 | 0 | int code, sbyte, bit, count; |
6495 | 0 | int run_length, startx, current_bit, bit_value; |
6496 | 0 | const gx_drawing_color *current_color; |
6497 | |
|
6498 | 0 | if ((x | y) < 0) { |
6499 | 0 | if (x < 0) { |
6500 | 0 | w += x; |
6501 | 0 | sourcex -= x; |
6502 | 0 | x = 0; |
6503 | 0 | } |
6504 | 0 | if (y < 0) { |
6505 | 0 | h += y; |
6506 | 0 | base -= (int)(y * sraster); |
6507 | 0 | y = 0; |
6508 | 0 | } |
6509 | 0 | } |
6510 | 0 | if (w > (dev)->width - x) |
6511 | 0 | w = (dev)->width - x; |
6512 | 0 | if (h > (dev)->height - y) |
6513 | 0 | h = (dev)->height - y; |
6514 | 0 | if (w <= 0 || h <= 0) |
6515 | 0 | return 0; |
6516 | | |
6517 | 0 | line = base + (sourcex >> 3); |
6518 | 0 | sbit = sourcex & 7; |
6519 | 0 | first_bit = 7 - sbit; |
6520 | | |
6521 | | /* Loop through the height of the specified area. */ |
6522 | 0 | while (h-- > 0) { |
6523 | | /* Set up for the start of each line of the area. */ |
6524 | 0 | sptr = line; |
6525 | 0 | sbyte = *sptr++; |
6526 | 0 | bit = first_bit; |
6527 | 0 | count = w; |
6528 | 0 | run_length = 0; |
6529 | 0 | startx = x; |
6530 | 0 | current_bit = 0; |
6531 | 0 | current_color = pdcolor0; |
6532 | | |
6533 | | /* Loop across each pixel of a line. */ |
6534 | 0 | do { |
6535 | 0 | bit_value = (sbyte >> bit) & 1; |
6536 | 0 | if (bit_value == current_bit) { |
6537 | | /* The value did not change, simply increment our run length */ |
6538 | 0 | run_length++; |
6539 | 0 | } else { |
6540 | | /* The value changed, fill the current rectangle. */ |
6541 | 0 | if (run_length != 0) { |
6542 | 0 | if (current_color->type != gx_dc_type_pure && |
6543 | 0 | current_color->colors.pure != gx_no_color_index) { |
6544 | 0 | code = pdf14_fill_rectangle_devn(dev, startx, y, |
6545 | 0 | run_length, 1, current_color); |
6546 | 0 | if (code < 0) |
6547 | 0 | return code; |
6548 | 0 | } |
6549 | 0 | startx += run_length; |
6550 | 0 | } |
6551 | 0 | run_length = 1; |
6552 | 0 | current_color = bit_value ? pdcolor1 : pdcolor0; |
6553 | 0 | current_bit = bit_value; |
6554 | 0 | } |
6555 | | |
6556 | | /* Move to the next input bit. */ |
6557 | 0 | if (bit == 0) { |
6558 | 0 | bit = 7; |
6559 | 0 | sbyte = *sptr++; |
6560 | 0 | } else |
6561 | 0 | bit--; |
6562 | 0 | } while (--count > 0); |
6563 | | |
6564 | | /* Fill the last rectangle in the line. */ |
6565 | 0 | if (run_length != 0 && current_color->type != gx_dc_type_pure && |
6566 | 0 | current_color->colors.pure != gx_no_color_index) { |
6567 | 0 | code = pdf14_fill_rectangle_devn(dev, startx, y, |
6568 | 0 | run_length, 1, current_color); |
6569 | 0 | if (code < 0) |
6570 | 0 | return code; |
6571 | 0 | } |
6572 | | /* Move to the next line */ |
6573 | 0 | line += sraster; |
6574 | 0 | y++; |
6575 | 0 | } |
6576 | 0 | return 0; |
6577 | 0 | } |
6578 | | |
6579 | | /* Step through the tiles doing essentially copy_mono but with devn colors */ |
6580 | | static int |
6581 | | pdf14_impl_strip_tile_rectangle_devn(gx_device *dev, const gx_strip_bitmap *tiles, |
6582 | | int x, int y, int w, int h, const gx_drawing_color *pdcolor0, |
6583 | | const gx_drawing_color *pdcolor1, int px, int py) |
6584 | 0 | { /* Fill the rectangle in chunks. */ |
6585 | 0 | int width = tiles->size.x; |
6586 | 0 | int height = tiles->size.y; |
6587 | 0 | int raster = tiles->raster; |
6588 | 0 | int rwidth = tiles->rep_width; |
6589 | 0 | int rheight = tiles->rep_height; |
6590 | 0 | int shift = tiles->shift; |
6591 | |
|
6592 | 0 | if (rwidth == 0 || rheight == 0) |
6593 | 0 | return_error(gs_error_unregistered); |
6594 | 0 | fit_fill_xy(dev, x, y, w, h); |
6595 | |
|
6596 | 0 | { |
6597 | 0 | int xoff = (shift == 0 ? px : |
6598 | 0 | px + (y + py) / rheight * tiles->rep_shift); |
6599 | 0 | int irx = ((rwidth & (rwidth - 1)) == 0 ? /* power of 2 */ |
6600 | 0 | (x + xoff) & (rwidth - 1) : |
6601 | 0 | (x + xoff) % rwidth); |
6602 | 0 | int ry = ((rheight & (rheight - 1)) == 0 ? /* power of 2 */ |
6603 | 0 | (y + py) & (rheight - 1) : |
6604 | 0 | (y + py) % rheight); |
6605 | 0 | int icw = width - irx; |
6606 | 0 | int ch = height - ry; |
6607 | 0 | byte *row = tiles->data + ry * raster; |
6608 | 0 | int code = 0; |
6609 | |
|
6610 | 0 | if (ch >= h) { /* Shallow operation */ |
6611 | 0 | if (icw >= w) { /* Just one (partial) tile to transfer. */ |
6612 | 0 | code = pdf14_copy_mono_devn(dev, row, irx, raster, x, y, |
6613 | 0 | w, h, pdcolor0, pdcolor1); |
6614 | 0 | if (code < 0) |
6615 | 0 | return_error(code); |
6616 | 0 | } else { |
6617 | 0 | int ex = x + w; |
6618 | 0 | int fex = ex - width; |
6619 | 0 | int cx = x + icw; |
6620 | |
|
6621 | 0 | code = pdf14_copy_mono_devn(dev, row, irx, raster, |
6622 | 0 | x, y, icw, h, pdcolor0, pdcolor1); |
6623 | 0 | if (code < 0) |
6624 | 0 | return_error(code); |
6625 | | |
6626 | 0 | while (cx <= fex) { |
6627 | 0 | code = pdf14_copy_mono_devn(dev, row, 0, raster, cx, y, |
6628 | 0 | width, h, pdcolor0, pdcolor1); |
6629 | 0 | if (code < 0) |
6630 | 0 | return_error(code); |
6631 | 0 | cx += width; |
6632 | 0 | } |
6633 | 0 | if (cx < ex) { |
6634 | 0 | code = pdf14_copy_mono_devn(dev, row, 0, raster, cx, y, |
6635 | 0 | ex - cx, h, pdcolor0, pdcolor1); |
6636 | 0 | if (code < 0) |
6637 | 0 | return_error(code); |
6638 | 0 | } |
6639 | 0 | } |
6640 | 0 | } else if (icw >= w && shift == 0) { |
6641 | | /* Narrow operation, no shift */ |
6642 | 0 | int ey = y + h; |
6643 | 0 | int fey = ey - height; |
6644 | 0 | int cy = y + ch; |
6645 | |
|
6646 | 0 | code = pdf14_copy_mono_devn(dev, row, irx, raster, |
6647 | 0 | x, y, w, ch, pdcolor0, pdcolor1); |
6648 | 0 | if (code < 0) |
6649 | 0 | return_error(code); |
6650 | 0 | row = tiles->data; |
6651 | 0 | do { |
6652 | 0 | ch = (cy > fey ? ey - cy : height); |
6653 | 0 | code = pdf14_copy_mono_devn(dev, row, irx, raster, |
6654 | 0 | x, cy, w, ch, pdcolor0, pdcolor1); |
6655 | 0 | if (code < 0) |
6656 | 0 | return_error(code); |
6657 | 0 | } while ((cy += ch) < ey); |
6658 | 0 | } else { |
6659 | | /* Full operation. If shift != 0, some scan lines */ |
6660 | | /* may be narrow. We could test shift == 0 in advance */ |
6661 | | /* and use a slightly faster loop, but right now */ |
6662 | | /* we don't bother. */ |
6663 | 0 | int ex = x + w, ey = y + h; |
6664 | 0 | int fex = ex - width, fey = ey - height; |
6665 | 0 | int cx, cy; |
6666 | |
|
6667 | 0 | for (cy = y;;) { |
6668 | 0 | if (icw >= w) { |
6669 | 0 | code = pdf14_copy_mono_devn(dev, row, irx, raster, |
6670 | 0 | x, cy, w, ch, pdcolor0, pdcolor1); |
6671 | 0 | if (code < 0) |
6672 | 0 | return_error(code); |
6673 | 0 | } else { |
6674 | 0 | code = pdf14_copy_mono_devn(dev, row, irx, raster, |
6675 | 0 | x, cy, icw, ch, pdcolor0, pdcolor1); |
6676 | 0 | if (code < 0) |
6677 | 0 | return_error(code); |
6678 | 0 | cx = x + icw; |
6679 | 0 | while (cx <= fex) { |
6680 | 0 | code = pdf14_copy_mono_devn(dev, row, 0, raster, |
6681 | 0 | cx, cy, width, ch, pdcolor0, pdcolor1); |
6682 | 0 | if (code < 0) |
6683 | 0 | return_error(code); |
6684 | 0 | cx += width; |
6685 | 0 | } |
6686 | 0 | if (cx < ex) { |
6687 | 0 | code = pdf14_copy_mono_devn(dev, row, 0, raster, |
6688 | 0 | cx, cy, ex - cx, ch, pdcolor0, pdcolor1); |
6689 | 0 | if (code < 0) |
6690 | 0 | return_error(code); |
6691 | 0 | } |
6692 | 0 | } |
6693 | 0 | if ((cy += ch) >= ey) |
6694 | 0 | break; |
6695 | 0 | ch = (cy > fey ? ey - cy : height); |
6696 | 0 | if ((irx += shift) >= rwidth) |
6697 | 0 | irx -= rwidth; |
6698 | 0 | icw = width - irx; |
6699 | 0 | row = tiles->data; |
6700 | 0 | } |
6701 | 0 | } |
6702 | 0 | } |
6703 | 0 | return 0; |
6704 | 0 | } |
6705 | | |
6706 | | /* pdf14 device supports devn */ |
6707 | | static int |
6708 | | pdf14_strip_tile_rect_devn(gx_device *dev, const gx_strip_bitmap *tiles, |
6709 | | int x, int y, int w, int h, |
6710 | | const gx_drawing_color *pdcolor0, |
6711 | | const gx_drawing_color *pdcolor1, int px, int py) |
6712 | 0 | { |
6713 | 0 | pdf14_device *pdev = (pdf14_device *)dev; |
6714 | 0 | pdf14_buf *buf; |
6715 | 0 | int num_comp; |
6716 | 0 | int k; |
6717 | 0 | bool same = false; |
6718 | 0 | int code; |
6719 | |
|
6720 | 0 | code = pdf14_initialize_ctx(dev, dev->color_info.num_components, |
6721 | 0 | dev->color_info.polarity != GX_CINFO_POLARITY_SUBTRACTIVE, NULL); |
6722 | 0 | if (code < 0) |
6723 | 0 | return code; |
6724 | 0 | buf = pdev->ctx->stack; |
6725 | 0 | num_comp = buf->n_chan - 1; |
6726 | | |
6727 | | /* if color0 is identical to color1, do rect fill */ |
6728 | 0 | if (pdcolor0->type == gx_dc_type_devn && pdcolor1->type == gx_dc_type_devn) { |
6729 | 0 | same = true; |
6730 | 0 | for (k = 0; k < num_comp; k++) { |
6731 | 0 | if (pdcolor0->colors.devn.values[k] != pdcolor1->colors.devn.values[k]) { |
6732 | 0 | same = false; |
6733 | 0 | break; |
6734 | 0 | } |
6735 | 0 | } |
6736 | 0 | } |
6737 | |
|
6738 | 0 | if (same) { |
6739 | 0 | code = pdf14_fill_rectangle_devn(dev, x, y, w, h, pdcolor0); |
6740 | 0 | } else { |
6741 | | /* Go through the tile stepping using code stolen from |
6742 | | gx_default_strip_tile_rectangle and call the rect fills |
6743 | | using code stolen from pdf14_copy_mono but using devn |
6744 | | colors */ |
6745 | 0 | code = pdf14_impl_strip_tile_rectangle_devn(dev, tiles, |
6746 | 0 | x, y, w, h, pdcolor0, pdcolor1, px, py); |
6747 | 0 | } |
6748 | 0 | return code; |
6749 | 0 | } |
6750 | | |
6751 | | /* Used in a few odd cases where the target device is planar and we have |
6752 | | a planar tile (pattern) and we are copying it into place here */ |
6753 | | static int |
6754 | | pdf14_copy_planes(gx_device * dev, const byte * data, int data_x, int raster, |
6755 | | gx_bitmap_id id, int x, int y, int w, int h, int plane_height) |
6756 | 0 | { |
6757 | 0 | pdf14_device *pdev = (pdf14_device *)dev; |
6758 | | #if RAW_DUMP |
6759 | | pdf14_ctx *ctx = pdev->ctx; |
6760 | | #endif |
6761 | 0 | pdf14_buf *buf = pdev->ctx->stack; |
6762 | 0 | int xo = x; |
6763 | 0 | int yo = y; |
6764 | 0 | pdf14_buf fake_tos; |
6765 | 0 | int deep = pdev->ctx->deep; |
6766 | |
|
6767 | 0 | fit_fill_xywh(dev, x, y, w, h); |
6768 | 0 | if (w <= 0 || h <= 0) |
6769 | 0 | return 0; |
6770 | | |
6771 | 0 | fake_tos.deep = deep; |
6772 | 0 | fake_tos.alpha = (uint16_t)(0xffff * pdev->alpha + 0.5); |
6773 | 0 | fake_tos.backdrop = NULL; |
6774 | 0 | fake_tos.blend_mode = pdev->blend_mode; |
6775 | 0 | fake_tos.color_space = buf->color_space; |
6776 | 0 | fake_tos.data = (byte *)data + ((data_x - (x - xo))<<deep) - (y - yo) * raster; /* Nasty, cast away of const */ |
6777 | 0 | fake_tos.dirty.p.x = x; |
6778 | 0 | fake_tos.dirty.p.y = y; |
6779 | 0 | fake_tos.dirty.q.x = x + w; |
6780 | 0 | fake_tos.dirty.q.y = y + h; |
6781 | 0 | fake_tos.has_alpha_g = 0; |
6782 | 0 | fake_tos.has_shape = 0; |
6783 | 0 | fake_tos.has_tags = 0; |
6784 | 0 | fake_tos.idle = false; |
6785 | 0 | fake_tos.isolated = false; |
6786 | 0 | fake_tos.knockout = false; |
6787 | 0 | fake_tos.mask_id = 0; |
6788 | 0 | fake_tos.mask_stack = NULL; |
6789 | 0 | fake_tos.matte = NULL; |
6790 | 0 | fake_tos.matte_num_comps = 0; |
6791 | 0 | fake_tos.memory = dev->memory; |
6792 | 0 | fake_tos.n_chan = dev->color_info.num_components; |
6793 | 0 | fake_tos.n_planes = dev->color_info.num_components; |
6794 | 0 | fake_tos.num_spots = 0; |
6795 | 0 | fake_tos.group_color_info = NULL; |
6796 | 0 | fake_tos.planestride = raster * plane_height; |
6797 | 0 | fake_tos.rect.p.x = x; |
6798 | 0 | fake_tos.rect.p.y = y; |
6799 | 0 | fake_tos.rect.q.x = x + w; |
6800 | 0 | fake_tos.rect.q.y = y + h; |
6801 | 0 | fake_tos.rowstride = raster; |
6802 | 0 | fake_tos.saved = NULL; |
6803 | 0 | fake_tos.shape = 0xffff; |
6804 | 0 | fake_tos.SMask_SubType = TRANSPARENCY_MASK_Alpha; |
6805 | 0 | fake_tos.transfer_fn = NULL; |
6806 | 0 | pdf14_compose_alphaless_group(&fake_tos, buf, x, x+w, y, y+h, |
6807 | 0 | pdev->ctx->memory, dev); |
6808 | 0 | return 0; |
6809 | 0 | } |
6810 | | |
6811 | | static int |
6812 | | pdf14_fill_rectangle_hl_color(gx_device *dev, const gs_fixed_rect *rect, |
6813 | | const gs_gstate *pgs, const gx_drawing_color *pdcolor, |
6814 | | const gx_clip_path *pcpath) |
6815 | 8.21M | { |
6816 | 8.21M | pdf14_device *pdev = (pdf14_device *)dev; |
6817 | 8.21M | pdf14_buf* buf; |
6818 | 8.21M | int code; |
6819 | 8.21M | int x = fixed2int(rect->p.x); |
6820 | 8.21M | int y = fixed2int(rect->p.y); |
6821 | 8.21M | int w = fixed2int(rect->q.x) - x; |
6822 | 8.21M | int h = fixed2int(rect->q.y) - y; |
6823 | | |
6824 | 8.21M | fit_fill_xywh(dev, x, y, w, h); |
6825 | 8.21M | if (w <= 0 || h <= 0) |
6826 | 98.3k | return 0; |
6827 | | |
6828 | 8.11M | code = pdf14_initialize_ctx(dev, dev->color_info.num_components, |
6829 | 8.11M | dev->color_info.polarity != GX_CINFO_POLARITY_SUBTRACTIVE, pgs); |
6830 | 8.11M | if (code < 0) |
6831 | 0 | return code; |
6832 | 8.11M | buf = pdev->ctx->stack; |
6833 | | |
6834 | 8.11M | if (buf->knockout) |
6835 | 281 | return pdf14_mark_fill_rectangle_ko_simple(dev, x, y, w, h, 0, pdcolor, |
6836 | 281 | true); |
6837 | 8.11M | else |
6838 | 8.11M | return pdf14_mark_fill_rectangle(dev, x, y, w, h, 0, pdcolor, true); |
6839 | 8.11M | } |
6840 | | |
6841 | | static int |
6842 | | pdf14_fill_rectangle(gx_device * dev, |
6843 | | int x, int y, int w, int h, gx_color_index color) |
6844 | 139M | { |
6845 | 139M | pdf14_device *pdev = (pdf14_device *)dev; |
6846 | 139M | pdf14_buf *buf; |
6847 | 139M | int code; |
6848 | | |
6849 | 139M | fit_fill_xywh(dev, x, y, w, h); |
6850 | 139M | if (w <= 0 || h <= 0) |
6851 | 3.09M | return 0; |
6852 | | |
6853 | 136M | code = pdf14_initialize_ctx(dev, dev->color_info.num_components, |
6854 | 136M | dev->color_info.polarity != GX_CINFO_POLARITY_SUBTRACTIVE, NULL); |
6855 | 136M | if (code < 0) |
6856 | 0 | return code; |
6857 | | |
6858 | 136M | buf = pdev->ctx->stack; |
6859 | | |
6860 | 136M | if (buf->knockout) |
6861 | 138k | return pdf14_mark_fill_rectangle_ko_simple(dev, x, y, w, h, color, NULL, |
6862 | 138k | false); |
6863 | 136M | else |
6864 | 136M | return pdf14_mark_fill_rectangle(dev, x, y, w, h, color, NULL, false); |
6865 | 136M | } |
6866 | | |
6867 | | static int |
6868 | | pdf14_compute_group_device_int_rect(const gs_matrix *ctm, |
6869 | | const gs_rect *pbbox, gs_int_rect *rect) |
6870 | 673k | { |
6871 | 673k | gs_rect dev_bbox; |
6872 | 673k | int code; |
6873 | | |
6874 | 673k | code = gs_bbox_transform(pbbox, ctm, &dev_bbox); |
6875 | 673k | if (code < 0) |
6876 | 0 | return code; |
6877 | 673k | rect->p.x = (int)floor(dev_bbox.p.x); |
6878 | 673k | rect->p.y = (int)floor(dev_bbox.p.y); |
6879 | 673k | rect->q.x = (int)ceil(dev_bbox.q.x); |
6880 | 673k | rect->q.y = (int)ceil(dev_bbox.q.y); |
6881 | 673k | return 0; |
6882 | 673k | } |
6883 | | |
6884 | | static int |
6885 | | compute_group_device_int_rect(pdf14_device *pdev, gs_int_rect *rect, |
6886 | | const gs_rect *pbbox, gs_gstate *pgs) |
6887 | 646k | { |
6888 | 646k | int code = pdf14_compute_group_device_int_rect(&ctm_only(pgs), pbbox, rect); |
6889 | | |
6890 | 646k | if (code < 0) |
6891 | 0 | return code; |
6892 | 646k | rect_intersect(*rect, pdev->ctx->rect); |
6893 | | /* Make sure the rectangle is not anomalous (q < p) -- see gsrect.h */ |
6894 | 646k | if (rect->q.x < rect->p.x) |
6895 | 5.58k | rect->q.x = rect->p.x; |
6896 | 646k | if (rect->q.y < rect->p.y) |
6897 | 28.8k | rect->q.y = rect->p.y; |
6898 | 646k | return 0; |
6899 | 646k | } |
6900 | | |
6901 | | static int |
6902 | | pdf14_begin_transparency_group(gx_device* dev, |
6903 | | const gs_transparency_group_params_t* ptgp, |
6904 | | const gs_rect* pbbox, |
6905 | | gs_gstate* pgs, gs_memory_t* mem) |
6906 | 548k | { |
6907 | 548k | pdf14_device* pdev = (pdf14_device*)dev; |
6908 | 548k | float alpha = ptgp->group_opacity * ptgp->group_shape; |
6909 | 548k | gs_int_rect rect; |
6910 | 548k | int code; |
6911 | 548k | bool isolated = ptgp->Isolated; |
6912 | 548k | gs_transparency_color_t group_color_type; |
6913 | 548k | cmm_profile_t* group_profile; |
6914 | 548k | cmm_profile_t* tos_profile; |
6915 | 548k | gsicc_rendering_param_t render_cond; |
6916 | 548k | cmm_dev_profile_t* dev_profile; |
6917 | 548k | bool cm_back_drop = false; |
6918 | 548k | bool new_icc = false; |
6919 | 548k | pdf14_group_color_t* group_color_info; |
6920 | | |
6921 | 548k | code = dev_proc(dev, get_profile)(dev, &dev_profile); |
6922 | 548k | if (code < 0) |
6923 | 0 | return code; |
6924 | 548k | gsicc_extract_profile(GS_UNKNOWN_TAG, dev_profile, &tos_profile, &render_cond); |
6925 | | |
6926 | 548k | if (ptgp->text_group == PDF14_TEXTGROUP_BT_PUSHED) { |
6927 | 39.3k | pdev->text_group = PDF14_TEXTGROUP_BT_PUSHED; /* For immediate mode and clist reading */ |
6928 | 39.3k | } |
6929 | | |
6930 | 548k | if (ptgp->text_group == PDF14_TEXTGROUP_BT_PUSHED) |
6931 | 39.3k | rect = pdev->ctx->rect; /* Use parent group for text_group. */ |
6932 | 509k | else |
6933 | 509k | code = compute_group_device_int_rect(pdev, &rect, pbbox, pgs); |
6934 | | |
6935 | 548k | if (code < 0) |
6936 | 0 | return code; |
6937 | 548k | if_debug5m('v', pdev->memory, |
6938 | 548k | "[v]pdf14_begin_transparency_group, I = %d, K = %d, alpha = %g, bm = %d page_group = %d\n", |
6939 | 548k | ptgp->Isolated, ptgp->Knockout, (double)alpha, pgs->blend_mode, ptgp->page_group); |
6940 | | |
6941 | | /* If the group color is unknown then use the current device profile. */ |
6942 | 548k | if (ptgp->group_color_type == UNKNOWN) { |
6943 | 444k | group_color_type = ICC; |
6944 | 444k | group_profile = tos_profile; |
6945 | 444k | } |
6946 | 104k | else { |
6947 | 104k | group_color_type = ptgp->group_color_type; |
6948 | 104k | group_profile = ptgp->iccprofile; |
6949 | 104k | } |
6950 | | |
6951 | | /* We have to handle case where the profile is in the clist */ |
6952 | 548k | if (group_profile == NULL && pdev->pclist_device != NULL) { |
6953 | | /* Get the serialized data from the clist. */ |
6954 | 104k | gx_device_clist_reader* pcrdev = (gx_device_clist_reader*)(pdev->pclist_device); |
6955 | 104k | group_profile = gsicc_read_serial_icc((gx_device*)pcrdev, ptgp->icc_hashcode); |
6956 | 104k | if (group_profile == NULL) |
6957 | 0 | return gs_throw(gs_error_unknownerror, "ICC data not found in clist"); |
6958 | | /* Keep a pointer to the clist device */ |
6959 | 104k | group_profile->dev = (gx_device*)pcrdev; |
6960 | 104k | new_icc = true; |
6961 | 104k | } |
6962 | 548k | if (group_profile != NULL) { |
6963 | | /* If we have a non-isolated group and the color space is different, |
6964 | | we will need to CM the backdrop. */ |
6965 | 548k | if (!gsicc_profiles_equal(group_profile, tos_profile)) { |
6966 | 19.9k | cm_back_drop = true; |
6967 | 19.9k | } |
6968 | 548k | } |
6969 | | |
6970 | | /* Always create the base color group information as it is only through |
6971 | | groups that we can have a color space change. This will survive |
6972 | | the life of the context. */ |
6973 | 548k | if (pdev->ctx->base_color == NULL) { |
6974 | 121k | pdev->ctx->base_color = pdf14_make_base_group_color(dev); |
6975 | 121k | } |
6976 | | |
6977 | | /* If this is not the page group and we don't yet have a group, we need |
6978 | | to create a buffer for the whole page so that we can handle stuff drawn |
6979 | | outside this current group (e.g. two non inclusive groups drawn independently) */ |
6980 | 548k | if (pdev->ctx->stack == NULL && !ptgp->page_group) { |
6981 | 4.52k | code = pdf14_initialize_ctx(dev, dev->color_info.num_components, |
6982 | 4.52k | dev->color_info.polarity != GX_CINFO_POLARITY_SUBTRACTIVE, NULL); |
6983 | 4.52k | if (code < 0) |
6984 | 0 | return code; |
6985 | 4.52k | pdev->ctx->stack->isolated = true; |
6986 | 4.52k | } |
6987 | | |
6988 | 548k | group_color_info = pdf14_push_color_model(dev, group_color_type, ptgp->icc_hashcode, |
6989 | 548k | group_profile, false); |
6990 | 548k | if (group_color_info == NULL) |
6991 | 0 | return gs_error_VMerror; |
6992 | 548k | if_debug0m('v', dev->memory, "[v]Transparency group color space update\n"); |
6993 | | |
6994 | 548k | code = pdf14_push_transparency_group(pdev->ctx, &rect, isolated, ptgp->Knockout, |
6995 | 548k | (uint16_t)floor (65535 * alpha + 0.5), |
6996 | 548k | (uint16_t)floor(65535 * ptgp->group_shape + 0.5), |
6997 | 548k | (uint16_t)floor(65535 * ptgp->group_opacity + 0.5), |
6998 | 548k | pgs->blend_mode, ptgp->idle, |
6999 | 548k | ptgp->mask_id, pdev->color_info.num_components, |
7000 | 548k | cm_back_drop, ptgp->shade_group, |
7001 | 548k | group_profile, tos_profile, group_color_info, pgs, dev); |
7002 | 548k | if (new_icc) |
7003 | 104k | gsicc_adjust_profile_rc(group_profile, -1, "pdf14_begin_transparency_group"); |
7004 | 548k | return code; |
7005 | 548k | } |
7006 | | |
7007 | | static void |
7008 | | pdf14_pop_color_model(gx_device* dev, pdf14_group_color_t* group_color) |
7009 | 548k | { |
7010 | 548k | pdf14_device* pdev = (pdf14_device*)dev; |
7011 | | |
7012 | 548k | if (group_color != NULL && |
7013 | 548k | !(group_color->group_color_mapping_procs == NULL && |
7014 | 548k | group_color->group_color_comp_index == NULL)) { |
7015 | 548k | set_dev_proc(pdev, get_color_mapping_procs, group_color->group_color_mapping_procs); |
7016 | 548k | set_dev_proc(pdev, get_color_comp_index, group_color->group_color_comp_index); |
7017 | 548k | pdev->color_info.polarity = group_color->polarity; |
7018 | 548k | pdev->color_info.num_components = group_color->num_components; |
7019 | 548k | pdev->blend_procs = group_color->blend_procs; |
7020 | 548k | pdev->ctx->additive = group_color->isadditive; |
7021 | 548k | pdev->pdf14_procs = group_color->unpack_procs; |
7022 | 548k | pdev->color_info.opmsupported = GX_CINFO_OPMSUPPORTED_UNKNOWN; |
7023 | 548k | pdev->color_info.depth = group_color->depth; |
7024 | 548k | pdev->color_info.max_color = group_color->max_color; |
7025 | 548k | pdev->color_info.max_gray = group_color->max_gray; |
7026 | 548k | memcpy(&(pdev->color_info.comp_bits), &(group_color->comp_bits), |
7027 | 548k | GX_DEVICE_COLOR_MAX_COMPONENTS); |
7028 | 548k | memcpy(&(pdev->color_info.comp_shift), &(group_color->comp_shift), |
7029 | 548k | GX_DEVICE_COLOR_MAX_COMPONENTS); |
7030 | 548k | if (group_color->icc_profile != NULL) { |
7031 | | /* make sure to decrement the device profile. If it was allocated |
7032 | | with the push then it will be freed. */ |
7033 | 548k | gsicc_adjust_profile_rc(pdev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE], |
7034 | 548k | -1, "pdf14_pop_color_model"); |
7035 | 548k | pdev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE] = |
7036 | 548k | group_color->icc_profile; |
7037 | | |
7038 | 548k | gsicc_adjust_profile_rc(pdev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE], |
7039 | 548k | 1, "pdf14_pop_color_model"); |
7040 | 548k | } |
7041 | 548k | } |
7042 | 548k | } |
7043 | | |
7044 | | static int |
7045 | | pdf14_end_transparency_group(gx_device* dev, gs_gstate* pgs) |
7046 | 548k | { |
7047 | 548k | pdf14_device* pdev = (pdf14_device*)dev; |
7048 | 548k | int code; |
7049 | 548k | cmm_profile_t* group_profile; |
7050 | 548k | gsicc_rendering_param_t render_cond; |
7051 | 548k | cmm_dev_profile_t* dev_profile; |
7052 | | |
7053 | 548k | code = dev_proc(dev, get_profile)(dev, &dev_profile); |
7054 | 548k | if (code < 0) |
7055 | 0 | return code; |
7056 | | |
7057 | 548k | gsicc_extract_profile(GS_UNKNOWN_TAG, dev_profile, &group_profile, |
7058 | 548k | &render_cond); |
7059 | 548k | if_debug0m('v', dev->memory, "[v]pdf14_end_transparency_group\n"); |
7060 | | |
7061 | 548k | code = pdf14_pop_transparency_group(pgs, pdev->ctx, pdev->blend_procs, |
7062 | 548k | pdev->color_info.num_components, group_profile, (gx_device*)pdev); |
7063 | 548k | if (code < 0) |
7064 | 0 | return code; |
7065 | | #ifdef DEBUG |
7066 | | pdf14_debug_mask_stack_state(pdev->ctx); |
7067 | | #endif |
7068 | | /* If this group is the base group, then restore the color model |
7069 | | of the device at this time. Note that during the actual device pop |
7070 | | we will need to use the profile of the buffer not the pdf14 device |
7071 | | as the source color space */ |
7072 | 548k | if (pdev->ctx->stack->group_popped) { |
7073 | 98.1k | pdf14_pop_color_model(dev, pdev->ctx->base_color); |
7074 | 450k | } else { |
7075 | 450k | pdf14_pop_color_model(dev, pdev->ctx->stack->group_color_info); |
7076 | 450k | } |
7077 | | |
7078 | 548k | return code; |
7079 | 548k | } |
7080 | | |
7081 | | static pdf14_group_color_t* |
7082 | | pdf14_push_color_model(gx_device *dev, gs_transparency_color_t group_color_type, |
7083 | | int64_t icc_hashcode, cmm_profile_t *iccprofile, |
7084 | | bool is_mask) |
7085 | 685k | { |
7086 | 685k | pdf14_device *pdevproto = NULL; |
7087 | 685k | pdf14_device *pdev = (pdf14_device *)dev; |
7088 | 685k | const pdf14_procs_t *new_14procs = NULL; |
7089 | 685k | pdf14_group_color_t *group_color; |
7090 | 685k | gx_color_polarity_t new_polarity; |
7091 | 685k | uchar new_num_comps; |
7092 | 685k | bool new_additive; |
7093 | 685k | gx_device_clist_reader *pcrdev; |
7094 | 685k | byte comp_bits[GX_DEVICE_COLOR_MAX_COMPONENTS]; |
7095 | 685k | byte comp_shift[GX_DEVICE_COLOR_MAX_COMPONENTS]; |
7096 | 685k | int k; |
7097 | 685k | bool has_tags = device_encodes_tags(dev); |
7098 | 685k | bool deep = pdev->ctx->deep; |
7099 | | |
7100 | 685k | if_debug0m('v', dev->memory, "[v]pdf14_push_color_model\n"); |
7101 | | |
7102 | 685k | group_color = gs_alloc_struct(dev->memory->stable_memory, |
7103 | 685k | pdf14_group_color_t, &st_pdf14_clr, |
7104 | 685k | "pdf14_push_color_model"); |
7105 | 685k | if (group_color == NULL) |
7106 | 0 | return NULL; |
7107 | | |
7108 | 685k | memset(group_color, 0, sizeof(pdf14_group_color_t)); |
7109 | | |
7110 | 685k | switch (group_color_type) { |
7111 | 0 | case GRAY_SCALE: |
7112 | 0 | new_polarity = GX_CINFO_POLARITY_ADDITIVE; |
7113 | 0 | new_num_comps = 1; |
7114 | 0 | pdevproto = (pdf14_device *)&gs_pdf14_Gray_device; |
7115 | 0 | new_additive = true; |
7116 | 0 | new_14procs = &gray_pdf14_procs; |
7117 | 0 | comp_bits[0] = 8<<deep; |
7118 | 0 | comp_shift[0] = 0; |
7119 | 0 | break; |
7120 | 0 | case DEVICE_RGB: |
7121 | 0 | case CIE_XYZ: |
7122 | 0 | new_polarity = GX_CINFO_POLARITY_ADDITIVE; |
7123 | 0 | new_num_comps = 3; |
7124 | 0 | pdevproto = (pdf14_device *)&gs_pdf14_RGB_device; |
7125 | 0 | new_additive = true; |
7126 | 0 | new_14procs = &rgb_pdf14_procs; |
7127 | 0 | for (k = 0; k < 3; k++) { |
7128 | 0 | comp_bits[k] = 8<<deep; |
7129 | 0 | comp_shift[k] = (2 - k) * (8<<deep); |
7130 | 0 | } |
7131 | 0 | break; |
7132 | 0 | case DEVICE_CMYK: |
7133 | 0 | new_polarity = GX_CINFO_POLARITY_SUBTRACTIVE; |
7134 | 0 | new_num_comps = 4; |
7135 | 0 | pdevproto = (pdf14_device *)&gs_pdf14_CMYK_device; |
7136 | 0 | new_additive = false; |
7137 | | /* This is needed due to the mismatched compressed encode decode |
7138 | | between the device procs and the pdf14 procs */ |
7139 | 0 | if (dev->color_info.num_components > 4){ |
7140 | 0 | new_14procs = &cmykspot_pdf14_procs; |
7141 | 0 | } else { |
7142 | 0 | new_14procs = &cmyk_pdf14_procs; |
7143 | 0 | } |
7144 | 0 | for (k = 0; k < 4; k++) { |
7145 | 0 | comp_bits[k] = 8<<deep; |
7146 | 0 | comp_shift[k] = (3 - k) * (8<<deep); |
7147 | 0 | } |
7148 | 0 | break; |
7149 | 685k | case ICC: |
7150 | | /* If we are coming from the clist reader, then we need to get |
7151 | | the ICC data now */ |
7152 | 685k | if (iccprofile == NULL && pdev->pclist_device != NULL) { |
7153 | | /* Get the serialized data from the clist. Not the whole |
7154 | | profile. */ |
7155 | 131k | pcrdev = (gx_device_clist_reader *)(pdev->pclist_device); |
7156 | 131k | iccprofile = gsicc_read_serial_icc((gx_device *) pcrdev, |
7157 | 131k | icc_hashcode); |
7158 | 131k | if (iccprofile == NULL) |
7159 | 0 | return NULL; |
7160 | | /* Keep a pointer to the clist device */ |
7161 | 131k | iccprofile->dev = (gx_device *) pcrdev; |
7162 | 554k | } else { |
7163 | | /* Go ahead and rc increment right now. This way when |
7164 | | we pop, we will make sure to decrement and avoid a |
7165 | | leak for the above profile that we just created. This |
7166 | | goes with the assignment to the device's profile. |
7167 | | Note that we still do the increment for the group_color |
7168 | | assignment below. */ |
7169 | 554k | if (iccprofile == NULL) |
7170 | 0 | return NULL; |
7171 | 554k | gsicc_adjust_profile_rc(iccprofile, 1, "pdf14_push_color_model"); |
7172 | 554k | } |
7173 | 685k | new_num_comps = iccprofile->num_comps; |
7174 | 685k | if (new_num_comps == 4) { |
7175 | 190k | new_additive = false; |
7176 | 190k | new_polarity = GX_CINFO_POLARITY_SUBTRACTIVE; |
7177 | 495k | } else { |
7178 | 495k | new_additive = true; |
7179 | 495k | new_polarity = GX_CINFO_POLARITY_ADDITIVE; |
7180 | 495k | } |
7181 | 685k | switch (new_num_comps) { |
7182 | 141k | case 1: |
7183 | 141k | if (pdev->sep_device && !is_mask) { |
7184 | 0 | pdevproto = (pdf14_device *)&gs_pdf14_Grayspot_device; |
7185 | 0 | new_14procs = &grayspot_pdf14_procs; |
7186 | 141k | } else { |
7187 | 141k | pdevproto = (pdf14_device *)&gs_pdf14_Gray_device; |
7188 | 141k | new_14procs = &gray_pdf14_procs; |
7189 | 141k | } |
7190 | 141k | comp_bits[0] = 8<<deep; |
7191 | 141k | comp_shift[0] = 0; |
7192 | 141k | break; |
7193 | 353k | case 3: |
7194 | 353k | if (pdev->sep_device) { |
7195 | 4.48k | pdevproto = (pdf14_device *)&gs_pdf14_RGBspot_device; |
7196 | 4.48k | new_14procs = &rgbspot_pdf14_procs; |
7197 | 4.48k | } |
7198 | 348k | else { |
7199 | 348k | pdevproto = (pdf14_device *)&gs_pdf14_RGB_device; |
7200 | 348k | new_14procs = &rgb_pdf14_procs; |
7201 | 348k | } |
7202 | 1.41M | for (k = 0; k < 3; k++) { |
7203 | 1.05M | comp_bits[k] = 8<<deep; |
7204 | 1.05M | comp_shift[k] = (2 - k) * (8<<deep); |
7205 | 1.05M | } |
7206 | 353k | break; |
7207 | 190k | case 4: |
7208 | 190k | if (pdev->sep_device) { |
7209 | 3.31k | pdevproto = (pdf14_device *)&gs_pdf14_CMYKspot_device; |
7210 | 3.31k | new_14procs = &cmykspot_pdf14_procs; |
7211 | 187k | } else { |
7212 | 187k | pdevproto = (pdf14_device *)&gs_pdf14_CMYK_device; |
7213 | 187k | new_14procs = &cmyk_pdf14_procs; |
7214 | 187k | } |
7215 | 953k | for (k = 0; k < 4; k++) { |
7216 | 763k | comp_bits[k] = 8<<deep; |
7217 | 763k | comp_shift[k] = (3 - k) * (8<<deep); |
7218 | 763k | } |
7219 | 190k | break; |
7220 | 0 | default: |
7221 | 0 | return NULL; |
7222 | 0 | break; |
7223 | 685k | } |
7224 | 685k | break; |
7225 | 685k | default: |
7226 | 0 | return NULL; |
7227 | 0 | break; |
7228 | 685k | } |
7229 | | |
7230 | 685k | if (group_color_type == ICC && iccprofile != NULL) { |
7231 | 685k | group_color->icc_profile = iccprofile; |
7232 | 685k | gsicc_adjust_profile_rc(iccprofile, 1, "pdf14_push_color_model"); |
7233 | 685k | } |
7234 | | |
7235 | | /* If we are a sep device and this is not a softmask, ensure we maintain the |
7236 | | spot colorants and know how to index into them */ |
7237 | 685k | if (pdev->sep_device && !is_mask) { |
7238 | 7.79k | int num_spots = dev->color_info.num_components - |
7239 | 7.79k | dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE]->num_comps; |
7240 | | |
7241 | 7.79k | if (num_spots > 0) { |
7242 | 12 | new_num_comps += num_spots; |
7243 | 60 | for (k = 0; k < new_num_comps; k++) { |
7244 | 48 | comp_bits[k] = 8<<deep; |
7245 | 48 | comp_shift[k] = (new_num_comps - k - 1) * (8<<deep); |
7246 | 48 | } |
7247 | 12 | } |
7248 | 7.79k | } |
7249 | | |
7250 | | /* Set device values now and store settings in group_color. Then they |
7251 | | are available when we pop the previous group */ |
7252 | 685k | if_debug2m('v', pdev->memory, |
7253 | 685k | "[v]pdf14_push_color_model, num_components_old = %d num_components_new = %d\n", |
7254 | 685k | pdev->color_info.num_components,new_num_comps); |
7255 | 685k | { |
7256 | 685k | gx_device local_device; |
7257 | | |
7258 | 685k | local_device.initialize_device_procs = pdevproto->initialize_device_procs; |
7259 | 685k | local_device.initialize_device_procs((gx_device *)&local_device); |
7260 | 685k | set_dev_proc(pdev, get_color_mapping_procs, local_device.procs.get_color_mapping_procs); |
7261 | 685k | set_dev_proc(pdev, get_color_comp_index, local_device.procs.get_color_comp_index); |
7262 | 685k | } |
7263 | 685k | group_color->blend_procs = pdev->blend_procs = pdevproto->blend_procs; |
7264 | 685k | group_color->polarity = pdev->color_info.polarity = new_polarity; |
7265 | 685k | group_color->num_components = pdev->color_info.num_components = new_num_comps; |
7266 | 685k | group_color->isadditive = pdev->ctx->additive = new_additive; |
7267 | 685k | pdev->color_info.opmsupported = GX_CINFO_OPMSUPPORTED_UNKNOWN; |
7268 | 685k | group_color->unpack_procs = pdev->pdf14_procs = new_14procs; |
7269 | 685k | pdev->color_info.depth = new_num_comps * (8<<deep); |
7270 | 685k | memset(&(pdev->color_info.comp_bits), 0, GX_DEVICE_COLOR_MAX_COMPONENTS); |
7271 | 685k | memset(&(pdev->color_info.comp_shift), 0, GX_DEVICE_COLOR_MAX_COMPONENTS); |
7272 | 685k | memcpy(&(pdev->color_info.comp_bits), comp_bits, new_num_comps); |
7273 | 685k | memcpy(&(pdev->color_info.comp_shift), comp_shift, new_num_comps); |
7274 | 685k | if (has_tags) { |
7275 | 0 | pdev->color_info.comp_shift[pdev->color_info.num_components] = pdev->color_info.depth; |
7276 | 0 | pdev->color_info.depth += 8; |
7277 | 0 | } |
7278 | 685k | group_color->max_color = pdev->color_info.max_color = deep ? 65535 : 255; |
7279 | 685k | group_color->max_gray = pdev->color_info.max_gray = deep ? 65535 : 255; |
7280 | 685k | group_color->depth = pdev->color_info.depth; |
7281 | 685k | group_color->decode = dev_proc(pdev, decode_color); |
7282 | 685k | group_color->encode = dev_proc(pdev, encode_color); |
7283 | 685k | group_color->group_color_mapping_procs = dev_proc(pdev, get_color_mapping_procs); |
7284 | 685k | group_color->group_color_comp_index = dev_proc(pdev, get_color_comp_index); |
7285 | 685k | memcpy(&(group_color->comp_bits), &(pdev->color_info.comp_bits), |
7286 | 685k | GX_DEVICE_COLOR_MAX_COMPONENTS); |
7287 | 685k | memcpy(&(group_color->comp_shift), &(pdev->color_info.comp_shift), |
7288 | 685k | GX_DEVICE_COLOR_MAX_COMPONENTS); |
7289 | 685k | group_color->get_cmap_procs = pdf14_get_cmap_procs; |
7290 | | |
7291 | | /* If the CS was ICC based, we need to update the device ICC profile |
7292 | | in the ICC manager, since that is the profile that is used for the |
7293 | | PDF14 device */ |
7294 | 685k | if (group_color_type == ICC && iccprofile != NULL) { |
7295 | | /* iccprofile was incremented above if we had not just created it. |
7296 | | When we do the pop we will decrement and if we just created it, it |
7297 | | will be destroyed */ |
7298 | 685k | gsicc_adjust_profile_rc(dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE], -1, "pdf14_push_color_model"); |
7299 | 685k | dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE] = iccprofile; |
7300 | 685k | } |
7301 | 685k | return group_color; |
7302 | 685k | } |
7303 | | |
7304 | | static int |
7305 | | pdf14_clist_push_color_model(gx_device *dev, gx_device* cdev, gs_gstate *pgs, |
7306 | | const gs_pdf14trans_t *pdf14pct, gs_memory_t* mem, |
7307 | | bool is_mask) |
7308 | 19.6k | { |
7309 | 19.6k | pdf14_device* pdev = (pdf14_device*)dev; |
7310 | 19.6k | pdf14_group_color_t* new_group_color; |
7311 | 19.6k | gsicc_rendering_param_t render_cond; |
7312 | 19.6k | cmm_dev_profile_t* dev_profile; |
7313 | 19.6k | pdf14_device* pdevproto; |
7314 | 19.6k | gx_device_clist_writer* cldev = (gx_device_clist_writer*)pdev->pclist_device; |
7315 | 19.6k | const pdf14_procs_t* new_14procs; |
7316 | 19.6k | bool update_color_info; |
7317 | 19.6k | gx_color_polarity_t new_polarity; |
7318 | 19.6k | int new_num_comps; |
7319 | 19.6k | bool new_additive = false; |
7320 | 19.6k | byte new_depth; |
7321 | 19.6k | byte comp_bits[GX_DEVICE_COLOR_MAX_COMPONENTS]; |
7322 | 19.6k | byte comp_shift[GX_DEVICE_COLOR_MAX_COMPONENTS]; |
7323 | 19.6k | int k; |
7324 | 19.6k | bool has_tags = device_encodes_tags(dev); |
7325 | 19.6k | bool deep = device_is_deep(dev); |
7326 | 19.6k | gs_transparency_color_t group_color_type = pdf14pct->params.group_color_type; |
7327 | 19.6k | cmm_profile_t *new_profile = pdf14pct->params.iccprofile; |
7328 | 19.6k | cmm_profile_t *old_profile = NULL; |
7329 | | |
7330 | 19.6k | dev_proc(dev, get_profile)(dev, &dev_profile); |
7331 | 19.6k | gsicc_extract_profile(GS_UNKNOWN_TAG, dev_profile, &old_profile, |
7332 | 19.6k | &render_cond); |
7333 | 19.6k | if_debug0m('v', dev->memory, "[v]pdf14_clist_push_color_model\n"); |
7334 | | |
7335 | | /* Allocate a new one */ |
7336 | 19.6k | new_group_color = gs_alloc_struct(dev->memory->stable_memory, pdf14_group_color_t, |
7337 | 19.6k | &st_pdf14_clr, "pdf14_clist_push_color_model"); |
7338 | | |
7339 | 19.6k | if (new_group_color == NULL) |
7340 | 1 | return_error(gs_error_VMerror); |
7341 | | |
7342 | | /* Link to old one */ |
7343 | 19.6k | new_group_color->previous = pdev->color_model_stack; |
7344 | | |
7345 | | /* Reassign new one to dev */ |
7346 | 19.6k | pdev->color_model_stack = new_group_color; |
7347 | | |
7348 | | /* Initialize with values */ |
7349 | 19.6k | new_group_color->get_cmap_procs = pgs->get_cmap_procs; |
7350 | 19.6k | new_group_color->group_color_mapping_procs = |
7351 | 19.6k | dev_proc(pdev, get_color_mapping_procs); |
7352 | 19.6k | new_group_color->group_color_comp_index = |
7353 | 19.6k | dev_proc(pdev, get_color_comp_index); |
7354 | 19.6k | new_group_color->blend_procs = pdev->blend_procs; |
7355 | 19.6k | new_group_color->polarity = pdev->color_info.polarity; |
7356 | 19.6k | new_group_color->num_components = pdev->color_info.num_components; |
7357 | 19.6k | new_group_color->unpack_procs = pdev->pdf14_procs; |
7358 | 19.6k | new_group_color->depth = pdev->color_info.depth; |
7359 | 19.6k | new_group_color->max_color = pdev->color_info.max_color; |
7360 | 19.6k | new_group_color->max_gray = pdev->color_info.max_gray; |
7361 | 19.6k | new_group_color->decode = dev_proc(pdev, decode_color); |
7362 | 19.6k | new_group_color->encode = dev_proc(pdev, encode_color); |
7363 | 19.6k | memcpy(&(new_group_color->comp_bits), &(pdev->color_info.comp_bits), |
7364 | 19.6k | GX_DEVICE_COLOR_MAX_COMPONENTS); |
7365 | 19.6k | memcpy(&(new_group_color->comp_shift), &(pdev->color_info.comp_shift), |
7366 | 19.6k | GX_DEVICE_COLOR_MAX_COMPONENTS); |
7367 | | |
7368 | 19.6k | if (new_profile == NULL) |
7369 | 11.4k | new_group_color->icc_profile = NULL; |
7370 | | |
7371 | | /* isadditive is only used in ctx */ |
7372 | 19.6k | if (pdev->ctx) { |
7373 | 0 | new_group_color->isadditive = pdev->ctx->additive; |
7374 | 0 | } |
7375 | | |
7376 | 19.6k | memset(comp_bits, 0, GX_DEVICE_COLOR_MAX_COMPONENTS); |
7377 | 19.6k | memset(comp_shift, 0, GX_DEVICE_COLOR_MAX_COMPONENTS); |
7378 | | |
7379 | 19.6k | if (group_color_type == ICC && new_profile == NULL) |
7380 | 0 | return gs_throw(gs_error_undefinedresult, "Missing ICC data"); |
7381 | 19.6k | if_debug0m('v', cldev->memory, "[v]pdf14_clist_push_color_model\n"); |
7382 | | /* Check if we need to alter the device procs at this stage. Many of the procs |
7383 | | are based upon the color space of the device. We want to remain in the |
7384 | | color space defined by the color space of the soft mask or transparency |
7385 | | group as opposed to the device color space. Later, when we pop the softmask |
7386 | | we will collapse it to a single band and then compose with it to the device |
7387 | | color space (or the parent layer space). In the case where we pop an |
7388 | | isolated transparency group, we will do the blending in the proper color |
7389 | | space and then transform the data when we pop the group. Remember that only |
7390 | | isolated groups can have color spaces that are different than their parent. */ |
7391 | 19.6k | update_color_info = false; |
7392 | 19.6k | switch (group_color_type) { |
7393 | 0 | case GRAY_SCALE: |
7394 | 0 | if (pdev->color_info.num_components != 1) { |
7395 | 0 | update_color_info = true; |
7396 | 0 | new_polarity = GX_CINFO_POLARITY_ADDITIVE; |
7397 | 0 | new_num_comps = 1; |
7398 | 0 | pdevproto = (pdf14_device*)&gs_pdf14_Gray_device; |
7399 | 0 | new_additive = true; |
7400 | 0 | new_14procs = &gray_pdf14_procs; |
7401 | 0 | new_depth = 8 << deep; |
7402 | 0 | comp_bits[0] = 8 << deep; |
7403 | 0 | comp_shift[0] = 0; |
7404 | 0 | } |
7405 | 0 | break; |
7406 | 0 | case DEVICE_RGB: |
7407 | 0 | case CIE_XYZ: |
7408 | 0 | if (pdev->color_info.num_components != 3) { |
7409 | 0 | update_color_info = true; |
7410 | 0 | new_polarity = GX_CINFO_POLARITY_ADDITIVE; |
7411 | 0 | new_num_comps = 3; |
7412 | 0 | pdevproto = (pdf14_device*)&gs_pdf14_RGB_device; |
7413 | 0 | new_additive = true; |
7414 | 0 | new_14procs = &rgb_pdf14_procs; |
7415 | 0 | new_depth = 24 << deep; |
7416 | 0 | for (k = 0; k < 3; k++) { |
7417 | 0 | comp_bits[k] = 8 << deep; |
7418 | 0 | comp_shift[k] = (2 - k) * (8 << deep); |
7419 | 0 | } |
7420 | 0 | } |
7421 | 0 | break; |
7422 | 0 | case DEVICE_CMYK: |
7423 | 0 | if (pdev->color_info.num_components != 4) { |
7424 | 0 | update_color_info = true; |
7425 | 0 | new_polarity = GX_CINFO_POLARITY_SUBTRACTIVE; |
7426 | 0 | new_num_comps = 4; |
7427 | 0 | pdevproto = (pdf14_device*)&gs_pdf14_CMYK_device; |
7428 | 0 | new_additive = false; |
7429 | | /* This is needed due to the mismatched compressed encode decode |
7430 | | between the device procs and the pdf14 procs */ |
7431 | 0 | if (dev->color_info.num_components > 4) { |
7432 | 0 | new_14procs = &cmykspot_pdf14_procs; |
7433 | 0 | } |
7434 | 0 | else { |
7435 | 0 | new_14procs = &cmyk_pdf14_procs; |
7436 | 0 | } |
7437 | 0 | new_depth = 32 << deep; |
7438 | 0 | for (k = 0; k < 4; k++) { |
7439 | 0 | comp_bits[k] = 8 << deep; |
7440 | 0 | comp_shift[k] = (3 - k) * (8 << deep); |
7441 | 0 | } |
7442 | 0 | } |
7443 | 0 | break; |
7444 | 8.25k | case ICC: |
7445 | | /* Check if the profile is different. */ |
7446 | 8.25k | if (!gsicc_profiles_equal(old_profile, new_profile)) { |
7447 | 7.60k | update_color_info = true; |
7448 | 7.60k | new_num_comps = new_profile->num_comps; |
7449 | 7.60k | new_depth = new_profile->num_comps * (8 << deep); |
7450 | 7.60k | switch (new_num_comps) { |
7451 | 7.14k | case 1: |
7452 | 7.14k | if (pdev->sep_device && !is_mask) { |
7453 | 0 | pdevproto = (pdf14_device*)&gs_pdf14_Grayspot_device; |
7454 | 0 | new_14procs = &grayspot_pdf14_procs; |
7455 | 0 | } |
7456 | 7.14k | else { |
7457 | 7.14k | pdevproto = (pdf14_device*)&gs_pdf14_Gray_device; |
7458 | 7.14k | new_14procs = &gray_pdf14_procs; |
7459 | 7.14k | } |
7460 | 7.14k | new_polarity = GX_CINFO_POLARITY_ADDITIVE; |
7461 | 7.14k | new_additive = true; |
7462 | 7.14k | comp_bits[0] = 8 << deep; |
7463 | 7.14k | comp_shift[0] = 0; |
7464 | 7.14k | break; |
7465 | 323 | case 3: |
7466 | 323 | if (pdev->sep_device) { |
7467 | 179 | pdevproto = (pdf14_device*)&gs_pdf14_RGBspot_device; |
7468 | 179 | new_14procs = &rgbspot_pdf14_procs; |
7469 | 179 | } |
7470 | 144 | else { |
7471 | 144 | pdevproto = (pdf14_device*)&gs_pdf14_RGB_device; |
7472 | 144 | new_14procs = &rgb_pdf14_procs; |
7473 | 144 | } |
7474 | 323 | new_polarity = GX_CINFO_POLARITY_ADDITIVE; |
7475 | 323 | new_additive = true; |
7476 | 1.29k | for (k = 0; k < 3; k++) { |
7477 | 969 | comp_bits[k] = 8 << deep; |
7478 | 969 | comp_shift[k] = (2 - k) * (8 << deep); |
7479 | 969 | } |
7480 | 323 | break; |
7481 | 137 | case 4: |
7482 | 137 | if (pdev->sep_device) { |
7483 | 6 | pdevproto = (pdf14_device*)&gs_pdf14_CMYKspot_device; |
7484 | 6 | new_14procs = &cmykspot_pdf14_procs; |
7485 | 6 | } |
7486 | 131 | else { |
7487 | 131 | pdevproto = (pdf14_device*)&gs_pdf14_CMYK_device; |
7488 | 131 | new_14procs = &cmyk_pdf14_procs; |
7489 | 131 | } |
7490 | 137 | new_polarity = GX_CINFO_POLARITY_SUBTRACTIVE; |
7491 | 137 | new_additive = false; |
7492 | 685 | for (k = 0; k < 4; k++) { |
7493 | 548 | comp_bits[k] = 8 << deep; |
7494 | 548 | comp_shift[k] = (3 - k) * (8 << deep); |
7495 | 548 | } |
7496 | 137 | break; |
7497 | 0 | default: |
7498 | 0 | return gs_throw(gs_error_undefinedresult, |
7499 | 7.60k | "ICC Number of colorants illegal"); |
7500 | 7.60k | } |
7501 | 7.60k | } |
7502 | 8.25k | break; |
7503 | 11.4k | case UNKNOWN: |
7504 | 11.4k | return 0; |
7505 | 0 | break; |
7506 | 0 | default: |
7507 | 0 | return_error(gs_error_rangecheck); |
7508 | 0 | break; |
7509 | 19.6k | } |
7510 | | |
7511 | 8.25k | if (!update_color_info) { |
7512 | | /* Profile not updated */ |
7513 | 650 | new_group_color->icc_profile = NULL; |
7514 | 650 | if_debug0m('v', pdev->memory, "[v]procs not updated\n"); |
7515 | 650 | return 0; |
7516 | 650 | } |
7517 | | |
7518 | 7.60k | if (pdev->sep_device && !is_mask) { |
7519 | 185 | int num_spots; |
7520 | | |
7521 | 185 | if (old_profile == NULL) |
7522 | 0 | return_error(gs_error_undefined); |
7523 | | |
7524 | 185 | num_spots = pdev->color_info.num_components - old_profile->num_comps; |
7525 | | |
7526 | 185 | if (num_spots > 0) { |
7527 | 12 | new_num_comps += num_spots; |
7528 | 60 | for (k = 0; k < new_num_comps; k++) { |
7529 | 48 | comp_bits[k] = 8 << deep; |
7530 | 48 | comp_shift[k] = (new_num_comps - k - 1) * (8 << deep); |
7531 | 48 | } |
7532 | 12 | new_depth = (8 << deep) * new_num_comps; |
7533 | 12 | } |
7534 | 185 | } |
7535 | 7.60k | if (has_tags) { |
7536 | 0 | new_depth += 8; |
7537 | 0 | } |
7538 | 7.60k | if_debug2m('v', pdev->memory, |
7539 | 7.60k | "[v]pdf14_clist_push_color_model, num_components_old = %d num_components_new = %d\n", |
7540 | 7.60k | pdev->color_info.num_components, new_num_comps); |
7541 | | /* Set new information in the device */ |
7542 | 7.60k | { |
7543 | 7.60k | gx_device local_device; |
7544 | | |
7545 | 7.60k | local_device.initialize_device_procs = pdevproto->initialize_device_procs; |
7546 | 7.60k | local_device.initialize_device_procs((gx_device *)&local_device); |
7547 | 7.60k | set_dev_proc(pdev, get_color_mapping_procs, local_device.procs.get_color_mapping_procs); |
7548 | 7.60k | set_dev_proc(pdev, get_color_comp_index, local_device.procs.get_color_comp_index); |
7549 | 7.60k | } |
7550 | 7.60k | pdev->blend_procs = pdevproto->blend_procs; |
7551 | 7.60k | pdev->color_info.polarity = new_polarity; |
7552 | 7.60k | pdev->color_info.num_components = new_num_comps; |
7553 | 7.60k | pdev->color_info.max_color = deep ? 65535 : 255; |
7554 | 7.60k | pdev->color_info.max_gray = deep ? 65535 : 255; |
7555 | 7.60k | pdev->pdf14_procs = new_14procs; |
7556 | 7.60k | pdev->color_info.depth = new_depth; |
7557 | 7.60k | memset(&(pdev->color_info.comp_bits), 0, GX_DEVICE_COLOR_MAX_COMPONENTS); |
7558 | 7.60k | memset(&(pdev->color_info.comp_shift), 0, GX_DEVICE_COLOR_MAX_COMPONENTS); |
7559 | 7.60k | memcpy(&(pdev->color_info.comp_bits), comp_bits, new_num_comps); |
7560 | 7.60k | memcpy(&(pdev->color_info.comp_shift), comp_shift, new_num_comps); |
7561 | 7.60k | pdev->color_info.comp_shift[new_num_comps] = new_depth - 8; /* in case we has_tags is set */ |
7562 | 7.60k | pdev->color_info.opmsupported = GX_CINFO_OPMSUPPORTED_UNKNOWN; |
7563 | | |
7564 | | /* If we have a compressed color codec, and we are doing a soft mask |
7565 | | push operation then go ahead and update the color encode and |
7566 | | decode for the pdf14 device to not used compressed color |
7567 | | encoding while in the soft mask. We will just check for gray |
7568 | | and compressed. Note that we probably don't have_tags if we |
7569 | | are dealing with compressed color. But is is possible so |
7570 | | we add it in to catch for future use. */ |
7571 | 7.60k | cldev->clist_color_info.depth = pdev->color_info.depth; |
7572 | 7.60k | cldev->clist_color_info.polarity = pdev->color_info.polarity; |
7573 | 7.60k | cldev->clist_color_info.opmsupported = GX_CINFO_OPMSUPPORTED_UNKNOWN; |
7574 | 7.60k | cldev->clist_color_info.num_components = pdev->color_info.num_components; |
7575 | 7.60k | cldev->clist_color_info.max_color = pdev->color_info.max_color; |
7576 | 7.60k | cldev->clist_color_info.max_gray = pdev->color_info.max_gray; |
7577 | | /* For the ICC profiles, we want to update the ICC profile for the |
7578 | | device. We store the original in group_color. |
7579 | | That will be stored in the clist and restored during the reading phase. */ |
7580 | 7.60k | if (group_color_type == ICC) { |
7581 | 7.60k | gsicc_adjust_profile_rc(new_profile, 1, "pdf14_clist_push_color_model"); |
7582 | 7.60k | new_group_color->icc_profile = |
7583 | 7.60k | dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE]; |
7584 | 7.60k | dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE] = new_profile; |
7585 | 7.60k | } |
7586 | 7.60k | if (pdev->ctx) { |
7587 | 0 | pdev->ctx->additive = new_additive; |
7588 | 0 | } |
7589 | 7.60k | return 1; /* Lets us detect that we did do an update */ |
7590 | 7.60k | } |
7591 | | |
7592 | | static int |
7593 | | pdf14_clist_pop_color_model(gx_device *dev, gs_gstate *pgs) |
7594 | 19.6k | { |
7595 | | |
7596 | 19.6k | pdf14_device *pdev = (pdf14_device *)dev; |
7597 | 19.6k | pdf14_group_color_t *group_color = pdev->color_model_stack; |
7598 | 19.6k | gx_device_clist_writer * cldev = (gx_device_clist_writer *)pdev->pclist_device; |
7599 | | |
7600 | 19.6k | if (group_color == NULL) |
7601 | 0 | return_error(gs_error_Fatal); /* Unmatched group pop */ |
7602 | | |
7603 | 19.6k | if_debug0m('v', pdev->memory, "[v]pdf14_clist_pop_color_model\n"); |
7604 | | /* The color procs are always pushed. Simply restore them. */ |
7605 | 19.6k | if (group_color->group_color_mapping_procs == NULL && |
7606 | 19.6k | group_color->group_color_comp_index == NULL) { |
7607 | 0 | if_debug0m('v', dev->memory, "[v]pdf14_clist_pop_color_model ERROR \n"); |
7608 | 19.6k | } else { |
7609 | 19.6k | if_debug2m('v', pdev->memory, |
7610 | 19.6k | "[v]pdf14_clist_pop_color_model, num_components_old = %d num_components_new = %d\n", |
7611 | 19.6k | pdev->color_info.num_components,group_color->num_components); |
7612 | 19.6k | pgs->get_cmap_procs = group_color->get_cmap_procs; |
7613 | 19.6k | gx_set_cmap_procs(pgs, dev); |
7614 | 19.6k | set_dev_proc(pdev, get_color_mapping_procs, group_color->group_color_mapping_procs); |
7615 | 19.6k | set_dev_proc(pdev, get_color_comp_index, group_color->group_color_comp_index); |
7616 | 19.6k | pdev->color_info.polarity = group_color->polarity; |
7617 | 19.6k | pdev->color_info.opmsupported = GX_CINFO_OPMSUPPORTED_UNKNOWN; |
7618 | 19.6k | pdev->color_info.depth = group_color->depth; |
7619 | 19.6k | pdev->color_info.num_components = group_color->num_components; |
7620 | 19.6k | pdev->blend_procs = group_color->blend_procs; |
7621 | 19.6k | pdev->pdf14_procs = group_color->unpack_procs; |
7622 | 19.6k | pdev->color_info.max_color = group_color->max_color; |
7623 | 19.6k | pdev->color_info.max_gray = group_color->max_gray; |
7624 | 19.6k | set_dev_proc(pdev, encode_color, group_color->encode); |
7625 | 19.6k | set_dev_proc(pdev, decode_color, group_color->decode); |
7626 | 19.6k | memcpy(&(pdev->color_info.comp_bits),&(group_color->comp_bits), |
7627 | 19.6k | GX_DEVICE_COLOR_MAX_COMPONENTS); |
7628 | 19.6k | memcpy(&(pdev->color_info.comp_shift),&(group_color->comp_shift), |
7629 | 19.6k | GX_DEVICE_COLOR_MAX_COMPONENTS); |
7630 | | |
7631 | | /* clist writer fill rect has no access to gs_gstate */ |
7632 | | /* and it forwards the target device. this information */ |
7633 | | /* is passed along to use in this case */ |
7634 | 19.6k | cldev->clist_color_info.depth = pdev->color_info.depth; |
7635 | 19.6k | cldev->clist_color_info.polarity = pdev->color_info.polarity; |
7636 | 19.6k | cldev->clist_color_info.opmsupported = GX_CINFO_OPMSUPPORTED_UNKNOWN; |
7637 | 19.6k | cldev->clist_color_info.num_components = pdev->color_info.num_components; |
7638 | 19.6k | cldev->clist_color_info.max_color = pdev->color_info.max_color; |
7639 | 19.6k | cldev->clist_color_info.max_gray = pdev->color_info.max_gray; |
7640 | 19.6k | memcpy(&(cldev->clist_color_info.comp_bits),&(group_color->comp_bits), |
7641 | 19.6k | GX_DEVICE_COLOR_MAX_COMPONENTS); |
7642 | 19.6k | memcpy(&(cldev->clist_color_info.comp_shift),&(group_color->comp_shift), |
7643 | 19.6k | GX_DEVICE_COLOR_MAX_COMPONENTS); |
7644 | 19.6k | if (pdev->ctx){ |
7645 | 0 | pdev->ctx->additive = group_color->isadditive; |
7646 | 0 | } |
7647 | | /* The device profile must be restored. */ |
7648 | 19.6k | if (group_color->icc_profile != NULL) { |
7649 | 7.60k | gsicc_adjust_profile_rc(dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE], |
7650 | 7.60k | -1, "pdf14_clist_pop_color_model"); |
7651 | 7.60k | dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE] = group_color->icc_profile; |
7652 | 7.60k | } |
7653 | 19.6k | if_debug0m('v', dev->memory, "[v]procs updated\n"); |
7654 | 19.6k | } |
7655 | 19.6k | pdf14_pop_group_color(dev, pgs); |
7656 | 19.6k | return 0; |
7657 | 19.6k | } |
7658 | | |
7659 | | /* When a transparency group is popped, the parent colorprocs must be restored. |
7660 | | Since the color mapping procs are all based upon the device, we must have a |
7661 | | nested list based upon the transparency group color space. This nesting |
7662 | | must be outside the nested ctx structures to allow the nesting for the |
7663 | | clist writer */ |
7664 | | static void |
7665 | | pdf14_pop_group_color(gx_device *dev, const gs_gstate *pgs) |
7666 | 19.6k | { |
7667 | 19.6k | pdf14_device *pdev = (pdf14_device *)dev; |
7668 | 19.6k | pdf14_group_color_t *group_color = pdev->color_model_stack; |
7669 | | |
7670 | 19.6k | if_debug0m('v', dev->memory, "[v]pdf14_pop_group_color\n"); |
7671 | | |
7672 | | /* Update the link */ |
7673 | 19.6k | pdev->color_model_stack = group_color->previous; |
7674 | | |
7675 | | /* Free the old one */ |
7676 | 19.6k | gs_free_object(dev->memory->stable_memory, group_color, "pdf14_clr_free"); |
7677 | 19.6k | } |
7678 | | |
7679 | | static int |
7680 | | pdf14_begin_transparency_mask(gx_device *dev, |
7681 | | const gx_transparency_mask_params_t *ptmp, |
7682 | | const gs_rect *pbbox, |
7683 | | gs_gstate *pgs, gs_memory_t *mem) |
7684 | 1.22M | { |
7685 | 1.22M | pdf14_device *pdev = (pdf14_device *)dev; |
7686 | 1.22M | uint16_t bg_alpha = 0; /* By default the background alpha (area outside mask) is zero */ |
7687 | 1.22M | byte *transfer_fn; |
7688 | 1.22M | gs_int_rect rect; |
7689 | 1.22M | int code; |
7690 | 1.22M | int group_color_numcomps; |
7691 | 1.22M | gs_transparency_color_t group_color_type; |
7692 | 1.22M | bool deep = device_is_deep(dev); |
7693 | 1.22M | pdf14_group_color_t* group_color_info; |
7694 | | |
7695 | 1.22M | code = pdf14_initialize_ctx(dev, dev->color_info.num_components, |
7696 | 1.22M | dev->color_info.polarity != GX_CINFO_POLARITY_SUBTRACTIVE, (const gs_gstate*)pgs); |
7697 | 1.22M | if (code < 0) |
7698 | 0 | return code; |
7699 | | |
7700 | 1.22M | if (ptmp->subtype == TRANSPARENCY_MASK_None) { |
7701 | 1.08M | pdf14_ctx *ctx = pdev->ctx; |
7702 | | |
7703 | | /* free up any maskbuf on the current tos */ |
7704 | 1.08M | if (ctx->mask_stack) { |
7705 | 187k | if (ctx->mask_stack->rc_mask->mask_buf != NULL ) { |
7706 | 95.9k | pdf14_buf_free(ctx->mask_stack->rc_mask->mask_buf); |
7707 | 95.9k | ctx->mask_stack->rc_mask->mask_buf = NULL; |
7708 | 95.9k | } |
7709 | 187k | } |
7710 | 1.08M | return 0; |
7711 | 1.08M | } |
7712 | 137k | transfer_fn = (byte *)gs_alloc_bytes(pdev->ctx->memory, (256+deep)<<deep, |
7713 | 137k | "pdf14_begin_transparency_mask"); |
7714 | 137k | if (transfer_fn == NULL) |
7715 | 0 | return_error(gs_error_VMerror); |
7716 | 137k | code = compute_group_device_int_rect(pdev, &rect, pbbox, pgs); |
7717 | 137k | if (code < 0) |
7718 | 0 | return code; |
7719 | | /* If we have background components the background alpha may be nonzero */ |
7720 | 137k | if (ptmp->Background_components) |
7721 | 32.8k | bg_alpha = (int)(65535 * ptmp->GrayBackground + 0.5); |
7722 | 137k | if_debug1m('v', dev->memory, |
7723 | 137k | "pdf14_begin_transparency_mask, bg_alpha = %d\n", bg_alpha); |
7724 | 137k | memcpy(transfer_fn, ptmp->transfer_fn, (256+deep)<<deep); |
7725 | | /* If the group color is unknown, then we must use the previous group color |
7726 | | space or the device process color space */ |
7727 | 137k | if (ptmp->group_color_type == UNKNOWN){ |
7728 | 0 | if (pdev->ctx->stack){ |
7729 | | /* Use previous group color space */ |
7730 | 0 | group_color_numcomps = pdev->ctx->stack->n_chan-1; /* Remove alpha */ |
7731 | 0 | } else { |
7732 | | /* Use process color space */ |
7733 | 0 | group_color_numcomps = pdev->color_info.num_components; |
7734 | 0 | } |
7735 | 0 | switch (group_color_numcomps) { |
7736 | 0 | case 1: |
7737 | 0 | group_color_type = GRAY_SCALE; |
7738 | 0 | break; |
7739 | 0 | case 3: |
7740 | 0 | group_color_type = DEVICE_RGB; |
7741 | 0 | break; |
7742 | 0 | case 4: |
7743 | 0 | group_color_type = DEVICE_CMYK; |
7744 | 0 | break; |
7745 | 0 | default: |
7746 | | /* We can end up here if we are in a deviceN color space and |
7747 | | we have a sep output device */ |
7748 | 0 | group_color_type = DEVICEN; |
7749 | 0 | break; |
7750 | 0 | } |
7751 | 137k | } else { |
7752 | 137k | group_color_type = ptmp->group_color_type; |
7753 | 137k | group_color_numcomps = ptmp->group_color_numcomps; |
7754 | 137k | } |
7755 | | |
7756 | 137k | group_color_info = pdf14_push_color_model(dev, group_color_type, ptmp->icc_hashcode, |
7757 | 137k | ptmp->iccprofile, true); |
7758 | 137k | if (group_color_info == NULL) |
7759 | 0 | return gs_error_VMerror; |
7760 | | |
7761 | | /* Note that the soft mask always follows the group color requirements even |
7762 | | when we have a separable device */ |
7763 | 137k | code = pdf14_push_transparency_mask(pdev->ctx, &rect, bg_alpha, |
7764 | 137k | transfer_fn, ptmp->function_is_identity, |
7765 | 137k | ptmp->idle, ptmp->replacing, |
7766 | 137k | ptmp->mask_id, ptmp->subtype, |
7767 | 137k | group_color_numcomps, |
7768 | 137k | ptmp->Background_components, |
7769 | 137k | ptmp->Background, |
7770 | 137k | ptmp->Matte_components, |
7771 | 137k | ptmp->Matte, |
7772 | 137k | ptmp->GrayBackground, |
7773 | 137k | group_color_info); |
7774 | 137k | if (code < 0) |
7775 | 0 | return code; |
7776 | | |
7777 | 137k | return 0; |
7778 | 137k | } |
7779 | | |
7780 | | static int |
7781 | | pdf14_end_transparency_mask(gx_device *dev, gs_gstate *pgs) |
7782 | 137k | { |
7783 | 137k | pdf14_device *pdev = (pdf14_device *)dev; |
7784 | 137k | pdf14_group_color_t *group_color; |
7785 | 137k | int ok; |
7786 | | |
7787 | 137k | if_debug0m('v', dev->memory, "pdf14_end_transparency_mask\n"); |
7788 | 137k | ok = pdf14_pop_transparency_mask(pdev->ctx, pgs, dev); |
7789 | | #ifdef DEBUG |
7790 | | pdf14_debug_mask_stack_state(pdev->ctx); |
7791 | | #endif |
7792 | | |
7793 | | /* May need to reset some color stuff related |
7794 | | * to a mismatch between the Smask color space |
7795 | | * and the Smask blending space */ |
7796 | 137k | if (pdev->ctx->stack != NULL ) { |
7797 | 137k | group_color = pdev->ctx->stack->group_color_info; |
7798 | 137k | if (!(group_color->group_color_mapping_procs == NULL && |
7799 | 137k | group_color->group_color_comp_index == NULL)) { |
7800 | 137k | pgs->get_cmap_procs = group_color->get_cmap_procs; |
7801 | 137k | gx_set_cmap_procs(pgs, dev); |
7802 | 137k | set_dev_proc(pdev, get_color_mapping_procs, group_color->group_color_mapping_procs); |
7803 | 137k | set_dev_proc(pdev, get_color_comp_index, group_color->group_color_comp_index); |
7804 | 137k | pdev->color_info.polarity = group_color->polarity; |
7805 | 137k | pdev->color_info.opmsupported = GX_CINFO_OPMSUPPORTED_UNKNOWN; |
7806 | 137k | pdev->color_info.num_components = group_color->num_components; |
7807 | 137k | pdev->color_info.depth = group_color->depth; |
7808 | 137k | pdev->blend_procs = group_color->blend_procs; |
7809 | 137k | pdev->ctx->additive = group_color->isadditive; |
7810 | 137k | pdev->pdf14_procs = group_color->unpack_procs; |
7811 | 137k | pdev->color_info.max_color = group_color->max_color; |
7812 | 137k | pdev->color_info.max_gray = group_color->max_gray; |
7813 | 137k | set_dev_proc(pdev, encode_color, group_color->encode); |
7814 | 137k | set_dev_proc(pdev, decode_color, group_color->decode); |
7815 | 137k | memcpy(&(pdev->color_info.comp_bits),&(group_color->comp_bits), |
7816 | 137k | GX_DEVICE_COLOR_MAX_COMPONENTS); |
7817 | 137k | memcpy(&(pdev->color_info.comp_shift),&(group_color->comp_shift), |
7818 | 137k | GX_DEVICE_COLOR_MAX_COMPONENTS); |
7819 | | /* Take care of the ICC profile */ |
7820 | 137k | if (group_color->icc_profile != NULL) { |
7821 | 137k | gsicc_adjust_profile_rc(dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE], |
7822 | 137k | -1, "pdf14_end_transparency_mask"); |
7823 | 137k | dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE] = group_color->icc_profile; |
7824 | 137k | gsicc_adjust_profile_rc(dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE], |
7825 | 137k | 1, "pdf14_end_transparency_mask"); |
7826 | 137k | } |
7827 | 137k | } |
7828 | 137k | } |
7829 | 137k | return ok; |
7830 | 137k | } |
7831 | | |
7832 | | static int |
7833 | | do_mark_fill_rectangle_ko_simple(gx_device *dev, int x, int y, int w, int h, |
7834 | | gx_color_index color, |
7835 | | const gx_device_color *pdc, bool devn) |
7836 | 138k | { |
7837 | 138k | pdf14_device *pdev = (pdf14_device *)dev; |
7838 | 138k | pdf14_buf *buf = pdev->ctx->stack; |
7839 | 138k | gs_blend_mode_t blend_mode = pdev->blend_mode; |
7840 | 138k | bool tag_blend = blend_mode == BLEND_MODE_Normal || |
7841 | 138k | blend_mode == BLEND_MODE_Compatible || |
7842 | 138k | blend_mode == BLEND_MODE_CompatibleOverprint; |
7843 | 138k | int i, j, k; |
7844 | 138k | byte *bline, *bg_ptr, *line, *dst_ptr; |
7845 | 138k | byte src[PDF14_MAX_PLANES]; |
7846 | 138k | byte dst[PDF14_MAX_PLANES] = { 0 }; |
7847 | 138k | byte dst2[PDF14_MAX_PLANES] = { 0 }; |
7848 | 138k | int rowstride = buf->rowstride; |
7849 | 138k | int planestride = buf->planestride; |
7850 | 138k | int num_chan = buf->n_chan; |
7851 | 138k | int num_comp = num_chan - 1; |
7852 | 138k | int shape_off = num_chan * planestride; |
7853 | 138k | bool has_shape = buf->has_shape; |
7854 | 138k | bool has_alpha_g = buf->has_alpha_g; |
7855 | 138k | int alpha_g_off = shape_off + (has_shape ? planestride : 0); |
7856 | 138k | int tag_off = shape_off + (has_alpha_g ? planestride : 0) + |
7857 | 138k | (has_shape ? planestride : 0); |
7858 | 138k | bool has_tags = buf->has_tags; |
7859 | 138k | bool additive = pdev->ctx->additive; |
7860 | 138k | gs_graphics_type_tag_t curr_tag = GS_UNKNOWN_TAG; /* Quiet compiler */ |
7861 | 138k | gx_color_index mask = ((gx_color_index)1 << 8) - 1; |
7862 | 138k | int shift = 8; |
7863 | 138k | byte shape = 0; /* Quiet compiler. */ |
7864 | 138k | byte src_alpha; |
7865 | 138k | bool overprint = pdev->op_state == PDF14_OP_STATE_FILL ? pdev->overprint : pdev->stroke_overprint; |
7866 | 138k | gx_color_index drawn_comps = pdev->op_state == PDF14_OP_STATE_FILL ? |
7867 | 93.5k | pdev->drawn_comps_fill : pdev->drawn_comps_stroke; |
7868 | 138k | gx_color_index comps; |
7869 | 138k | bool has_backdrop = buf->backdrop != NULL; |
7870 | | |
7871 | | /* If we are going out to a CMYK or CMYK + spots pdf14 device (i.e. |
7872 | | subtractive) and we are doing overprint with drawn_comps == 0 |
7873 | | then this is a no-operation */ |
7874 | 138k | if (overprint && drawn_comps == 0 && !buf->group_color_info->isadditive) |
7875 | 0 | return 0; |
7876 | | |
7877 | 138k | if (buf->data == NULL) |
7878 | 0 | return 0; |
7879 | | #if 0 |
7880 | | if (sizeof(color) <= sizeof(ulong)) |
7881 | | if_debug6m('v', dev->memory, |
7882 | | "[v]pdf14_mark_fill_rectangle_ko_simple, (%d, %d), %d x %d color = %lx, nc %d,\n", |
7883 | | x, y, w, h, (ulong)color, num_chan); |
7884 | | else |
7885 | | if_debug7m('v', dev->memory, |
7886 | | "[v]pdf14_mark_fill_rectangle_ko_simple, (%d, %d), %d x %d color = %8lx%08lx, nc %d,\n", |
7887 | | x, y, w, h, |
7888 | | (ulong)(color >> 8*(sizeof(color) - sizeof(ulong))), (ulong)color, |
7889 | | num_chan); |
7890 | | #endif |
7891 | | /* |
7892 | | * Unpack the gx_color_index values. Complement the components for subtractive |
7893 | | * color spaces. |
7894 | | */ |
7895 | 138k | if (devn) { |
7896 | 281 | if (has_tags) { |
7897 | 0 | curr_tag = pdc->tag; |
7898 | 0 | } |
7899 | 281 | if (additive) { |
7900 | 1.12k | for (j = 0; j < num_comp; j++) { |
7901 | 843 | src[j] = ((pdc->colors.devn.values[j]) >> shift & mask); |
7902 | 843 | } |
7903 | 281 | } else { |
7904 | 0 | for (j = 0; j < num_comp; j++) { |
7905 | 0 | src[j] = 255 - ((pdc->colors.devn.values[j]) >> shift & mask); |
7906 | 0 | } |
7907 | 0 | } |
7908 | 138k | } else { |
7909 | 138k | if (has_tags) { |
7910 | 0 | curr_tag = (color >> (num_comp * 8)) & 0xff; |
7911 | 0 | } |
7912 | 138k | pdev->pdf14_procs->unpack_color(num_comp, color, pdev, src); |
7913 | 138k | } |
7914 | | |
7915 | 138k | if (!has_tags) |
7916 | 138k | tag_off = 0; |
7917 | | |
7918 | 138k | src_alpha = src[num_comp] = (byte)floor (255 * pdev->alpha + 0.5); |
7919 | 138k | if (has_shape) { |
7920 | 0 | shape = (byte)floor (255 * pdev->shape + 0.5); |
7921 | 138k | } else { |
7922 | 138k | shape_off = 0; |
7923 | 138k | } |
7924 | | |
7925 | 138k | if (!has_alpha_g) |
7926 | 0 | alpha_g_off = 0; |
7927 | 138k | src_alpha = 255 - src_alpha; |
7928 | 138k | shape = 255 - shape; |
7929 | | |
7930 | | /* Fit the mark into the bounds of the buffer */ |
7931 | 138k | if (x < buf->rect.p.x) { |
7932 | 0 | w += x - buf->rect.p.x; |
7933 | 0 | x = buf->rect.p.x; |
7934 | 0 | } |
7935 | 138k | if (y < buf->rect.p.y) { |
7936 | 0 | h += y - buf->rect.p.y; |
7937 | 0 | y = buf->rect.p.y; |
7938 | 0 | } |
7939 | 138k | if (x + w > buf->rect.q.x) w = buf->rect.q.x - x; |
7940 | 138k | if (y + h > buf->rect.q.y) h = buf->rect.q.y - y; |
7941 | | /* Update the dirty rectangle with the mark. */ |
7942 | 138k | if (x < buf->dirty.p.x) buf->dirty.p.x = x; |
7943 | 138k | if (y < buf->dirty.p.y) buf->dirty.p.y = y; |
7944 | 138k | if (x + w > buf->dirty.q.x) buf->dirty.q.x = x + w; |
7945 | 138k | if (y + h > buf->dirty.q.y) buf->dirty.q.y = y + h; |
7946 | | |
7947 | | /* composite with backdrop only. */ |
7948 | 138k | if (has_backdrop) |
7949 | 138k | bline = buf->backdrop + (x - buf->rect.p.x) + (y - buf->rect.p.y) * rowstride; |
7950 | 0 | else |
7951 | 0 | bline = NULL; |
7952 | | |
7953 | 138k | line = buf->data + (x - buf->rect.p.x) + (y - buf->rect.p.y) * rowstride; |
7954 | | |
7955 | 296k | for (j = 0; j < h; ++j) { |
7956 | 158k | bg_ptr = bline; |
7957 | 158k | dst_ptr = line; |
7958 | 13.1M | for (i = 0; i < w; ++i) { |
7959 | | /* Complement the components for subtractive color spaces */ |
7960 | 13.0M | if (has_backdrop) { |
7961 | 13.0M | if (additive) { |
7962 | 63.9M | for (k = 0; k < num_chan; ++k) |
7963 | 50.8M | dst[k] = bg_ptr[k * planestride]; |
7964 | 13.0M | } else { |
7965 | 0 | for (k = 0; k < num_comp; ++k) |
7966 | 0 | dst2[k] = dst[k] = 255 - bg_ptr[k * planestride]; |
7967 | 0 | } |
7968 | 13.0M | dst2[num_comp] = dst[num_comp] = bg_ptr[num_comp * planestride]; /* alpha doesn't invert */ |
7969 | 13.0M | } |
7970 | 13.0M | if (buf->isolated || !has_backdrop) { |
7971 | 0 | art_pdf_knockoutisolated_group_8(dst, src, num_comp); |
7972 | 13.0M | } else { |
7973 | 13.0M | art_pdf_composite_knockout_8(dst, src, num_comp, |
7974 | 13.0M | blend_mode, pdev->blend_procs, pdev); |
7975 | 13.0M | } |
7976 | | /* Complement the results for subtractive color spaces */ |
7977 | 13.0M | if (additive) { |
7978 | 13.0M | if (!overprint) { |
7979 | 63.9M | for (k = 0; k < num_chan; ++k) |
7980 | 50.8M | dst_ptr[k * planestride] = dst[k]; |
7981 | 13.0M | } else { |
7982 | | /* Hybrid additive with subtractive spots */ |
7983 | | /* We may have to do the compatible overprint blending */ |
7984 | 0 | if (!buf->isolated && drawn_comps != (((size_t)1 << (size_t)dev->color_info.num_components) - (size_t)1)) { |
7985 | 0 | art_pdf_composite_knockout_8(dst2, src, num_comp, |
7986 | 0 | blend_mode, pdev->blend_procs, pdev); |
7987 | 0 | } |
7988 | 0 | for (k = 0, comps = drawn_comps; k < num_comp; ++k, comps >>= 1) { |
7989 | 0 | if ((comps & 0x1) != 0) { |
7990 | 0 | dst_ptr[k * planestride] = dst[k]; |
7991 | 0 | } else { |
7992 | | /* Compatible overprint blend result. */ |
7993 | 0 | dst_ptr[k * planestride] = dst2[k]; |
7994 | 0 | } |
7995 | 0 | } |
7996 | 0 | dst_ptr[num_comp * planestride] = dst[num_comp]; /* alpha */ |
7997 | 0 | } |
7998 | 13.0M | } else { |
7999 | 0 | if (overprint) { |
8000 | | /* We may have to do the compatible overprint blending */ |
8001 | 0 | if (!buf->isolated && drawn_comps != (( (size_t) 1 << (size_t) dev->color_info.num_components)-(size_t) 1)) { |
8002 | 0 | art_pdf_composite_knockout_8(dst2, src, num_comp, |
8003 | 0 | blend_mode, pdev->blend_procs, pdev); |
8004 | 0 | } |
8005 | 0 | for (k = 0, comps = drawn_comps; k < num_comp; ++k, comps >>= 1) { |
8006 | 0 | if ((comps & 0x1) != 0) { |
8007 | 0 | dst_ptr[k * planestride] = 255 - dst[k]; |
8008 | 0 | } else { |
8009 | | /* Compatible overprint blend result. */ |
8010 | 0 | dst_ptr[k * planestride] = 255 - dst2[k]; |
8011 | 0 | } |
8012 | 0 | } |
8013 | 0 | } else { |
8014 | 0 | for (k = 0; k < num_comp; ++k) |
8015 | 0 | dst_ptr[k * planestride] = 255 - dst[k]; |
8016 | 0 | } |
8017 | 0 | dst_ptr[num_comp * planestride] = dst[num_comp]; |
8018 | 0 | } |
8019 | 13.0M | if (tag_off) { |
8020 | | /* If src alpha is 100% then set to curr_tag, else or */ |
8021 | | /* other than Normal BM, we always OR */ |
8022 | 0 | if (src[num_comp] == 255 && tag_blend) { |
8023 | 0 | dst_ptr[tag_off] = curr_tag; |
8024 | 0 | } else { |
8025 | 0 | dst_ptr[tag_off] |= curr_tag; |
8026 | 0 | } |
8027 | 0 | } |
8028 | | /* Knockout group alpha and shape too */ |
8029 | 13.0M | if (alpha_g_off) |
8030 | 13.0M | dst_ptr[alpha_g_off] = 255 - src_alpha; |
8031 | 13.0M | if (shape_off) |
8032 | 0 | dst_ptr[shape_off] = 255 - shape; |
8033 | 13.0M | ++dst_ptr; |
8034 | 13.0M | if (has_backdrop) |
8035 | 13.0M | ++bg_ptr; |
8036 | 13.0M | } |
8037 | 158k | bline += rowstride; |
8038 | 158k | line += rowstride; |
8039 | 158k | } |
8040 | | #if 0 |
8041 | | /* #if RAW_DUMP */ |
8042 | | /* Dump the current buffer to see what we have. */ |
8043 | | dump_raw_buffer(pdev->ctx->memory, |
8044 | | pdev->ctx->stack->rect.q.y-pdev->ctx->stack->rect.p.y, |
8045 | | pdev->ctx->stack->rect.q.x-pdev->ctx->stack->rect.p.x, |
8046 | | pdev->ctx->stack->n_planes, |
8047 | | pdev->ctx->stack->planestride, pdev->ctx->stack->rowstride, |
8048 | | "Draw_Rect_KO", pdev->ctx->stack->data, |
8049 | | pdev->ctx->stack->deep); |
8050 | | global_index++; |
8051 | | #endif |
8052 | 138k | return 0; |
8053 | 138k | } |
8054 | | |
8055 | | static int |
8056 | | do_mark_fill_rectangle_ko_simple16(gx_device *dev, int x, int y, int w, int h, |
8057 | | gx_color_index color, |
8058 | | const gx_device_color *pdc, bool devn) |
8059 | 0 | { |
8060 | 0 | pdf14_device *pdev = (pdf14_device *)dev; |
8061 | 0 | pdf14_buf *buf = pdev->ctx->stack; |
8062 | 0 | gs_blend_mode_t blend_mode = pdev->blend_mode; |
8063 | 0 | bool tag_blend = blend_mode == BLEND_MODE_Normal || |
8064 | 0 | blend_mode == BLEND_MODE_Compatible || |
8065 | 0 | blend_mode == BLEND_MODE_CompatibleOverprint; |
8066 | 0 | int i, j, k; |
8067 | 0 | uint16_t *bline, *bg_ptr, *line, *dst_ptr; |
8068 | 0 | uint16_t src[PDF14_MAX_PLANES]; |
8069 | 0 | uint16_t dst[PDF14_MAX_PLANES] = { 0 }; |
8070 | 0 | uint16_t dst2[PDF14_MAX_PLANES] = { 0 }; |
8071 | 0 | int rowstride = buf->rowstride; |
8072 | 0 | int planestride = buf->planestride; |
8073 | 0 | int num_chan = buf->n_chan; |
8074 | 0 | int num_comp = num_chan - 1; |
8075 | 0 | int shape_off = num_chan * planestride; |
8076 | 0 | bool has_shape = buf->has_shape; |
8077 | 0 | bool has_alpha_g = buf->has_alpha_g; |
8078 | 0 | int alpha_g_off = shape_off + (has_shape ? planestride : 0); |
8079 | 0 | int tag_off = shape_off + (has_alpha_g ? planestride : 0) + |
8080 | 0 | (has_shape ? planestride : 0); |
8081 | 0 | bool has_tags = buf->has_tags; |
8082 | 0 | bool additive = pdev->ctx->additive; |
8083 | 0 | gs_graphics_type_tag_t curr_tag = GS_UNKNOWN_TAG; /* Quiet compiler */ |
8084 | 0 | uint16_t shape = 0; /* Quiet compiler. */ |
8085 | 0 | uint16_t src_alpha; |
8086 | 0 | bool overprint = pdev->op_state == PDF14_OP_STATE_FILL ? pdev->overprint : pdev->stroke_overprint; |
8087 | 0 | gx_color_index drawn_comps = pdev->op_state == PDF14_OP_STATE_FILL ? |
8088 | 0 | pdev->drawn_comps_fill : pdev->drawn_comps_stroke; |
8089 | 0 | gx_color_index comps; |
8090 | 0 | bool has_backdrop = buf->backdrop != NULL; |
8091 | | |
8092 | | /* If we are going out to a CMYK or CMYK + spots pdf14 device (i.e. |
8093 | | subtractive) and we are doing overprint with drawn_comps == 0 |
8094 | | then this is a no-operation */ |
8095 | 0 | if (overprint && drawn_comps == 0 && !buf->group_color_info->isadditive) |
8096 | 0 | return 0; |
8097 | | |
8098 | 0 | if (buf->data == NULL) |
8099 | 0 | return 0; |
8100 | | #if 0 |
8101 | | if (sizeof(color) <= sizeof(ulong)) |
8102 | | if_debug6m('v', dev->memory, |
8103 | | "[v]pdf14_mark_fill_rectangle_ko_simple16, (%d, %d), %d x %d color = %lx, nc %d,\n", |
8104 | | x, y, w, h, (ulong)color, num_chan); |
8105 | | else |
8106 | | if_debug7m('v', dev->memory, |
8107 | | "[v]pdf14_mark_fill_rectangle_ko_simple16, (%d, %d), %d x %d color = %8lx%08lx, nc %d,\n", |
8108 | | x, y, w, h, |
8109 | | (ulong)(color >> 8*(sizeof(color) - sizeof(ulong))), (ulong)color, |
8110 | | num_chan); |
8111 | | #endif |
8112 | | /* |
8113 | | * Unpack the gx_color_index values. Complement the components for subtractive |
8114 | | * color spaces. |
8115 | | */ |
8116 | 0 | if (devn) { |
8117 | 0 | if (has_tags) { |
8118 | 0 | curr_tag = pdc->tag; |
8119 | 0 | } |
8120 | 0 | if (additive) { |
8121 | 0 | for (j = 0; j < num_comp; j++) { |
8122 | 0 | src[j] = pdc->colors.devn.values[j]; |
8123 | 0 | } |
8124 | 0 | } else { |
8125 | 0 | for (j = 0; j < num_comp; j++) { |
8126 | 0 | src[j] = 65535 - pdc->colors.devn.values[j]; |
8127 | 0 | } |
8128 | 0 | } |
8129 | 0 | } else { |
8130 | 0 | if (has_tags) { |
8131 | 0 | curr_tag = (color >> (num_comp * 16)) & 0xff; |
8132 | 0 | } |
8133 | 0 | pdev->pdf14_procs->unpack_color16(num_comp, color, pdev, src); |
8134 | 0 | } |
8135 | |
|
8136 | 0 | src_alpha = src[num_comp] = (uint16_t)floor (65535 * pdev->alpha + 0.5); |
8137 | 0 | if (has_shape) { |
8138 | 0 | shape = (uint16_t)floor (65535 * pdev->shape + 0.5); |
8139 | 0 | } else { |
8140 | 0 | shape_off = 0; |
8141 | 0 | } |
8142 | |
|
8143 | 0 | if (!has_tags) { |
8144 | 0 | tag_off = 0; |
8145 | 0 | } |
8146 | |
|
8147 | 0 | if (!has_alpha_g) |
8148 | 0 | alpha_g_off = 0; |
8149 | 0 | src_alpha = 65535 - src_alpha; |
8150 | 0 | shape = 65535 - shape; |
8151 | | |
8152 | | /* Fit the mark into the bounds of the buffer */ |
8153 | 0 | if (x < buf->rect.p.x) { |
8154 | 0 | w += x - buf->rect.p.x; |
8155 | 0 | x = buf->rect.p.x; |
8156 | 0 | } |
8157 | 0 | if (y < buf->rect.p.y) { |
8158 | 0 | h += y - buf->rect.p.y; |
8159 | 0 | y = buf->rect.p.y; |
8160 | 0 | } |
8161 | 0 | if (x + w > buf->rect.q.x) w = buf->rect.q.x - x; |
8162 | 0 | if (y + h > buf->rect.q.y) h = buf->rect.q.y - y; |
8163 | | /* Update the dirty rectangle with the mark. */ |
8164 | 0 | if (x < buf->dirty.p.x) buf->dirty.p.x = x; |
8165 | 0 | if (y < buf->dirty.p.y) buf->dirty.p.y = y; |
8166 | 0 | if (x + w > buf->dirty.q.x) buf->dirty.q.x = x + w; |
8167 | 0 | if (y + h > buf->dirty.q.y) buf->dirty.q.y = y + h; |
8168 | | |
8169 | | |
8170 | | /* composite with backdrop only. */ |
8171 | 0 | if (has_backdrop) |
8172 | 0 | bline = (uint16_t*)(void*)(buf->backdrop + (x - buf->rect.p.x) * 2 + (y - buf->rect.p.y) * rowstride); |
8173 | 0 | else |
8174 | 0 | bline = NULL; |
8175 | |
|
8176 | 0 | line = (uint16_t *)(void *)(buf->data + (x - buf->rect.p.x)*2 + (y - buf->rect.p.y) * rowstride); |
8177 | 0 | planestride >>= 1; |
8178 | 0 | rowstride >>= 1; |
8179 | 0 | alpha_g_off >>= 1; |
8180 | 0 | shape_off >>= 1; |
8181 | 0 | tag_off >>= 1; |
8182 | |
|
8183 | 0 | for (j = 0; j < h; ++j) { |
8184 | 0 | bg_ptr = bline; |
8185 | 0 | dst_ptr = line; |
8186 | 0 | for (i = 0; i < w; ++i) { |
8187 | | /* Complement the components for subtractive color spaces */ |
8188 | 0 | if (has_backdrop) { |
8189 | 0 | if (additive) { |
8190 | 0 | for (k = 0; k < num_chan; ++k) |
8191 | 0 | dst[k] = bg_ptr[k * planestride]; |
8192 | 0 | } else { |
8193 | 0 | for (k = 0; k < num_comp; ++k) |
8194 | 0 | dst2[k] = dst[k] = 65535 - bg_ptr[k * planestride]; |
8195 | 0 | } |
8196 | 0 | dst2[num_comp] = dst[num_comp] = bg_ptr[num_comp * planestride]; /* alpha doesn't invert */ |
8197 | 0 | } |
8198 | 0 | if (buf->isolated || !has_backdrop) { |
8199 | 0 | art_pdf_knockoutisolated_group_16(dst, src, num_comp); |
8200 | 0 | } else { |
8201 | 0 | art_pdf_composite_knockout_16(dst, src, num_comp, |
8202 | 0 | blend_mode, pdev->blend_procs, pdev); |
8203 | 0 | } |
8204 | | /* Complement the results for subtractive color spaces */ |
8205 | 0 | if (additive) { |
8206 | 0 | if (!overprint) { |
8207 | 0 | for (k = 0; k < num_chan; ++k) |
8208 | 0 | dst_ptr[k * planestride] = dst[k]; |
8209 | 0 | } else { |
8210 | | /* Hybrid additive with subtractive spots */ |
8211 | | /* We may have to do the compatible overprint blending */ |
8212 | 0 | if (!buf->isolated && drawn_comps != (((size_t)1 << (size_t)dev->color_info.num_components) - (size_t)1)) { |
8213 | 0 | art_pdf_composite_knockout_16(dst2, src, num_comp, |
8214 | 0 | blend_mode, pdev->blend_procs, pdev); |
8215 | 0 | } |
8216 | 0 | for (k = 0, comps = drawn_comps; k < num_comp; ++k, comps >>= 1) { |
8217 | 0 | if ((comps & 0x1) != 0) { |
8218 | 0 | dst_ptr[k * planestride] = dst[k]; |
8219 | 0 | } else { |
8220 | | /* Compatible overprint blend result. */ |
8221 | 0 | dst_ptr[k * planestride] = dst2[k]; |
8222 | 0 | } |
8223 | 0 | } |
8224 | 0 | dst_ptr[num_comp * planestride] = dst[num_comp]; /* alpha */ |
8225 | 0 | } |
8226 | 0 | } else { |
8227 | 0 | if (overprint) { |
8228 | | /* We may have to do the compatible overprint blending */ |
8229 | 0 | if (!buf->isolated && drawn_comps != (((size_t)1 << (size_t)dev->color_info.num_components) - (size_t)1)) { |
8230 | 0 | art_pdf_composite_knockout_16(dst2, src, num_comp, |
8231 | 0 | blend_mode, pdev->blend_procs, pdev); |
8232 | 0 | } |
8233 | 0 | for (k = 0, comps = drawn_comps; k < num_comp; ++k, comps >>= 1) { |
8234 | 0 | if ((comps & 0x1) != 0) { |
8235 | 0 | dst_ptr[k * planestride] = 65535 - dst[k]; |
8236 | 0 | } else { |
8237 | | /* Compatible overprint blend result. */ |
8238 | 0 | dst_ptr[k * planestride] = 65535 - dst2[k]; |
8239 | 0 | } |
8240 | 0 | } |
8241 | 0 | } else { |
8242 | 0 | for (k = 0; k < num_comp; ++k) |
8243 | 0 | dst_ptr[k * planestride] = 65535 - dst[k]; |
8244 | 0 | } |
8245 | 0 | dst_ptr[num_comp * planestride] = dst[num_comp]; |
8246 | 0 | } |
8247 | 0 | if (tag_off) { |
8248 | | /* FIXME: As we are knocking out, possibly, we should be |
8249 | | * always overwriting tag values here? */ |
8250 | | /* If src alpha is 100% then set to curr_tag, else or */ |
8251 | | /* other than Normal BM, we always OR */ |
8252 | 0 | if (src[num_comp] == 65535 && tag_blend) { |
8253 | 0 | dst_ptr[tag_off] = curr_tag; |
8254 | 0 | } else { |
8255 | 0 | dst_ptr[tag_off] |= curr_tag; |
8256 | 0 | } |
8257 | 0 | } |
8258 | | /* Knockout group alpha and shape too */ |
8259 | 0 | if (alpha_g_off) |
8260 | 0 | dst_ptr[alpha_g_off] = 65535 - src_alpha; |
8261 | 0 | if (shape_off) |
8262 | 0 | dst_ptr[shape_off] = 65535 - shape; |
8263 | 0 | ++dst_ptr; |
8264 | 0 | if (has_backdrop) |
8265 | 0 | ++bg_ptr; |
8266 | 0 | } |
8267 | 0 | bline += rowstride; |
8268 | 0 | line += rowstride; |
8269 | 0 | } |
8270 | | #if 0 |
8271 | | /* #if RAW_DUMP */ |
8272 | | /* Dump the current buffer to see what we have. */ |
8273 | | dump_raw_buffer(pdev->ctx->memory, |
8274 | | pdev->ctx->stack->rect.q.y-pdev->ctx->stack->rect.p.y, |
8275 | | pdev->ctx->stack->rect.q.x-pdev->ctx->stack->rect.p.x, |
8276 | | pdev->ctx->stack->n_planes, |
8277 | | pdev->ctx->stack->planestride, pdev->ctx->stack->rowstride, |
8278 | | "Draw_Rect_KO", pdev->ctx->stack->data, |
8279 | | pdev->ctx->stack->deep); |
8280 | | global_index++; |
8281 | | #endif |
8282 | 0 | return 0; |
8283 | 0 | } |
8284 | | |
8285 | | static int |
8286 | | pdf14_mark_fill_rectangle_ko_simple(gx_device * dev, int x, int y, int w, int h, |
8287 | | gx_color_index color, |
8288 | | const gx_device_color *pdc, bool devn) |
8289 | 138k | { |
8290 | 138k | pdf14_device *pdev = (pdf14_device *)dev; |
8291 | 138k | pdf14_buf *buf = pdev->ctx->stack; |
8292 | | |
8293 | 138k | if (buf->deep) |
8294 | 0 | return do_mark_fill_rectangle_ko_simple16(dev, x, y, w, h, color, pdc, devn); |
8295 | 138k | else |
8296 | 138k | return do_mark_fill_rectangle_ko_simple(dev, x, y, w, h, color, pdc, devn); |
8297 | 138k | } |
8298 | | |
8299 | | /** |
8300 | | * Here we have logic to override the cmap_procs with versions that |
8301 | | * do not apply the transfer function. These copies should track the |
8302 | | * versions in gxcmap.c. |
8303 | | **/ |
8304 | | static cmap_proc_gray(pdf14_cmap_gray_direct); |
8305 | | static cmap_proc_rgb(pdf14_cmap_rgb_direct); |
8306 | | static cmap_proc_cmyk(pdf14_cmap_cmyk_direct); |
8307 | | static cmap_proc_separation(pdf14_cmap_separation_direct); |
8308 | | static cmap_proc_devicen(pdf14_cmap_devicen_direct); |
8309 | | static cmap_proc_is_halftoned(pdf14_cmap_is_halftoned); |
8310 | | |
8311 | | static const gx_color_map_procs pdf14_cmap_many = { |
8312 | | pdf14_cmap_gray_direct, |
8313 | | pdf14_cmap_rgb_direct, |
8314 | | pdf14_cmap_cmyk_direct, |
8315 | | pdf14_cmap_separation_direct, |
8316 | | pdf14_cmap_devicen_direct, |
8317 | | pdf14_cmap_is_halftoned |
8318 | | }; |
8319 | | |
8320 | | /** |
8321 | | * Note: copied from gxcmap.c because it's inlined. |
8322 | | **/ |
8323 | | static inline void |
8324 | | map_components_to_colorants(const frac * pcc, |
8325 | | const gs_devicen_color_map * pcolor_component_map, |
8326 | | frac * plist) |
8327 | 234k | { |
8328 | 234k | int i = pcolor_component_map->num_colorants - 1; |
8329 | 234k | int pos; |
8330 | | |
8331 | | /* Clear all output colorants first */ |
8332 | 1.17M | for (; i >= 0; i--) { |
8333 | 938k | plist[i] = frac_0; |
8334 | 938k | } |
8335 | | /* Map color components into output list */ |
8336 | 479k | for (i = pcolor_component_map->num_components - 1; i >= 0; i--) { |
8337 | 245k | pos = pcolor_component_map->color_map[i]; |
8338 | 245k | if (pos >= 0) |
8339 | 245k | plist[pos] = pcc[i]; |
8340 | 245k | } |
8341 | 234k | } |
8342 | | |
8343 | | /* See Section 7.6.4 of PDF 1.7 spec */ |
8344 | | static inline bool |
8345 | | pdf14_state_opaque(gx_device *pdev, const gs_gstate *pgs) |
8346 | 13.4M | { |
8347 | 13.4M | if (pgs->fillconstantalpha != 1.0 || |
8348 | 13.4M | pgs->strokeconstantalpha != 1.0 || |
8349 | 13.4M | !(pgs->blend_mode == BLEND_MODE_Normal || |
8350 | 13.4M | pgs->blend_mode == BLEND_MODE_CompatibleOverprint)) |
8351 | 8.47k | return 0; |
8352 | | |
8353 | | /* We can only be opaque if we're not in an SMask. */ |
8354 | 13.4M | return dev_proc(pdev, dev_spec_op)(pdev, |
8355 | 13.4M | gxdso_in_smask, |
8356 | 13.4M | NULL, 0) != 1; |
8357 | 13.4M | } |
8358 | | |
8359 | | static void |
8360 | | pdf14_cmap_gray_direct(frac gray, gx_device_color * pdc, const gs_gstate * pgs, |
8361 | | gx_device * dev, gs_color_select_t select) |
8362 | 2.14M | { |
8363 | 2.14M | int i,ncomps; |
8364 | 2.14M | frac cm_comps[GX_DEVICE_COLOR_MAX_COMPONENTS]; |
8365 | 2.14M | gx_color_value cv[GX_DEVICE_COLOR_MAX_COMPONENTS]; |
8366 | 2.14M | gx_color_index color; |
8367 | 2.14M | gx_device *trans_device; |
8368 | 2.14M | const gx_device *map_dev; |
8369 | 2.14M | const gx_cm_color_map_procs *procs; |
8370 | | |
8371 | | /* If trans device is set, we need to use its procs. */ |
8372 | 2.14M | if (pgs->trans_device != NULL) { |
8373 | 31.6k | trans_device = pgs->trans_device; |
8374 | 2.11M | } else { |
8375 | 2.11M | trans_device = dev; |
8376 | 2.11M | } |
8377 | 2.14M | ncomps = trans_device->color_info.num_components; |
8378 | | |
8379 | | /* map to the color model */ |
8380 | 2.14M | procs = dev_proc(trans_device, get_color_mapping_procs)(trans_device, &map_dev); |
8381 | 2.14M | procs->map_gray(map_dev, gray, cm_comps); |
8382 | | |
8383 | 2.14M | if (pdf14_state_opaque(trans_device, pgs)) { |
8384 | 43.8k | for (i = 0; i < ncomps; i++) |
8385 | 22.8k | cv[i] = frac2cv(gx_map_color_frac(pgs, cm_comps[i], effective_transfer[i])); |
8386 | 2.12M | } else { |
8387 | 4.24M | for (i = 0; i < ncomps; i++) |
8388 | 2.12M | cv[i] = frac2cv(cm_comps[i]); |
8389 | 2.12M | } |
8390 | | |
8391 | | /* If output device supports devn, we need to make sure we send it the |
8392 | | proper color type. We now support Gray + spots as devn colors */ |
8393 | 2.14M | if (dev_proc(trans_device, dev_spec_op)(trans_device, gxdso_supports_devn, NULL, 0)) { |
8394 | 180k | for (i = 0; i < ncomps; i++) |
8395 | 90.0k | pdc->colors.devn.values[i] = cv[i]; |
8396 | 90.0k | pdc->type = gx_dc_type_devn; |
8397 | 2.05M | } else { |
8398 | | /* encode as a color index */ |
8399 | 2.05M | color = dev_proc(trans_device, encode_color)(trans_device, cv); |
8400 | | /* check if the encoding was successful; we presume failure is rare */ |
8401 | 2.05M | if (color != gx_no_color_index) |
8402 | 2.05M | color_set_pure(pdc, color); |
8403 | 2.05M | } |
8404 | 2.14M | } |
8405 | | |
8406 | | static void |
8407 | | pdf14_cmap_rgb_direct(frac r, frac g, frac b, gx_device_color * pdc, |
8408 | | const gs_gstate * pgs, gx_device * dev, gs_color_select_t select) |
8409 | 4.89M | { |
8410 | 4.89M | int i,ncomps; |
8411 | 4.89M | frac cm_comps[GX_DEVICE_COLOR_MAX_COMPONENTS]; |
8412 | 4.89M | gx_color_value cv[GX_DEVICE_COLOR_MAX_COMPONENTS]; |
8413 | 4.89M | gx_color_index color; |
8414 | 4.89M | gx_device *trans_device; |
8415 | 4.89M | const gx_device *map_dev; |
8416 | 4.89M | const gx_cm_color_map_procs *procs; |
8417 | | |
8418 | | /* If trans device is set, we need to use its procs. */ |
8419 | 4.89M | if (pgs->trans_device != NULL){ |
8420 | 224k | trans_device = pgs->trans_device; |
8421 | 4.67M | } else { |
8422 | 4.67M | trans_device = dev; |
8423 | 4.67M | } |
8424 | 4.89M | ncomps = trans_device->color_info.num_components; |
8425 | | /* map to the color model */ |
8426 | 4.89M | procs = dev_proc(trans_device, get_color_mapping_procs)(trans_device, &map_dev); |
8427 | 4.89M | procs->map_rgb(map_dev, pgs, r, g, b, cm_comps); |
8428 | | |
8429 | 4.89M | if (pdf14_state_opaque(trans_device, pgs)) { |
8430 | 13.4M | for (i = 0; i < ncomps; i++) |
8431 | 10.1M | cv[i] = frac2cv(gx_map_color_frac(pgs, cm_comps[i], effective_transfer[i])); |
8432 | 3.37M | } else { |
8433 | 6.08M | for (i = 0; i < ncomps; i++) |
8434 | 4.55M | cv[i] = frac2cv(cm_comps[i]); |
8435 | 1.52M | } |
8436 | | |
8437 | | /* If output device supports devn, we need to make sure we send it the |
8438 | | proper color type. We now support RGB + spots as devn colors */ |
8439 | 4.89M | if (dev_proc(trans_device, dev_spec_op)(trans_device, gxdso_supports_devn, NULL, 0)) { |
8440 | 17.9M | for (i = 0; i < ncomps; i++) |
8441 | 13.4M | pdc->colors.devn.values[i] = cv[i]; |
8442 | 4.48M | pdc->type = gx_dc_type_devn; |
8443 | 4.48M | } else { |
8444 | | /* encode as a color index */ |
8445 | 408k | color = dev_proc(trans_device, encode_color)(trans_device, cv); |
8446 | | /* check if the encoding was successful; we presume failure is rare */ |
8447 | 408k | if (color != gx_no_color_index) |
8448 | 408k | color_set_pure(pdc, color); |
8449 | 408k | } |
8450 | 4.89M | } |
8451 | | |
8452 | | static void |
8453 | | pdf14_cmap_cmyk_direct(frac c, frac m, frac y, frac k, gx_device_color * pdc, |
8454 | | const gs_gstate * pgs, gx_device * dev, gs_color_select_t select, |
8455 | | const gs_color_space *pcs) |
8456 | 6.38M | { |
8457 | 6.38M | int i, ncomps; |
8458 | 6.38M | frac cm_comps[GX_DEVICE_COLOR_MAX_COMPONENTS]; |
8459 | 6.38M | gx_color_value cv[GX_DEVICE_COLOR_MAX_COMPONENTS]; |
8460 | 6.38M | gx_color_index color; |
8461 | 6.38M | gx_device *trans_device; |
8462 | 6.38M | const gx_device *map_dev; |
8463 | 6.38M | const gx_cm_color_map_procs *procs; |
8464 | | |
8465 | | |
8466 | | /* If trans device is set, we need to use its procs. */ |
8467 | 6.38M | if (pgs->trans_device != NULL){ |
8468 | 4.74M | trans_device = pgs->trans_device; |
8469 | 4.74M | } else { |
8470 | 1.63M | trans_device = dev; |
8471 | 1.63M | } |
8472 | 6.38M | ncomps = trans_device->color_info.num_components; |
8473 | | |
8474 | | /* Map to the color model. Transfer function is only used |
8475 | | if we are drawing with an opaque color. */ |
8476 | 6.38M | procs = dev_proc(trans_device, get_color_mapping_procs)(trans_device, &map_dev); |
8477 | 6.38M | procs->map_cmyk(map_dev, c, m, y, k, cm_comps); |
8478 | | |
8479 | 6.38M | if (pdf14_state_opaque(trans_device, pgs)) { |
8480 | 28.6M | for (i = 0; i < ncomps; i++) |
8481 | 22.9M | cv[i] = frac2cv(gx_map_color_frac(pgs, cm_comps[i], effective_transfer[i])); |
8482 | 5.72M | } else { |
8483 | 3.28M | for (i = 0; i < ncomps; i++) |
8484 | 2.62M | cv[i] = frac2cv(cm_comps[i]); |
8485 | 657k | } |
8486 | | |
8487 | | /* if output device supports devn, we need to make sure we send it the |
8488 | | proper color type */ |
8489 | 6.38M | if (dev_proc(trans_device, dev_spec_op)(trans_device, gxdso_supports_devn, NULL, 0)) { |
8490 | 10.9M | for (i = 0; i < ncomps; i++) |
8491 | 8.79M | pdc->colors.devn.values[i] = cv[i]; |
8492 | 2.20M | pdc->type = gx_dc_type_devn; |
8493 | 4.18M | } else { |
8494 | | /* encode as a color index */ |
8495 | 4.18M | color = dev_proc(trans_device, encode_color)(trans_device, cv); |
8496 | | /* check if the encoding was successful; we presume failure is rare */ |
8497 | 4.18M | if (color != gx_no_color_index) |
8498 | 4.18M | color_set_pure(pdc, color); |
8499 | 4.18M | } |
8500 | 6.38M | } |
8501 | | |
8502 | | static int |
8503 | | pdf14_get_num_spots(gx_device * dev) |
8504 | 234k | { |
8505 | 234k | cmm_dev_profile_t *dev_profile; |
8506 | 234k | cmm_profile_t *icc_profile; |
8507 | 234k | gsicc_rendering_param_t render_cond; |
8508 | | |
8509 | 234k | dev_proc(dev, get_profile)(dev, &dev_profile); |
8510 | 234k | gsicc_extract_profile(GS_UNKNOWN_TAG, dev_profile, &icc_profile, |
8511 | 234k | &render_cond); |
8512 | 234k | return dev->color_info.num_components - icc_profile->num_comps; |
8513 | 234k | } |
8514 | | |
8515 | | static void |
8516 | | pdf14_cmap_separation_direct(frac all, gx_device_color * pdc, const gs_gstate * pgs, |
8517 | | gx_device * dev, gs_color_select_t select, const gs_color_space *pcs) |
8518 | 940 | { |
8519 | 940 | int i, ncomps = dev->color_info.num_components; |
8520 | 940 | int num_spots = pdf14_get_num_spots(dev); |
8521 | 940 | bool additive = dev->color_info.polarity == GX_CINFO_POLARITY_ADDITIVE; |
8522 | 940 | frac cm_comps[GX_DEVICE_COLOR_MAX_COMPONENTS]; |
8523 | 940 | gx_color_value cv[GX_DEVICE_COLOR_MAX_COMPONENTS]; |
8524 | 940 | gx_color_index color; |
8525 | | |
8526 | 940 | if (pgs->color_component_map.sep_type == SEP_ALL) { |
8527 | 0 | frac comp_value = all; |
8528 | | |
8529 | | /* |
8530 | | * Invert the photometric interpretation for additive |
8531 | | * color spaces because separations are always subtractive. |
8532 | | */ |
8533 | 0 | if (additive) |
8534 | 0 | comp_value = frac_1 - comp_value; |
8535 | | /* Use the "all" value for all components */ |
8536 | 0 | i = pgs->color_component_map.num_colorants - 1; |
8537 | 0 | for (; i >= 0; i--) |
8538 | 0 | cm_comps[i] = comp_value; |
8539 | 940 | } else { |
8540 | 940 | frac comp_value[GX_DEVICE_COLOR_MAX_COMPONENTS]; |
8541 | | |
8542 | 940 | if (pgs->color_component_map.sep_type == SEP_NONE) { |
8543 | 0 | color_set_null(pdc); |
8544 | 0 | return; |
8545 | 0 | } |
8546 | | |
8547 | | /* map to the color model */ |
8548 | 1.88k | for (i = pgs->color_component_map.num_components - 1; i >= 0; i--) |
8549 | 940 | comp_value[i] = all; |
8550 | 940 | map_components_to_colorants(comp_value, &(pgs->color_component_map), cm_comps); |
8551 | 940 | } |
8552 | | /* apply the transfer function(s); convert to color values */ |
8553 | 940 | if (additive) { |
8554 | 4.25k | for (i = 0; i < ncomps; i++) |
8555 | 3.40k | cv[i] = frac2cv(gx_map_color_frac(pgs, cm_comps[i], effective_transfer[i])); |
8556 | | /* We are in an additive mode (blend space) and drawing with a sep color |
8557 | | into a sep device. Make sure we are drawing "white" with the process |
8558 | | colorants, but only if we are not in an ALL case */ |
8559 | 850 | if (pgs->color_component_map.sep_type != SEP_ALL) |
8560 | 3.40k | for (i = 0; i < ncomps - num_spots; i++) |
8561 | 2.55k | cv[i] = gx_max_color_value; |
8562 | 850 | } else |
8563 | 450 | for (i = 0; i < ncomps; i++) |
8564 | 360 | cv[i] = frac2cv(frac_1 - gx_map_color_frac(pgs, (frac)(frac_1 - cm_comps[i]), effective_transfer[i])); |
8565 | | |
8566 | | |
8567 | | /* if output device supports devn, we need to make sure we send it the |
8568 | | proper color type */ |
8569 | 940 | if (dev_proc(dev, dev_spec_op)(dev, gxdso_supports_devn, NULL, 0)) { |
8570 | 4.70k | for (i = 0; i < ncomps; i++) |
8571 | 3.76k | pdc->colors.devn.values[i] = cv[i]; |
8572 | 940 | pdc->type = gx_dc_type_devn; |
8573 | 940 | } else { |
8574 | | /* encode as a color index */ |
8575 | 0 | color = dev_proc(dev, encode_color)(dev, cv); |
8576 | | /* check if the encoding was successful; we presume failure is rare */ |
8577 | 0 | if (color != gx_no_color_index) |
8578 | 0 | color_set_pure(pdc, color); |
8579 | 0 | } |
8580 | 940 | } |
8581 | | |
8582 | | static void |
8583 | | pdf14_cmap_devicen_direct(const frac * pcc, |
8584 | | gx_device_color * pdc, const gs_gstate * pgs, gx_device * dev, |
8585 | | gs_color_select_t select, const gs_color_space *pcs) |
8586 | 233k | { |
8587 | 233k | int i, ncomps = dev->color_info.num_components; |
8588 | 233k | int num_spots = pdf14_get_num_spots(dev); |
8589 | 233k | frac cm_comps[GX_DEVICE_COLOR_MAX_COMPONENTS]; |
8590 | 233k | gx_color_value cv[GX_DEVICE_COLOR_MAX_COMPONENTS]; |
8591 | 233k | gx_color_index color; |
8592 | 233k | gx_device *trans_device; |
8593 | | |
8594 | | /* We may be coming from the clist writer which often forwards us the |
8595 | | target device. If this occurs we actually need to get to the color |
8596 | | space defined by the transparency group and we use the operators |
8597 | | defined by the transparency device to do the job. |
8598 | | */ |
8599 | 233k | if (pgs->trans_device != NULL){ |
8600 | 233k | trans_device = pgs->trans_device; |
8601 | 233k | } else { |
8602 | 0 | trans_device = dev; |
8603 | 0 | } |
8604 | 233k | ncomps = trans_device->color_info.num_components; |
8605 | | /* map to the color model */ |
8606 | 233k | map_components_to_colorants(pcc, &(pgs->color_component_map), cm_comps);; |
8607 | | /* apply the transfer function(s); convert to color values */ |
8608 | 233k | if (trans_device->color_info.polarity == GX_CINFO_POLARITY_ADDITIVE) { |
8609 | 0 | for (i = 0; i < ncomps; i++) |
8610 | 0 | cv[i] = frac2cv(gx_map_color_frac(pgs, cm_comps[i], effective_transfer[i])); |
8611 | | /* We are in an additive mode (blend space) and drawing with a sep color |
8612 | | into a sep device. Make sure we are drawing "white" with the process |
8613 | | colorants */ |
8614 | 0 | for (i = 0; i < ncomps - num_spots; i++) |
8615 | 0 | cv[i] = gx_max_color_value; |
8616 | 0 | } else |
8617 | 1.16M | for (i = 0; i < ncomps; i++) |
8618 | 934k | cv[i] = frac2cv(frac_1 - gx_map_color_frac(pgs, (frac)(frac_1 - cm_comps[i]), effective_transfer[i])); |
8619 | | /* if output device supports devn, we need to make sure we send it the |
8620 | | proper color type */ |
8621 | 233k | if (dev_proc(trans_device, dev_spec_op)(trans_device, gxdso_supports_devn, NULL, 0)) { |
8622 | 182k | for (i = 0; i < ncomps; i++) |
8623 | 145k | pdc->colors.devn.values[i] = cv[i]; |
8624 | 36.4k | pdc->type = gx_dc_type_devn; |
8625 | 197k | } else { |
8626 | | /* encode as a color index */ |
8627 | 197k | color = dev_proc(trans_device, encode_color)(trans_device, cv); |
8628 | | /* check if the encoding was successful; we presume failure is rare */ |
8629 | 197k | if (color != gx_no_color_index) |
8630 | 197k | color_set_pure(pdc, color); |
8631 | 197k | } |
8632 | 233k | } |
8633 | | |
8634 | | static bool |
8635 | | pdf14_cmap_is_halftoned(const gs_gstate * pgs, gx_device * dev) |
8636 | 40.9k | { |
8637 | 40.9k | return false; |
8638 | 40.9k | } |
8639 | | |
8640 | | static const gx_color_map_procs * |
8641 | | pdf14_get_cmap_procs(const gs_gstate *pgs, const gx_device * dev) |
8642 | 482k | { |
8643 | | /* The pdf14 marking device itself is always continuous tone. */ |
8644 | 482k | return &pdf14_cmap_many; |
8645 | 482k | } |
8646 | | |
8647 | | static int |
8648 | | pdf14_dev_spec_op(gx_device *pdev, int dev_spec_op, |
8649 | | void *data, int size) |
8650 | 48.1M | { |
8651 | 48.1M | pdf14_device * p14dev = (pdf14_device *)pdev; |
8652 | | |
8653 | 48.1M | if (dev_spec_op == gxdso_supports_pattern_transparency) |
8654 | 794k | return 1; |
8655 | 47.3M | if (dev_spec_op == gxdso_pattern_shfill_doesnt_need_path) |
8656 | 11.0k | return 1; |
8657 | 47.3M | if (dev_spec_op == gxdso_is_pdf14_device) { |
8658 | 1.06k | if (data != NULL && size == sizeof(gx_device *)) |
8659 | 66 | *(gx_device **)data = pdev; |
8660 | 1.06k | return 1; |
8661 | 1.06k | } |
8662 | 47.3M | if (dev_spec_op == gxdso_device_child) { |
8663 | 836 | pdf14_device *dev = (pdf14_device *)pdev; |
8664 | 836 | gxdso_device_child_request *d = (gxdso_device_child_request *)data; |
8665 | 836 | if (d->target == pdev) { |
8666 | 836 | d->target = dev->target; |
8667 | 836 | return 1; |
8668 | 836 | } |
8669 | 836 | } |
8670 | 47.3M | if (dev_spec_op == gxdso_supports_devn |
8671 | 47.3M | || dev_spec_op == gxdso_skip_icc_component_validation) { |
8672 | 22.2M | cmm_dev_profile_t *dev_profile; |
8673 | 22.2M | int code; |
8674 | 22.2M | code = dev_proc(pdev, get_profile)((gx_device*) pdev, &dev_profile); |
8675 | 22.2M | if (code == 0) { |
8676 | 22.2M | return dev_profile->supports_devn; |
8677 | 22.2M | } else { |
8678 | 0 | return 0; |
8679 | 0 | } |
8680 | 22.2M | } |
8681 | 25.1M | if (dev_spec_op == gxdso_pdf14_sep_device) { |
8682 | 71.3k | pdf14_device* dev = (pdf14_device*)pdev; |
8683 | | |
8684 | 71.3k | if (strcmp(dev->dname, "pdf14cmykspot") == 0 || |
8685 | 71.3k | strcmp(dev->dname, "pdf14clistcmykspot") == 0) |
8686 | 51.4k | return 1; |
8687 | 19.8k | return 0; |
8688 | 71.3k | } |
8689 | 25.0M | if (dev_spec_op == gxdso_is_encoding_direct) |
8690 | 785k | return 1; |
8691 | | |
8692 | | /* We don't want to pass on these spec_ops either, because the child might respond |
8693 | | * with an inappropriate response when the PDF14 device is active. For example; the |
8694 | | * JPEG passthrough will give utterly wrong results if we pass that to a device which |
8695 | | * supports JPEG passthrough, because the pdf14 device needs to render the image. |
8696 | | */ |
8697 | 24.2M | if (dev_spec_op == gxdso_in_pattern_accumulator) |
8698 | 126k | return 0; |
8699 | 24.1M | if (dev_spec_op == gxdso_copy_color_is_fast) |
8700 | 460k | return 0; |
8701 | 23.6M | if(dev_spec_op == gxdso_pattern_handles_clip_path) |
8702 | 11.0k | return 0; |
8703 | 23.6M | if(dev_spec_op == gxdso_supports_hlcolor) |
8704 | 161 | return 0; |
8705 | 23.6M | if(dev_spec_op == gxdso_pattern_can_accum) |
8706 | 35.6k | return 0; |
8707 | 23.6M | if(dev_spec_op == gxdso_JPEG_passthrough_query) |
8708 | 585 | return 0; |
8709 | 23.6M | if (dev_spec_op == gxdso_overprint_active) { |
8710 | 2.09M | if (p14dev->pclist_device != NULL) { |
8711 | 2.07M | return dev_proc(p14dev->pclist_device, dev_spec_op)(p14dev->pclist_device, dev_spec_op, data, size); |
8712 | 2.07M | } else { |
8713 | 11.5k | return p14dev->overprint || p14dev->stroke_overprint; |
8714 | 11.5k | } |
8715 | 2.09M | } |
8716 | | |
8717 | | /* These should be coming only from the abuf device |
8718 | | during fill-stroke operation. Any other use will |
8719 | | result in bad things. */ |
8720 | 21.5M | if (dev_spec_op == gxdso_abuf_optrans) |
8721 | 0 | { |
8722 | 0 | int ret = p14dev->op_state; |
8723 | 0 | overprint_abuf_state_t *state_data = (overprint_abuf_state_t *)data; |
8724 | 0 | pdf14_abuf_state_t *pdf14_abuf = (pdf14_abuf_state_t *)&state_data->storage[0]; |
8725 | 0 | const gs_gstate* cpgs = state_data->pgs; |
8726 | 0 | union { |
8727 | 0 | const gs_gstate* cpgs; |
8728 | 0 | gs_gstate* pgs; |
8729 | 0 | } const_breaker; |
8730 | 0 | gs_gstate* pgs; |
8731 | 0 | int code = 0; |
8732 | 0 | int code1 = 0; |
8733 | | |
8734 | | /* A compile time assert to check our storage types are appropriately sized. */ |
8735 | 0 | typedef char compile_time_assert[sizeof(pdf14_abuf_state_t) <= sizeof(state_data->storage) ? 1 : -1]; |
8736 | | |
8737 | | /* I don't really like this, but there is no easy way around it. The device |
8738 | | in the pgs needs to be the pdf14 device to ensure that the compositor |
8739 | | actions occur with the gs_transparency calls. We have to call at that |
8740 | | level (as opposed to the gx_ or pdf14_ level) to ensure that the clist |
8741 | | operations are invoked. We could change the gs_trans calls to take a |
8742 | | device to avoid this dance but that changes the device procs. */ |
8743 | 0 | gx_device *curr_dev; |
8744 | |
|
8745 | 0 | const_breaker.cpgs = cpgs; |
8746 | 0 | pgs = const_breaker.pgs; |
8747 | 0 | curr_dev = pgs->device; |
8748 | 0 | pgs->device = pdev; |
8749 | |
|
8750 | 0 | switch (state_data->op_trans) { |
8751 | | |
8752 | 0 | case OP_FS_TRANS_PREFILL: |
8753 | 0 | pdf14_abuf->orig_state = p14dev->op_state; |
8754 | 0 | pdf14_abuf->blend_mode = cpgs->blend_mode; |
8755 | 0 | pdf14_abuf->fill_alpha = cpgs->fillconstantalpha; |
8756 | 0 | pdf14_abuf->stroke_alpha = cpgs->strokeconstantalpha; |
8757 | 0 | pdf14_abuf->pgs = pgs; /* ref count? only used for this back and forth so ok */ |
8758 | 0 | if (pdf14_abuf->fill_alpha == 1.0 && pdf14_abuf->stroke_alpha == 1.0 && |
8759 | 0 | pdf14_abuf->blend_mode == BLEND_MODE_Normal) |
8760 | 0 | pdf14_abuf->group_needed = false; |
8761 | 0 | else |
8762 | 0 | pdf14_abuf->group_needed = true; |
8763 | |
|
8764 | 0 | if (pdf14_abuf->group_needed) { |
8765 | 0 | code = pdf14_fill_stroke_prefill(pdev, pgs, state_data->ppath, |
8766 | 0 | state_data->pcpath, pdf14_abuf->fill_alpha, |
8767 | 0 | pdf14_abuf->stroke_alpha, pdf14_abuf->blend_mode, |
8768 | 0 | &(pdf14_abuf->op_ca_eq_CA), &(pdf14_abuf->path_empty), |
8769 | 0 | state_data->alpha_buf_path_scale); |
8770 | 0 | if (code < 0) |
8771 | 0 | goto cleanup; |
8772 | 0 | } |
8773 | 0 | gs_update_trans_marking_params(pgs); |
8774 | 0 | break; |
8775 | | |
8776 | 0 | case OP_FS_TRANS_PRESTROKE: |
8777 | 0 | if (pdf14_abuf->group_needed) { |
8778 | 0 | pdf14_fill_stroke_prestroke(pdev, pdf14_abuf->pgs, pdf14_abuf->stroke_alpha, |
8779 | 0 | pdf14_abuf->blend_mode, pdf14_abuf->op_ca_eq_CA); |
8780 | 0 | } |
8781 | 0 | gs_update_trans_marking_params(pgs); |
8782 | 0 | break; |
8783 | | |
8784 | 0 | case OP_FS_TRANS_POSTSTROKE: |
8785 | 0 | if (pdf14_abuf->group_needed) { |
8786 | 0 | pdf14_fill_stroke_poststroke(pdev, pdf14_abuf->pgs, pdf14_abuf->fill_alpha, |
8787 | 0 | pdf14_abuf->op_ca_eq_CA); |
8788 | 0 | } |
8789 | 0 | gs_update_trans_marking_params(pgs); |
8790 | | |
8791 | | /* fallthrough */ |
8792 | |
|
8793 | 0 | case OP_FS_TRANS_CLEANUP: |
8794 | 0 | cleanup: |
8795 | 0 | if (pdf14_abuf->group_needed) { |
8796 | 0 | code1 = pdf14_fill_stroke_cleanup(pdev, pdf14_abuf->pgs, pdf14_abuf->fill_alpha, |
8797 | 0 | pdf14_abuf->stroke_alpha, pdf14_abuf->blend_mode, (PDF14_OP_FS_STATE)pdf14_abuf->orig_state); |
8798 | 0 | if (code1 < 0) |
8799 | 0 | code = gs_note_error(gs_error_Fatal); |
8800 | 0 | } |
8801 | 0 | break; |
8802 | 0 | } |
8803 | 0 | pgs->device = curr_dev; |
8804 | |
|
8805 | 0 | return (code < 0) ? code : ret; |
8806 | 0 | } |
8807 | | |
8808 | 21.5M | if (dev_spec_op == gxdso_in_smask_construction) |
8809 | 2.10M | return p14dev->in_smask_construction > 0; |
8810 | 19.4M | if (dev_spec_op == gxdso_in_smask) |
8811 | 13.7M | return p14dev->in_smask_construction > 0 || p14dev->depth_within_smask; |
8812 | 5.63M | if (dev_spec_op == gxdso_replacecolor) { |
8813 | 5.42M | gx_device *tdev = p14dev->target; |
8814 | 5.42M | cmm_dev_profile_t *tdev_profile; |
8815 | 5.42M | int code; |
8816 | | |
8817 | | /* If in a softmask or softmask construction do not allow |
8818 | | replacement. */ |
8819 | 5.42M | if (p14dev->in_smask_construction > 0 || p14dev->depth_within_smask) |
8820 | 181k | return 0; |
8821 | | |
8822 | | /* If the target CS is different than the pdf14 profile add this information |
8823 | | for the target device that will be handling the replacement. While not |
8824 | | perfect this at least lets you do the replacehment and have some information |
8825 | | about what the situation is. */ |
8826 | 5.24M | code = dev_proc(tdev, get_profile)((gx_device*) tdev, &tdev_profile); |
8827 | 5.24M | if (code != 0) |
8828 | 0 | return 0; |
8829 | | |
8830 | 5.24M | if (tdev_profile->device_profile[GS_DEFAULT_DEVICE_PROFILE]->hashcode != |
8831 | 5.24M | p14dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE]->hashcode) { |
8832 | 4.15M | color_replace_t* replace_data = (color_replace_t*)data; |
8833 | | /* Not ref counted as data is on the stack (from gx_remap_ICC) and we should be fine during this |
8834 | | color remap operation. */ |
8835 | 4.15M | replace_data->pdf14_iccprofile = p14dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE]; |
8836 | 4.15M | } |
8837 | | |
8838 | | /* Pass on to target device */ |
8839 | 5.24M | return dev_proc(p14dev->target, dev_spec_op)(p14dev->target, dev_spec_op, data, size); |
8840 | 5.24M | } |
8841 | 209k | if (dev_spec_op == gxdso_device_insert_child) { |
8842 | 37 | gx_device *tdev = p14dev->target; |
8843 | 37 | p14dev->target = (gx_device *)data; |
8844 | 37 | rc_increment(p14dev->target); |
8845 | 37 | rc_decrement_only(tdev, "pdf14_dev_spec_op"); |
8846 | 37 | return 0; |
8847 | 37 | } |
8848 | 209k | if (dev_spec_op == gxdso_interpolate_threshold) |
8849 | 6.36k | return p14dev->interpolate_threshold; |
8850 | | |
8851 | 202k | if (dev_spec_op == gxdso_overprintsim_state) { |
8852 | 6.36k | unsigned char *data_uchar = (unsigned char *) data; |
8853 | 6.36k | data_uchar[0] = (unsigned char) p14dev->overprint_sim; |
8854 | 6.36k | if (p14dev->ctx != NULL) |
8855 | 1 | data_uchar[1] = (unsigned char)p14dev->ctx->num_spots; /* pdf14 page device */ |
8856 | 6.36k | else |
8857 | 6.36k | data_uchar[1] = (unsigned char)p14dev->devn_params.page_spot_colors; /* pdf14 clist device */ |
8858 | 6.36k | return 1; |
8859 | 6.36k | } |
8860 | | |
8861 | 196k | return dev_proc(p14dev->target, dev_spec_op)(p14dev->target, dev_spec_op, data, size); |
8862 | 202k | } |
8863 | | |
8864 | | /* Needed to set color monitoring in the target device's profile */ |
8865 | | int |
8866 | | gs_pdf14_device_color_mon_set(gx_device *pdev, bool monitoring) |
8867 | 0 | { |
8868 | 0 | pdf14_device * p14dev = (pdf14_device *)pdev; |
8869 | 0 | gx_device *targ = p14dev->target; |
8870 | 0 | cmm_dev_profile_t *dev_profile; |
8871 | 0 | int code = dev_proc(targ, get_profile)((gx_device*) targ, &dev_profile); |
8872 | |
|
8873 | 0 | if (code == 0) |
8874 | 0 | dev_profile->pageneutralcolor = monitoring; |
8875 | 0 | return code; |
8876 | 0 | } |
8877 | | |
8878 | | static int |
8879 | | gs_pdf14_device_push(gs_memory_t *mem, gs_gstate * pgs, |
8880 | | gx_device ** pdev, gx_device * target, const gs_pdf14trans_t * pdf14pct) |
8881 | 261k | { |
8882 | 261k | pdf14_device dev_proto; |
8883 | 261k | pdf14_device * p14dev; |
8884 | 261k | int code; |
8885 | 261k | bool has_tags; |
8886 | 261k | cmm_profile_t *icc_profile; |
8887 | 261k | gsicc_rendering_param_t render_cond; |
8888 | 261k | cmm_dev_profile_t *dev_profile; |
8889 | 261k | uchar k; |
8890 | 261k | int max_bitmap; |
8891 | 261k | bool use_pdf14_accum = false; |
8892 | 261k | bool deep; |
8893 | | |
8894 | | /* Guard against later seg faults, this should not be possible */ |
8895 | 261k | if (target == NULL) |
8896 | 0 | return gs_throw_code(gs_error_Fatal); |
8897 | | |
8898 | 261k | has_tags = device_encodes_tags(target); |
8899 | 261k | deep = device_is_deep(target); |
8900 | 261k | max_bitmap = target->space_params.MaxBitmap == 0 ? MAX_BITMAP : |
8901 | 261k | target->space_params.MaxBitmap; |
8902 | | /* If the device is not a printer class device, it won't support saved-pages */ |
8903 | | /* and so we may need to make a clist device in order to prevent very large */ |
8904 | | /* or high resolution pages from having allocation problems. */ |
8905 | | /* We use MaxBitmap to decide when a clist is needed.*/ |
8906 | 261k | if (dev_proc(target, dev_spec_op)(target, gxdso_supports_saved_pages, NULL, 0) <= 0 && |
8907 | 261k | gx_device_is_pattern_clist(target) == 0 && |
8908 | 261k | gx_device_is_pattern_accum(target) == 0 && |
8909 | 261k | gs_device_is_memory(target) == 0) { |
8910 | | |
8911 | 955 | uint32_t pdf14_trans_buffer_size = |
8912 | 955 | (ESTIMATED_PDF14_ROW_SPACE(max(1, target->width), |
8913 | 955 | target->color_info.num_components, |
8914 | 955 | deep ? 16 : 8) >> 3); |
8915 | | |
8916 | 955 | if (target->height < max_ulong / pdf14_trans_buffer_size) |
8917 | 955 | pdf14_trans_buffer_size *= target->height; |
8918 | 0 | else |
8919 | 0 | max_bitmap = 0; /* Force decision to clist */ |
8920 | 955 | if (pdf14_trans_buffer_size > max_bitmap) |
8921 | 918 | use_pdf14_accum = true; |
8922 | 955 | } |
8923 | 261k | code = dev_proc(target, get_profile)(target, &dev_profile); |
8924 | 261k | if (code < 0) |
8925 | 0 | return code; |
8926 | 261k | gsicc_extract_profile(GS_UNKNOWN_TAG, dev_profile, &icc_profile, |
8927 | 261k | &render_cond); |
8928 | 261k | if_debug0m('v', mem, "[v]gs_pdf14_device_push\n"); |
8929 | | |
8930 | 261k | code = get_pdf14_device_proto(target, &dev_proto, pgs, |
8931 | 261k | pdf14pct, use_pdf14_accum); |
8932 | 261k | if (code < 0) |
8933 | 0 | return code; |
8934 | 261k | code = gs_copydevice((gx_device **) &p14dev, |
8935 | 261k | (const gx_device *) &dev_proto, mem); |
8936 | 261k | if (code < 0) |
8937 | 0 | return code; |
8938 | | |
8939 | 261k | gs_pdf14_device_copy_params((gx_device *)p14dev, target); |
8940 | 261k | gx_device_set_target((gx_device_forward *)p14dev, target); |
8941 | 261k | p14dev->pad = target->pad; |
8942 | 261k | p14dev->log2_align_mod = target->log2_align_mod; |
8943 | 261k | if (pdf14pct->params.overprint_sim_push && pdf14pct->params.num_spot_colors_int > 0 && !target->is_planar) |
8944 | 0 | p14dev->is_planar = true; |
8945 | 261k | else |
8946 | 261k | p14dev->is_planar = target->is_planar; |
8947 | 261k | p14dev->interpolate_threshold = dev_proc(target, dev_spec_op)(target, gxdso_interpolate_threshold, NULL, 0); |
8948 | | |
8949 | 261k | p14dev->alpha = 1.0; |
8950 | 261k | p14dev->shape = 1.0; |
8951 | 261k | p14dev->opacity = 1.0; |
8952 | 261k | p14dev->fillconstantalpha = 1.0; |
8953 | 261k | p14dev->strokeconstantalpha = 1.0; |
8954 | | |
8955 | | /* Simulated overprint case. We have to use CMYK-based profile. Also if the target |
8956 | | profile is NCLR, we are going to use a pdf14 device that is CMYK based and |
8957 | | do the mapping to the NCLR profile when the put_image occurs */ |
8958 | 261k | if ((p14dev->overprint_sim && icc_profile->data_cs != gsCMYK) || |
8959 | 261k | icc_profile->data_cs == gsNCHANNEL) { |
8960 | 0 | gsicc_adjust_profile_rc(pgs->icc_manager->default_cmyk, 1, "gs_pdf14_device_push"); |
8961 | 0 | gsicc_adjust_profile_rc(p14dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE], |
8962 | 0 | -1, "gs_pdf14_device_push"); |
8963 | 0 | p14dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE] = pgs->icc_manager->default_cmyk; |
8964 | 261k | } else { |
8965 | | /* If the target profile was CIELAB (and we are not using a blend CS), |
8966 | | then overide with default RGB for proper blending. During put_image |
8967 | | we will convert from RGB to CIELAB. Need to check that we have a |
8968 | | default profile, which will not be the case if we are coming from the clist reader */ |
8969 | 261k | if ((icc_profile->data_cs == gsCIELAB || icc_profile->islab) |
8970 | 261k | && pgs->icc_manager->default_rgb != NULL && |
8971 | 261k | p14dev->blend_cs_state == PDF14_BLEND_CS_UNSPECIFIED) { |
8972 | 0 | p14dev->blend_cs_state = PDF14_BLEND_CS_TARGET_CIELAB; |
8973 | 0 | gsicc_adjust_profile_rc(pgs->icc_manager->default_rgb, 1, "gs_pdf14_device_push"); |
8974 | 0 | gsicc_adjust_profile_rc(p14dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE], |
8975 | 0 | -1, "gs_pdf14_device_push"); |
8976 | 0 | p14dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE] = pgs->icc_manager->default_rgb; |
8977 | 0 | } |
8978 | 261k | } |
8979 | | |
8980 | 261k | if (pdf14pct->params.overprint_sim_push && |
8981 | 261k | pdf14pct->params.num_spot_colors_int > 0) { |
8982 | 0 | p14dev->procs.update_spot_equivalent_colors = pdf14_update_spot_equivalent_colors; |
8983 | 0 | p14dev->procs.ret_devn_params = pdf14_ret_devn_params; |
8984 | 0 | p14dev->op_pequiv_cmyk_colors.all_color_info_valid = false; |
8985 | 0 | p14dev->target_support_devn = p14dev->icc_struct->supports_devn; |
8986 | 0 | p14dev->icc_struct->supports_devn = true; /* Reset when pdf14 device is disabled */ |
8987 | 0 | } |
8988 | | |
8989 | | /* The number of color planes should not exceed that of the target. |
8990 | | Unless we are using a blend CS */ |
8991 | 261k | if (!(p14dev->blend_cs_state != PDF14_BLEND_CS_UNSPECIFIED || p14dev->overprint_sim)) { |
8992 | 261k | if (p14dev->color_info.num_components > target->color_info.num_components) |
8993 | 0 | p14dev->color_info.num_components = target->color_info.num_components; |
8994 | 261k | if (p14dev->color_info.max_components > target->color_info.max_components) |
8995 | 11.4k | p14dev->color_info.max_components = target->color_info.max_components; |
8996 | 261k | } |
8997 | 261k | p14dev->color_info.depth = p14dev->color_info.num_components * (8<<deep); |
8998 | | /* If we have a tag device then go ahead and do a special encoder |
8999 | | decoder for the pdf14 device to make sure we maintain this |
9000 | | information in the encoded color information. We could use |
9001 | | the target device's methods but the PDF14 device has to maintain |
9002 | | 8 bit color always and we could run into other issues if the number |
9003 | | of colorants became large. If we need to do compressed color with |
9004 | | tags that will be a special project at that time */ |
9005 | 261k | if (deep) { |
9006 | 0 | set_dev_proc(p14dev, encode_color, pdf14_encode_color16); |
9007 | 0 | set_dev_proc(p14dev, decode_color, pdf14_decode_color16); |
9008 | 0 | } |
9009 | 261k | if (has_tags) { |
9010 | 0 | set_dev_proc(p14dev, encode_color, deep ? pdf14_encode_color16_tag : pdf14_encode_color_tag); |
9011 | 0 | p14dev->color_info.comp_shift[p14dev->color_info.num_components] = p14dev->color_info.depth; |
9012 | 0 | p14dev->color_info.depth += 8; |
9013 | 0 | } |
9014 | | /* if the device has separations already defined (by SeparationOrderNames) */ |
9015 | | /* we need to copy them (allocating new names) so the colorants are in the */ |
9016 | | /* same order as the target device. */ |
9017 | 261k | if (dev_proc(target, dev_spec_op)(target, gxdso_supports_devn, NULL, 0)) { |
9018 | 11.4k | code = devn_copy_params(target, (gx_device *)p14dev); |
9019 | 11.4k | if (code < 0) |
9020 | 0 | return code; |
9021 | 11.4k | } |
9022 | | /* by definition pdf14_encode _is_ standard */ |
9023 | 261k | p14dev->color_info.separable_and_linear = GX_CINFO_SEP_LIN_STANDARD; |
9024 | 261k | gx_device_fill_in_procs((gx_device *)p14dev); |
9025 | 261k | p14dev->save_get_cmap_procs = pgs->get_cmap_procs; |
9026 | 261k | pgs->get_cmap_procs = pdf14_get_cmap_procs; |
9027 | 261k | gx_set_cmap_procs(pgs, (gx_device *)p14dev); |
9028 | | |
9029 | | /* Components shift, etc have to be based upon 8 (or 16) bit */ |
9030 | 1.03M | for (k = 0; k < p14dev->color_info.num_components; k++) { |
9031 | 771k | p14dev->color_info.comp_bits[k] = 8<<deep; |
9032 | 771k | p14dev->color_info.comp_shift[k] = |
9033 | 771k | (p14dev->color_info.num_components - 1 - k) * (8<<deep); |
9034 | 771k | } |
9035 | 261k | if (use_pdf14_accum) { |
9036 | | /* we will disable this device later, but we don't want to allocate large buffers */ |
9037 | 918 | p14dev->width = 1; |
9038 | 918 | p14dev->height = 1; |
9039 | 918 | } |
9040 | | |
9041 | 261k | p14dev->op_state = pgs->is_fill_color ? PDF14_OP_STATE_FILL : PDF14_OP_STATE_NONE; |
9042 | 261k | code = dev_proc((gx_device *) p14dev, open_device) ((gx_device *) p14dev); |
9043 | 261k | *pdev = (gx_device *) p14dev; |
9044 | 261k | pdf14_set_marking_params((gx_device *)p14dev, pgs); |
9045 | 261k | p14dev->color_model_stack = NULL; |
9046 | | |
9047 | | /* In case we have alphabits set */ |
9048 | 261k | p14dev->color_info.anti_alias = target->color_info.anti_alias; |
9049 | | |
9050 | 261k | if (pdf14pct->params.is_pattern) { |
9051 | 6.22k | code = pdf14_initialize_ctx((gx_device*)p14dev, |
9052 | 6.22k | p14dev->color_info.num_components, |
9053 | 6.22k | p14dev->color_info.polarity != GX_CINFO_POLARITY_SUBTRACTIVE, (const gs_gstate*) pgs); |
9054 | 6.22k | if (code < 0) |
9055 | 0 | return code; |
9056 | 6.22k | } |
9057 | | |
9058 | | /* We should never go into this when using a blend color space */ |
9059 | 261k | if (use_pdf14_accum) { |
9060 | 918 | const gx_device_pdf14_accum *accum_proto = NULL; |
9061 | 918 | gx_device *new_target = NULL; |
9062 | 918 | gx_device_color pdcolor; |
9063 | 918 | frac pconc_white = frac_1; |
9064 | 918 | bool UsePlanarBuffer = false; |
9065 | | |
9066 | 918 | if_debug0m('v', mem, "[v]gs_pdf14_device_push: Inserting clist device.\n"); |
9067 | | |
9068 | | /* get the prototype for the accumulator device based on colorspace */ |
9069 | 918 | switch (target->color_info.max_components) { /* use max_components in case is devn device */ |
9070 | 67 | case 1: |
9071 | 67 | accum_proto = &pdf14_accum_Gray; |
9072 | 67 | break; |
9073 | 851 | case 3: |
9074 | 851 | accum_proto = &pdf14_accum_RGB; |
9075 | 851 | break; |
9076 | 0 | case 4: |
9077 | 0 | accum_proto = &pdf14_accum_CMYK; |
9078 | 0 | break; |
9079 | 0 | default: |
9080 | 0 | accum_proto = &pdf14_accum_CMYKspot; |
9081 | 0 | UsePlanarBuffer = true; |
9082 | 918 | } |
9083 | 918 | if (accum_proto == NULL || |
9084 | 918 | (code = gs_copydevice(&new_target, (gx_device *)accum_proto, mem->stable_memory)) < 0) |
9085 | 0 | goto no_clist_accum; |
9086 | | |
9087 | 918 | ((gx_device_pdf14_accum *)new_target)->save_p14dev = (gx_device *)p14dev; /* non-clist p14dev */ |
9088 | | /* Fill in values from the target device before opening */ |
9089 | 918 | new_target->color_info = p14dev->color_info; |
9090 | 918 | ((gx_device_pdf14_accum *)new_target)->devn_params = p14dev->devn_params; |
9091 | 918 | new_target->color_info.separable_and_linear = GX_CINFO_SEP_LIN; |
9092 | 918 | set_linear_color_bits_mask_shift(new_target); |
9093 | 918 | gs_pdf14_device_copy_params(new_target, target); |
9094 | 918 | ((gx_device_pdf14_accum *)new_target)->page_uses_transparency = true; |
9095 | 918 | gx_device_fill_in_procs(new_target); |
9096 | | |
9097 | 918 | memcpy(&(new_target->space_params), &(target->space_params), sizeof(gdev_space_params)); |
9098 | 918 | max_bitmap = max(target->space_params.MaxBitmap, target->space_params.BufferSpace); |
9099 | 918 | ((gx_device_pdf14_accum *)new_target)->space_params.BufferSpace = max_bitmap; |
9100 | | |
9101 | 918 | new_target->PageHandlerPushed = true; |
9102 | 918 | new_target->ObjectHandlerPushed = true; |
9103 | 918 | new_target->NupHandlerPushed = true; |
9104 | | /* if the device has separations already defined (by SeparationOrderNames) */ |
9105 | | /* we need to copy them (allocating new names) so the colorants are in the */ |
9106 | | /* same order as the target device. */ |
9107 | 918 | if (dev_proc(target, dev_spec_op)(target, gxdso_supports_devn, NULL, 0)) { |
9108 | 0 | code = devn_copy_params(target, (gx_device *)pdev); |
9109 | 0 | if (code < 0) |
9110 | 0 | return code; |
9111 | 0 | } |
9112 | | /* UsePlanarBuffer is true in case this is CMYKspot */ |
9113 | 918 | if ((code = gdev_prn_open_planar(new_target, UsePlanarBuffer)) < 0 || |
9114 | 918 | !PRINTER_IS_CLIST((gx_device_printer *)new_target)) { |
9115 | 0 | gs_free_object(mem->stable_memory, new_target, "pdf14-accum"); |
9116 | 0 | goto no_clist_accum; |
9117 | 0 | } |
9118 | | /* Do the initial fillpage into the pdf14-accum device we just created */ |
9119 | 918 | dev_proc(new_target, set_graphics_type_tag)((gx_device *)new_target, GS_UNTOUCHED_TAG); |
9120 | 918 | if ((code = gx_remap_concrete_DGray(gs_currentcolorspace_inline((gs_gstate *)pgs), |
9121 | 918 | &pconc_white, |
9122 | 918 | &pdcolor, pgs, new_target, gs_color_select_all, |
9123 | 918 | dev_profile)) < 0) |
9124 | 0 | goto no_clist_accum; |
9125 | | |
9126 | 918 | (*dev_proc(new_target, fillpage))(new_target, pgs, &pdcolor); |
9127 | 918 | code = clist_composite(new_target, pdev, (gs_composite_t *)pdf14pct, pgs, mem, NULL); |
9128 | 918 | if (code < 0) |
9129 | 0 | goto no_clist_accum; |
9130 | | |
9131 | 918 | pdf14_disable_device((gx_device *)p14dev); /* make the non-clist device forward */ |
9132 | 918 | pdf14_close((gx_device *)p14dev); /* and free up the little memory it had */ |
9133 | 918 | } |
9134 | 261k | return code; |
9135 | | |
9136 | 0 | no_clist_accum: |
9137 | | /* FIXME: We allocated a really small p14dev, but that won't work */ |
9138 | 0 | return gs_throw_code(gs_error_Fatal); /* punt for now */ |
9139 | 261k | } |
9140 | | |
9141 | | /* |
9142 | | * In a modest violation of good coding practice, the gs_composite_common |
9143 | | * fields are "known" to be simple (contain no pointers to garbage |
9144 | | * collected memory), and we also know the gs_pdf14trans_params_t structure |
9145 | | * to be simple, so we just create a trivial structure descriptor for the |
9146 | | * entire gs_pdf14trans_s structure. |
9147 | | */ |
9148 | | #define private_st_gs_pdf14trans_t()\ |
9149 | | gs_private_st_ptrs2(st_pdf14trans, gs_pdf14trans_t, "gs_pdf14trans_t",\ |
9150 | | st_pdf14trans_enum_ptrs, st_pdf14trans_reloc_ptrs, params.transfer_function, params.iccprofile) |
9151 | | |
9152 | | /* GC descriptor for gs_pdf14trans_t */ |
9153 | | private_st_gs_pdf14trans_t(); |
9154 | | |
9155 | | /* |
9156 | | * Check for equality of two PDF 1.4 transparency compositor objects. |
9157 | | * |
9158 | | * We are currently always indicating that PDF 1.4 transparency compositors are |
9159 | | * equal. Two transparency compositors may have teh same data but still |
9160 | | * represent separate actions. (E.g. two PDF14_BEGIN_TRANS_GROUP compositor |
9161 | | * operations in a row mean that we are creating a group inside of a group. |
9162 | | */ |
9163 | | static bool |
9164 | | c_pdf14trans_equal(const gs_composite_t * pct0, const gs_composite_t * pct1) |
9165 | 0 | { |
9166 | 0 | return false; |
9167 | 0 | } |
9168 | | |
9169 | | #ifdef DEBUG |
9170 | | static const char * pdf14_opcode_names[] = PDF14_OPCODE_NAMES; |
9171 | | #endif |
9172 | | |
9173 | | #define put_value(dp, value)\ |
9174 | 2.25M | BEGIN\ |
9175 | 2.25M | memcpy(dp, &value, sizeof(value));\ |
9176 | 2.25M | dp += sizeof(value);\ |
9177 | 2.25M | END |
9178 | | |
9179 | | static inline int |
9180 | | c_pdf14trans_write_ctm(byte **ppbuf, const gs_pdf14trans_params_t *pparams) |
9181 | 266k | { |
9182 | | /* Note: We can't skip writing CTM if it is equal to pgs->ctm, |
9183 | | because clist writer may skip this command for some bands. |
9184 | | For a better result we need individual CTM for each band. |
9185 | | */ |
9186 | 266k | byte *pbuf = *ppbuf; |
9187 | 266k | int len, code; |
9188 | | |
9189 | 266k | len = cmd_write_ctm_return_length_nodevice(&pparams->ctm); |
9190 | 266k | pbuf--; /* For cmd_write_ctm. */ |
9191 | 266k | code = cmd_write_ctm(&pparams->ctm, pbuf, len); |
9192 | 266k | if (code < 0) |
9193 | 0 | return code; |
9194 | 266k | pbuf += len + 1; |
9195 | 266k | *ppbuf = pbuf; |
9196 | 266k | return 0; |
9197 | 266k | } |
9198 | | |
9199 | | /* |
9200 | | * Convert a PDF 1.4 transparency compositor to string form for use by the command |
9201 | | * list device. This is also where we update the pdf14_needed. When set the clist |
9202 | | * painting procs will update the trans_bbox state for bands that are affected. |
9203 | | */ |
9204 | | static int |
9205 | | c_pdf14trans_write(const gs_composite_t * pct, byte * data, uint * psize, |
9206 | | gx_device_clist_writer *cdev) |
9207 | 651k | { |
9208 | 651k | const gs_pdf14trans_params_t * pparams = &((const gs_pdf14trans_t *)pct)->params; |
9209 | 651k | int need, avail = *psize; |
9210 | 651k | byte buf[MAX_CLIST_TRANSPARENCY_BUFFER_SIZE]; /* Must be large enough |
9211 | | to fit the data written below. We don't implement a dynamic check for |
9212 | | the buffer owerflow, assuming that the consistency is verified in the |
9213 | | coding phase. See the definition of MAX_CLIST_TRANSPARENCY_BUFFER_SIZE. */ |
9214 | 651k | byte * pbuf = buf; |
9215 | 651k | int opcode = pparams->pdf14_op; |
9216 | 651k | int mask_size = 0; |
9217 | 651k | uint mask_id = 0; |
9218 | 651k | int code; |
9219 | 651k | bool found_icc; |
9220 | 651k | int64_t hashcode = 0; |
9221 | 651k | cmm_profile_t *icc_profile; |
9222 | 651k | gsicc_rendering_param_t render_cond; |
9223 | 651k | cmm_dev_profile_t *dev_profile; |
9224 | | /* We maintain and update working copies until we actually write the clist */ |
9225 | 651k | int pdf14_needed = cdev->pdf14_needed; |
9226 | 651k | int trans_group_level = cdev->pdf14_trans_group_level; |
9227 | 651k | int smask_level = cdev->pdf14_smask_level; |
9228 | 651k | bool deep = device_is_deep((gx_device *)cdev); |
9229 | | |
9230 | 651k | code = dev_proc((gx_device *) cdev, get_profile)((gx_device *) cdev, |
9231 | 651k | &dev_profile); |
9232 | 651k | if (code < 0) |
9233 | 0 | return code; |
9234 | 651k | gsicc_extract_profile(GS_UNKNOWN_TAG, dev_profile, &icc_profile, |
9235 | 651k | &render_cond); |
9236 | 651k | *pbuf++ = opcode; /* 1 byte */ |
9237 | 651k | if (trans_group_level < 0 && opcode != PDF14_PUSH_DEVICE) |
9238 | 0 | return_error(gs_error_unregistered); /* prevent spurious transparency ops (Bug 702327) */ |
9239 | | |
9240 | 651k | switch (opcode) { |
9241 | 0 | default: /* Should not occur. */ |
9242 | 0 | break; |
9243 | 5.45k | case PDF14_PUSH_DEVICE: |
9244 | 5.45k | trans_group_level = 0; |
9245 | 5.45k | cdev->pdf14_smask_level = 0; |
9246 | 5.45k | cdev->page_pdf14_needed = false; |
9247 | 5.45k | put_value(pbuf, pparams->num_spot_colors); |
9248 | 5.45k | put_value(pbuf, pparams->num_spot_colors_int); |
9249 | 5.45k | put_value(pbuf, pparams->overprint_sim_push); |
9250 | 5.45k | put_value(pbuf, pparams->is_pattern); |
9251 | | |
9252 | | /* If we happen to be going to a color space like CIELAB then |
9253 | | we are going to do our blending in default RGB and convert |
9254 | | to CIELAB at the end. To do this, we need to store the |
9255 | | default RGB profile in the clist so that we can grab it |
9256 | | later on during the clist read back and put image command */ |
9257 | 5.45k | if (icc_profile->data_cs == gsCIELAB || icc_profile->islab) { |
9258 | | /* Get the default RGB profile. Set the device hash code |
9259 | | so that we can extract it during the put_image operation. */ |
9260 | 0 | cdev->trans_dev_icc_hash = gsicc_get_hash(pparams->iccprofile); |
9261 | 0 | found_icc = |
9262 | 0 | clist_icc_searchtable(cdev, gsicc_get_hash(pparams->iccprofile)); |
9263 | 0 | if (!found_icc) { |
9264 | | /* Add it to the table */ |
9265 | 0 | clist_icc_addentry(cdev, gsicc_get_hash(pparams->iccprofile), |
9266 | 0 | pparams->iccprofile); |
9267 | 0 | } |
9268 | 0 | } |
9269 | 5.45k | break; |
9270 | 5.29k | case PDF14_POP_DEVICE: |
9271 | 5.29k | pdf14_needed = false; /* reset pdf14_needed */ |
9272 | 5.29k | trans_group_level = -1; /* reset so we need to PUSH_DEVICE next */ |
9273 | 5.29k | smask_level = 0; |
9274 | 5.29k | put_value(pbuf, pparams->is_pattern); |
9275 | 5.29k | break; |
9276 | 136k | case PDF14_END_TRANS_GROUP: |
9277 | 137k | case PDF14_END_TRANS_TEXT_GROUP: |
9278 | 137k | trans_group_level--; /* if now at page level, pdf14_needed will be updated */ |
9279 | 137k | if (smask_level == 0 && trans_group_level == 0) |
9280 | 7.19k | pdf14_needed = cdev->page_pdf14_needed; |
9281 | 137k | break; /* No data */ |
9282 | 1.87k | case PDF14_BEGIN_TRANS_PAGE_GROUP: |
9283 | 137k | case PDF14_BEGIN_TRANS_GROUP: |
9284 | 137k | pdf14_needed = true; /* the compositor will be needed while reading */ |
9285 | 137k | trans_group_level++; |
9286 | 137k | code = c_pdf14trans_write_ctm(&pbuf, pparams); |
9287 | 137k | if (code < 0) |
9288 | 0 | return code; |
9289 | 137k | *pbuf++ = (pparams->Isolated & 1) + ((pparams->Knockout & 1) << 1); |
9290 | 137k | *pbuf++ = pparams->blend_mode; |
9291 | 137k | *pbuf++ = pparams->group_color_type; |
9292 | 137k | *pbuf++ = pparams->page_group; |
9293 | 137k | put_value(pbuf, pparams->group_color_numcomps); |
9294 | 137k | put_value(pbuf, pparams->opacity); |
9295 | 137k | put_value(pbuf, pparams->shape); |
9296 | 137k | put_value(pbuf, pparams->bbox); |
9297 | 137k | put_value(pbuf, pparams->shade_group); |
9298 | 137k | put_value(pbuf, pparams->text_group); |
9299 | 137k | mask_id = pparams->mask_id; |
9300 | 137k | put_value(pbuf, mask_id); |
9301 | | /* Color space information maybe ICC based |
9302 | | in this case we need to store the ICC |
9303 | | profile or the ID if it is cached already */ |
9304 | 137k | if (pparams->group_color_type == ICC) { |
9305 | | /* Check if it is already in the ICC clist table */ |
9306 | 3.41k | hashcode = gsicc_get_hash(pparams->iccprofile); |
9307 | 3.41k | found_icc = clist_icc_searchtable(cdev, hashcode); |
9308 | 3.41k | if (!found_icc) { |
9309 | | /* Add it to the table */ |
9310 | 993 | clist_icc_addentry(cdev, hashcode, pparams->iccprofile); |
9311 | 993 | put_value(pbuf, hashcode); |
9312 | 2.42k | } else { |
9313 | | /* It will be in the clist. Just write out the hashcode */ |
9314 | 2.42k | put_value(pbuf, hashcode); |
9315 | 2.42k | } |
9316 | 133k | } else { |
9317 | 133k | put_value(pbuf, hashcode); |
9318 | 133k | } |
9319 | 137k | break; |
9320 | 128k | case PDF14_BEGIN_TRANS_MASK: |
9321 | 128k | if (pparams->subtype != TRANSPARENCY_MASK_None) { |
9322 | 112k | pdf14_needed = true; /* the compositor will be needed while reading */ |
9323 | 112k | smask_level++; |
9324 | 112k | } |
9325 | 128k | code = c_pdf14trans_write_ctm(&pbuf, pparams); |
9326 | 128k | if (code < 0) |
9327 | 0 | return code; |
9328 | 128k | put_value(pbuf, pparams->subtype); |
9329 | 128k | *pbuf++ = pparams->group_color_type; |
9330 | 128k | put_value(pbuf, pparams->group_color_numcomps); |
9331 | 128k | *pbuf++ = pparams->replacing; |
9332 | 128k | *pbuf++ = (pparams->function_is_identity) | (deep<<1); |
9333 | 128k | *pbuf++ = pparams->Background_components; |
9334 | 128k | *pbuf++ = pparams->Matte_components; |
9335 | 128k | put_value(pbuf, pparams->bbox); |
9336 | 128k | mask_id = pparams->mask_id; |
9337 | 128k | put_value(pbuf, mask_id); |
9338 | 128k | if (pparams->Background_components) { |
9339 | 728 | const int l = sizeof(pparams->Background[0]) * pparams->Background_components; |
9340 | | |
9341 | 728 | memcpy(pbuf, pparams->Background, l); |
9342 | 728 | pbuf += l; |
9343 | 728 | memcpy(pbuf, &pparams->GrayBackground, sizeof(pparams->GrayBackground)); |
9344 | 728 | pbuf += sizeof(pparams->GrayBackground); |
9345 | 728 | } |
9346 | 128k | if (pparams->Matte_components) { |
9347 | 6 | const int m = sizeof(pparams->Matte[0]) * pparams->Matte_components; |
9348 | | |
9349 | 6 | memcpy(pbuf, pparams->Matte, m); |
9350 | 6 | pbuf += m; |
9351 | 6 | } |
9352 | 128k | if (!pparams->function_is_identity) |
9353 | 355 | mask_size = (256+deep)<<deep; |
9354 | | /* Color space information may be ICC based |
9355 | | in this case we need to store the ICC |
9356 | | profile or the ID if it is cached already */ |
9357 | 128k | if (pparams->group_color_type == ICC) { |
9358 | | /* Check if it is already in the ICC clist table */ |
9359 | 112k | hashcode = gsicc_get_hash(pparams->iccprofile); |
9360 | 112k | found_icc = clist_icc_searchtable(cdev, hashcode); |
9361 | 112k | if (!found_icc) { |
9362 | | /* Add it to the table */ |
9363 | 888 | clist_icc_addentry(cdev, hashcode, pparams->iccprofile); |
9364 | 888 | put_value(pbuf, hashcode); |
9365 | 111k | } else { |
9366 | | /* It will be in the clist. Just write out the hashcode */ |
9367 | 111k | put_value(pbuf, hashcode); |
9368 | 111k | } |
9369 | 112k | } else { |
9370 | 16.7k | put_value(pbuf, hashcode); |
9371 | 16.7k | } |
9372 | 128k | break; |
9373 | 112k | case PDF14_END_TRANS_MASK: |
9374 | 112k | smask_level--; |
9375 | 112k | if (smask_level == 0 && trans_group_level == 0) |
9376 | 3.66k | pdf14_needed = cdev->page_pdf14_needed; |
9377 | 112k | break; |
9378 | 111k | case PDF14_SET_BLEND_PARAMS: |
9379 | 111k | if (pparams->blend_mode != BLEND_MODE_Normal || pparams->opacity != 1.0 || |
9380 | 111k | pparams->shape != 1.0) |
9381 | 111k | pdf14_needed = true; /* the compositor will be needed while reading */ |
9382 | 0 | else if (smask_level == 0 && trans_group_level == 0) |
9383 | 0 | pdf14_needed = false; /* At page level, set back to false */ |
9384 | 111k | if (smask_level == 0 && trans_group_level == 0) |
9385 | 53.8k | cdev->page_pdf14_needed = pdf14_needed; /* save for after popping to page level */ |
9386 | | /* Changed is now two bytes due to overprint stroke fill. Write as int */ |
9387 | 111k | put_value(pbuf, pparams->changed); |
9388 | 111k | if (pparams->changed & PDF14_SET_BLEND_MODE) |
9389 | 10.0k | *pbuf++ = pparams->blend_mode; |
9390 | 111k | if (pparams->changed & PDF14_SET_TEXT_KNOCKOUT) |
9391 | 5.09k | *pbuf++ = pparams->text_knockout; |
9392 | 111k | if (pparams->changed & PDF14_SET_AIS) |
9393 | 111k | put_value(pbuf, pparams->ais); |
9394 | 111k | if (pparams->changed & PDF14_SET_OVERPRINT) |
9395 | 111k | put_value(pbuf, pparams->overprint); |
9396 | 111k | if (pparams->changed & PDF14_SET_STROKEOVERPRINT) |
9397 | 111k | put_value(pbuf, pparams->stroke_overprint); |
9398 | 111k | if (pparams->changed & PDF14_SET_FILLCONSTANTALPHA) |
9399 | 111k | put_value(pbuf, pparams->fillconstantalpha); |
9400 | 111k | if (pparams->changed & PDF14_SET_STROKECONSTANTALPHA) |
9401 | 111k | put_value(pbuf, pparams->strokeconstantalpha); |
9402 | 111k | if (pparams->changed & PDF14_SET_FILLSTROKE_STATE) |
9403 | 111k | put_value(pbuf, pparams->op_fs_state); |
9404 | 111k | break; |
9405 | 0 | case PDF14_PUSH_TRANS_STATE: |
9406 | 0 | break; |
9407 | 14.3k | case PDF14_POP_TRANS_STATE: |
9408 | 14.3k | break; |
9409 | 0 | case PDF14_PUSH_SMASK_COLOR: |
9410 | 0 | return 0; /* We really should never be here */ |
9411 | 0 | break; |
9412 | 0 | case PDF14_POP_SMASK_COLOR: |
9413 | 0 | return 0; /* We really should never be here */ |
9414 | 0 | break; |
9415 | 651k | } |
9416 | | |
9417 | | /* check for fit */ |
9418 | 651k | need = (pbuf - buf) + mask_size; |
9419 | 651k | *psize = need; |
9420 | 651k | if (need > avail) { |
9421 | 114k | if (avail) |
9422 | 0 | return_error(gs_error_rangecheck); |
9423 | 114k | else |
9424 | 114k | return gs_error_rangecheck; |
9425 | 114k | } |
9426 | | |
9427 | | /* If we are writing more than the maximum ever expected, |
9428 | | * return a rangecheck error. Second check is for Coverity |
9429 | | */ |
9430 | 536k | if ((need + 3 > MAX_CLIST_COMPOSITOR_SIZE) || |
9431 | 536k | (need + 3 - mask_size > MAX_CLIST_TRANSPARENCY_BUFFER_SIZE) ) |
9432 | 0 | return_error(gs_error_rangecheck); |
9433 | | |
9434 | | /* Copy our serialized data into the output buffer */ |
9435 | 536k | memcpy(data, buf, need - mask_size); |
9436 | 536k | if (mask_size) /* Include the transfer mask data if present */ |
9437 | 264 | memcpy(data + need - mask_size, pparams->transfer_fn, mask_size); |
9438 | 536k | if_debug3m('v', cdev->memory, |
9439 | 536k | "[v] c_pdf14trans_write: opcode = %s mask_id=%d need = %d\n", |
9440 | 536k | pdf14_opcode_names[opcode], mask_id, need); |
9441 | 536k | cdev->pdf14_needed = pdf14_needed; /* all OK to update */ |
9442 | 536k | cdev->pdf14_trans_group_level = trans_group_level; |
9443 | 536k | cdev->pdf14_smask_level = smask_level; |
9444 | 536k | return 0; |
9445 | 536k | } |
9446 | | |
9447 | | #undef put_value |
9448 | | |
9449 | | /* Function prototypes */ |
9450 | | static int gs_create_pdf14trans( gs_composite_t ** ppct, |
9451 | | const gs_pdf14trans_params_t * pparams, |
9452 | | gs_memory_t * mem ); |
9453 | | |
9454 | | #define read_value(dp, value)\ |
9455 | 40.9M | BEGIN\ |
9456 | 40.9M | memcpy(&value, dp, sizeof(value));\ |
9457 | 40.9M | dp += sizeof(value);\ |
9458 | 40.9M | END |
9459 | | |
9460 | | /* |
9461 | | * Convert the string representation of the PDF 1.4 transparency parameter |
9462 | | * into the full compositor. |
9463 | | */ |
9464 | | static int |
9465 | | c_pdf14trans_read(gs_composite_t * * ppct, const byte * data, |
9466 | | uint size, gs_memory_t * mem ) |
9467 | 13.0M | { |
9468 | 13.0M | gs_pdf14trans_params_t params = {0}; |
9469 | 13.0M | const byte * start = data; |
9470 | 13.0M | int used, code = 0; |
9471 | 13.0M | bool deep; |
9472 | | |
9473 | 13.0M | if (size < 1) |
9474 | 0 | return_error(gs_error_rangecheck); |
9475 | | |
9476 | | /* Read PDF 1.4 compositor data from the clist */ |
9477 | 13.0M | params.pdf14_op = *data++; |
9478 | 13.0M | if_debug2m('v', mem, "[v] c_pdf14trans_read: opcode = %s avail = %d", |
9479 | 13.0M | pdf14_opcode_names[params.pdf14_op], size); |
9480 | 13.0M | memset(¶ms.ctm, 0, sizeof(params.ctm)); |
9481 | 13.0M | switch (params.pdf14_op) { |
9482 | 0 | default: /* Should not occur. */ |
9483 | 0 | break; |
9484 | 358k | case PDF14_PUSH_DEVICE: |
9485 | 358k | read_value(data, params.num_spot_colors); |
9486 | 358k | read_value(data, params.num_spot_colors_int); |
9487 | 358k | read_value(data, params.overprint_sim_push); |
9488 | 358k | read_value(data, params.is_pattern); |
9489 | 358k | break; |
9490 | 0 | case PDF14_ABORT_DEVICE: |
9491 | 0 | break; |
9492 | 358k | case PDF14_POP_DEVICE: |
9493 | 358k | read_value(data, params.is_pattern); |
9494 | 358k | break; |
9495 | 585k | case PDF14_END_TRANS_GROUP: |
9496 | 629k | case PDF14_END_TRANS_TEXT_GROUP: |
9497 | | #ifdef DEBUG |
9498 | | code += 0; /* A good place for a breakpoint. */ |
9499 | | #endif |
9500 | 629k | break; /* No data */ |
9501 | 0 | case PDF14_PUSH_TRANS_STATE: |
9502 | 0 | break; |
9503 | 1.09M | case PDF14_POP_TRANS_STATE: |
9504 | 1.09M | break; |
9505 | 141k | case PDF14_BEGIN_TRANS_PAGE_GROUP: |
9506 | 629k | case PDF14_BEGIN_TRANS_GROUP: |
9507 | | /* |
9508 | | * We are currently not using the bbox or the colorspace so they were |
9509 | | * not placed in the clist |
9510 | | */ |
9511 | 629k | data = cmd_read_matrix(¶ms.ctm, data); |
9512 | 629k | params.Isolated = (*data) & 1; |
9513 | 629k | params.Knockout = (*data++ >> 1) & 1; |
9514 | 629k | params.blend_mode = *data++; |
9515 | 629k | params.group_color_type = *data++; /* Trans group color */ |
9516 | 629k | params.page_group = *data++; |
9517 | 629k | read_value(data,params.group_color_numcomps); /* color group size */ |
9518 | 629k | read_value(data, params.opacity); |
9519 | 629k | read_value(data, params.shape); |
9520 | 629k | read_value(data, params.bbox); |
9521 | 629k | read_value(data, params.shade_group); |
9522 | 629k | read_value(data, params.text_group); |
9523 | 629k | read_value(data, params.mask_id); |
9524 | 629k | read_value(data, params.icc_hash); |
9525 | 629k | break; |
9526 | 1.34M | case PDF14_BEGIN_TRANS_MASK: |
9527 | | /* This is the largest transparency parameter at this time (potentially |
9528 | | * 1531 bytes in size if Background_components = |
9529 | | * GS_CLIENT_COLOR_MAX_COMPONENTS and Matte_components = |
9530 | | * GS_CLIENT_COLOR_MAX_COMPONENTS and we have a transfer function as well). |
9531 | | * |
9532 | | * NOTE: |
9533 | | * The clist reader must be able to handle this sized device. |
9534 | | * If any changes are made here the #define MAX_CLIST_COMPOSITOR_SIZE |
9535 | | * may also need to be changed correspondingly (defined in gstparam.h) |
9536 | | * Also... if another compositor param should exceed this size, this |
9537 | | * same condition applies. |
9538 | | */ |
9539 | 1.34M | data = cmd_read_matrix(¶ms.ctm, data); |
9540 | 1.34M | read_value(data, params.subtype); |
9541 | 1.34M | params.group_color_type = *data++; |
9542 | 1.34M | read_value(data, params.group_color_numcomps); |
9543 | 1.34M | params.replacing = *data++; |
9544 | 1.34M | params.function_is_identity = *data & 1; |
9545 | 1.34M | deep = (*data++)>>1; |
9546 | 1.34M | params.Background_components = *data++; |
9547 | 1.34M | params.Matte_components = *data++; |
9548 | 1.34M | read_value(data, params.bbox); |
9549 | 1.34M | read_value(data, params.mask_id); |
9550 | 1.34M | if (params.Background_components) { |
9551 | 37.0k | const int l = sizeof(params.Background[0]) * params.Background_components; |
9552 | | |
9553 | 37.0k | memcpy(params.Background, data, l); |
9554 | 37.0k | data += l; |
9555 | 37.0k | memcpy(¶ms.GrayBackground, data, sizeof(params.GrayBackground)); |
9556 | 37.0k | data += sizeof(params.GrayBackground); |
9557 | 37.0k | } |
9558 | 1.34M | if (params.Matte_components) { |
9559 | 409 | const int m = sizeof(params.Matte[0]) * params.Matte_components; |
9560 | | |
9561 | 409 | memcpy(params.Matte, data, m); |
9562 | 409 | data += m; |
9563 | 409 | } |
9564 | 1.34M | read_value(data, params.icc_hash); |
9565 | 1.34M | if (params.function_is_identity) { |
9566 | 1.33M | int i; |
9567 | | |
9568 | 1.33M | if (deep) { |
9569 | 0 | for (i = 0; i < MASK_TRANSFER_FUNCTION_SIZE; i++) |
9570 | 0 | ((uint16_t *)params.transfer_fn)[i] = i*0x10000/MASK_TRANSFER_FUNCTION_SIZE; |
9571 | 0 | ((uint16_t *)params.transfer_fn)[i] = 0xffff; |
9572 | 1.33M | } else { |
9573 | 342M | for (i = 0; i < MASK_TRANSFER_FUNCTION_SIZE; i++) { |
9574 | 341M | params.transfer_fn[i] = (byte)floor(i * |
9575 | 341M | (255.0 / (MASK_TRANSFER_FUNCTION_SIZE - 1)) + 0.5); |
9576 | 341M | } |
9577 | 1.33M | } |
9578 | 1.33M | } else { |
9579 | 9.50k | memcpy(params.transfer_fn, data, (256+deep)<<deep); |
9580 | 9.50k | data += (256+deep)<<deep; |
9581 | 9.50k | } |
9582 | 1.34M | break; |
9583 | 139k | case PDF14_END_TRANS_MASK: |
9584 | 139k | break; |
9585 | 0 | case PDF14_PUSH_SMASK_COLOR: |
9586 | 0 | return 0; |
9587 | 0 | break; |
9588 | 0 | case PDF14_POP_SMASK_COLOR: |
9589 | 0 | return 0; |
9590 | 0 | break; |
9591 | 8.50M | case PDF14_SET_BLEND_PARAMS: |
9592 | 8.50M | read_value(data, params.changed); |
9593 | 8.50M | if (params.changed & PDF14_SET_BLEND_MODE) |
9594 | 778k | params.blend_mode = *data++; |
9595 | 8.50M | if (params.changed & PDF14_SET_TEXT_KNOCKOUT) |
9596 | 344k | params.text_knockout = *data++; |
9597 | 8.50M | if (params.changed & PDF14_SET_AIS) |
9598 | 8.50M | read_value(data, params.ais); |
9599 | 8.50M | if (params.changed & PDF14_SET_OVERPRINT) |
9600 | 8.50M | read_value(data, params.overprint); |
9601 | 8.50M | if (params.changed & PDF14_SET_STROKEOVERPRINT) |
9602 | 8.50M | read_value(data, params.stroke_overprint); |
9603 | 8.50M | if (params.changed & PDF14_SET_FILLCONSTANTALPHA) |
9604 | 8.50M | read_value(data, params.fillconstantalpha); |
9605 | 8.50M | if (params.changed & PDF14_SET_STROKECONSTANTALPHA) |
9606 | 8.50M | read_value(data, params.strokeconstantalpha); |
9607 | 8.50M | if (params.changed & PDF14_SET_FILLSTROKE_STATE) |
9608 | 8.50M | read_value(data, params.op_fs_state); |
9609 | 8.50M | break; |
9610 | 13.0M | } |
9611 | 13.0M | code = gs_create_pdf14trans(ppct, ¶ms, mem); |
9612 | 13.0M | if (code < 0) |
9613 | 0 | return code; |
9614 | 13.0M | used = data - start; |
9615 | 13.0M | if_debug2m('v', mem, " mask_id=%d used = %d\n", params.mask_id, used); |
9616 | | |
9617 | | /* If we read more than the maximum expected, return a rangecheck error */ |
9618 | 13.0M | if ( used + 3 > MAX_CLIST_COMPOSITOR_SIZE ) |
9619 | 0 | return_error(gs_error_rangecheck); |
9620 | 13.0M | else |
9621 | 13.0M | return used; |
9622 | 13.0M | } |
9623 | | |
9624 | | /* |
9625 | | * Adjust the compositor's CTM. |
9626 | | */ |
9627 | | static int |
9628 | | c_pdf14trans_adjust_ctm(gs_composite_t * pct0, int x0, int y0, gs_gstate *pgs) |
9629 | 6.36M | { |
9630 | 6.36M | gs_pdf14trans_t *pct = (gs_pdf14trans_t *)pct0; |
9631 | 6.36M | gs_matrix mat = pct->params.ctm; |
9632 | | |
9633 | 6.36M | if_debug6m('L', pgs->memory, " [%g %g %g %g %g %g]\n", |
9634 | 6.36M | mat.xx, mat.xy, mat.yx, mat.yy, |
9635 | 6.36M | mat.tx, mat.ty); |
9636 | 6.36M | mat.tx -= x0; |
9637 | 6.36M | mat.ty -= y0; |
9638 | 6.36M | gs_gstate_setmatrix(pgs, &mat); |
9639 | 6.36M | return 0; |
9640 | 6.36M | } |
9641 | | |
9642 | | /* |
9643 | | * Create a PDF 1.4 transparency compositor. |
9644 | | * |
9645 | | * Note that this routine will be called only if the device is not already |
9646 | | * a PDF 1.4 transparency compositor. |
9647 | | * Return an error if it is not a PDF14_PUSH_DEVICE operation. |
9648 | | */ |
9649 | | static int |
9650 | | c_pdf14trans_create_default_compositor(const gs_composite_t * pct, |
9651 | | gx_device ** pp14dev, gx_device * tdev, gs_gstate * pgs, |
9652 | | gs_memory_t * mem) |
9653 | 261k | { |
9654 | 261k | const gs_pdf14trans_t * pdf14pct = (const gs_pdf14trans_t *) pct; |
9655 | 261k | int code = 0; |
9656 | | |
9657 | | /* |
9658 | | * We only handle the push operation. All other operations are ignored. |
9659 | | * The other operations will be handled by the composite routine |
9660 | | * for the PDF 1.4 compositing device. |
9661 | | */ |
9662 | 261k | switch (pdf14pct->params.pdf14_op) { |
9663 | 261k | case PDF14_PUSH_DEVICE: |
9664 | 261k | code = gs_pdf14_device_push(mem, pgs, pp14dev, tdev, pdf14pct); |
9665 | | /* Change (non-error) code to 1 to indicate that we created |
9666 | | * a device. */ |
9667 | 261k | if (code >= 0) |
9668 | 261k | code = 1; |
9669 | 261k | break; |
9670 | 4 | default: |
9671 | | /* No other compositor actions are allowed if this isn't a pdf14 compositor */ |
9672 | 4 | *pp14dev = NULL; |
9673 | 4 | return_error(gs_error_unregistered); |
9674 | 261k | } |
9675 | 261k | return code; |
9676 | 261k | } |
9677 | | |
9678 | | /* |
9679 | | * Find an opening compositor op. |
9680 | | */ |
9681 | | static gs_compositor_closing_state |
9682 | | find_opening_op(int opening_op, gs_composite_t **ppcte, |
9683 | | gs_compositor_closing_state return_code) |
9684 | 610k | { |
9685 | | /* Assuming a right *BEGIN* - *END* operation balance. */ |
9686 | 610k | gs_composite_t *pcte = *ppcte; |
9687 | | |
9688 | 1.46M | for (;;) { |
9689 | 1.46M | if (pcte->type->comp_id == GX_COMPOSITOR_PDF14_TRANS) { |
9690 | 1.40M | gs_pdf14trans_t *pct = (gs_pdf14trans_t *)pcte; |
9691 | 1.40M | int op = pct->params.pdf14_op; |
9692 | | |
9693 | 1.40M | *ppcte = pcte; |
9694 | 1.40M | if (op == opening_op) |
9695 | 400k | return return_code; |
9696 | 1.00M | if (op != PDF14_SET_BLEND_PARAMS) { |
9697 | 651k | if (opening_op == PDF14_BEGIN_TRANS_MASK) |
9698 | 33 | return COMP_ENQUEUE; |
9699 | 651k | if (opening_op == PDF14_BEGIN_TRANS_GROUP || opening_op == PDF14_BEGIN_TRANS_PAGE_GROUP) { |
9700 | 72.9k | if (op != PDF14_BEGIN_TRANS_MASK && op != PDF14_END_TRANS_MASK) |
9701 | 69.6k | return COMP_ENQUEUE; |
9702 | 72.9k | } |
9703 | 581k | if (opening_op == PDF14_PUSH_DEVICE) { |
9704 | 578k | if (op != PDF14_BEGIN_TRANS_MASK && op != PDF14_END_TRANS_MASK && |
9705 | 578k | op != PDF14_BEGIN_TRANS_GROUP && op != PDF14_BEGIN_TRANS_PAGE_GROUP && op != PDF14_END_TRANS_GROUP && |
9706 | 578k | op != PDF14_END_TRANS_TEXT_GROUP) |
9707 | 37.9k | return COMP_ENQUEUE; |
9708 | 578k | } |
9709 | 581k | } |
9710 | 1.00M | } else |
9711 | 59.0k | return COMP_ENQUEUE; |
9712 | 894k | pcte = pcte->prev; |
9713 | 894k | if (pcte == NULL) |
9714 | 43.1k | return COMP_EXEC_QUEUE; /* Not in queue. */ |
9715 | 894k | } |
9716 | 610k | } |
9717 | | |
9718 | | /* |
9719 | | * Find an opening compositor op. |
9720 | | */ |
9721 | | static gs_compositor_closing_state |
9722 | | find_same_op(const gs_composite_t *composite_action, int my_op, gs_composite_t **ppcte) |
9723 | 7.14M | { |
9724 | 7.14M | const gs_pdf14trans_t *pct0 = (gs_pdf14trans_t *)composite_action; |
9725 | 7.14M | gs_composite_t *pct = *ppcte; |
9726 | | |
9727 | 7.14M | for (;;) { |
9728 | 7.14M | if (pct->type->comp_id == GX_COMPOSITOR_PDF14_TRANS) { |
9729 | 6.76M | gs_pdf14trans_t *pct_pdf14 = (gs_pdf14trans_t *)pct; |
9730 | | |
9731 | 6.76M | *ppcte = pct; |
9732 | 6.76M | if (pct_pdf14->params.pdf14_op != my_op) |
9733 | 988k | return COMP_ENQUEUE; |
9734 | 5.77M | if (pct_pdf14->params.csel == pct0->params.csel) { |
9735 | | /* If the new parameters completely replace the old ones |
9736 | | then remove the old one from the queu */ |
9737 | 5.77M | if ((pct_pdf14->params.changed & pct0->params.changed) == |
9738 | 5.77M | pct_pdf14->params.changed) { |
9739 | 5.44M | return COMP_REPLACE_CURR; |
9740 | 5.44M | } else { |
9741 | 334k | return COMP_ENQUEUE; |
9742 | 334k | } |
9743 | 5.77M | } |
9744 | 5.77M | } else |
9745 | 382k | return COMP_ENQUEUE; |
9746 | 0 | pct = pct->prev; |
9747 | 0 | if (pct == NULL) |
9748 | 0 | return COMP_ENQUEUE; /* Not in queue. */ |
9749 | 0 | } |
9750 | 7.14M | } |
9751 | | |
9752 | | /* |
9753 | | * Check for closing compositor. |
9754 | | */ |
9755 | | static gs_compositor_closing_state |
9756 | | c_pdf14trans_is_closing(const gs_composite_t * composite_action, gs_composite_t ** ppcte, |
9757 | | gx_device *dev) |
9758 | 11.8M | { |
9759 | 11.8M | gs_pdf14trans_t *pct0 = (gs_pdf14trans_t *)composite_action; |
9760 | 11.8M | int op0 = pct0->params.pdf14_op; |
9761 | | |
9762 | 11.8M | switch (op0) { |
9763 | 0 | default: return_error(gs_error_unregistered); /* Must not happen. */ |
9764 | 284k | case PDF14_PUSH_DEVICE: |
9765 | 284k | return COMP_ENQUEUE; |
9766 | 0 | case PDF14_ABORT_DEVICE: |
9767 | 0 | return COMP_ENQUEUE; |
9768 | 284k | case PDF14_POP_DEVICE: |
9769 | 284k | if (*ppcte == NULL) |
9770 | 195k | return COMP_ENQUEUE; |
9771 | 88.8k | else { |
9772 | 88.8k | gs_compositor_closing_state state = find_opening_op(PDF14_PUSH_DEVICE, ppcte, COMP_EXEC_IDLE); |
9773 | | |
9774 | 88.8k | if (state == COMP_EXEC_IDLE) |
9775 | 30.0k | return COMP_DROP_QUEUE; |
9776 | 58.8k | return state; |
9777 | 88.8k | } |
9778 | 120k | case PDF14_BEGIN_TRANS_PAGE_GROUP: |
9779 | 574k | case PDF14_BEGIN_TRANS_GROUP: |
9780 | 574k | return COMP_ENQUEUE; |
9781 | 535k | case PDF14_END_TRANS_GROUP: |
9782 | 574k | case PDF14_END_TRANS_TEXT_GROUP: |
9783 | 574k | if (*ppcte == NULL) |
9784 | 97.7k | return COMP_EXEC_QUEUE; |
9785 | 476k | return find_opening_op(PDF14_BEGIN_TRANS_GROUP, ppcte, COMP_MARK_IDLE); |
9786 | 1.21M | case PDF14_BEGIN_TRANS_MASK: |
9787 | 1.21M | return COMP_ENQUEUE; |
9788 | 0 | case PDF14_PUSH_TRANS_STATE: |
9789 | 0 | return COMP_ENQUEUE; |
9790 | 1.00M | case PDF14_POP_TRANS_STATE: |
9791 | 1.00M | return COMP_ENQUEUE; |
9792 | 0 | case PDF14_PUSH_SMASK_COLOR: |
9793 | 0 | return COMP_ENQUEUE; |
9794 | 0 | break; |
9795 | 0 | case PDF14_POP_SMASK_COLOR: |
9796 | 0 | return COMP_ENQUEUE; |
9797 | 0 | break; |
9798 | 131k | case PDF14_END_TRANS_MASK: |
9799 | 131k | if (*ppcte == NULL) |
9800 | 87.2k | return COMP_EXEC_QUEUE; |
9801 | 44.3k | return find_opening_op(PDF14_BEGIN_TRANS_MASK, ppcte, COMP_MARK_IDLE); |
9802 | 7.74M | case PDF14_SET_BLEND_PARAMS: |
9803 | 7.74M | if (*ppcte == NULL) |
9804 | 592k | return COMP_ENQUEUE; |
9805 | | /* hack : ignore csel - here it is always zero : */ |
9806 | 7.14M | return find_same_op(composite_action, PDF14_SET_BLEND_PARAMS, ppcte); |
9807 | 11.8M | } |
9808 | 11.8M | } |
9809 | | |
9810 | | /* |
9811 | | * Check whether a next operation is friendly to the compositor. |
9812 | | */ |
9813 | | static bool |
9814 | | c_pdf14trans_is_friendly(const gs_composite_t * composite_action, byte cmd0, byte cmd1) |
9815 | 1.26M | { |
9816 | 1.26M | gs_pdf14trans_t *pct0 = (gs_pdf14trans_t *)composite_action; |
9817 | 1.26M | int op0 = pct0->params.pdf14_op; |
9818 | | |
9819 | 1.26M | if (op0 == PDF14_PUSH_DEVICE || op0 == PDF14_END_TRANS_GROUP || |
9820 | 1.26M | op0 == PDF14_END_TRANS_TEXT_GROUP) { |
9821 | | /* Halftone commands are always passed to the target printer device, |
9822 | | because transparency buffers are always contone. |
9823 | | So we're safe to execute them before queued transparency compositors. */ |
9824 | 313k | if (cmd0 == cmd_opv_extend && (cmd1 == cmd_opv_ext_put_halftone || |
9825 | 171k | cmd1 == cmd_opv_ext_put_ht_seg)) |
9826 | 171k | return true; |
9827 | 142k | if (cmd0 == cmd_opv_set_misc && (cmd1 >> 6) == (cmd_set_misc_map >> 6)) |
9828 | 141k | return true; |
9829 | 142k | } |
9830 | 949k | return false; |
9831 | 1.26M | } |
9832 | | |
9833 | | static composite_create_default_compositor_proc(c_pdf14trans_create_default_compositor); |
9834 | | static composite_equal_proc(c_pdf14trans_equal); |
9835 | | static composite_write_proc(c_pdf14trans_write); |
9836 | | static composite_read_proc(c_pdf14trans_read); |
9837 | | static composite_adjust_ctm_proc(c_pdf14trans_adjust_ctm); |
9838 | | static composite_is_closing_proc(c_pdf14trans_is_closing); |
9839 | | static composite_is_friendly_proc(c_pdf14trans_is_friendly); |
9840 | | static composite_clist_write_update(c_pdf14trans_clist_write_update); |
9841 | | static composite_clist_read_update(c_pdf14trans_clist_read_update); |
9842 | | static composite_get_cropping_proc(c_pdf14trans_get_cropping); |
9843 | | |
9844 | | /* |
9845 | | * Methods for the PDF 1.4 transparency compositor |
9846 | | * |
9847 | | * Note: We have two set of methods. They are the same except for the |
9848 | | * composite_clist_write_update method. Once the clist write device is created, |
9849 | | * we use the second set of procedures. This prevents the creation of multiple |
9850 | | * PDF 1.4 clist write compositor devices being chained together. |
9851 | | */ |
9852 | | const gs_composite_type_t gs_composite_pdf14trans_type = { |
9853 | | GX_COMPOSITOR_PDF14_TRANS, |
9854 | | { |
9855 | | c_pdf14trans_create_default_compositor, /* procs.create_default_compositor */ |
9856 | | c_pdf14trans_equal, /* procs.equal */ |
9857 | | c_pdf14trans_write, /* procs.write */ |
9858 | | c_pdf14trans_read, /* procs.read */ |
9859 | | c_pdf14trans_adjust_ctm, /* procs.adjust_ctm */ |
9860 | | c_pdf14trans_is_closing, /* procs.is_closing */ |
9861 | | c_pdf14trans_is_friendly, /* procs.is_friendly */ |
9862 | | /* Create a PDF 1.4 clist write device */ |
9863 | | c_pdf14trans_clist_write_update, /* procs.composite_clist_write_update */ |
9864 | | c_pdf14trans_clist_read_update, /* procs.composite_clist_read_update */ |
9865 | | c_pdf14trans_get_cropping /* procs.composite_get_cropping */ |
9866 | | } /* procs */ |
9867 | | }; |
9868 | | |
9869 | | const gs_composite_type_t gs_composite_pdf14trans_no_clist_writer_type = { |
9870 | | GX_COMPOSITOR_PDF14_TRANS, |
9871 | | { |
9872 | | c_pdf14trans_create_default_compositor, /* procs.create_default_compositor */ |
9873 | | c_pdf14trans_equal, /* procs.equal */ |
9874 | | c_pdf14trans_write, /* procs.write */ |
9875 | | c_pdf14trans_read, /* procs.read */ |
9876 | | c_pdf14trans_adjust_ctm, /* procs.adjust_ctm */ |
9877 | | c_pdf14trans_is_closing, /* procs.is_closing */ |
9878 | | c_pdf14trans_is_friendly, /* procs.is_friendly */ |
9879 | | /* The PDF 1.4 clist writer already exists, Do not create it. */ |
9880 | | gx_default_composite_clist_write_update, /* procs.composite_clist_write_update */ |
9881 | | c_pdf14trans_clist_read_update, /* procs.composite_clist_read_update */ |
9882 | | c_pdf14trans_get_cropping /* procs.composite_get_cropping */ |
9883 | | } /* procs */ |
9884 | | }; |
9885 | | |
9886 | | /* |
9887 | | * Verify that a compositor data structure is for the PDF 1.4 compositor. |
9888 | | */ |
9889 | | int |
9890 | | gs_is_pdf14trans_compositor(const gs_composite_t * pct) |
9891 | 35.5M | { |
9892 | 35.5M | return (pct->type == &gs_composite_pdf14trans_type |
9893 | 35.5M | || pct->type == &gs_composite_pdf14trans_no_clist_writer_type); |
9894 | 35.5M | } |
9895 | | |
9896 | | /* |
9897 | | * Create a PDF 1.4 transparency compositor data structure. |
9898 | | */ |
9899 | | static int |
9900 | | gs_create_pdf14trans( |
9901 | | gs_composite_t ** ppct, |
9902 | | const gs_pdf14trans_params_t * pparams, |
9903 | | gs_memory_t * mem ) |
9904 | 13.6M | { |
9905 | 13.6M | gs_pdf14trans_t * pct; |
9906 | | |
9907 | 13.6M | pct = gs_alloc_struct(mem, gs_pdf14trans_t, &st_pdf14trans, |
9908 | 13.6M | "gs_create_pdf14trans"); |
9909 | 13.6M | if (pct == NULL) |
9910 | 0 | return_error(gs_error_VMerror); |
9911 | 13.6M | pct->type = &gs_composite_pdf14trans_type; |
9912 | 13.6M | pct->id = gs_next_ids(mem, 1); |
9913 | 13.6M | pct->params = *pparams; |
9914 | 13.6M | pct->idle = false; |
9915 | 13.6M | *ppct = (gs_composite_t *)pct; |
9916 | 13.6M | return 0; |
9917 | 13.6M | } |
9918 | | |
9919 | | /* |
9920 | | * Send a PDF 1.4 transparency compositor action to the specified device. |
9921 | | */ |
9922 | | int |
9923 | | send_pdf14trans(gs_gstate * pgs, gx_device * dev, |
9924 | | gx_device * * pcdev, gs_pdf14trans_params_t * pparams, gs_memory_t * mem) |
9925 | 524k | { |
9926 | 524k | gs_composite_t * pct = NULL; |
9927 | 524k | int code; |
9928 | | |
9929 | 524k | pparams->ctm = ctm_only(pgs); |
9930 | 524k | code = gs_create_pdf14trans(&pct, pparams, mem); |
9931 | 524k | if (code < 0) |
9932 | 0 | return code; |
9933 | 524k | code = dev_proc(dev, composite) (dev, pcdev, pct, pgs, mem, NULL); |
9934 | 524k | if (code == gs_error_handled) |
9935 | 0 | code = 0; |
9936 | | |
9937 | 524k | gs_free_object(pgs->memory, pct, "send_pdf14trans"); |
9938 | | |
9939 | 524k | return code; |
9940 | 524k | } |
9941 | | |
9942 | | /* ------------- PDF 1.4 transparency device for clist writing ------------- */ |
9943 | | |
9944 | | /* |
9945 | | * The PDF 1.4 transparency compositor device may have a different process |
9946 | | * color model than the output device. If we are banding then we need to |
9947 | | * create two compositor devices. The output side (clist reader) needs a |
9948 | | * compositor to actually composite the output. We also need a compositor |
9949 | | * device before the clist writer. This is needed to provide a process color |
9950 | | * model which matches the PDF 1.4 blending space. |
9951 | | * |
9952 | | * This section provides support for this device. |
9953 | | */ |
9954 | | |
9955 | | /* |
9956 | | * Define the default pre-clist (clist writer) PDF 1.4 compositing device. |
9957 | | * We actually use the same structure for both the clist writer and reader |
9958 | | * devices. However we use separate names to identify the routines for each |
9959 | | * device. |
9960 | | */ |
9961 | | |
9962 | | static dev_proc_composite(pdf14_clist_composite); |
9963 | | static dev_proc_composite(pdf14_clist_forward_composite); |
9964 | | static dev_proc_fill_path(pdf14_clist_fill_path); |
9965 | | static dev_proc_stroke_path(pdf14_clist_stroke_path); |
9966 | | static dev_proc_fill_stroke_path(pdf14_clist_fill_stroke_path); |
9967 | | static dev_proc_text_begin(pdf14_clist_text_begin); |
9968 | | static dev_proc_begin_typed_image(pdf14_clist_begin_typed_image); |
9969 | | static dev_proc_copy_planes(pdf14_clist_copy_planes); |
9970 | | |
9971 | | static void |
9972 | | pdf14_clist_init_procs(gx_device *dev, |
9973 | | dev_proc_get_color_mapping_procs(get_color_mapping_procs), |
9974 | | dev_proc_get_color_comp_index(get_color_comp_index)) |
9975 | 2.72k | { |
9976 | 2.72k | set_dev_proc(dev, get_initial_matrix, gx_forward_get_initial_matrix); |
9977 | 2.72k | set_dev_proc(dev, sync_output, gx_forward_sync_output); |
9978 | 2.72k | set_dev_proc(dev, output_page, gx_forward_output_page); |
9979 | 2.72k | set_dev_proc(dev, close_device, gx_forward_close_device); |
9980 | 2.72k | set_dev_proc(dev, map_rgb_color, pdf14_encode_color); |
9981 | 2.72k | set_dev_proc(dev, map_color_rgb, pdf14_decode_color); |
9982 | 2.72k | set_dev_proc(dev, fill_rectangle, gx_forward_fill_rectangle); |
9983 | 2.72k | set_dev_proc(dev, copy_mono, gx_forward_copy_mono); |
9984 | 2.72k | set_dev_proc(dev, copy_color, gx_forward_copy_color); |
9985 | 2.72k | set_dev_proc(dev, get_params, gx_forward_get_params); |
9986 | 2.72k | set_dev_proc(dev, put_params, pdf14_put_params); |
9987 | 2.72k | set_dev_proc(dev, map_cmyk_color, pdf14_encode_color); |
9988 | 2.72k | set_dev_proc(dev, get_page_device, gx_forward_get_page_device); |
9989 | 2.72k | set_dev_proc(dev, copy_alpha, gx_forward_copy_alpha); |
9990 | 2.72k | set_dev_proc(dev, fill_path, pdf14_clist_fill_path); |
9991 | 2.72k | set_dev_proc(dev, stroke_path, pdf14_clist_stroke_path); |
9992 | 2.72k | set_dev_proc(dev, fill_mask, gx_forward_fill_mask); |
9993 | 2.72k | set_dev_proc(dev, fill_trapezoid, gx_forward_fill_trapezoid); |
9994 | 2.72k | set_dev_proc(dev, fill_parallelogram, gx_forward_fill_parallelogram); |
9995 | 2.72k | set_dev_proc(dev, fill_triangle, gx_forward_fill_triangle); |
9996 | 2.72k | set_dev_proc(dev, draw_thin_line, gx_forward_draw_thin_line); |
9997 | 2.72k | set_dev_proc(dev, strip_tile_rectangle, gx_forward_strip_tile_rectangle); |
9998 | 2.72k | set_dev_proc(dev, strip_copy_rop2, gx_forward_strip_copy_rop2); |
9999 | 2.72k | set_dev_proc(dev, get_clipping_box, gx_forward_get_clipping_box); |
10000 | 2.72k | set_dev_proc(dev, begin_typed_image, pdf14_clist_begin_typed_image); |
10001 | 2.72k | set_dev_proc(dev, get_bits_rectangle, gx_forward_get_bits_rectangle); |
10002 | 2.72k | set_dev_proc(dev, composite, pdf14_clist_composite); |
10003 | 2.72k | set_dev_proc(dev, get_hardware_params, gx_forward_get_hardware_params); |
10004 | 2.72k | set_dev_proc(dev, text_begin, pdf14_clist_text_begin); |
10005 | 2.72k | set_dev_proc(dev, begin_transparency_group, pdf14_begin_transparency_group); |
10006 | 2.72k | set_dev_proc(dev, end_transparency_group, pdf14_end_transparency_group); |
10007 | 2.72k | set_dev_proc(dev, begin_transparency_mask, pdf14_begin_transparency_mask); |
10008 | 2.72k | set_dev_proc(dev, end_transparency_mask, pdf14_end_transparency_mask); |
10009 | 2.72k | set_dev_proc(dev, discard_transparency_layer, gx_default_discard_transparency_layer); |
10010 | 2.72k | set_dev_proc(dev, get_color_mapping_procs, get_color_mapping_procs); |
10011 | 2.72k | set_dev_proc(dev, get_color_comp_index, get_color_comp_index); |
10012 | 2.72k | set_dev_proc(dev, encode_color, pdf14_encode_color); |
10013 | 2.72k | set_dev_proc(dev, decode_color, pdf14_decode_color); |
10014 | 2.72k | set_dev_proc(dev, fill_rectangle_hl_color, gx_forward_fill_rectangle_hl_color); |
10015 | 2.72k | set_dev_proc(dev, update_spot_equivalent_colors, gx_forward_update_spot_equivalent_colors); |
10016 | 2.72k | set_dev_proc(dev, ret_devn_params, pdf14_ret_devn_params); |
10017 | 2.72k | set_dev_proc(dev, fillpage, gx_forward_fillpage); |
10018 | 2.72k | set_dev_proc(dev, push_transparency_state, pdf14_push_transparency_state); |
10019 | 2.72k | set_dev_proc(dev, pop_transparency_state, pdf14_pop_transparency_state); |
10020 | 2.72k | set_dev_proc(dev, dev_spec_op, pdf14_dev_spec_op); |
10021 | 2.72k | set_dev_proc(dev, copy_planes, pdf14_clist_copy_planes); |
10022 | 2.72k | set_dev_proc(dev, set_graphics_type_tag, gx_forward_set_graphics_type_tag); |
10023 | 2.72k | set_dev_proc(dev, copy_alpha_hl_color, gx_forward_copy_alpha_hl_color); |
10024 | 2.72k | set_dev_proc(dev, fill_stroke_path, pdf14_clist_fill_stroke_path); |
10025 | 2.72k | } |
10026 | | |
10027 | | static void |
10028 | | pdf14_clist_Gray_initialize_device_procs(gx_device *dev) |
10029 | 155 | { |
10030 | 155 | pdf14_clist_init_procs(dev, |
10031 | 155 | gx_default_DevGray_get_color_mapping_procs, |
10032 | 155 | gx_default_DevGray_get_color_comp_index); |
10033 | 155 | } |
10034 | | |
10035 | | static void |
10036 | | pdf14_clist_RGB_initialize_device_procs(gx_device *dev) |
10037 | 2.03k | { |
10038 | 2.03k | pdf14_clist_init_procs(dev, |
10039 | 2.03k | gx_default_DevRGB_get_color_mapping_procs, |
10040 | 2.03k | gx_default_DevRGB_get_color_comp_index); |
10041 | 2.03k | } |
10042 | | |
10043 | | static void |
10044 | | pdf14_clist_CMYK_initialize_device_procs(gx_device *dev) |
10045 | 0 | { |
10046 | 0 | pdf14_clist_init_procs(dev, |
10047 | 0 | gx_default_DevCMYK_get_color_mapping_procs, |
10048 | 0 | gx_default_DevCMYK_get_color_comp_index); |
10049 | 0 | } |
10050 | | |
10051 | | static void |
10052 | | pdf14_clist_CMYKspot_initialize_device_procs(gx_device *dev) |
10053 | 539 | { |
10054 | 539 | pdf14_clist_init_procs(dev, |
10055 | 539 | pdf14_cmykspot_get_color_mapping_procs, |
10056 | 539 | pdf14_cmykspot_get_color_comp_index); |
10057 | 539 | } |
10058 | | |
10059 | | #if 0 /* NOT USED */ |
10060 | | static void |
10061 | | pdf14_clist_RGBspot_initialize_device_procs(gx_device *dev) |
10062 | | { |
10063 | | pdf14_clist_init_procs(dev, |
10064 | | pdf14_rgbspot_get_color_mapping_procs, |
10065 | | pdf14_rgbspot_get_color_comp_index); |
10066 | | } |
10067 | | |
10068 | | static int |
10069 | | pdf14_clist_Grayspot_initialize_device_procs(gx_device *dev) |
10070 | | { |
10071 | | pdf14_clist_init_procs(dev, |
10072 | | pdf14_grayspot_get_color_mapping_procs, |
10073 | | pdf14_grayspot_get_color_comp_index); |
10074 | | } |
10075 | | #endif /* NOT USED */ |
10076 | | |
10077 | | const pdf14_clist_device pdf14_clist_Gray_device = { |
10078 | | std_device_color_stype_body(pdf14_clist_device, |
10079 | | pdf14_clist_Gray_initialize_device_procs, |
10080 | | "pdf14clistgray", |
10081 | | &st_pdf14_device, |
10082 | | XSIZE, YSIZE, X_DPI, Y_DPI, 8, 255, 256), |
10083 | | { 0 }, /* Procs */ |
10084 | | NULL, /* target */ |
10085 | | { 0 }, /* devn_params - not used */ |
10086 | | &gray_pdf14_procs, |
10087 | | &gray_blending_procs |
10088 | | }; |
10089 | | |
10090 | | const pdf14_clist_device pdf14_clist_RGB_device = { |
10091 | | std_device_color_stype_body(pdf14_clist_device, |
10092 | | pdf14_clist_RGB_initialize_device_procs, |
10093 | | "pdf14clistRGB", |
10094 | | &st_pdf14_device, |
10095 | | XSIZE, YSIZE, X_DPI, Y_DPI, 24, 255, 256), |
10096 | | { 0 }, /* Procs */ |
10097 | | NULL, /* target */ |
10098 | | { 0 }, /* devn_params - not used */ |
10099 | | &rgb_pdf14_procs, |
10100 | | &rgb_blending_procs |
10101 | | }; |
10102 | | |
10103 | | const pdf14_clist_device pdf14_clist_CMYK_device = { |
10104 | | std_device_std_color_full_body_type(pdf14_clist_device, |
10105 | | pdf14_clist_CMYK_initialize_device_procs, |
10106 | | "pdf14clistcmyk", |
10107 | | &st_pdf14_device, |
10108 | | XSIZE, YSIZE, X_DPI, Y_DPI, 32, |
10109 | | 0, 0, 0, 0, 0, 0), |
10110 | | { 0 }, /* Procs */ |
10111 | | NULL, /* target */ |
10112 | | { 0 }, /* devn_params - not used */ |
10113 | | &cmyk_pdf14_procs, |
10114 | | &cmyk_blending_procs |
10115 | | }; |
10116 | | |
10117 | | const pdf14_clist_device pdf14_clist_CMYKspot_device = { |
10118 | | std_device_part1_(pdf14_device, |
10119 | | pdf14_clist_CMYKspot_initialize_device_procs, |
10120 | | "pdf14clistcmykspot", |
10121 | | &st_pdf14_device, |
10122 | | open_init_closed), |
10123 | | dci_values(GX_DEVICE_COLOR_MAX_COMPONENTS,64,255,255,256,256), |
10124 | | std_device_part2_(XSIZE, YSIZE, X_DPI, Y_DPI), |
10125 | | offset_margin_values(0, 0, 0, 0, 0, 0), |
10126 | | std_device_part3_(), |
10127 | | { 0 }, /* Procs */ |
10128 | | NULL, /* target */ |
10129 | | /* DeviceN parameters */ |
10130 | | { 8, /* Not used - Bits per color */ |
10131 | | DeviceCMYKComponents, /* Names of color model colorants */ |
10132 | | 4, /* Number colorants for CMYK */ |
10133 | | 0, /* MaxSeparations has not been specified */ |
10134 | | -1, /* PageSpotColors has not been specified */ |
10135 | | {0}, /* SeparationNames */ |
10136 | | 0, /* SeparationOrder names */ |
10137 | | {0, 1, 2, 3, 4, 5, 6, 7 } /* Initial component SeparationOrder */ |
10138 | | }, |
10139 | | &cmykspot_pdf14_procs, |
10140 | | &cmyk_blending_procs |
10141 | | }; |
10142 | | |
10143 | | const pdf14_clist_device pdf14_clist_custom_device = { |
10144 | | std_device_part1_(pdf14_device, |
10145 | | pdf14_clist_CMYKspot_initialize_device_procs, |
10146 | | "pdf14clistcustom", |
10147 | | &st_pdf14_device, |
10148 | | open_init_closed), |
10149 | | dci_values(GX_DEVICE_COLOR_MAX_COMPONENTS,64,255,255,256,256), |
10150 | | std_device_part2_(XSIZE, YSIZE, X_DPI, Y_DPI), |
10151 | | offset_margin_values(0, 0, 0, 0, 0, 0), |
10152 | | std_device_part3_(), |
10153 | | { 0 }, /* Procs */ |
10154 | | NULL, /* target */ |
10155 | | /* DeviceN parameters */ |
10156 | | { 8, /* Not used - Bits per color */ |
10157 | | DeviceCMYKComponents, /* Names of color model colorants */ |
10158 | | 4, /* Number colorants for CMYK */ |
10159 | | 0, /* MaxSeparations has not been specified */ |
10160 | | -1, /* PageSpotColors has not been specified */ |
10161 | | {0}, /* SeparationNames */ |
10162 | | 0, /* SeparationOrder names */ |
10163 | | {0, 1, 2, 3, 4, 5, 6, 7 } /* Initial component SeparationOrder */ |
10164 | | }, |
10165 | | &custom_pdf14_procs, |
10166 | | &custom_blending_procs |
10167 | | }; |
10168 | | |
10169 | | /* |
10170 | | * the PDF 1.4 transparency spec says that color space for blending |
10171 | | * operations can be based upon either a color space specified in the |
10172 | | * group or a default value based upon the output device. We are |
10173 | | * currently only using a color space based upon the device. |
10174 | | */ |
10175 | | static int |
10176 | | get_pdf14_clist_device_proto(gx_device *dev, |
10177 | | pdf14_clist_device *pdevproto, |
10178 | | gs_gstate *pgs, |
10179 | | const gs_pdf14trans_t *pdf14pct, |
10180 | | bool use_pdf14_accum) |
10181 | 2.72k | { |
10182 | 2.72k | pdf14_blend_cs_t blend_cs_state; |
10183 | 2.72k | pdf14_default_colorspace_t dev_cs = |
10184 | 2.72k | pdf14_determine_default_blend_cs(dev, use_pdf14_accum, |
10185 | 2.72k | &blend_cs_state); |
10186 | 2.72k | bool has_tags = device_encodes_tags(dev); |
10187 | 2.72k | bool deep = device_is_deep(dev); |
10188 | 2.72k | int num_spots = pdf14pct->params.num_spot_colors; |
10189 | | |
10190 | | /* overprint overide */ |
10191 | 2.72k | if (pdf14pct->params.overprint_sim_push && |
10192 | 2.72k | blend_cs_state == PDF14_BLEND_CS_UNSPECIFIED) { |
10193 | 0 | if (pdf14pct->params.num_spot_colors_int > 0) { |
10194 | 0 | dev_cs = PDF14_DeviceCMYKspot; |
10195 | 0 | num_spots = pdf14pct->params.num_spot_colors_int; |
10196 | 0 | } else |
10197 | 0 | dev_cs = PDF14_DeviceCMYK; |
10198 | 0 | } |
10199 | | |
10200 | 2.72k | switch (dev_cs) { |
10201 | 155 | case PDF14_DeviceGray: |
10202 | | /* We want gray to be single channel. Low level |
10203 | | initialization of gray device prototype is |
10204 | | peculiar in that in dci_std_color_num_components |
10205 | | the comment is |
10206 | | "A device is monochrome only if it is bi-level" |
10207 | | Here we want monochrome anytime we have a gray device. |
10208 | | To avoid breaking things elsewhere, we will overide |
10209 | | the prototype intialization here */ |
10210 | 155 | *pdevproto = pdf14_clist_Gray_device; |
10211 | 155 | pdevproto->color_info.max_components = 1; |
10212 | 155 | pdevproto->color_info.num_components = |
10213 | 155 | pdevproto->color_info.max_components; |
10214 | 155 | pdevproto->color_info.max_gray = deep ? 65535 : 255; |
10215 | 155 | pdevproto->color_info.gray_index = 0; /* Avoid halftoning */ |
10216 | 155 | pdevproto->color_info.dither_grays = pdevproto->color_info.max_gray+1; |
10217 | 155 | pdevproto->color_info.anti_alias = dev->color_info.anti_alias; |
10218 | 155 | pdevproto->color_info.depth = deep ? 16 : 8; |
10219 | 155 | pdevproto->sep_device = false; |
10220 | 155 | break; |
10221 | 2.03k | case PDF14_DeviceRGB: |
10222 | 2.03k | *pdevproto = pdf14_clist_RGB_device; |
10223 | 2.03k | pdevproto->color_info.anti_alias = dev->color_info.anti_alias; |
10224 | 2.03k | pdevproto->sep_device = false; |
10225 | 2.03k | if (deep) { |
10226 | 0 | pdevproto->color_info.depth = 3*16; |
10227 | 0 | pdevproto->color_info.max_color = 65535; |
10228 | 0 | pdevproto->color_info.max_gray = 65535; |
10229 | 0 | pdevproto->color_info.dither_colors = 65536; |
10230 | 0 | pdevproto->color_info.dither_grays = 65536; |
10231 | 0 | } |
10232 | 2.03k | break; |
10233 | 0 | case PDF14_DeviceCMYK: |
10234 | 0 | *pdevproto = pdf14_clist_CMYK_device; |
10235 | 0 | pdevproto->color_info.anti_alias = dev->color_info.anti_alias; |
10236 | 0 | pdevproto->sep_device = false; |
10237 | 0 | if (deep) { |
10238 | 0 | pdevproto->color_info.depth = 4*16; |
10239 | 0 | pdevproto->color_info.max_color = 65535; |
10240 | 0 | pdevproto->color_info.max_gray = 65535; |
10241 | 0 | pdevproto->color_info.dither_colors = 65536; |
10242 | 0 | pdevproto->color_info.dither_grays = 65536; |
10243 | 0 | } |
10244 | 0 | break; |
10245 | 539 | case PDF14_DeviceCMYKspot: |
10246 | 539 | *pdevproto = pdf14_clist_CMYKspot_device; |
10247 | | /* |
10248 | | * The number of components for the PDF14 device is the sum |
10249 | | * of the process components and the number of spot colors |
10250 | | * for the page. If we are using an NCLR ICC profile at |
10251 | | * the output device, those spot colors are skipped. They |
10252 | | * do not appear in the transparency buffer, but appear |
10253 | | * during put image transform of the page group to the target |
10254 | | * color space. |
10255 | | */ |
10256 | 539 | if (num_spots >= 0) { |
10257 | 539 | pdevproto->devn_params.page_spot_colors = num_spots; |
10258 | 539 | pdevproto->color_info.num_components = |
10259 | 539 | pdevproto->devn_params.num_std_colorant_names + num_spots; |
10260 | 539 | if (pdevproto->color_info.num_components > |
10261 | 539 | pdevproto->color_info.max_components) |
10262 | 0 | pdevproto->color_info.num_components = |
10263 | 0 | pdevproto->color_info.max_components; |
10264 | 539 | pdevproto->color_info.depth = |
10265 | 539 | pdevproto->color_info.num_components * (8<<deep); |
10266 | 539 | if (deep && has_tags) |
10267 | 0 | pdevproto->color_info.depth -= 8; |
10268 | 539 | } |
10269 | 539 | pdevproto->color_info.anti_alias = dev->color_info.anti_alias; |
10270 | 539 | pdevproto->sep_device = true; |
10271 | 539 | break; |
10272 | 0 | case PDF14_DeviceCustom: |
10273 | | /* |
10274 | | * We are using the output device's process color model. The |
10275 | | * color_info for the PDF 1.4 compositing device needs to match |
10276 | | * the output device. |
10277 | | */ |
10278 | 0 | *pdevproto = pdf14_clist_custom_device; |
10279 | 0 | pdevproto->color_info = dev->color_info; |
10280 | | /* The pdf14 device has to be 8 (or 16) bit continuous tone. Force it */ |
10281 | 0 | pdevproto->color_info.depth = |
10282 | 0 | pdevproto->color_info.num_components * (8<<deep); |
10283 | 0 | pdevproto->color_info.max_gray = deep ? 65535 : 255; |
10284 | 0 | pdevproto->color_info.max_color = deep ? 65535 : 255; |
10285 | 0 | pdevproto->color_info.dither_grays = deep ? 65536 : 256; |
10286 | 0 | pdevproto->color_info.dither_colors = deep ? 65536 : 256; |
10287 | 0 | pdevproto->color_info.anti_alias = dev->color_info.anti_alias; |
10288 | 0 | break; |
10289 | 0 | default: /* Should not occur */ |
10290 | 0 | return_error(gs_error_rangecheck); |
10291 | 2.72k | } |
10292 | 2.72k | pdevproto->overprint_sim = pdf14pct->params.overprint_sim_push; |
10293 | 2.72k | pdevproto->blend_cs_state = blend_cs_state; |
10294 | 2.72k | return 0; |
10295 | 2.72k | } |
10296 | | |
10297 | | static int |
10298 | | pdf14_create_clist_device(gs_memory_t *mem, gs_gstate * pgs, |
10299 | | gx_device ** ppdev, gx_device * target, |
10300 | | const gs_pdf14trans_t * pdf14pct) |
10301 | 2.72k | { |
10302 | 2.72k | pdf14_clist_device dev_proto; |
10303 | 2.72k | pdf14_clist_device * pdev; |
10304 | 2.72k | int code; |
10305 | 2.72k | bool has_tags = device_encodes_tags(target); |
10306 | 2.72k | cmm_profile_t *target_profile; |
10307 | 2.72k | gsicc_rendering_param_t render_cond; |
10308 | 2.72k | cmm_dev_profile_t *dev_profile; |
10309 | 2.72k | uchar k; |
10310 | 2.72k | bool deep = device_is_deep(target); |
10311 | 2.72k | cmm_profile_t *icc_profile; |
10312 | | |
10313 | | |
10314 | 2.72k | code = dev_proc(target, get_profile)(target, &dev_profile); |
10315 | 2.72k | if (code < 0) |
10316 | 0 | return code; |
10317 | 2.72k | gsicc_extract_profile(GS_UNKNOWN_TAG, dev_profile, &target_profile, |
10318 | 2.72k | &render_cond); |
10319 | 2.72k | if_debug0m('v', pgs->memory, "[v]pdf14_create_clist_device\n"); |
10320 | 2.72k | code = get_pdf14_clist_device_proto(target, &dev_proto, |
10321 | 2.72k | pgs, pdf14pct, false); |
10322 | 2.72k | if (code < 0) |
10323 | 0 | return code; |
10324 | 2.72k | code = gs_copydevice((gx_device **) &pdev, |
10325 | 2.72k | (const gx_device *) &dev_proto, mem); |
10326 | 2.72k | if (code < 0) |
10327 | 0 | return code; |
10328 | | |
10329 | | /* If we are not using a blending color space, the number of color planes |
10330 | | should not exceed that of the target */ |
10331 | 2.72k | if (!(pdev->blend_cs_state != PDF14_BLEND_CS_UNSPECIFIED || pdev->overprint_sim)) { |
10332 | 2.72k | if (pdev->color_info.num_components > target->color_info.num_components) |
10333 | 0 | pdev->color_info.num_components = target->color_info.num_components; |
10334 | 2.72k | if (pdev->color_info.max_components > target->color_info.max_components) |
10335 | 539 | pdev->color_info.max_components = target->color_info.max_components; |
10336 | 2.72k | } |
10337 | 2.72k | pdev->color_info.depth = pdev->color_info.num_components * (8<<deep); |
10338 | 2.72k | pdev->pad = target->pad; |
10339 | 2.72k | pdev->log2_align_mod = target->log2_align_mod; |
10340 | | |
10341 | 2.72k | if (pdf14pct->params.overprint_sim_push && pdf14pct->params.num_spot_colors_int > 0 && !target->is_planar) |
10342 | 0 | pdev->is_planar = true; |
10343 | 2.72k | else |
10344 | 2.72k | pdev->is_planar = target->is_planar; |
10345 | 2.72k | pdev->interpolate_threshold = dev_proc(target, dev_spec_op)(target, gxdso_interpolate_threshold, NULL, 0); |
10346 | | |
10347 | 2.72k | pdev->op_state = pgs->is_fill_color ? PDF14_OP_STATE_FILL : PDF14_OP_STATE_NONE; |
10348 | | |
10349 | 2.72k | if (deep) { |
10350 | 0 | set_dev_proc(pdev, encode_color, pdf14_encode_color16); |
10351 | 0 | set_dev_proc(pdev, decode_color, pdf14_decode_color16); |
10352 | 0 | } |
10353 | | /* If we have a tag device then go ahead and do a special encoder decoder |
10354 | | for the pdf14 device to make sure we maintain this information in the |
10355 | | encoded color information. We could use the target device's methods but |
10356 | | the PDF14 device has to maintain 8 bit color always and we could run |
10357 | | into other issues if the number of colorants became large. If we need to |
10358 | | do compressed color with tags that will be a special project at that time */ |
10359 | 2.72k | if (has_tags) { |
10360 | 0 | set_dev_proc(pdev, encode_color, pdf14_encode_color_tag); |
10361 | 0 | pdev->color_info.comp_shift[pdev->color_info.num_components] = pdev->color_info.depth; |
10362 | 0 | pdev->color_info.depth += 8; |
10363 | 0 | } |
10364 | 2.72k | pdev->color_info.separable_and_linear = GX_CINFO_SEP_LIN_STANDARD; /* this is the standard */ |
10365 | 2.72k | gx_device_fill_in_procs((gx_device *)pdev); |
10366 | 2.72k | gs_pdf14_device_copy_params((gx_device *)pdev, target); |
10367 | 2.72k | gx_device_set_target((gx_device_forward *)pdev, target); |
10368 | | |
10369 | | /* Components shift, etc have to be based upon 8 bit */ |
10370 | 11.1k | for (k = 0; k < pdev->color_info.num_components; k++) { |
10371 | 8.42k | pdev->color_info.comp_bits[k] = 8<<deep; |
10372 | 8.42k | pdev->color_info.comp_shift[k] = (pdev->color_info.num_components - 1 - k) * (8<<deep); |
10373 | 8.42k | } |
10374 | 2.72k | code = dev_proc((gx_device *) pdev, open_device) ((gx_device *) pdev); |
10375 | 2.72k | pdev->pclist_device = target; |
10376 | | |
10377 | 2.72k | code = dev_proc(target, get_profile)(target, &dev_profile); |
10378 | 2.72k | if (code < 0) |
10379 | 0 | return code; |
10380 | 2.72k | gsicc_extract_profile(GS_UNKNOWN_TAG, dev_profile, &icc_profile, |
10381 | 2.72k | &render_cond); |
10382 | 2.72k | if_debug0m('v', mem, "[v]pdf14_create_clist_device\n"); |
10383 | | |
10384 | | /* Simulated overprint case. We have to use CMYK-based profile |
10385 | | Also if the target profile is NCLR, we are going to use a pdf14 |
10386 | | device that is CMYK based and do the mapping to the NCLR profile |
10387 | | when the put_image occurs */ |
10388 | 2.72k | if ((pdev->overprint_sim && icc_profile->data_cs != gsCMYK) || |
10389 | 2.72k | icc_profile->data_cs == gsNCHANNEL) { |
10390 | 0 | gsicc_adjust_profile_rc(pgs->icc_manager->default_cmyk, 1, "pdf14_create_clist_device"); |
10391 | 0 | gsicc_adjust_profile_rc(pdev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE], |
10392 | 0 | -1, "pdf14_create_clist_device"); |
10393 | 0 | pdev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE] = pgs->icc_manager->default_cmyk; |
10394 | 2.72k | } else { |
10395 | | /* If the target profile was CIELAB, then overide with default RGB for |
10396 | | proper blending. During put_image we will convert from RGB to |
10397 | | CIELAB */ |
10398 | 2.72k | if ((target_profile->data_cs == gsCIELAB || target_profile->islab) && |
10399 | 2.72k | pdev->blend_cs_state == PDF14_BLEND_CS_UNSPECIFIED) { |
10400 | 0 | pdev->blend_cs_state = PDF14_BLEND_CS_TARGET_CIELAB; |
10401 | 0 | rc_assign(pdev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE], |
10402 | 0 | pgs->icc_manager->default_rgb, "pdf14_create_clist_device"); |
10403 | 0 | } |
10404 | 2.72k | } |
10405 | | |
10406 | 2.72k | if (pdf14pct->params.overprint_sim_push && |
10407 | 2.72k | pdf14pct->params.num_spot_colors_int > 0) { |
10408 | 0 | pdev->procs.update_spot_equivalent_colors = pdf14_update_spot_equivalent_colors; |
10409 | 0 | pdev->procs.ret_devn_params = pdf14_ret_devn_params; |
10410 | 0 | pdev->op_pequiv_cmyk_colors.all_color_info_valid = false; |
10411 | 0 | pdev->target_support_devn = pdev->icc_struct->supports_devn; |
10412 | 0 | pdev->icc_struct->supports_devn = true; /* Reset when pdf14 device is disabled */ |
10413 | 0 | } |
10414 | | /* if the device has separations already defined (by SeparationOrderNames) */ |
10415 | | /* we need to copy them (allocating new names) so the colorants are in the */ |
10416 | | /* same order as the target device. */ |
10417 | 2.72k | if (dev_proc(target, dev_spec_op)(target, gxdso_supports_devn, NULL, 0)) { |
10418 | 775 | code = devn_copy_params(target, (gx_device *)pdev); |
10419 | 775 | if (code < 0) |
10420 | 0 | return code; |
10421 | 775 | } |
10422 | 2.72k | pdev->my_encode_color = dev_proc(pdev, encode_color); |
10423 | 2.72k | pdev->my_decode_color = dev_proc(pdev, decode_color); |
10424 | 2.72k | pdev->my_get_color_mapping_procs = dev_proc(pdev, get_color_mapping_procs); |
10425 | 2.72k | pdev->my_get_color_comp_index = dev_proc(pdev, get_color_comp_index); |
10426 | 2.72k | pdev->color_info.separable_and_linear = |
10427 | 2.72k | target->color_info.separable_and_linear; |
10428 | 2.72k | *ppdev = (gx_device *) pdev; |
10429 | 2.72k | return code; |
10430 | 2.72k | } |
10431 | | |
10432 | | /* |
10433 | | * Disable the PDF 1.4 clist compositor device. Once created, the PDF 1.4 |
10434 | | * compositor device is never removed. (We do not have a remove compositor |
10435 | | * method.) However it is no-op'ed when the PDF 1.4 device is popped. This |
10436 | | * routine implements that action. |
10437 | | */ |
10438 | | static int |
10439 | | pdf14_disable_clist_device(gs_memory_t *mem, gs_gstate * pgs, |
10440 | | gx_device * dev) |
10441 | 2.65k | { |
10442 | 2.65k | gx_device_forward * pdev = (gx_device_forward *)dev; |
10443 | 2.65k | gx_device * target = pdev->target; |
10444 | | |
10445 | 2.65k | if_debug0m('v', pgs->memory, "[v]pdf14_disable_clist_device\n"); |
10446 | | |
10447 | | /* |
10448 | | * To disable the action of this device, we forward all device |
10449 | | * procedures to the target except the composite and copy |
10450 | | * the target's color_info. |
10451 | | */ |
10452 | 2.65k | dev->color_info = target->color_info; |
10453 | 2.65k | pdf14_forward_device_procs(dev); |
10454 | 2.65k | set_dev_proc(dev, composite, pdf14_clist_forward_composite); |
10455 | 2.65k | return 0; |
10456 | 2.65k | } |
10457 | | |
10458 | | /* |
10459 | | * Recreate the PDF 1.4 clist compositor device. Once created, the PDF 1.4 |
10460 | | * compositor device is never removed. (We do not have a remove compositor |
10461 | | * method.) However it is no-op'ed when the PDF 1.4 device is popped. This |
10462 | | * routine will re-enable the compositor if the PDF 1.4 device is pushed |
10463 | | * again. |
10464 | | */ |
10465 | | static int |
10466 | | pdf14_recreate_clist_device(gs_memory_t *mem, gs_gstate * pgs, |
10467 | | gx_device * dev, const gs_pdf14trans_t * pdf14pct) |
10468 | 0 | { |
10469 | 0 | pdf14_clist_device * pdev = (pdf14_clist_device *)dev; |
10470 | 0 | gx_device * target = pdev->target; |
10471 | 0 | pdf14_clist_device dev_proto; |
10472 | 0 | int code; |
10473 | |
|
10474 | 0 | if_debug0m('v', pgs->memory, "[v]pdf14_recreate_clist_device\n"); |
10475 | | /* |
10476 | | * We will not use the entire prototype device but we will set the |
10477 | | * color related info to match the prototype. |
10478 | | */ |
10479 | 0 | code = get_pdf14_clist_device_proto(target, &dev_proto, |
10480 | 0 | pgs, pdf14pct, false); |
10481 | 0 | if (code < 0) |
10482 | 0 | return code; |
10483 | 0 | pdev->color_info = dev_proto.color_info; |
10484 | 0 | pdev->procs = dev_proto.procs; |
10485 | 0 | pdev->pad = target->pad; |
10486 | 0 | pdev->log2_align_mod = target->log2_align_mod; |
10487 | |
|
10488 | 0 | if (pdf14pct->params.overprint_sim_push && pdf14pct->params.num_spot_colors_int > 0 && !target->is_planar) |
10489 | 0 | pdev->is_planar = true; |
10490 | 0 | else |
10491 | 0 | pdev->is_planar = target->is_planar; |
10492 | 0 | pdev->interpolate_threshold = dev_proc(target, dev_spec_op)(target, gxdso_interpolate_threshold, NULL, 0); |
10493 | |
|
10494 | 0 | pdev->color_info.separable_and_linear = GX_CINFO_SEP_LIN_STANDARD; |
10495 | 0 | gx_device_fill_in_procs((gx_device *)pdev); |
10496 | 0 | pdev->save_get_cmap_procs = pgs->get_cmap_procs; |
10497 | 0 | pgs->get_cmap_procs = pdf14_get_cmap_procs; |
10498 | 0 | gx_set_cmap_procs(pgs, (gx_device *)pdev); |
10499 | 0 | check_device_separable((gx_device *)pdev); |
10500 | 0 | return code; |
10501 | 0 | } |
10502 | | |
10503 | | /* |
10504 | | * devicen params |
10505 | | */ |
10506 | | gs_devn_params * |
10507 | | pdf14_ret_devn_params(gx_device *pdev) |
10508 | 274k | { |
10509 | 274k | pdf14_device *p14dev = (pdf14_device *)pdev; |
10510 | | |
10511 | 274k | return &(p14dev->devn_params); |
10512 | 274k | } |
10513 | | |
10514 | | /* |
10515 | | * devicen params |
10516 | | */ |
10517 | | gs_devn_params * |
10518 | | pdf14_accum_ret_devn_params(gx_device *pdev) |
10519 | 0 | { |
10520 | 0 | gx_device_pdf14_accum *p14dev = (gx_device_pdf14_accum *)pdev; |
10521 | |
|
10522 | 0 | return &(p14dev->devn_params); |
10523 | 0 | } |
10524 | | |
10525 | | static int |
10526 | | pdf14_accum_get_color_comp_index(gx_device * dev, |
10527 | | const char * pname, int name_size, int component_type) |
10528 | 0 | { |
10529 | 0 | pdf14_device *p14dev = (pdf14_device *)(((gx_device_pdf14_accum *)dev)->save_p14dev); |
10530 | 0 | gx_device *target = p14dev->target; |
10531 | 0 | int colorant_number = devn_get_color_comp_index(dev, |
10532 | 0 | &(((gx_device_pdf14_accum *)dev)->devn_params), |
10533 | 0 | &(((gx_device_pdf14_accum *)dev)->equiv_cmyk_colors), |
10534 | 0 | pname, name_size, component_type, ENABLE_AUTO_SPOT_COLORS); |
10535 | |
|
10536 | 0 | if (target != NULL) |
10537 | | /* colorant_number returned here _should_ be the same as from above */ |
10538 | 0 | colorant_number = (*dev_proc(target, get_color_comp_index)) |
10539 | 0 | (target, (const char *)pname, name_size, component_type); |
10540 | 0 | return colorant_number; |
10541 | 0 | } |
10542 | | |
10543 | | /* |
10544 | | * The following procedures are used to map the standard color spaces into |
10545 | | * the separation color components for the pdf14_accum device. |
10546 | | */ |
10547 | | static void |
10548 | | pdf14_accum_gray_cs_to_cmyk_cm(const gx_device * dev, frac gray, frac out[]) |
10549 | 0 | { |
10550 | 0 | int * map = |
10551 | 0 | (int *)(&((gx_device_pdf14_accum *) dev)->devn_params.separation_order_map); |
10552 | |
|
10553 | 0 | gray_cs_to_devn_cm(dev, map, gray, out); |
10554 | 0 | } |
10555 | | |
10556 | | static void |
10557 | | pdf14_accum_rgb_cs_to_cmyk_cm(const gx_device * dev, |
10558 | | const gs_gstate *pgs, frac r, frac g, frac b, frac out[]) |
10559 | 0 | { |
10560 | 0 | int * map = |
10561 | 0 | (int *)(&((gx_device_pdf14_accum *) dev)->devn_params.separation_order_map); |
10562 | |
|
10563 | 0 | rgb_cs_to_devn_cm(dev, map, pgs, r, g, b, out); |
10564 | 0 | } |
10565 | | |
10566 | | static void |
10567 | | pdf14_accum_cmyk_cs_to_cmyk_cm(const gx_device * dev, |
10568 | | frac c, frac m, frac y, frac k, frac out[]) |
10569 | 0 | { |
10570 | 0 | const int * map = |
10571 | 0 | (int *)(&((gx_device_pdf14_accum *) dev)->devn_params.separation_order_map); |
10572 | |
|
10573 | 0 | cmyk_cs_to_devn_cm(dev, map, c, m, y, k, out); |
10574 | 0 | } |
10575 | | |
10576 | | static const gx_cm_color_map_procs pdf14_accum_cm_procs = { |
10577 | | pdf14_accum_gray_cs_to_cmyk_cm, |
10578 | | pdf14_accum_rgb_cs_to_cmyk_cm, |
10579 | | pdf14_accum_cmyk_cs_to_cmyk_cm |
10580 | | }; |
10581 | | |
10582 | | static const gx_cm_color_map_procs * |
10583 | | pdf14_accum_get_color_mapping_procs(const gx_device * dev, const gx_device **map_dev) |
10584 | 0 | { |
10585 | 0 | *map_dev = dev; |
10586 | 0 | return &pdf14_accum_cm_procs; |
10587 | 0 | } |
10588 | | |
10589 | | /* |
10590 | | * Device proc for updating the equivalent CMYK color for spot colors. |
10591 | | */ |
10592 | | static int |
10593 | | pdf14_accum_update_spot_equivalent_colors(gx_device * dev, const gs_gstate * pgs, const gs_color_space *pcs) |
10594 | 0 | { |
10595 | 0 | gx_device_pdf14_accum *pdev = (gx_device_pdf14_accum *)dev; |
10596 | 0 | gx_device *tdev = ((pdf14_device *)(pdev->save_p14dev))->target; |
10597 | 0 | int code = update_spot_equivalent_cmyk_colors(dev, pgs, pcs, &pdev->devn_params, |
10598 | 0 | &pdev->equiv_cmyk_colors); |
10599 | |
|
10600 | 0 | if (code >= 0 && tdev != NULL) |
10601 | 0 | code = dev_proc(tdev, update_spot_equivalent_colors)(tdev, pgs, pcs); |
10602 | 0 | return code; |
10603 | 0 | } |
10604 | | |
10605 | | /* Used when doing overprint simulation and have spot colors */ |
10606 | | static int |
10607 | | pdf14_update_spot_equivalent_colors(gx_device *dev, const gs_gstate *pgs, const gs_color_space *pcs) |
10608 | 0 | { |
10609 | 0 | pdf14_device *pdev = (pdf14_device *)dev; |
10610 | 0 | int code; |
10611 | | |
10612 | | /* Make sure we are not All or None */ |
10613 | 0 | if (pcs != NULL && pcs->type->index == gs_color_space_index_Separation && |
10614 | 0 | pcs->params.separation.sep_type != SEP_OTHER) |
10615 | 0 | return 0; |
10616 | | |
10617 | 0 | code = update_spot_equivalent_cmyk_colors(dev, pgs, pcs, &pdev->devn_params, |
10618 | 0 | &pdev->op_pequiv_cmyk_colors); |
10619 | 0 | return code; |
10620 | 0 | } |
10621 | | |
10622 | | /* |
10623 | | * Retrieve a list of spot color names for the PDF14 device. |
10624 | | */ |
10625 | | int |
10626 | | put_param_pdf14_spot_names(gx_device * pdev, |
10627 | | gs_separations * pseparations, gs_param_list * plist) |
10628 | 41.2k | { |
10629 | 41.2k | int code, num_spot_colors, i; |
10630 | 41.2k | gs_param_string str; |
10631 | | |
10632 | | /* Check if the given keyname is present. */ |
10633 | 41.2k | code = param_read_int(plist, PDF14NumSpotColorsParamName, |
10634 | 41.2k | &num_spot_colors); |
10635 | 41.2k | switch (code) { |
10636 | 0 | default: |
10637 | 0 | param_signal_error(plist, PDF14NumSpotColorsParamName, code); |
10638 | 0 | break; |
10639 | 41.2k | case 1: |
10640 | 41.2k | return 0; |
10641 | 0 | case 0: |
10642 | 0 | if (num_spot_colors < 1 || |
10643 | 0 | num_spot_colors > GX_DEVICE_COLOR_MAX_COMPONENTS) |
10644 | 0 | return_error(gs_error_rangecheck); |
10645 | 0 | for (i = 0; i < num_spot_colors; i++) { |
10646 | 0 | char buff[20]; |
10647 | 0 | byte * sep_name; |
10648 | |
|
10649 | 0 | gs_snprintf(buff, sizeof(buff), "PDF14SpotName_%d", i); |
10650 | 0 | code = param_read_string(plist, buff, &str); |
10651 | 0 | switch (code) { |
10652 | 0 | default: |
10653 | 0 | param_signal_error(plist, buff, code); |
10654 | 0 | break; |
10655 | 0 | case 0: |
10656 | 0 | sep_name = gs_alloc_bytes(pdev->memory, |
10657 | 0 | str.size, "put_param_pdf14_spot_names"); |
10658 | 0 | memcpy(sep_name, str.data, str.size); |
10659 | 0 | pseparations->names[i].size = str.size; |
10660 | 0 | pseparations->names[i].data = sep_name; |
10661 | 0 | } |
10662 | 0 | } |
10663 | 0 | pseparations->num_separations = num_spot_colors; |
10664 | 0 | break; |
10665 | 41.2k | } |
10666 | 0 | return 0;; |
10667 | 0 | } |
10668 | | |
10669 | | /* |
10670 | | * This procedure will have information from the PDF 1.4 clist writing |
10671 | | * clist compositior device. This is information output the compressed |
10672 | | * color list info which is needed for the support of spot colors in |
10673 | | * PDF 1.4 compositing. This info needs to be passed to the PDF 1.4 |
10674 | | * clist reading compositor. However this device is not created until |
10675 | | * the clist is read. To get this info to that device, we have to |
10676 | | * temporarily store that info in the output device. This routine saves |
10677 | | * that info in the output device. |
10678 | | */ |
10679 | | int |
10680 | | pdf14_put_devn_params(gx_device * pdev, gs_devn_params * pdevn_params, |
10681 | | gs_param_list * plist) |
10682 | 41.2k | { |
10683 | 41.2k | int code; |
10684 | 41.2k | code = put_param_pdf14_spot_names(pdev, |
10685 | 41.2k | &pdevn_params->pdf14_separations, plist); |
10686 | 41.2k | return code; |
10687 | 41.2k | } |
10688 | | |
10689 | | /* |
10690 | | * When we are banding, we have two PDF 1.4 compositor devices. One for |
10691 | | * when we are creating the clist. The second is for imaging the data from |
10692 | | * the clist. This routine is part of the clist writing PDF 1.4 device. |
10693 | | * This routine is only called once the PDF 1.4 clist write compositor already |
10694 | | * exists. |
10695 | | */ |
10696 | | static int |
10697 | | pdf14_clist_composite(gx_device * dev, gx_device ** pcdev, |
10698 | | const gs_composite_t * pct, gs_gstate * pgs, gs_memory_t * mem, |
10699 | | gx_device *cdev) |
10700 | 579k | { |
10701 | 579k | pdf14_clist_device * pdev = (pdf14_clist_device *)dev; |
10702 | 579k | int code, is_pdf14_compositor; |
10703 | 579k | const gs_pdf14trans_t * pdf14pct = (const gs_pdf14trans_t *) pct; |
10704 | 579k | bool deep = device_is_deep(dev); |
10705 | | |
10706 | | /* We only handle a few PDF 1.4 transparency operations */ |
10707 | 579k | if ((is_pdf14_compositor = gs_is_pdf14trans_compositor(pct)) != 0) { |
10708 | 451k | switch (pdf14pct->params.pdf14_op) { |
10709 | 0 | case PDF14_PUSH_DEVICE: |
10710 | | /* Re-activate the PDF 1.4 compositor */ |
10711 | 0 | pdev->saved_target_color_info = pdev->target->color_info; |
10712 | 0 | pdev->target->color_info = pdev->color_info; |
10713 | 0 | pdev->saved_target_encode_color = dev_proc(pdev->target, encode_color); |
10714 | 0 | pdev->saved_target_decode_color = dev_proc(pdev->target, decode_color); |
10715 | 0 | set_dev_proc(pdev->target, encode_color, pdev->my_encode_color); |
10716 | 0 | set_dev_proc(pdev, encode_color, pdev->my_encode_color); |
10717 | 0 | set_dev_proc(pdev->target, decode_color, pdev->my_decode_color); |
10718 | 0 | set_dev_proc(pdev, decode_color, pdev->my_decode_color); |
10719 | 0 | pdev->saved_target_get_color_mapping_procs = |
10720 | 0 | dev_proc(pdev->target, get_color_mapping_procs); |
10721 | 0 | pdev->saved_target_get_color_comp_index = |
10722 | 0 | dev_proc(pdev->target, get_color_comp_index); |
10723 | 0 | set_dev_proc(pdev->target, get_color_mapping_procs, pdev->my_get_color_mapping_procs); |
10724 | 0 | set_dev_proc(pdev, get_color_mapping_procs, pdev->my_get_color_mapping_procs); |
10725 | 0 | set_dev_proc(pdev->target, get_color_comp_index, pdev->my_get_color_comp_index); |
10726 | 0 | set_dev_proc(pdev, get_color_comp_index, pdev->my_get_color_comp_index); |
10727 | 0 | pdev->save_get_cmap_procs = pgs->get_cmap_procs; |
10728 | 0 | pgs->get_cmap_procs = pdf14_get_cmap_procs; |
10729 | 0 | gx_set_cmap_procs(pgs, dev); |
10730 | 0 | code = pdf14_recreate_clist_device(mem, pgs, dev, pdf14pct); |
10731 | 0 | pdev->blend_mode = pdev->text_knockout = 0; |
10732 | 0 | pdev->opacity = pdev->shape = 0.0; |
10733 | 0 | if (code < 0) |
10734 | 0 | return code; |
10735 | | /* |
10736 | | * This routine is part of the PDF 1.4 clist write device. |
10737 | | * Change the compositor procs to not create another since we |
10738 | | * do not need to create a chain of identical devices. |
10739 | | */ |
10740 | 0 | { |
10741 | 0 | gs_pdf14trans_t pctemp = *pdf14pct; |
10742 | |
|
10743 | 0 | pctemp.type = &gs_composite_pdf14trans_no_clist_writer_type; |
10744 | 0 | code = dev_proc(pdev->target, composite) |
10745 | 0 | (pdev->target, pcdev, (gs_composite_t *)&pctemp, pgs, mem, cdev); |
10746 | | /* We should never have created a new device here. */ |
10747 | 0 | assert(code != 1); |
10748 | 0 | return code; |
10749 | 0 | } |
10750 | 2.65k | case PDF14_POP_DEVICE: |
10751 | 2.65k | { |
10752 | 2.65k | gx_device *clistdev = pdev->target; |
10753 | | |
10754 | | /* Find the clist device */ |
10755 | 2.65k | while (1) { |
10756 | 2.65k | gxdso_device_child_request req; |
10757 | | /* Ignore any errors here, that's expected as non-clist |
10758 | | * devices don't implement it. */ |
10759 | 2.65k | code = dev_proc(clistdev, dev_spec_op)(clistdev, gxdso_is_clist_device, NULL, 0); |
10760 | 2.65k | if (code == 1) |
10761 | 2.65k | break; |
10762 | 0 | req.n = 0; |
10763 | 0 | req.target = clistdev; |
10764 | 0 | code = dev_proc(clistdev, dev_spec_op)(clistdev, gxdso_device_child, &req, sizeof(req)); |
10765 | 0 | if (code < 0) |
10766 | 0 | return code; |
10767 | 0 | clistdev = req.target; |
10768 | 0 | } |
10769 | | |
10770 | | /* If we have overprint simulation spot color information, store |
10771 | | it in a pseudo-band of the clist */ |
10772 | 2.65k | if (pdev->overprint_sim && |
10773 | 2.65k | pdev->devn_params.page_spot_colors > 0) { |
10774 | 0 | code = clist_write_op_equiv_cmyk_colors((gx_device_clist_writer *)clistdev, |
10775 | 0 | &pdev->op_pequiv_cmyk_colors); |
10776 | 0 | if (code < 0) |
10777 | 0 | return code; |
10778 | 0 | } |
10779 | | |
10780 | | /* If we hit an error during an SMask, we need to undo the color |
10781 | | * swapping before continuing. pdf14_decrement_smask_color() checks |
10782 | | * for itself if it needs to take action. |
10783 | | */ |
10784 | 2.65k | pdf14_decrement_smask_color(pgs, dev); |
10785 | | /* Restore the color_info for the clist device */ |
10786 | 2.65k | clistdev->color_info = pdev->saved_target_color_info; |
10787 | 2.65k | ((gx_device_clist_writer*)clistdev)->clist_color_info = clistdev->color_info; /* also reset for writer */ |
10788 | 2.65k | set_dev_proc(clistdev, encode_color, pdev->saved_target_encode_color); |
10789 | 2.65k | set_dev_proc(clistdev, decode_color, pdev->saved_target_decode_color); |
10790 | 2.65k | set_dev_proc(clistdev, get_color_mapping_procs, pdev->saved_target_get_color_mapping_procs); |
10791 | 2.65k | set_dev_proc(clistdev, get_color_comp_index, pdev->saved_target_get_color_comp_index); |
10792 | 2.65k | pgs->get_cmap_procs = pdev->save_get_cmap_procs; |
10793 | 2.65k | gx_set_cmap_procs(pgs, clistdev); |
10794 | 2.65k | gx_device_decache_colors(clistdev); |
10795 | | /* Disable the PDF 1.4 compositor */ |
10796 | 2.65k | pdf14_disable_clist_device(mem, pgs, dev); |
10797 | | /* |
10798 | | * Make sure that the transfer funtions, etc. are current. |
10799 | | */ |
10800 | 2.65k | code = cmd_put_color_mapping((gx_device_clist_writer *)clistdev, pgs); |
10801 | 2.65k | if (code < 0) |
10802 | 8 | return code; |
10803 | 2.64k | break; |
10804 | 2.65k | } |
10805 | 2.64k | case PDF14_BEGIN_TRANS_PAGE_GROUP: |
10806 | 12.5k | case PDF14_BEGIN_TRANS_GROUP: |
10807 | 12.5k | if (pdev->smask_constructed || pdev->depth_within_smask) |
10808 | 7.10k | pdev->depth_within_smask++; |
10809 | 12.5k | pdev->smask_constructed = 0; |
10810 | | /* |
10811 | | * Keep track of any changes made in the blending parameters. |
10812 | | These need to be written out in the same bands as the group |
10813 | | information is written. Hence the passing of the dimensions |
10814 | | for the group. */ |
10815 | 12.5k | code = pdf14_clist_update_params(pdev, pgs, true, |
10816 | 12.5k | (gs_pdf14trans_params_t *)&(pdf14pct->params)); |
10817 | 12.5k | if (code < 0) |
10818 | 0 | return code; |
10819 | 12.5k | if (pdf14pct->params.Background_components != 0 && |
10820 | 12.5k | pdf14pct->params.Background_components != |
10821 | 0 | pdev->color_info.num_components) |
10822 | 0 | return_error(gs_error_rangecheck); |
10823 | | |
10824 | | /* We need to update the clist writer device procs based upon the |
10825 | | the group color space. This ensures the proper color data is |
10826 | | written out to the device. For simplicity, the list item is |
10827 | | created even if the color space did not change */ |
10828 | 12.5k | code = pdf14_clist_push_color_model(dev, cdev, pgs, pdf14pct, mem, false); |
10829 | 12.5k | if (code < 0) |
10830 | 1 | return code; |
10831 | | |
10832 | 12.5k | break; |
10833 | 14.6k | case PDF14_BEGIN_TRANS_MASK: |
10834 | | /* We need to update the clist writer device procs based upon the |
10835 | | the group color space. For simplicity, the list item is created |
10836 | | even if the color space did not change */ |
10837 | | /* First store the current ones */ |
10838 | 14.6k | if (pdf14pct->params.subtype == TRANSPARENCY_MASK_None) |
10839 | 7.49k | break; |
10840 | | |
10841 | | /* Update the color settings of the clist writer. Store information in stack */ |
10842 | 7.15k | code = pdf14_clist_push_color_model(dev, cdev, pgs, pdf14pct, mem, true); |
10843 | 7.15k | if (code < 0) |
10844 | 0 | return code; |
10845 | | |
10846 | | /* Also, if the BC is a value that may end up as something other |
10847 | | than transparent. We must use the parent colors bounding box in |
10848 | | determining the range of bands in which this mask can affect. |
10849 | | So, if needed change the masks bounding box at this time */ |
10850 | 7.15k | pdev->in_smask_construction++; |
10851 | 7.15k | break; |
10852 | 174k | case PDF14_BEGIN_TRANS_TEXT_GROUP: |
10853 | 174k | if (pdev->text_group == PDF14_TEXTGROUP_BT_PUSHED) { |
10854 | 74 | emprintf(pdev->memory, "Warning: Text group pushed but no ET found\n"); |
10855 | 74 | pdev->text_group = PDF14_TEXTGROUP_MISSING_ET; |
10856 | 74 | } else |
10857 | 174k | pdev->text_group = PDF14_TEXTGROUP_BT_NOT_PUSHED; |
10858 | 174k | *pcdev = dev; |
10859 | 174k | return 0; /* Never put into clist. Only used during writing */ |
10860 | 206k | case PDF14_END_TRANS_TEXT_GROUP: |
10861 | 206k | if (pdev->text_group != PDF14_TEXTGROUP_BT_PUSHED) { |
10862 | 205k | *pcdev = dev; |
10863 | 205k | return 0; /* Avoids spurious ET calls in interpreter */ |
10864 | 205k | } |
10865 | 502 | pdev->text_group = PDF14_TEXTGROUP_NO_BT; /* These can't be nested */ |
10866 | 502 | code = pdf14_clist_pop_color_model(dev, pgs); |
10867 | 502 | if (code < 0) |
10868 | 0 | return code; |
10869 | 502 | break; |
10870 | 7.15k | case PDF14_END_TRANS_MASK: |
10871 | 7.15k | pdev->in_smask_construction--; |
10872 | 7.15k | if (pdev->in_smask_construction < 0) |
10873 | 0 | pdev->in_smask_construction = 0; |
10874 | 7.15k | if (pdev->in_smask_construction == 0) |
10875 | 7.14k | pdev->smask_constructed = 1; |
10876 | | /* fallthrough */ |
10877 | 19.1k | case PDF14_END_TRANS_GROUP: |
10878 | | /* We need to update the clist writer device procs based upon the |
10879 | | the group color space. */ |
10880 | 19.1k | code = pdf14_clist_pop_color_model(dev, pgs); |
10881 | 19.1k | if (pdev->depth_within_smask) |
10882 | 7.10k | pdev->depth_within_smask--; |
10883 | 19.1k | if (code < 0) |
10884 | 0 | return code; |
10885 | 19.1k | break; |
10886 | 19.1k | case PDF14_PUSH_TRANS_STATE: |
10887 | 0 | break; |
10888 | 6.95k | case PDF14_POP_TRANS_STATE: |
10889 | 6.95k | break; |
10890 | 7.15k | case PDF14_PUSH_SMASK_COLOR: |
10891 | 7.15k | code = pdf14_increment_smask_color(pgs,dev); |
10892 | 7.15k | *pcdev = dev; |
10893 | 7.15k | return code; /* Note, this are NOT put in the clist */ |
10894 | 0 | break; |
10895 | 7.15k | case PDF14_POP_SMASK_COLOR: |
10896 | 7.15k | code = pdf14_decrement_smask_color(pgs,dev); |
10897 | 7.15k | *pcdev = dev; |
10898 | 7.15k | return code; /* Note, this are NOT put in the clist */ |
10899 | 0 | break; |
10900 | 0 | case PDF14_SET_BLEND_PARAMS: |
10901 | | /* If there is a change we go ahead and apply it to the target */ |
10902 | 0 | code = pdf14_clist_update_params(pdev, pgs, false, |
10903 | 0 | (gs_pdf14trans_params_t *)&(pdf14pct->params)); |
10904 | 0 | *pcdev = dev; |
10905 | 0 | return code; |
10906 | 0 | break; |
10907 | 0 | case PDF14_ABORT_DEVICE: |
10908 | 0 | code = gx_abort_trans_device(pgs, dev); |
10909 | 0 | if (pdev->free_devicen) { |
10910 | 0 | devn_free_params(dev); |
10911 | 0 | } |
10912 | 0 | pdf14_disable_device(dev); |
10913 | 0 | pdf14_close(dev); |
10914 | 0 | *pcdev = dev; |
10915 | 0 | return code; |
10916 | 0 | break; |
10917 | 0 | default: |
10918 | 0 | break; /* Pass remaining ops to target */ |
10919 | 451k | } |
10920 | 451k | } |
10921 | 184k | code = dev_proc(pdev->target, composite) |
10922 | 184k | (pdev->target, pcdev, pct, pgs, mem, cdev); |
10923 | | /* If we were accumulating into a pdf14-clist-accum device, */ |
10924 | | /* we now have to render the page into it's target device */ |
10925 | 184k | if (is_pdf14_compositor && pdf14pct->params.pdf14_op == PDF14_POP_DEVICE && |
10926 | 184k | pdev->target->stype == &st_gx_devn_accum_device) { |
10927 | | |
10928 | 918 | int i, y, rows_used; |
10929 | 918 | byte *linebuf; |
10930 | 918 | byte *actual_data; |
10931 | 918 | gx_device_pdf14_accum *tdev = (gx_device_pdf14_accum *)(pdev->target); /* the printer class clist device used to accumulate */ |
10932 | | /* get the target device we want to send the image to */ |
10933 | 918 | gx_device *target = ((pdf14_device *)(tdev->save_p14dev))->target; |
10934 | 918 | gs_image1_t image; |
10935 | 918 | gs_color_space *pcs; |
10936 | 918 | gx_image_enum_common_t *info = NULL; |
10937 | 918 | gx_image_plane_t planes; |
10938 | 918 | gsicc_rendering_param_t render_cond; |
10939 | 918 | cmm_dev_profile_t *dev_profile; |
10940 | 918 | bool save_planar = pdev->is_planar; |
10941 | 918 | gs_devn_params *target_devn_params = dev_proc(target, ret_devn_params)(target); |
10942 | 918 | int save_num_separations; |
10943 | 918 | gs_int_rect rect; |
10944 | | |
10945 | 918 | pdev->is_planar = false; /* so gx_device_raster is for entire chunky pixel line */ |
10946 | 918 | linebuf = gs_alloc_bytes(mem, gx_device_raster((gx_device *)pdev, true), "pdf14-clist_accum pop dev"); |
10947 | 918 | pdev->is_planar = save_planar; |
10948 | | |
10949 | | /* As long as we don't have spot colors, we can use ICC colorspace, but spot |
10950 | | * colors do require devn support |
10951 | | */ |
10952 | 918 | if (tdev->color_info.num_components <= 4 || |
10953 | 918 | dev_proc(target, dev_spec_op)(target, gxdso_supports_devn, NULL, 0) <= 0) { |
10954 | | /* |
10955 | | * Set color space in preparation for sending an image. |
10956 | | */ |
10957 | 918 | code = gs_cspace_build_ICC(&pcs, NULL, pgs->memory); |
10958 | 918 | if (code < 0) |
10959 | 0 | goto put_accum_error; |
10960 | | |
10961 | | /* Need to set this to avoid color management during the |
10962 | | image color render operation. Exception is for the special case |
10963 | | when the destination was CIELAB. Then we need to convert from |
10964 | | default RGB to CIELAB in the put image operation. That will happen |
10965 | | here as we should have set the profile for the pdf14 device to RGB |
10966 | | and the target will be CIELAB */ |
10967 | 918 | code = dev_proc(dev, get_profile)(dev, &dev_profile); |
10968 | 918 | if (code < 0) |
10969 | 0 | goto put_accum_error; |
10970 | 918 | gsicc_extract_profile(GS_UNKNOWN_TAG, dev_profile, |
10971 | 918 | &(pcs->cmm_icc_profile_data), &render_cond); |
10972 | | /* pcs takes a reference to the profile data it just retrieved. */ |
10973 | 918 | gsicc_adjust_profile_rc(pcs->cmm_icc_profile_data, 1, "pdf14_clist_composite"); |
10974 | 918 | gsicc_set_icc_range(&(pcs->cmm_icc_profile_data)); |
10975 | 918 | } else { |
10976 | | /* DeviceN case -- need to handle spot colors */ |
10977 | 0 | code = gs_cspace_new_DeviceN(&pcs, tdev->color_info.num_components, |
10978 | 0 | gs_currentcolorspace(pgs), pgs->memory); |
10979 | 0 | if (code < 0) |
10980 | 0 | goto put_accum_error; |
10981 | | /* set up a usable DeviceN space with info from the tdev->devn_params */ |
10982 | 0 | pcs->params.device_n.use_alt_cspace = false; |
10983 | |
|
10984 | 0 | if ((code = pcs->type->install_cspace(pcs, pgs)) < 0) { |
10985 | 0 | goto put_accum_error; |
10986 | 0 | } |
10987 | | /* One last thing -- we need to fudge the pgs->color_component_map */ |
10988 | 0 | for (i=0; i < tdev->color_info.num_components; i++) |
10989 | 0 | pgs->color_component_map.color_map[i] = i; /* enable all components in normal order */ |
10990 | | /* copy devn_params that were accumulated into the target device's devn_params */ |
10991 | 0 | target_devn_params->bitspercomponent = tdev->devn_params.bitspercomponent; |
10992 | 0 | target_devn_params->std_colorant_names = tdev->devn_params.std_colorant_names; |
10993 | 0 | target_devn_params->num_std_colorant_names = tdev->devn_params.num_std_colorant_names; |
10994 | 0 | target_devn_params->max_separations = tdev->devn_params.max_separations; |
10995 | 0 | target_devn_params->page_spot_colors = tdev->devn_params.page_spot_colors; |
10996 | 0 | target_devn_params->num_separation_order_names = tdev->devn_params.num_separation_order_names; |
10997 | 0 | target_devn_params->separations = tdev->devn_params.separations; |
10998 | 0 | memcpy(target_devn_params->separation_order_map, tdev->devn_params.separation_order_map, |
10999 | 0 | sizeof(gs_separation_map)); |
11000 | 0 | target_devn_params->pdf14_separations = tdev->devn_params.pdf14_separations; |
11001 | 0 | } |
11002 | 918 | if (linebuf == NULL) { |
11003 | 0 | code = gs_error_VMerror; |
11004 | 0 | goto put_accum_error; |
11005 | 0 | } |
11006 | 918 | gs_image_t_init_adjust(&image, pcs, false); |
11007 | 918 | image.ImageMatrix.xx = (float)pdev->width; |
11008 | 918 | image.ImageMatrix.yy = (float)pdev->height; |
11009 | 918 | image.Width = pdev->width; |
11010 | 918 | image.Height = pdev->height; |
11011 | 918 | image.BitsPerComponent = 8<<deep; |
11012 | 918 | ctm_only_writable(pgs).xx = (float)pdev->width; |
11013 | 918 | ctm_only_writable(pgs).xy = 0; |
11014 | 918 | ctm_only_writable(pgs).yx = 0; |
11015 | 918 | ctm_only_writable(pgs).yy = (float)pdev->height; |
11016 | 918 | ctm_only_writable(pgs).tx = 0.0; |
11017 | 918 | ctm_only_writable(pgs).ty = 0.0; |
11018 | 918 | code = dev_proc(target, begin_typed_image) (target, |
11019 | 918 | pgs, NULL, |
11020 | 918 | (gs_image_common_t *)&image, |
11021 | 918 | NULL, NULL, NULL, |
11022 | 918 | pgs->memory, &info); |
11023 | 918 | if (code < 0) |
11024 | 0 | goto put_accum_error; |
11025 | 918 | rect.p.x = 0; |
11026 | 918 | rect.q.x = tdev->width; |
11027 | 1.98M | for (y=0; y < tdev->height; y++) { |
11028 | 1.98M | gs_get_bits_params_t params; |
11029 | | |
11030 | 1.98M | params.options = (GB_ALIGN_ANY | |
11031 | 1.98M | (GB_RETURN_COPY | GB_RETURN_POINTER) | |
11032 | 1.98M | GB_OFFSET_0 | |
11033 | 1.98M | GB_RASTER_STANDARD | GB_PACKING_CHUNKY | |
11034 | 1.98M | GB_COLORS_NATIVE | GB_ALPHA_NONE); |
11035 | 1.98M | params.x_offset = 0; |
11036 | 1.98M | params.raster = bitmap_raster(dev->width * dev->color_info.depth); |
11037 | 1.98M | params.data[0] = linebuf; |
11038 | 1.98M | rect.p.y = y; |
11039 | 1.98M | rect.q.y = y+1; |
11040 | 1.98M | code = dev_proc(tdev, get_bits_rectangle)((gx_device *)tdev, |
11041 | 1.98M | &rect, ¶ms); |
11042 | 1.98M | if (code < 0) |
11043 | 2 | goto put_accum_error; |
11044 | 1.98M | actual_data = params.data[0]; |
11045 | 1.98M | planes.data = actual_data; |
11046 | 1.98M | planes.data_x = 0; |
11047 | 1.98M | planes.raster = tdev->width * tdev->color_info.num_components; |
11048 | 1.98M | if ((code = info->procs->plane_data(info, &planes, 1, &rows_used)) < 0) |
11049 | 0 | goto put_accum_error; |
11050 | 1.98M | } |
11051 | | |
11052 | 918 | put_accum_error: |
11053 | 918 | if (info != NULL) { |
11054 | 918 | if (code < 0) |
11055 | 2 | (void)info->procs->end_image(info, true); |
11056 | 916 | else |
11057 | 916 | code = info->procs->end_image(info, true); |
11058 | 918 | } |
11059 | | |
11060 | 918 | gs_free_object(pdev->memory, linebuf, "pdf14_put_image"); |
11061 | | /* This will also decrement the device profile */ |
11062 | 918 | rc_decrement_only_cs(pcs, "pdf14_put_image"); |
11063 | 918 | dev_proc(tdev, close_device)((gx_device *)tdev); /* frees the prn_device memory */ |
11064 | | /* Now unhook the clist device and hook to the original so we can clean up */ |
11065 | 918 | gx_device_set_target((gx_device_forward *)pdev, |
11066 | 918 | ((gx_device_pdf14_accum *)(pdev->target))->save_p14dev); |
11067 | 918 | pdev->pclist_device = pdev->target; |
11068 | 918 | *pcdev = pdev->target; /* pass upwards to switch devices */ |
11069 | 918 | pdev->color_info = target->color_info; /* same as in pdf14_disable_clist */ |
11070 | 918 | if (target_devn_params != NULL) { |
11071 | | /* prevent devn_free_params from freeing names still in use by target device */ |
11072 | 0 | save_num_separations = tdev->devn_params.separations.num_separations; |
11073 | 0 | tdev->devn_params.separations.num_separations = 0; |
11074 | 0 | } |
11075 | 918 | gs_free_object(tdev->memory, tdev, "popdevice pdf14-accum"); |
11076 | 918 | if (target_devn_params != NULL) { |
11077 | 0 | target_devn_params->separations.num_separations = save_num_separations; |
11078 | 0 | } |
11079 | 918 | return code; /* DON'T perform set_target */ |
11080 | 918 | } |
11081 | 183k | if (code == 1) { |
11082 | | /* We just wrapped pdev->target, so we need to update that.*/ |
11083 | 0 | gx_device_set_target((gx_device_forward *)pdev, *pcdev); |
11084 | 0 | code = 0; /* We did not wrap dev. */ |
11085 | 0 | } |
11086 | 183k | *pcdev = dev; |
11087 | 183k | return code; |
11088 | 184k | } |
11089 | | |
11090 | | /* |
11091 | | * The PDF 1.4 clist compositor is never removed. (We do not have a 'remove |
11092 | | * compositor' method. However the compositor is disabled when we are not |
11093 | | * doing a page which uses PDF 1.4 transparency. This routine is only active |
11094 | | * when the PDF 1.4 compositor is 'disabled'. It checks for reenabling the |
11095 | | * PDF 1.4 compositor. Otherwise it simply passes create compositor requests |
11096 | | * to the targer. |
11097 | | */ |
11098 | | static int |
11099 | | pdf14_clist_forward_composite(gx_device * dev, gx_device * * pcdev, |
11100 | | const gs_composite_t * pct, gs_gstate * pgs, |
11101 | | gs_memory_t * mem, gx_device *cdev) |
11102 | 0 | { |
11103 | 0 | pdf14_device *pdev = (pdf14_device *)dev; |
11104 | 0 | gx_device * tdev = pdev->target; |
11105 | 0 | gx_device * ndev; |
11106 | 0 | int code; |
11107 | |
|
11108 | 0 | *pcdev = dev; |
11109 | 0 | if (gs_is_pdf14trans_compositor(pct)) { |
11110 | 0 | const gs_pdf14trans_t * pdf14pct = (const gs_pdf14trans_t *) pct; |
11111 | |
|
11112 | 0 | if (pdf14pct->params.pdf14_op == PDF14_PUSH_DEVICE) |
11113 | 0 | return pdf14_clist_composite(dev, &ndev, pct, pgs, mem, cdev); |
11114 | 0 | return 0; |
11115 | 0 | } |
11116 | 0 | code = dev_proc(tdev, composite)(tdev, &ndev, pct, pgs, mem, cdev); |
11117 | 0 | if (code == 1) { |
11118 | | /* We just wrapped tdev, so update our target. */ |
11119 | 0 | gx_device_set_target((gx_device_forward *)pdev, ndev); |
11120 | 0 | code = 0; /* We did not wrap dev. */ |
11121 | 0 | } |
11122 | 0 | return code; |
11123 | 0 | } |
11124 | | |
11125 | | /* |
11126 | | * If any of the PDF 1.4 transparency blending parameters have changed, we |
11127 | | * need to send them to the PDF 1.4 compositor on the output side of the clist. |
11128 | | */ |
11129 | | static int |
11130 | | pdf14_clist_update_params(pdf14_clist_device * pdev, const gs_gstate * pgs, |
11131 | | bool crop_blend_params, |
11132 | | gs_pdf14trans_params_t *group_params) |
11133 | 2.14M | { |
11134 | 2.14M | gs_pdf14trans_params_t params = { 0 }; |
11135 | 2.14M | gx_device * pcdev; |
11136 | 2.14M | int changed = 0; |
11137 | 2.14M | int code = 0; |
11138 | 2.14M | gs_composite_t *pct_new = NULL; |
11139 | | |
11140 | 2.14M | params.crop_blend_params = crop_blend_params; |
11141 | | |
11142 | 2.14M | params.pdf14_op = PDF14_SET_BLEND_PARAMS; |
11143 | 2.14M | if (pgs->blend_mode != pdev->blend_mode) { |
11144 | 5.03k | changed |= PDF14_SET_BLEND_MODE; |
11145 | 5.03k | params.blend_mode = pdev->blend_mode = pgs->blend_mode; |
11146 | 5.03k | } |
11147 | 2.14M | if (pgs->text_knockout != pdev->text_knockout) { |
11148 | 2.54k | changed |= PDF14_SET_TEXT_KNOCKOUT; |
11149 | 2.54k | params.text_knockout = pdev->text_knockout = pgs->text_knockout; |
11150 | 2.54k | } |
11151 | 2.14M | if (pgs->alphaisshape != pdev->ais) { |
11152 | 509 | changed |= PDF14_SET_AIS; |
11153 | 509 | params.ais = pdev->ais = pgs->alphaisshape; |
11154 | 509 | } |
11155 | 2.14M | if (pgs->overprint != pdev->overprint) { |
11156 | 3.04k | changed |= PDF14_SET_OVERPRINT; |
11157 | 3.04k | params.overprint = pdev->overprint = pgs->overprint; |
11158 | 3.04k | } |
11159 | 2.14M | if (pgs->stroke_overprint != pdev->stroke_overprint) { |
11160 | 3.02k | changed |= PDF14_SET_STROKEOVERPRINT; |
11161 | 3.02k | params.stroke_overprint = pdev->stroke_overprint = pgs->stroke_overprint; |
11162 | 3.02k | } |
11163 | 2.14M | if (pgs->fillconstantalpha != pdev->fillconstantalpha) { |
11164 | 7.05k | changed |= PDF14_SET_FILLCONSTANTALPHA; |
11165 | 7.05k | params.fillconstantalpha = pdev->fillconstantalpha = pgs->fillconstantalpha; |
11166 | 7.05k | } |
11167 | 2.14M | if (pgs->strokeconstantalpha != pdev->strokeconstantalpha) { |
11168 | 5.97k | changed |= PDF14_SET_STROKECONSTANTALPHA; |
11169 | 5.97k | params.strokeconstantalpha = pdev->strokeconstantalpha = pgs->strokeconstantalpha; |
11170 | 5.97k | } |
11171 | 2.14M | if ((pgs->is_fill_color && pdev->op_state != PDF14_OP_STATE_FILL)) { |
11172 | 20.3k | changed |= PDF14_SET_FILLSTROKE_STATE; |
11173 | 20.3k | params.op_fs_state = pdev->op_state = PDF14_OP_STATE_FILL; |
11174 | 20.3k | if_debug0m('v', pgs->memory, |
11175 | 20.3k | "[v]c_pdf14_clist_update_params op_fs_state written in clist as PDF14_OP_STATE_FILL \n"); |
11176 | 20.3k | } |
11177 | 2.14M | if ((!pgs->is_fill_color && pdev->op_state != PDF14_OP_STATE_STROKE)) { |
11178 | 20.7k | changed |= PDF14_SET_FILLSTROKE_STATE; |
11179 | 20.7k | params.op_fs_state = pdev->op_state = PDF14_OP_STATE_STROKE; |
11180 | 20.7k | if_debug0m('v', pgs->memory, |
11181 | 20.7k | "[v]c_pdf14_clist_update_params op_fs_state written in clist as PDF14_OP_STATE_STROKE \n"); |
11182 | 20.7k | } |
11183 | 2.14M | if (crop_blend_params) { |
11184 | 12.5k | params.ctm = group_params->ctm; |
11185 | 12.5k | params.bbox = group_params->bbox; |
11186 | 12.5k | } |
11187 | 2.14M | params.changed = changed; |
11188 | | /* Avoid recursion when we have a PDF14_SET_BLEND_PARAMS forced and apply |
11189 | | now to the target. Otherwise we send the compositor action |
11190 | | to the pdf14 device at this time. This is due to the fact that we |
11191 | | need to often perform this operation when we are already starting to |
11192 | | do a compositor action */ |
11193 | 2.14M | if (changed != 0) { |
11194 | 55.5k | code = gs_create_pdf14trans(&pct_new, ¶ms, pgs->memory); |
11195 | 55.5k | if (code < 0) |
11196 | 0 | return code; |
11197 | 55.5k | code = dev_proc(pdev->target, composite) |
11198 | 55.5k | (pdev->target, &pcdev, pct_new, (gs_gstate *)pgs, pgs->memory, NULL); |
11199 | 55.5k | gs_free_object(pgs->memory, pct_new, "pdf14_clist_update_params"); |
11200 | 55.5k | } |
11201 | 2.14M | return code; |
11202 | 2.14M | } |
11203 | | |
11204 | | /* |
11205 | | * fill_path routine for the PDF 1.4 transaprency compositor device for |
11206 | | * writing the clist. |
11207 | | */ |
11208 | | static int |
11209 | | pdf14_clist_fill_path(gx_device *dev, const gs_gstate *pgs, |
11210 | | gx_path *ppath, const gx_fill_params *params, |
11211 | | const gx_drawing_color *pdcolor, |
11212 | | const gx_clip_path *pcpath) |
11213 | 877k | { |
11214 | 877k | pdf14_clist_device * pdev = (pdf14_clist_device *)dev; |
11215 | 877k | gs_gstate new_pgs = *pgs; |
11216 | 877k | int code; |
11217 | 877k | gs_pattern2_instance_t *pinst = NULL; |
11218 | 877k | gx_device_forward * fdev = (gx_device_forward *)dev; |
11219 | 877k | cmm_dev_profile_t *dev_profile, *fwd_profile; |
11220 | 877k | gsicc_rendering_param_t render_cond; |
11221 | 877k | cmm_profile_t *icc_profile_fwd, *icc_profile_dev; |
11222 | 877k | int push_group = 0; |
11223 | | |
11224 | 877k | code = dev_proc(dev, get_profile)(dev, &dev_profile); |
11225 | 877k | if (code < 0) |
11226 | 0 | return code; |
11227 | 877k | code = dev_proc(fdev->target, get_profile)(fdev->target, &fwd_profile); |
11228 | 877k | if (code < 0) |
11229 | 0 | return code; |
11230 | | |
11231 | 877k | if (dev->color_info.separable_and_linear == GX_CINFO_UNKNOWN_SEP_LIN) |
11232 | 24 | check_device_separable(dev); |
11233 | | |
11234 | 877k | gsicc_extract_profile(GS_UNKNOWN_TAG, fwd_profile, &icc_profile_fwd, |
11235 | 877k | &render_cond); |
11236 | 877k | gsicc_extract_profile(GS_UNKNOWN_TAG, dev_profile, &icc_profile_dev, |
11237 | 877k | &render_cond); |
11238 | | |
11239 | | /* |
11240 | | * Ensure that that the PDF 1.4 reading compositor will have the current |
11241 | | * blending parameters. This is needed since the fill_rectangle routines |
11242 | | * do not have access to the gs_gstate. Thus we have to pass any |
11243 | | * changes explictly. |
11244 | | */ |
11245 | 877k | code = pdf14_clist_update_params(pdev, pgs, false, NULL); |
11246 | 877k | if (code < 0) |
11247 | 0 | return code; |
11248 | | /* If we are doing a shading fill and we are in a transparency group of a |
11249 | | different color space, then we do not want to do the shading in the |
11250 | | device color space. It must occur in the source space. To handle it in |
11251 | | the device space would require knowing all the nested transparency group |
11252 | | color space as well as the transparency. Some of the shading code ignores |
11253 | | this, so we have to pass on the clist_writer device to enable proper |
11254 | | mapping to the transparency group color space. */ |
11255 | | |
11256 | 877k | if (gx_dc_is_pattern2_color(pdcolor)) { |
11257 | | /* Non-idempotent blends require a transparency |
11258 | | * group to be pushed because shadings might |
11259 | | * paint several pixels twice. */ |
11260 | 11.0k | push_group = pgs->fillconstantalpha != 1.0 || |
11261 | 11.0k | !blend_is_idempotent(gs_currentblendmode(pgs)); |
11262 | 11.0k | pinst = |
11263 | 11.0k | (gs_pattern2_instance_t *)pdcolor->ccolor.pattern; |
11264 | 11.0k | pinst->saved->has_transparency = true; |
11265 | | /* The transparency color space operations are driven by the pdf14 |
11266 | | clist writer device. */ |
11267 | 11.0k | pinst->saved->trans_device = dev; |
11268 | 11.0k | } |
11269 | 877k | if (push_group) { |
11270 | 101 | gs_fixed_rect box; |
11271 | 101 | gs_fixed_rect dev_bbox; |
11272 | | |
11273 | 101 | if (pcpath) { |
11274 | 101 | gx_cpath_outer_box(pcpath, &box); |
11275 | 101 | (*dev_proc(dev, get_clipping_box)) (dev, &dev_bbox); |
11276 | 101 | rect_intersect(box, dev_bbox); |
11277 | 101 | } else |
11278 | 0 | (*dev_proc(dev, get_clipping_box)) (dev, &box); |
11279 | | |
11280 | 101 | if (ppath) { |
11281 | 0 | gs_fixed_rect path_box; |
11282 | |
|
11283 | 0 | gx_path_bbox(ppath, &path_box); |
11284 | 0 | if (box.p.x < path_box.p.x) |
11285 | 0 | box.p.x = path_box.p.x; |
11286 | 0 | if (box.p.y < path_box.p.y) |
11287 | 0 | box.p.y = path_box.p.y; |
11288 | 0 | if (box.q.x > path_box.q.x) |
11289 | 0 | box.q.x = path_box.q.x; |
11290 | 0 | if (box.q.y > path_box.q.y) |
11291 | 0 | box.q.y = path_box.q.y; |
11292 | 0 | } |
11293 | | |
11294 | 101 | if (box.p.y >= box.q.y || box.p.x >= box.q.x) { |
11295 | | /* No need to do anything */ |
11296 | 93 | if (pinst != NULL) { |
11297 | 93 | pinst->saved->trans_device = NULL; |
11298 | 93 | } |
11299 | 93 | return 0; |
11300 | 93 | } |
11301 | | |
11302 | | /* Group alpha set from fill value. push_shfill_group does reset to 1.0 */ |
11303 | 8 | code = push_shfill_group(pdev, &new_pgs, &box); |
11304 | 8 | } else |
11305 | 877k | update_lop_for_pdf14(&new_pgs, pdcolor); |
11306 | 877k | if (code >= 0) { |
11307 | 877k | new_pgs.trans_device = dev; |
11308 | 877k | new_pgs.has_transparency = true; |
11309 | 877k | if (gx_dc_is_pattern2_color(pdcolor)) |
11310 | 10.9k | code = gx_default_fill_path_shading_or_pattern(dev, &new_pgs, ppath, params, pdcolor, pcpath); |
11311 | 866k | else |
11312 | 866k | code = gx_forward_fill_path(dev, &new_pgs, ppath, params, pdcolor, pcpath); |
11313 | 877k | new_pgs.trans_device = NULL; |
11314 | 877k | new_pgs.has_transparency = false; |
11315 | 877k | } |
11316 | 877k | if (code >= 0 && push_group) { |
11317 | 8 | code = pop_shfill_group(&new_pgs); |
11318 | 8 | if (code >= 0) |
11319 | 8 | code = pdf14_clist_update_params(pdev, pgs, false, NULL); |
11320 | 8 | } |
11321 | 877k | if (pinst != NULL){ |
11322 | 10.9k | pinst->saved->trans_device = NULL; |
11323 | 10.9k | } |
11324 | 877k | return code; |
11325 | 877k | } |
11326 | | |
11327 | | /* |
11328 | | * stroke_path routine for the PDF 1.4 transparency compositor device for |
11329 | | * writing the clist. |
11330 | | */ |
11331 | | static int |
11332 | | pdf14_clist_stroke_path(gx_device *dev, const gs_gstate *pgs, |
11333 | | gx_path *ppath, const gx_stroke_params *params, |
11334 | | const gx_drawing_color *pdcolor, |
11335 | | const gx_clip_path *pcpath) |
11336 | 147k | { |
11337 | 147k | pdf14_clist_device * pdev = (pdf14_clist_device *)dev; |
11338 | 147k | gs_gstate new_pgs = *pgs; |
11339 | 147k | int code = 0; |
11340 | 147k | gs_pattern2_instance_t *pinst = NULL; |
11341 | 147k | int push_group = 0; |
11342 | | |
11343 | | /* |
11344 | | * Ensure that that the PDF 1.4 reading compositor will have the current |
11345 | | * blending parameters. This is needed since the fill_rectangle routines |
11346 | | * do not have access to the gs_gstate. Thus we have to pass any |
11347 | | * changes explictly. |
11348 | | */ |
11349 | 147k | code = pdf14_clist_update_params(pdev, pgs, false, NULL); |
11350 | 147k | if (code < 0) |
11351 | 4 | return code; |
11352 | | /* If we are doing a shading stroke and we are in a transparency group of a |
11353 | | different color space, then we need to get the proper device information |
11354 | | passed along so that we use the correct color procs and colorinfo about |
11355 | | the transparency device and not the final target device */ |
11356 | 147k | if (gx_dc_is_pattern2_color(pdcolor)) { |
11357 | | /* Non-idempotent blends require a transparency |
11358 | | * group to be pushed because shadings might |
11359 | | * paint several pixels twice. */ |
11360 | 28 | push_group = pgs->strokeconstantalpha != 1.0 || |
11361 | 28 | !blend_is_idempotent(gs_currentblendmode(pgs)); |
11362 | 28 | if (pdev->color_model_stack != NULL) { |
11363 | 28 | pinst = |
11364 | 28 | (gs_pattern2_instance_t *)pdcolor->ccolor.pattern; |
11365 | 28 | pinst->saved->has_transparency = true; |
11366 | | /* The transparency color space operations are driven |
11367 | | by the pdf14 clist writer device. */ |
11368 | 28 | pinst->saved->trans_device = dev; |
11369 | 28 | } |
11370 | 28 | } |
11371 | 147k | if (push_group) { |
11372 | 0 | gs_fixed_rect box; |
11373 | 0 | if (pcpath) |
11374 | 0 | gx_cpath_outer_box(pcpath, &box); |
11375 | 0 | else |
11376 | 0 | (*dev_proc(dev, get_clipping_box)) (dev, &box); |
11377 | 0 | if (ppath) { |
11378 | 0 | gs_fixed_rect path_box; |
11379 | 0 | gs_fixed_point expansion; |
11380 | |
|
11381 | 0 | gx_path_bbox(ppath, &path_box); |
11382 | | /* Expand the path bounding box by the scaled line width. */ |
11383 | 0 | if (gx_stroke_path_expansion(pgs, ppath, &expansion) < 0) { |
11384 | | /* The expansion is so large it caused a limitcheck. */ |
11385 | 0 | path_box.p.x = path_box.p.y = min_fixed; |
11386 | 0 | path_box.q.x = path_box.q.y = max_fixed; |
11387 | 0 | } else { |
11388 | 0 | expansion.x += pgs->fill_adjust.x; |
11389 | 0 | expansion.y += pgs->fill_adjust.y; |
11390 | | /* |
11391 | | * It's theoretically possible for the following computations to |
11392 | | * overflow, so we need to check for this. |
11393 | | */ |
11394 | 0 | path_box.p.x = (path_box.p.x < min_fixed + expansion.x ? min_fixed : |
11395 | 0 | path_box.p.x - expansion.x); |
11396 | 0 | path_box.p.y = (path_box.p.y < min_fixed + expansion.y ? min_fixed : |
11397 | 0 | path_box.p.y - expansion.y); |
11398 | 0 | path_box.q.x = (path_box.q.x > max_fixed - expansion.x ? max_fixed : |
11399 | 0 | path_box.q.x + expansion.x); |
11400 | 0 | path_box.q.y = (path_box.q.y > max_fixed - expansion.y ? max_fixed : |
11401 | 0 | path_box.q.y + expansion.y); |
11402 | 0 | } |
11403 | 0 | if (box.p.x < path_box.p.x) |
11404 | 0 | box.p.x = path_box.p.x; |
11405 | 0 | if (box.p.y < path_box.p.y) |
11406 | 0 | box.p.y = path_box.p.y; |
11407 | 0 | if (box.q.x > path_box.q.x) |
11408 | 0 | box.q.x = path_box.q.x; |
11409 | 0 | if (box.q.y > path_box.q.y) |
11410 | 0 | box.q.y = path_box.q.y; |
11411 | 0 | } |
11412 | | /* Group alpha set from fill value. push_shfill_group does reset to 1.0 */ |
11413 | 0 | new_pgs.fillconstantalpha = new_pgs.strokeconstantalpha; |
11414 | 0 | code = push_shfill_group(pdev, &new_pgs, &box); |
11415 | 0 | } else |
11416 | 147k | update_lop_for_pdf14(&new_pgs, pdcolor); |
11417 | | |
11418 | 147k | if (code >= 0) { |
11419 | 147k | new_pgs.trans_device = dev; |
11420 | 147k | new_pgs.has_transparency = true; |
11421 | 147k | if (gx_dc_is_pattern2_color(pdcolor)) |
11422 | 28 | code = gx_default_stroke_path_shading_or_pattern(dev, &new_pgs, ppath, params, pdcolor, pcpath); |
11423 | 147k | else |
11424 | 147k | code = gx_forward_stroke_path(dev, &new_pgs, ppath, params, pdcolor, pcpath); |
11425 | 147k | new_pgs.trans_device = NULL; |
11426 | 147k | new_pgs.has_transparency = false; |
11427 | 147k | } |
11428 | 147k | if (code >= 0 && push_group) { |
11429 | 0 | code = pop_shfill_group(&new_pgs); |
11430 | 0 | if (code >= 0) |
11431 | 0 | code = pdf14_clist_update_params(pdev, pgs, false, NULL); |
11432 | 0 | } |
11433 | 147k | if (pinst != NULL) |
11434 | 28 | pinst->saved->trans_device = NULL; |
11435 | 147k | return code; |
11436 | 147k | } |
11437 | | |
11438 | | /* Set up work for doing shading patterns in fill stroke through |
11439 | | the clist. We have to do all the dirty work now since we are |
11440 | | going through the default fill and stroke operations individually */ |
11441 | | static int |
11442 | | pdf14_clist_fill_stroke_path_pattern_setup(gx_device* dev, const gs_gstate* cpgs, gx_path* ppath, |
11443 | | const gx_fill_params* params_fill, const gx_drawing_color* pdevc_fill, |
11444 | | const gx_stroke_params* params_stroke, const gx_drawing_color* pdevc_stroke, |
11445 | | const gx_clip_path* pcpath) |
11446 | 0 | { |
11447 | 0 | union { |
11448 | 0 | const gs_gstate *cpgs; |
11449 | 0 | gs_gstate *pgs; |
11450 | 0 | } const_breaker; |
11451 | 0 | gs_gstate *pgs; |
11452 | 0 | int code, code2; |
11453 | 0 | gs_transparency_group_params_t params = { 0 }; |
11454 | 0 | gs_fixed_rect clip_bbox; |
11455 | 0 | gs_rect bbox, group_stroke_box; |
11456 | 0 | float fill_alpha; |
11457 | 0 | float stroke_alpha; |
11458 | 0 | gs_blend_mode_t blend_mode; |
11459 | 0 | gs_fixed_rect path_bbox; |
11460 | 0 | int expansion_code; |
11461 | 0 | gs_fixed_point expansion; |
11462 | | |
11463 | | /* Break const just once, neatly */ |
11464 | 0 | const_breaker.cpgs = cpgs; |
11465 | 0 | pgs = const_breaker.pgs; |
11466 | |
|
11467 | 0 | fill_alpha = pgs->fillconstantalpha; |
11468 | 0 | stroke_alpha = pgs->strokeconstantalpha; |
11469 | 0 | blend_mode = pgs->blend_mode; |
11470 | |
|
11471 | 0 | code = gx_curr_fixed_bbox(pgs, &clip_bbox, NO_PATH); |
11472 | 0 | if (code < 0 && code != gs_error_unknownerror) |
11473 | 0 | return code; |
11474 | 0 | if (code == gs_error_unknownerror) { |
11475 | | /* didn't get clip box from gx_curr_fixed_bbox */ |
11476 | 0 | clip_bbox.p.x = clip_bbox.p.y = 0; |
11477 | 0 | clip_bbox.q.x = int2fixed(dev->width); |
11478 | 0 | clip_bbox.q.y = int2fixed(dev->height); |
11479 | 0 | } |
11480 | 0 | if (pcpath) |
11481 | 0 | rect_intersect(clip_bbox, pcpath->outer_box); |
11482 | | |
11483 | | /* expand the ppath using stroke expansion rule, then intersect it */ |
11484 | 0 | code = gx_path_bbox(ppath, &path_bbox); |
11485 | 0 | if (code == gs_error_nocurrentpoint && ppath->segments->contents.subpath_first == 0) |
11486 | 0 | return 0; /* ignore empty path */ |
11487 | 0 | if (code < 0) |
11488 | 0 | return code; |
11489 | 0 | expansion_code = gx_stroke_path_expansion(pgs, ppath, &expansion); |
11490 | 0 | if (expansion_code >= 0) { |
11491 | 0 | path_bbox.p.x -= expansion.x; |
11492 | 0 | path_bbox.p.y -= expansion.y; |
11493 | 0 | path_bbox.q.x += expansion.x; |
11494 | 0 | path_bbox.q.y += expansion.y; |
11495 | 0 | } |
11496 | 0 | rect_intersect(path_bbox, clip_bbox); |
11497 | 0 | bbox.p.x = fixed2float(path_bbox.p.x); |
11498 | 0 | bbox.p.y = fixed2float(path_bbox.p.y); |
11499 | 0 | bbox.q.x = fixed2float(path_bbox.q.x); |
11500 | 0 | bbox.q.y = fixed2float(path_bbox.q.y); |
11501 | |
|
11502 | 0 | code = gs_bbox_transform_inverse(&bbox, &ctm_only(pgs), &group_stroke_box); |
11503 | 0 | if (code < 0) |
11504 | 0 | return code; |
11505 | | |
11506 | | /* See if overprint is enabled for both stroke and fill AND if ca == CA */ |
11507 | 0 | if (pgs->fillconstantalpha == pgs->strokeconstantalpha && |
11508 | 0 | pgs->overprint && pgs->stroke_overprint && |
11509 | 0 | (dev->icc_struct->overprint_control != gs_overprint_control_disable) && |
11510 | 0 | dev->color_info.polarity == GX_CINFO_POLARITY_SUBTRACTIVE) { |
11511 | |
|
11512 | 0 | params.Isolated = false; |
11513 | 0 | params.group_color_type = UNKNOWN; |
11514 | 0 | params.Knockout = false; |
11515 | 0 | params.page_group = false; |
11516 | 0 | params.group_opacity = fill_alpha; |
11517 | 0 | params.group_shape = 1.0; |
11518 | | |
11519 | | /* non-isolated non-knockout group pushed with original alpha and blend mode */ |
11520 | 0 | code = gs_begin_transparency_group(pgs, ¶ms, &group_stroke_box, PDF14_BEGIN_TRANS_GROUP); |
11521 | 0 | if (code < 0) |
11522 | 0 | return code; |
11523 | | |
11524 | | /* Set alpha to 1.0 and compatible overprint mode for actual drawings */ |
11525 | 0 | (void)gs_setfillconstantalpha(pgs, 1.0); |
11526 | 0 | (void)gs_setstrokeconstantalpha(pgs, 1.0); |
11527 | 0 | (void)gs_setblendmode(pgs, BLEND_MODE_CompatibleOverprint); /* Can never fail */ |
11528 | |
|
11529 | 0 | code = pdf14_clist_fill_path(dev, pgs, ppath, params_fill, pdevc_fill, pcpath); |
11530 | 0 | if (code < 0) |
11531 | 0 | goto cleanup; |
11532 | | |
11533 | 0 | code = pdf14_clist_stroke_path(dev, pgs, ppath, params_stroke, pdevc_stroke, pcpath); |
11534 | 0 | if (code < 0) |
11535 | 0 | goto cleanup; |
11536 | |
|
11537 | 0 | } else { |
11538 | | /* Push a non-isolated knockout group. Do not change the alpha or |
11539 | | blend modes */ |
11540 | 0 | params.Isolated = false; |
11541 | 0 | params.group_color_type = UNKNOWN; |
11542 | 0 | params.Knockout = true; |
11543 | 0 | params.page_group = false; |
11544 | 0 | params.group_opacity = 1.0; |
11545 | 0 | params.group_shape = 1.0; |
11546 | | |
11547 | | /* non-isolated knockout group is pushed with alpha = 1.0 and Normal blend mode */ |
11548 | 0 | (void)gs_setfillconstantalpha(pgs, 1.0); |
11549 | 0 | (void)gs_setblendmode(pgs, BLEND_MODE_Normal); /* Can never fail */ |
11550 | 0 | code = gs_begin_transparency_group(pgs, ¶ms, &group_stroke_box, PDF14_BEGIN_TRANS_GROUP); |
11551 | | |
11552 | | /* restore blend mode for actual drawing in the group */ |
11553 | 0 | (void)gs_setblendmode(pgs, blend_mode); /* Can never fail */ |
11554 | |
|
11555 | 0 | if (fill_alpha > 0.0) { |
11556 | 0 | (void)gs_setfillconstantalpha(pgs, fill_alpha); |
11557 | | |
11558 | | /* If we are in an overprint situation, set the blend mode to compatible |
11559 | | overprint */ |
11560 | 0 | if ((dev->icc_struct->overprint_control != gs_overprint_control_disable) && |
11561 | 0 | pgs->overprint && |
11562 | 0 | dev->color_info.polarity == GX_CINFO_POLARITY_SUBTRACTIVE) |
11563 | 0 | (void)gs_setblendmode(pgs, BLEND_MODE_CompatibleOverprint); /* Can never fail */ |
11564 | |
|
11565 | 0 | code = pdf14_clist_fill_path(dev, pgs, ppath, params_fill, pdevc_fill, pcpath); |
11566 | 0 | if (code < 0) |
11567 | 0 | goto cleanup; |
11568 | | |
11569 | 0 | if ((dev->icc_struct->overprint_control != gs_overprint_control_disable) && |
11570 | 0 | pgs->overprint && |
11571 | 0 | dev->color_info.polarity == GX_CINFO_POLARITY_SUBTRACTIVE) |
11572 | 0 | (void)gs_setblendmode(pgs, blend_mode); /* Can never fail */ |
11573 | 0 | } |
11574 | | |
11575 | 0 | if (stroke_alpha > 0.0) { |
11576 | | /* Note that the stroke can end up looking like a fill here */ |
11577 | 0 | (void)gs_setstrokeconstantalpha(pgs, stroke_alpha); |
11578 | 0 | (void)gs_setfillconstantalpha(pgs, stroke_alpha); |
11579 | |
|
11580 | 0 | if (pgs->overprint && dev->color_info.polarity == GX_CINFO_POLARITY_SUBTRACTIVE) |
11581 | 0 | (void)gs_setblendmode(pgs, BLEND_MODE_CompatibleOverprint); /* Can never fail */ |
11582 | |
|
11583 | 0 | code = pdf14_clist_stroke_path(dev, pgs, ppath, params_stroke, pdevc_stroke, pcpath); |
11584 | 0 | if (code < 0) |
11585 | 0 | goto cleanup; |
11586 | | |
11587 | 0 | if ((dev->icc_struct->overprint_control != gs_overprint_control_disable) && |
11588 | 0 | pgs->overprint && |
11589 | 0 | dev->color_info.polarity == GX_CINFO_POLARITY_SUBTRACTIVE) |
11590 | 0 | (void)gs_setblendmode(pgs, blend_mode); /* Can never fail */ |
11591 | 0 | } |
11592 | 0 | } |
11593 | | |
11594 | 0 | cleanup: |
11595 | | /* Now during the pop do the compositing with alpha of 1.0 and normal blend */ |
11596 | 0 | (void)gs_setfillconstantalpha(pgs, 1.0); |
11597 | 0 | (void)gs_setstrokeconstantalpha(pgs, 1.0); |
11598 | 0 | (void)gs_setblendmode(pgs, BLEND_MODE_Normal); /* Can never fail */ |
11599 | | |
11600 | | /* Restore where we were. If an error occured while in the group push |
11601 | | return that error code but try to do the cleanup */ |
11602 | 0 | code2 = gs_end_transparency_group(pgs); |
11603 | 0 | if (code2 < 0) { |
11604 | | /* At this point things have gone very wrong. We should just shut down */ |
11605 | 0 | code = gs_abort_pdf14trans_device(pgs); |
11606 | 0 | return code2; |
11607 | 0 | } |
11608 | | |
11609 | | /* Restore if there were any changes */ |
11610 | 0 | (void)gs_setfillconstantalpha(pgs, fill_alpha); |
11611 | 0 | (void)gs_setstrokeconstantalpha(pgs, stroke_alpha); |
11612 | 0 | (void)gs_setblendmode(pgs, blend_mode); /* Can never fail */ |
11613 | |
|
11614 | 0 | return code; |
11615 | 0 | } |
11616 | | |
11617 | | /* |
11618 | | * fill_path routine for the PDF 1.4 transaprency compositor device for |
11619 | | * writing the clist. |
11620 | | */ |
11621 | | static int |
11622 | | pdf14_clist_fill_stroke_path(gx_device *dev, const gs_gstate *pgs, gx_path *ppath, |
11623 | | const gx_fill_params *params_fill, const gx_drawing_color *pdevc_fill, |
11624 | | const gx_stroke_params *params_stroke, const gx_drawing_color *pdevc_stroke, |
11625 | | const gx_clip_path *pcpath) |
11626 | 2.29k | { |
11627 | 2.29k | pdf14_clist_device * pdev = (pdf14_clist_device *)dev; |
11628 | 2.29k | gs_gstate new_pgs = *pgs; |
11629 | 2.29k | int code; |
11630 | | |
11631 | 2.29k | if ((pgs->fillconstantalpha == 0.0 && pgs->strokeconstantalpha == 0.0) || |
11632 | 2.29k | (pgs->ctm.xx == 0.0 && pgs->ctm.xy == 0.0 && pgs->ctm.yx == 0.0 && pgs->ctm.yy == 0.0)) |
11633 | 42 | return 0; |
11634 | | |
11635 | | /* |
11636 | | * Ensure that that the PDF 1.4 reading compositor will have the current |
11637 | | * blending parameters. This is needed since the fill_rectangle routines |
11638 | | * do not have access to the gs_gstate. Thus we have to pass any |
11639 | | * changes explictly. |
11640 | | */ |
11641 | 2.25k | code = pdf14_clist_update_params(pdev, pgs, false, NULL); |
11642 | 2.25k | if (code < 0) |
11643 | 0 | return code; |
11644 | | /* If we are doing a shading fill or stroke, the clist can't |
11645 | | deal with this and end up in the pdf_fill_stroke operation. |
11646 | | We will need to break up the fill stroke now and do |
11647 | | the appropriate group pushes and set up. */ |
11648 | | |
11649 | 2.25k | if (gx_dc_is_pattern2_color(pdevc_fill) || |
11650 | 2.25k | gx_dc_is_pattern2_color(pdevc_stroke)) { |
11651 | 0 | return pdf14_clist_fill_stroke_path_pattern_setup(dev, pgs, ppath, |
11652 | 0 | params_fill, pdevc_fill, params_stroke, pdevc_stroke, pcpath); |
11653 | 0 | } |
11654 | 2.25k | update_lop_for_pdf14(&new_pgs, pdevc_fill); |
11655 | 2.25k | new_pgs.trans_device = dev; |
11656 | 2.25k | new_pgs.has_transparency = true; |
11657 | 2.25k | code = gx_forward_fill_stroke_path(dev, &new_pgs, ppath, params_fill, pdevc_fill, |
11658 | 2.25k | params_stroke, pdevc_stroke, pcpath); |
11659 | 2.25k | new_pgs.trans_device = NULL; |
11660 | 2.25k | new_pgs.has_transparency = false; |
11661 | 2.25k | return code; |
11662 | 2.25k | } |
11663 | | |
11664 | | /* |
11665 | | * text_begin routine for the PDF 1.4 transaprency compositor device for |
11666 | | * writing the clist. |
11667 | | */ |
11668 | | static int |
11669 | | pdf14_clist_text_begin(gx_device * dev, gs_gstate * pgs, |
11670 | | const gs_text_params_t * text, gs_font * font, |
11671 | | const gx_clip_path * pcpath, |
11672 | | gs_text_enum_t ** ppenum) |
11673 | 1.09M | { |
11674 | 1.09M | pdf14_clist_device * pdev = (pdf14_clist_device *)dev; |
11675 | 1.09M | gs_text_enum_t *penum; |
11676 | 1.09M | int code; |
11677 | 1.09M | gs_blend_mode_t blend_mode = gs_currentblendmode(pgs); |
11678 | 1.09M | float opacity = pgs->fillconstantalpha; |
11679 | 1.09M | float shape = 1.0; |
11680 | 1.09M | bool blend_issue = !(blend_mode == BLEND_MODE_Normal || blend_mode == BLEND_MODE_Compatible || blend_mode == BLEND_MODE_CompatibleOverprint); |
11681 | 1.09M | bool draw = !(text->operation & TEXT_DO_NONE); |
11682 | 1.09M | uint text_mode = gs_currenttextrenderingmode(pgs); |
11683 | 1.09M | bool text_stroke = (text_mode == 1 || text_mode == 2 || text_mode == 5 || text_mode == 6); |
11684 | 1.09M | bool text_fill = (text_mode == 0 || text_mode == 2 || text_mode == 4 || text_mode == 6); |
11685 | | |
11686 | 1.09M | if_debug0m('v', pgs->memory, "[v]pdf14_clist_text_begin\n"); |
11687 | | /* |
11688 | | * Ensure that that the PDF 1.4 reading compositor will have the current |
11689 | | * blending parameters. This is needed since the fill_rectangle routines |
11690 | | * do not have access to the gs_gstate. Thus we have to pass any |
11691 | | * changes explictly. |
11692 | | */ |
11693 | 1.09M | code = pdf14_clist_update_params(pdev, pgs, false, NULL); |
11694 | 1.09M | if (code < 0) |
11695 | 0 | return code; |
11696 | | /* Pass text_begin to the target */ |
11697 | 1.09M | code = gx_forward_text_begin(dev, pgs, text, font, |
11698 | 1.09M | pcpath, &penum); |
11699 | 1.09M | if (code < 0) |
11700 | 1 | return code; |
11701 | | |
11702 | | /* Catch case where we already pushed a group and are trying to push another one. |
11703 | | In that case, we will pop the current one first, as we don't want to be left |
11704 | | with it. Note that if we have a BT and no other BTs or ETs then this issue |
11705 | | will not be caught until we do the put_image and notice that the stack is not |
11706 | | empty. */ |
11707 | 1.09M | if (pdev->text_group == PDF14_TEXTGROUP_MISSING_ET) { |
11708 | 52 | code = gs_end_transparency_group(pgs); |
11709 | 52 | if (code < 0) |
11710 | 0 | return code; |
11711 | 52 | pdev->text_group = PDF14_TEXTGROUP_BT_NOT_PUSHED; |
11712 | 52 | } |
11713 | | |
11714 | | /* We may need to push a non-isolated transparency group if the following |
11715 | | is true. |
11716 | | 1) We are not currently in one that we pushed for text. This is |
11717 | | is determined by looking at the pdf14 device. |
11718 | | 2) The blend mode is not Normal or the opacity is not 1.0 |
11719 | | 3) Text knockout is set to true |
11720 | | 4) And we are actually drawing text |
11721 | | */ |
11722 | | |
11723 | 1.09M | if (gs_currenttextknockout(pgs) && (blend_issue || |
11724 | 1.09M | (pgs->fillconstantalpha != 1.0 && text_fill) || |
11725 | 1.09M | (pgs->strokeconstantalpha != 1.0 && text_stroke)) && |
11726 | 1.09M | text_mode != 3 && /* don't bother with invisible text */ |
11727 | 1.09M | pdev->text_group == PDF14_TEXTGROUP_BT_NOT_PUSHED) { |
11728 | 578 | if (draw) { |
11729 | 578 | code = pdf14_push_text_group(dev, pgs, blend_mode, opacity, shape, true); |
11730 | 578 | if (code == 0) |
11731 | 578 | pdev->text_group = PDF14_TEXTGROUP_BT_PUSHED; /* Needed during clist writing */ |
11732 | 578 | } |
11733 | 578 | } |
11734 | 1.09M | *ppenum = (gs_text_enum_t *)penum; |
11735 | 1.09M | return code; |
11736 | 1.09M | } |
11737 | | |
11738 | | static int |
11739 | | pdf14_clist_begin_typed_image(gx_device * dev, const gs_gstate * pgs, |
11740 | | const gs_matrix *pmat, const gs_image_common_t *pic, |
11741 | | const gs_int_rect * prect, |
11742 | | const gx_drawing_color * pdcolor, |
11743 | | const gx_clip_path * pcpath, gs_memory_t * mem, |
11744 | | gx_image_enum_common_t ** pinfo) |
11745 | 14.6k | { |
11746 | 14.6k | pdf14_clist_device * pdev = (pdf14_clist_device *)dev; |
11747 | 14.6k | int code; |
11748 | 14.6k | gs_gstate * pgs_noconst = (gs_gstate *)pgs; /* Break 'const'. */ |
11749 | 14.6k | const gs_image_t *pim = (const gs_image_t *)pic; |
11750 | 14.6k | gx_image_enum *penum; |
11751 | 14.6k | gx_color_tile *ptile; |
11752 | 14.6k | gs_rect bbox_in, bbox_out; |
11753 | 14.6k | gs_transparency_group_params_t tgp; |
11754 | | /* |
11755 | | * Ensure that that the PDF 1.4 reading compositor will have the current |
11756 | | * blending parameters. This is needed since the fill_rectangle routines |
11757 | | * do not have access to the gs_gstate. Thus we have to pass any |
11758 | | * changes explictly. |
11759 | | */ |
11760 | 14.6k | code = pdf14_clist_update_params(pdev, pgs, false, NULL); |
11761 | 14.6k | if (code < 0) |
11762 | 0 | return code; |
11763 | | /* Pass image to the target */ |
11764 | | /* Do a quick change to the gs_gstate so that if we can return with -1 in |
11765 | | case the clist writer cannot handle this image itself. In such a case, |
11766 | | we want to make sure we dont use the target device. I don't necc. like |
11767 | | doing it this way. Probably need to go back and do something a bit |
11768 | | more elegant. */ |
11769 | 14.6k | pgs_noconst->has_transparency = true; |
11770 | 14.6k | pgs_noconst->trans_device = dev; |
11771 | | |
11772 | | /* If we are filling an image mask with a pattern that has a transparency |
11773 | | then we need to do some special handling */ |
11774 | 14.6k | if (pim->ImageMask) { |
11775 | 0 | if (pdcolor != NULL && gx_dc_is_pattern1_color(pdcolor)) { |
11776 | 0 | if( gx_pattern1_get_transptr(pdcolor) != NULL){ |
11777 | 0 | if (dev_proc(dev, begin_typed_image) != pdf14_clist_begin_typed_image) { |
11778 | 0 | ptile = pdcolor->colors.pattern.p_tile; |
11779 | | /* Set up things in the ptile so that we get the proper |
11780 | | blending etc */ |
11781 | | /* Set the blending procs and the is_additive setting based |
11782 | | upon the number of channels */ |
11783 | 0 | if (ptile->ttrans->n_chan-1 < 4) { |
11784 | 0 | ptile->ttrans->blending_procs = &rgb_blending_procs; |
11785 | 0 | ptile->ttrans->is_additive = true; |
11786 | 0 | } else { |
11787 | 0 | ptile->ttrans->blending_procs = &cmyk_blending_procs; |
11788 | 0 | ptile->ttrans->is_additive = false; |
11789 | 0 | } |
11790 | | /* Set the blending mode in the ptile based upon the current |
11791 | | setting in the gs_gstate */ |
11792 | 0 | ptile->blending_mode = pgs->blend_mode; |
11793 | | /* Set the procs so that we use the proper filling method. */ |
11794 | | /* Let the imaging stuff get set up */ |
11795 | 0 | code = gx_default_begin_typed_image(dev, pgs, pmat, pic, |
11796 | 0 | prect, pdcolor, |
11797 | 0 | pcpath, mem, pinfo); |
11798 | 0 | if (code < 0) |
11799 | 0 | return code; |
11800 | | |
11801 | 0 | penum = (gx_image_enum *) *pinfo; |
11802 | | /* Apply inverse of the image matrix to our |
11803 | | image size to get our bounding box. */ |
11804 | 0 | bbox_in.p.x = 0; |
11805 | 0 | bbox_in.p.y = 0; |
11806 | 0 | bbox_in.q.x = pim->Width; |
11807 | 0 | bbox_in.q.y = pim->Height; |
11808 | 0 | code = gs_bbox_transform_inverse(&bbox_in, &(pim->ImageMatrix), |
11809 | 0 | &bbox_out); |
11810 | 0 | if (code < 0) |
11811 | 0 | return code; |
11812 | | /* Set up a compositor action for pushing the group */ |
11813 | 0 | if_debug0m('v', pgs->memory, "[v]Pushing special trans group for image\n"); |
11814 | 0 | tgp.Isolated = true; |
11815 | 0 | tgp.Knockout = false; |
11816 | 0 | tgp.page_group = false; |
11817 | 0 | tgp.mask_id = 0; |
11818 | 0 | tgp.image_with_SMask = false; |
11819 | 0 | tgp.idle = false; |
11820 | 0 | tgp.iccprofile = NULL; |
11821 | 0 | tgp.icc_hashcode = 0; |
11822 | 0 | tgp.group_color_numcomps = ptile->ttrans->n_chan-1; |
11823 | 0 | tgp.ColorSpace = NULL; |
11824 | 0 | tgp.text_group = 0; |
11825 | 0 | tgp.group_opacity = pgs->fillconstantalpha; |
11826 | 0 | tgp.group_shape = 1.0; |
11827 | | /* This will handle the compositor command */ |
11828 | 0 | gs_begin_transparency_group((gs_gstate *) pgs_noconst, &tgp, |
11829 | 0 | &bbox_out, PDF14_BEGIN_TRANS_GROUP); |
11830 | 0 | ptile->ttrans->image_render = penum->render; |
11831 | 0 | penum->render = &pdf14_pattern_trans_render; |
11832 | 0 | ptile->trans_group_popped = false; |
11833 | 0 | pgs_noconst->has_transparency = false; |
11834 | 0 | pgs_noconst->trans_device = NULL; |
11835 | 0 | return code; |
11836 | 0 | } |
11837 | 0 | } |
11838 | 0 | } |
11839 | 0 | } |
11840 | | /* This basically tries high level images for clist. If that fails |
11841 | | then we do the default */ |
11842 | 14.6k | code = gx_forward_begin_typed_image(dev, pgs, pmat, |
11843 | 14.6k | pic, prect, pdcolor, pcpath, mem, pinfo); |
11844 | 14.6k | if (code < 0){ |
11845 | 4.50k | code = gx_default_begin_typed_image(dev, pgs, pmat, pic, prect, |
11846 | 4.50k | pdcolor, pcpath, mem, pinfo); |
11847 | 4.50k | pgs_noconst->has_transparency = false; |
11848 | 4.50k | pgs_noconst->trans_device = NULL; |
11849 | 4.50k | return code; |
11850 | 10.1k | } else { |
11851 | 10.1k | pgs_noconst->has_transparency = false; |
11852 | 10.1k | pgs_noconst->trans_device = NULL; |
11853 | 10.1k | return code; |
11854 | 10.1k | } |
11855 | 14.6k | } |
11856 | | |
11857 | | static int |
11858 | | pdf14_clist_copy_planes(gx_device * dev, const byte * data, int data_x, int raster, |
11859 | | gx_bitmap_id id, int x, int y, int w, int h, int plane_height) |
11860 | 0 | { |
11861 | 0 | int code; |
11862 | |
|
11863 | 0 | code = gx_forward_copy_planes(dev, data, data_x, raster, id, |
11864 | 0 | x, y, w, h, plane_height); |
11865 | 0 | return code; |
11866 | 0 | } |
11867 | | |
11868 | | static int |
11869 | | gs_pdf14_clist_device_push(gs_memory_t *mem, gs_gstate *pgs, gx_device **pcdev, |
11870 | | gx_device *dev, const gs_pdf14trans_t *pdf14pct) |
11871 | 2.72k | { |
11872 | 2.72k | int code; |
11873 | 2.72k | pdf14_clist_device *p14dev; |
11874 | 2.72k | gx_device_clist_writer * const cdev = &((gx_device_clist *)dev)->writer; |
11875 | | |
11876 | 2.72k | code = pdf14_create_clist_device(mem, pgs, pcdev, dev, pdf14pct); |
11877 | 2.72k | if (code < 0) |
11878 | 0 | return code; |
11879 | | /* |
11880 | | * Set the color_info of the clist device to match the compositing |
11881 | | * device. We will restore it when the compositor is popped. |
11882 | | * See pdf14_clist_composite for the restore. Do the |
11883 | | * same with the gs_gstate's get_cmap_procs. We do not want |
11884 | | * the gs_gstate to use transfer functions on our color values. |
11885 | | * The transfer functions will be applied at the end after we |
11886 | | * have done our PDF 1.4 blend operations. |
11887 | | */ |
11888 | 2.72k | p14dev = (pdf14_clist_device *)(*pcdev); |
11889 | 2.72k | p14dev->saved_target_color_info = dev->color_info; |
11890 | 2.72k | dev->color_info = (*pcdev)->color_info; |
11891 | | /* Make sure that we keep the anti-alias information though */ |
11892 | 2.72k | dev->color_info.anti_alias = p14dev->saved_target_color_info.anti_alias; |
11893 | 2.72k | p14dev->color_info.anti_alias = dev->color_info.anti_alias; |
11894 | | |
11895 | | /* adjust the clist_color_info now */ |
11896 | 2.72k | cdev->clist_color_info.depth = p14dev->color_info.depth; |
11897 | 2.72k | cdev->clist_color_info.polarity = p14dev->color_info.polarity; |
11898 | 2.72k | cdev->clist_color_info.num_components = p14dev->color_info.num_components; |
11899 | 2.72k | cdev->clist_color_info.max_color = p14dev->color_info.max_color; |
11900 | 2.72k | cdev->clist_color_info.max_gray = p14dev->color_info.max_gray; |
11901 | | |
11902 | 2.72k | p14dev->saved_target_encode_color = dev_proc(dev, encode_color); |
11903 | 2.72k | p14dev->saved_target_decode_color = dev_proc(dev, decode_color); |
11904 | 2.72k | set_dev_proc(dev, encode_color, p14dev->my_encode_color); |
11905 | 2.72k | set_dev_proc(p14dev, encode_color, p14dev->my_encode_color); |
11906 | 2.72k | set_dev_proc(dev, decode_color, p14dev->my_decode_color); |
11907 | 2.72k | set_dev_proc(p14dev, decode_color, p14dev->my_decode_color); |
11908 | 2.72k | p14dev->saved_target_get_color_mapping_procs = |
11909 | 2.72k | dev_proc(dev, get_color_mapping_procs); |
11910 | 2.72k | p14dev->saved_target_get_color_comp_index = |
11911 | 2.72k | dev_proc(dev, get_color_comp_index); |
11912 | 2.72k | set_dev_proc(dev, get_color_mapping_procs, p14dev->my_get_color_mapping_procs); |
11913 | 2.72k | set_dev_proc(p14dev, get_color_mapping_procs, p14dev->my_get_color_mapping_procs); |
11914 | 2.72k | set_dev_proc(dev, get_color_comp_index, p14dev->my_get_color_comp_index); |
11915 | 2.72k | set_dev_proc(p14dev, get_color_comp_index, p14dev->my_get_color_comp_index); |
11916 | 2.72k | p14dev->save_get_cmap_procs = pgs->get_cmap_procs; |
11917 | 2.72k | pgs->get_cmap_procs = pdf14_get_cmap_procs; |
11918 | 2.72k | gx_set_cmap_procs(pgs, dev); |
11919 | 2.72k | return code; |
11920 | 2.72k | } |
11921 | | /* |
11922 | | * When we push a PDF 1.4 transparency compositor onto the clist, we also need |
11923 | | * to create a compositing device for clist writing. The primary purpose of |
11924 | | * this device is to provide support for the process color model in which |
11925 | | * the PDF 1.4 transparency is done. (This may differ from the process color |
11926 | | * model of the output device.) The actual work of compositing the image is |
11927 | | * done on the output (reader) side of the clist. |
11928 | | */ |
11929 | | static int |
11930 | | c_pdf14trans_clist_write_update(const gs_composite_t * pcte, gx_device * dev, |
11931 | | gx_device ** pcdev, gs_gstate * pgs, gs_memory_t * mem) |
11932 | 114k | { |
11933 | 114k | gx_device_clist_writer * const cdev = &((gx_device_clist *)dev)->writer; |
11934 | 114k | const gs_pdf14trans_t * pdf14pct = (const gs_pdf14trans_t *) pcte; |
11935 | 114k | int code = 0; |
11936 | | |
11937 | | /* We only handle the push/pop operations */ |
11938 | 114k | switch (pdf14pct->params.pdf14_op) { |
11939 | 2.72k | case PDF14_PUSH_DEVICE: |
11940 | 2.72k | code = gs_pdf14_clist_device_push(mem, pgs, pcdev, dev, pdf14pct); |
11941 | | /* Change (non-error) code to 1 to indicate that we created |
11942 | | * a device. */ |
11943 | 2.72k | if (code >= 0) |
11944 | 2.72k | code = 1; |
11945 | 2.72k | return code; |
11946 | | |
11947 | 2.64k | case PDF14_POP_DEVICE: |
11948 | 2.64k | code = clist_writer_check_empty_cropping_stack(cdev); |
11949 | 2.64k | break; |
11950 | | |
11951 | 935 | case PDF14_BEGIN_TRANS_PAGE_GROUP: |
11952 | 12.5k | case PDF14_BEGIN_TRANS_GROUP: |
11953 | 12.5k | { /* HACK: store mask_id into our params for subsequent |
11954 | | calls of c_pdf14trans_write. To do this we must |
11955 | | break const. */ |
11956 | 12.5k | gs_pdf14trans_t * pdf14pct_noconst; |
11957 | | |
11958 | 12.5k | pdf14pct_noconst = (gs_pdf14trans_t *) pcte; |
11959 | | /* What ever the current mask ID is, that is the |
11960 | | softmask group through which this transparency |
11961 | | group must be rendered. Store it now. */ |
11962 | 12.5k | pdf14pct_noconst->params.mask_id = cdev->mask_id; |
11963 | 12.5k | if_debug1m('v', pgs->memory, |
11964 | 12.5k | "[v]c_pdf14trans_clist_write_update group mask_id=%d \n", |
11965 | 12.5k | cdev->mask_id); |
11966 | 12.5k | } |
11967 | 12.5k | break; |
11968 | 11.9k | case PDF14_END_TRANS_GROUP: |
11969 | 12.4k | case PDF14_END_TRANS_TEXT_GROUP: |
11970 | 12.4k | code = 0; /* A place for breakpoint. */ |
11971 | 12.4k | break; |
11972 | 14.6k | case PDF14_BEGIN_TRANS_MASK: |
11973 | | /* A new mask has been started */ |
11974 | 14.6k | cdev->mask_id = ++cdev->mask_id_count; |
11975 | | /* replacing is set everytime that we |
11976 | | have a zpushtransparencymaskgroup */ |
11977 | 14.6k | { /* HACK: store mask_id into our params for subsequent |
11978 | | calls of c_pdf14trans_write. To do this we must |
11979 | | break const. */ |
11980 | 14.6k | gs_pdf14trans_t * pdf14pct_noconst; |
11981 | | |
11982 | 14.6k | pdf14pct_noconst = (gs_pdf14trans_t *) pcte; |
11983 | 14.6k | pdf14pct_noconst->params.mask_id = cdev->mask_id; |
11984 | 14.6k | if_debug1m('v', pgs->memory, |
11985 | 14.6k | "[v]c_pdf14trans_clist_write_update mask mask_id=%d \n", |
11986 | 14.6k | cdev->mask_id); |
11987 | 14.6k | } |
11988 | 14.6k | break; |
11989 | 7.15k | case PDF14_END_TRANS_MASK: |
11990 | 7.15k | code = 0; /* A place for breakpoint. */ |
11991 | 7.15k | break; |
11992 | 0 | case PDF14_PUSH_TRANS_STATE: |
11993 | 0 | code = 0; /* A place for breakpoint. */ |
11994 | 0 | break; |
11995 | 6.95k | case PDF14_POP_TRANS_STATE: |
11996 | 6.95k | code = 0; /* A place for breakpoint. */ |
11997 | 6.95k | break; |
11998 | 0 | case PDF14_ABORT_DEVICE: |
11999 | 0 | code = 0; |
12000 | 0 | break; |
12001 | 0 | case PDF14_PUSH_SMASK_COLOR: |
12002 | 0 | *pcdev = dev; |
12003 | 0 | return 0; |
12004 | 0 | break; |
12005 | 0 | case PDF14_POP_SMASK_COLOR: |
12006 | 0 | *pcdev = dev; |
12007 | 0 | return 0; |
12008 | 0 | break; |
12009 | 55.5k | default: |
12010 | 55.5k | break; /* do nothing for remaining ops */ |
12011 | 114k | } |
12012 | 111k | *pcdev = dev; |
12013 | 111k | if (code < 0) |
12014 | 0 | return code; |
12015 | | /* See c_pdf14trans_write, c_pdf14trans_adjust_ctm, and |
12016 | | apply_composite. */ |
12017 | 111k | code = gs_gstate_setmatrix(&cdev->gs_gstate, &pdf14pct->params.ctm); |
12018 | | /* Wrote an extra ctm. */ |
12019 | 111k | cmd_clear_known(cdev, ctm_known); |
12020 | | |
12021 | 111k | return code; |
12022 | 111k | } |
12023 | | |
12024 | | /* |
12025 | | * When we push a PDF 1.4 transparency compositor, we need to make the clist |
12026 | | * device color_info data match the compositing device. We need to do this |
12027 | | * since the PDF 1.4 transparency compositing device may use a different |
12028 | | * process color model than the output device. We do not need to modify the |
12029 | | * color related device procs since the compositing device has its own. We |
12030 | | * restore the color_info data when the transparency device is popped. |
12031 | | */ |
12032 | | static int |
12033 | | c_pdf14trans_clist_read_update(gs_composite_t * pcte, gx_device * cdev, |
12034 | | gx_device * tdev, gs_gstate * pgs, gs_memory_t * mem) |
12035 | 6.18M | { |
12036 | 6.18M | pdf14_device * p14dev = (pdf14_device *)tdev; |
12037 | 6.18M | gs_pdf14trans_t * pdf14pct = (gs_pdf14trans_t *) pcte; |
12038 | 6.18M | gs_devn_params * pclist_devn_params; |
12039 | 6.18M | gx_device_clist_reader *pcrdev = (gx_device_clist_reader *)cdev; |
12040 | 6.18M | cmm_profile_t *cl_icc_profile, *p14_icc_profile; |
12041 | 6.18M | gsicc_rendering_param_t render_cond; |
12042 | 6.18M | cmm_dev_profile_t *dev_profile; |
12043 | | |
12044 | 6.18M | dev_proc(cdev, get_profile)(cdev, &dev_profile); |
12045 | 6.18M | gsicc_extract_profile(GS_UNKNOWN_TAG, dev_profile, &cl_icc_profile, |
12046 | 6.18M | &render_cond); |
12047 | | |
12048 | | /* If we are using the blending color space, then be sure to use that. */ |
12049 | 6.18M | if (p14dev->blend_cs_state == PDF14_BLEND_CS_SPECIFIED && |
12050 | 6.18M | dev_profile->blend_profile != NULL) |
12051 | 0 | cl_icc_profile = dev_profile->blend_profile; |
12052 | 6.18M | else if (p14dev->blend_cs_state == PDF14_BLEND_CS_OUTPUTINTENT && |
12053 | 6.18M | dev_profile->oi_profile != NULL) |
12054 | 0 | cl_icc_profile = dev_profile->oi_profile; |
12055 | | |
12056 | 6.18M | dev_proc(p14dev, get_profile)((gx_device *)p14dev, &dev_profile); |
12057 | 6.18M | gsicc_extract_profile(GS_UNKNOWN_TAG, dev_profile, &p14_icc_profile, |
12058 | 6.18M | &render_cond); |
12059 | | /* |
12060 | | * We only handle the push/pop operations. Save and restore the color_info |
12061 | | * field for the clist device. This is needed since the process color |
12062 | | * model of the clist device needs to match the PDF 1.4 compositing |
12063 | | * device. |
12064 | | */ |
12065 | 6.18M | switch (pdf14pct->params.pdf14_op) { |
12066 | 254k | case PDF14_PUSH_DEVICE: |
12067 | | /* Overprint simulation sets the profile at prototype creation, as does |
12068 | | when the target profile is NCLR. Match the logic in gs_pdf14_device_push */ |
12069 | 254k | if (!((p14dev->overprint_sim && cl_icc_profile->data_cs != gsCMYK) || |
12070 | 254k | cl_icc_profile->data_cs == gsNCHANNEL)) { |
12071 | 254k | gsicc_adjust_profile_rc(cl_icc_profile, 1, "c_pdf14trans_clist_read_update"); |
12072 | 254k | gsicc_adjust_profile_rc(p14dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE], |
12073 | 254k | -1, "c_pdf14trans_clist_read_update"); |
12074 | 254k | p14dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE] = cl_icc_profile; |
12075 | 254k | } |
12076 | | /* |
12077 | | * If we are blending using spot colors (i.e. the output device |
12078 | | * supports spot colors) then we need to transfer |
12079 | | * color info from the clist PDF 1.4 compositing reader device |
12080 | | * to the clist writer PDF 1.4 compositing device. |
12081 | | * This info was transfered from that device to the output |
12082 | | * device as a set of device parameters. However the clist |
12083 | | * reader PDF 1.4 compositing device did not exist when the |
12084 | | * device parameters were read from the clist. So that info |
12085 | | * was buffered into the output device. |
12086 | | */ |
12087 | 254k | pclist_devn_params = dev_proc(cdev, ret_devn_params)(cdev); |
12088 | 254k | if (pclist_devn_params != NULL && pclist_devn_params->page_spot_colors > 0) { |
12089 | 12 | int num_comp = p14dev->color_info.num_components; |
12090 | | /* |
12091 | | * The number of components for the PDF14 device is the sum |
12092 | | * of the process components and the number of spot colors |
12093 | | * for the page. If the color capabilities of the parent |
12094 | | * device (which coming into this are the same as the p14dev) |
12095 | | * are smaller than the number of page spot colors then |
12096 | | * use that for the number of components. Otherwise use |
12097 | | * the page_spot_colors. The exception is, if we had used |
12098 | | * the sICCOutputColors setting, then just use that, which |
12099 | | * should be already baked into num_comp. With clist patterns, |
12100 | | * cdev->icc_struct may be null. |
12101 | | */ |
12102 | | |
12103 | 12 | if (cdev->icc_struct == NULL || cdev->icc_struct->spotnames == NULL) { |
12104 | 12 | p14dev->devn_params.page_spot_colors = |
12105 | 12 | pclist_devn_params->page_spot_colors; |
12106 | 12 | if (num_comp < p14dev->devn_params.page_spot_colors + 4 ) { |
12107 | 0 | p14dev->color_info.num_components = num_comp; |
12108 | 12 | } else { |
12109 | | /* if page_spot_colors < 0, this will be wrong, so don't update num_components */ |
12110 | 12 | if (p14dev->devn_params.page_spot_colors >= 0) { |
12111 | 12 | p14dev->color_info.num_components = |
12112 | 12 | p14dev->devn_params.num_std_colorant_names + |
12113 | 12 | p14dev->devn_params.page_spot_colors; |
12114 | 12 | } |
12115 | 12 | } |
12116 | 12 | } |
12117 | | /* limit the num_components to the max. */ |
12118 | 12 | if (p14dev->color_info.num_components > p14dev->color_info.max_components) |
12119 | 0 | p14dev->color_info.num_components = p14dev->color_info.max_components; |
12120 | | /* Transfer the data for the spot color names |
12121 | | But we have to free what may be there before we do this */ |
12122 | 12 | devn_free_params((gx_device*) p14dev); |
12123 | 12 | p14dev->devn_params.separations = |
12124 | 12 | pclist_devn_params->pdf14_separations; |
12125 | 12 | p14dev->free_devicen = false; /* to avoid freeing the clist ones */ |
12126 | 12 | if (num_comp != p14dev->color_info.num_components) { |
12127 | | /* When the pdf14 device is opened it creates a context |
12128 | | and some soft mask related objects. The push device |
12129 | | compositor action will have already created these but |
12130 | | they are the wrong size. We must destroy them though |
12131 | | before reopening the device */ |
12132 | 0 | if (p14dev->ctx != NULL) { |
12133 | 0 | pdf14_ctx_free(p14dev->ctx); |
12134 | 0 | p14dev->ctx = NULL; |
12135 | 0 | } |
12136 | 0 | dev_proc(tdev, open_device) (tdev); |
12137 | 0 | } |
12138 | 12 | } |
12139 | | /* Check if we need to swap out the ICC profile for the pdf14 |
12140 | | device. This will occur if our source profile for our device |
12141 | | happens to be something like CIELAB. Then we will blend in |
12142 | | RGB (unless a trans group is specified) */ |
12143 | 254k | if (cl_icc_profile->data_cs == gsCIELAB || cl_icc_profile->islab) { |
12144 | 0 | gsicc_adjust_profile_rc(p14dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE], |
12145 | 0 | -1, "c_pdf14trans_clist_read_update"); |
12146 | | /* Initial ref count from gsicc_read_serial_icc() is 1, which is what we want */ |
12147 | 0 | p14dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE] = |
12148 | 0 | gsicc_read_serial_icc(cdev, pcrdev->trans_dev_icc_hash); |
12149 | | /* Keep a pointer to the clist device */ |
12150 | 0 | p14dev->icc_struct->device_profile[GS_DEFAULT_DEVICE_PROFILE]->dev = (gx_device *) cdev; |
12151 | 0 | } |
12152 | 254k | break; |
12153 | | |
12154 | 254k | case PDF14_POP_DEVICE: |
12155 | | # if 0 /* Disabled because *p14dev has no forwarding methods during |
12156 | | the clist playback. This code is not executed while clist |
12157 | | writing. */ |
12158 | | cdev->color_info = p14dev->saved_target_color_info; |
12159 | | # endif |
12160 | 254k | break; |
12161 | | |
12162 | 5.68M | default: |
12163 | 5.68M | break; /* do nothing for remaining ops */ |
12164 | 6.18M | } |
12165 | | |
12166 | 6.18M | return 0; |
12167 | 6.18M | } |
12168 | | |
12169 | | /* |
12170 | | * Get cropping for the compositor command. |
12171 | | */ |
12172 | | static int |
12173 | | c_pdf14trans_get_cropping(const gs_composite_t *pcte, int *ry, int *rheight, |
12174 | | int cropping_min, int cropping_max) |
12175 | 114k | { |
12176 | 114k | gs_pdf14trans_t * pdf14pct = (gs_pdf14trans_t *) pcte; |
12177 | 114k | switch (pdf14pct->params.pdf14_op) { |
12178 | 2.72k | case PDF14_PUSH_DEVICE: return ALLBANDS; /* Applies to all bands. */ |
12179 | 2.64k | case PDF14_POP_DEVICE: return ALLBANDS; /* Applies to all bands. */ |
12180 | 0 | case PDF14_ABORT_DEVICE: return ALLBANDS; /* Applies to all bands */ |
12181 | 935 | case PDF14_BEGIN_TRANS_PAGE_GROUP: |
12182 | 12.5k | case PDF14_BEGIN_TRANS_GROUP: |
12183 | 12.5k | { gs_int_rect rect; |
12184 | | |
12185 | | /* Text group always uses parents size*/ |
12186 | 12.5k | if (pdf14pct->params.text_group == PDF14_TEXTGROUP_BT_PUSHED) { |
12187 | 578 | *ry = cropping_min; |
12188 | 578 | *rheight = cropping_max - *ry; |
12189 | 11.9k | } else { |
12190 | 11.9k | pdf14_compute_group_device_int_rect(&pdf14pct->params.ctm, |
12191 | 11.9k | &pdf14pct->params.bbox, &rect); |
12192 | | /* We have to crop this by the parent object. */ |
12193 | 11.9k | *ry = max(rect.p.y, cropping_min); |
12194 | 11.9k | *rheight = min(rect.q.y, cropping_max) - *ry; |
12195 | 11.9k | } |
12196 | 12.5k | return PUSHCROP; /* Push cropping. */ |
12197 | 935 | } |
12198 | 14.6k | case PDF14_BEGIN_TRANS_MASK: |
12199 | 14.6k | { gs_int_rect rect; |
12200 | | |
12201 | 14.6k | pdf14_compute_group_device_int_rect(&pdf14pct->params.ctm, |
12202 | 14.6k | &pdf14pct->params.bbox, &rect); |
12203 | | /* We have to crop this by the parent object and worry about the BC outside |
12204 | | the range, except for image SMask which don't affect areas outside the image. |
12205 | | The presence of a transfer function opens the possibility of issues with this */ |
12206 | 14.6k | if (pdf14pct->params.mask_is_image || (pdf14pct->params.GrayBackground == 1.0 && |
12207 | 7.87k | pdf14pct->params.function_is_identity)) { |
12208 | | /* In this case there will not be a background effect to |
12209 | | worry about. The mask will not have any effect outside |
12210 | | the bounding box. This is NOT the default or common case. */ |
12211 | 6.78k | *ry = max(rect.p.y, cropping_min); |
12212 | 6.78k | *rheight = min(rect.q.y, cropping_max) - *ry; |
12213 | 6.78k | return PUSHCROP; /* Push cropping. */ |
12214 | 7.86k | } else { |
12215 | | /* We need to make the soft mask range as large as the parent |
12216 | | due to the fact that the background color can have an impact |
12217 | | OUTSIDE the bounding box of the soft mask */ |
12218 | 7.86k | *ry = cropping_min; |
12219 | 7.86k | *rheight = cropping_max - cropping_min; |
12220 | 7.86k | if (pdf14pct->params.subtype == TRANSPARENCY_MASK_None) |
12221 | 7.49k | return SAMEAS_PUSHCROP_BUTNOPUSH; |
12222 | 372 | else |
12223 | 372 | return PUSHCROP; /* Push cropping. */ |
12224 | 7.86k | } |
12225 | 14.6k | } |
12226 | 11.9k | case PDF14_END_TRANS_GROUP: return POPCROP; /* Pop cropping. */ |
12227 | 502 | case PDF14_END_TRANS_TEXT_GROUP: return POPCROP; /* Pop cropping. */ |
12228 | 7.15k | case PDF14_END_TRANS_MASK: return POPCROP; /* Pop the cropping */ |
12229 | 0 | case PDF14_PUSH_TRANS_STATE: return CURRBANDS; |
12230 | 6.95k | case PDF14_POP_TRANS_STATE: return CURRBANDS; |
12231 | 55.5k | case PDF14_SET_BLEND_PARAMS: return ALLBANDS; |
12232 | 0 | case PDF14_PUSH_SMASK_COLOR: return POPCROP; /* Pop cropping. */ |
12233 | 0 | case PDF14_POP_SMASK_COLOR: return POPCROP; /* Pop the cropping */ |
12234 | 0 | case PDF14_BEGIN_TRANS_TEXT_GROUP: return ALLBANDS; /* should never occur */ |
12235 | 114k | } |
12236 | 0 | return ALLBANDS; |
12237 | 114k | } |
12238 | | |
12239 | | /* |
12240 | | * This routine will check to see if the color component name matches those |
12241 | | * that are available amoung the current device's color components. If the |
12242 | | * color name is known to the output device then we add it to the list of |
12243 | | * colorants for the PDF 1.4 transparency compositor. |
12244 | | * |
12245 | | * Notes: There are currently three different versions of The PDF 1.4 |
12246 | | * transparency compositor device. The choice of which one is being used |
12247 | | * depends upon the process color model of the output device. This procedure |
12248 | | * is only used if the output (target) device uses a CMYK, or RGB or Gray |
12249 | | * plus spot color process color model. |
12250 | | * |
12251 | | * Parameters: |
12252 | | * dev - pointer to device data structure. |
12253 | | * pname - pointer to name (zero termination not required) |
12254 | | * nlength - length of the name |
12255 | | * number of process colorants (either 1, 3, or 4) |
12256 | | * |
12257 | | * This routine returns a positive value (0 to n) which is the device colorant |
12258 | | * number if the name is found. It returns GX_DEVICE_COLOR_MAX_COMPONENTS if |
12259 | | * the colorant is not being used due to a SeparationOrder device parameter. |
12260 | | * It returns a negative value if not found. |
12261 | | */ |
12262 | | static int |
12263 | | pdf14_spot_get_color_comp_index(gx_device *dev, const char *pname, |
12264 | | int name_size, int component_type, int num_process_colors) |
12265 | 8.14k | { |
12266 | 8.14k | pdf14_device *pdev = (pdf14_device *)dev; |
12267 | 8.14k | gx_device *tdev = pdev->target; |
12268 | 8.14k | gs_devn_params *pdevn_params = &pdev->devn_params; |
12269 | 8.14k | gs_separations *pseparations; |
12270 | 8.14k | int comp_index; |
12271 | 8.14k | dev_proc_get_color_comp_index(*target_get_color_comp_index); |
12272 | 8.14k | int offset = 4 - num_process_colors; |
12273 | | |
12274 | 8.14k | while (tdev->child) { |
12275 | 0 | tdev = tdev->child; |
12276 | 0 | } |
12277 | | /* If something has gone wrong and this is no longer the pdf14 compositor, */ |
12278 | | /* get the devn_params from the target to avoid accessing using the wrong */ |
12279 | | /* pointer. Bug 696372. */ |
12280 | 8.14k | if (tdev == (gx_device *)pdev) |
12281 | 0 | pdevn_params = dev_proc(pdev, ret_devn_params)(dev); |
12282 | 8.14k | pseparations = &pdevn_params->separations; |
12283 | | /* If num_process_colors is 3 or 1 (RGB or Gray) then we are in a situation |
12284 | | * where we are in a blend color space that is RGB or Gray based and we |
12285 | | * have a spot colorant. If the spot colorant name is Cyan, Magenta |
12286 | | * Yellow or Black, then we should use the alternate tint transform */ |
12287 | 8.14k | if (num_process_colors < 4) { |
12288 | 446 | int k; |
12289 | 2.23k | for (k = 0; k < 4; k++) { |
12290 | 1.78k | if (strncmp(pname, pdev->devn_params.std_colorant_names[k], name_size) == 0) |
12291 | 0 | return -1; |
12292 | 1.78k | } |
12293 | 446 | } |
12294 | | |
12295 | 8.14k | target_get_color_comp_index = dev_proc(tdev, get_color_comp_index); |
12296 | | |
12297 | | /* The pdf14_clist_composite may have set the color procs. |
12298 | | We need the real target procs, but not if we are doing simulated |
12299 | | overprint */ |
12300 | 8.14k | if (target_get_color_comp_index == pdf14_cmykspot_get_color_comp_index && |
12301 | 8.14k | !pdev->overprint_sim) |
12302 | 8.13k | target_get_color_comp_index = |
12303 | 8.13k | ((pdf14_clist_device *)pdev)->saved_target_get_color_comp_index; |
12304 | | /* |
12305 | | * If this is not a separation name then simply forward it to the target |
12306 | | * device or return -1 if we are doing overprint simulation. |
12307 | | * The halftone setup expects this. |
12308 | | */ |
12309 | 8.14k | if (!pdev->overprint_sim && (component_type == NO_COMP_NAME_TYPE_HT || |
12310 | 8.14k | component_type == NO_COMP_NAME_TYPE_OP)) { |
12311 | 7.06k | return (*target_get_color_comp_index)(tdev, pname, name_size, component_type); |
12312 | 7.06k | } |
12313 | 1.08k | if (pdev->overprint_sim && component_type == NO_COMP_NAME_TYPE_HT) { |
12314 | 0 | return -1; |
12315 | 0 | } |
12316 | | |
12317 | | /* |
12318 | | * Check if the component is in either the process color model list |
12319 | | * or in the SeparationNames list. |
12320 | | */ |
12321 | 1.08k | comp_index = check_pcm_and_separation_names(dev, pdevn_params, pname, |
12322 | 1.08k | name_size, component_type); |
12323 | | /* |
12324 | | * Return the colorant number if we know this name. Note adjustment for |
12325 | | * compensating of blend color space. |
12326 | | */ |
12327 | 1.08k | if (comp_index >= 0) |
12328 | 1.06k | return comp_index - offset; |
12329 | | |
12330 | | /* Only worry about the target if we are not doing an overprint simulation */ |
12331 | 12 | if (!pdev->overprint_sim) { |
12332 | | /* |
12333 | | * If we do not know this color, check if the output (target) device does. |
12334 | | * Note that if the target device has ENABLE_AUTO_SPOT_COLORS this will add |
12335 | | * the colorant so we will only get < 0 returned when we hit the max. for |
12336 | | * the target device. |
12337 | | */ |
12338 | 12 | comp_index = (*target_get_color_comp_index)(tdev, pname, name_size, component_type); |
12339 | | /* |
12340 | | * Ignore color if unknown to the output device or if color is not being |
12341 | | * imaged due to the SeparationOrder device parameter. |
12342 | | */ |
12343 | 12 | if (comp_index < 0 || comp_index == GX_DEVICE_COLOR_MAX_COMPONENTS) |
12344 | 0 | return comp_index - offset; |
12345 | 12 | } |
12346 | | |
12347 | | /* |
12348 | | * This is a new colorant. Add it to our list of colorants. |
12349 | | * The limit accounts for the number of process colors (at least 4). |
12350 | | */ |
12351 | 12 | if ((pseparations->num_separations + 1) < |
12352 | 12 | (GX_DEVICE_COLOR_MAX_COMPONENTS - max(num_process_colors, 4))) { |
12353 | 12 | int sep_num = pseparations->num_separations++; |
12354 | 12 | int color_component_number; |
12355 | 12 | byte * sep_name; |
12356 | | |
12357 | 12 | sep_name = gs_alloc_bytes(dev->memory->stable_memory, |
12358 | 12 | name_size, "pdf14_spot_get_color_comp_index"); |
12359 | 12 | if (sep_name == NULL) { |
12360 | 0 | pseparations->num_separations--; /* we didn't add it */ |
12361 | 0 | return -1; |
12362 | 0 | } |
12363 | 12 | memcpy(sep_name, pname, name_size); |
12364 | 12 | pseparations->names[sep_num].size = name_size; |
12365 | 12 | pseparations->names[sep_num].data = sep_name; |
12366 | 12 | color_component_number = sep_num + num_process_colors; |
12367 | 12 | if (color_component_number >= dev->color_info.max_components) |
12368 | 0 | color_component_number = GX_DEVICE_COLOR_MAX_COMPONENTS; |
12369 | 12 | else |
12370 | 12 | pdevn_params->separation_order_map[color_component_number] = |
12371 | 12 | color_component_number; |
12372 | | |
12373 | | /* Indicate that we need to find equivalent CMYK color. */ |
12374 | 12 | pdev->op_pequiv_cmyk_colors.color[sep_num].color_info_valid = false; |
12375 | 12 | pdev->op_pequiv_cmyk_colors.all_color_info_valid = false; |
12376 | | |
12377 | 12 | return color_component_number; |
12378 | 12 | } |
12379 | | |
12380 | 0 | return GX_DEVICE_COLOR_MAX_COMPONENTS; |
12381 | 12 | } |
12382 | | |
12383 | | |
12384 | | /* CMYK process + spots */ |
12385 | | static int |
12386 | | pdf14_cmykspot_get_color_comp_index(gx_device * dev, const char * pname, |
12387 | | int name_size, int component_type) |
12388 | 7.69k | { |
12389 | 7.69k | return pdf14_spot_get_color_comp_index(dev, pname, name_size, component_type, 4); |
12390 | 7.69k | } |
12391 | | |
12392 | | /* RGB process + spots */ |
12393 | | static int |
12394 | | pdf14_rgbspot_get_color_comp_index(gx_device * dev, const char * pname, |
12395 | | int name_size, int component_type) |
12396 | 446 | { |
12397 | 446 | return pdf14_spot_get_color_comp_index(dev, pname, name_size, component_type, 3); |
12398 | 446 | } |
12399 | | |
12400 | | /* Gray process + spots */ |
12401 | | static int |
12402 | | pdf14_grayspot_get_color_comp_index(gx_device * dev, const char * pname, |
12403 | | int name_size, int component_type) |
12404 | 0 | { |
12405 | 0 | return pdf14_spot_get_color_comp_index(dev, pname, name_size, component_type, 1); |
12406 | 0 | } |
12407 | | |
12408 | | /* These functions keep track of when we are dealing with soft masks. |
12409 | | In such a case, we set the default color profiles to ones that ensure |
12410 | | proper soft mask rendering. */ |
12411 | | static int |
12412 | | pdf14_increment_smask_color(gs_gstate * pgs, gx_device * dev) |
12413 | 12.6k | { |
12414 | 12.6k | pdf14_device * pdev = (pdf14_device *) dev; |
12415 | 12.6k | pdf14_smaskcolor_t *result; |
12416 | 12.6k | gsicc_smask_t *smask_profiles = pgs->icc_manager->smask_profiles; |
12417 | 12.6k | int k; |
12418 | | |
12419 | | /* See if we have profiles already in place. Note we also have to |
12420 | | worry about a corner case where this device does not have a |
12421 | | smaskcolor stucture to store the profiles AND the profiles were |
12422 | | already swapped out in the icc_manager. This can occur when we |
12423 | | pushed a transparency mask and then inside the mask we have a pattern |
12424 | | which also has a transparency mask. The state of the icc_manager |
12425 | | is that it already has done the swap and there is no need to fool |
12426 | | with any of this while dealing with the soft mask within the pattern */ |
12427 | 12.6k | if (pdev->smaskcolor == NULL && pgs->icc_manager->smask_profiles != NULL && |
12428 | 12.6k | pgs->icc_manager->smask_profiles->swapped) { |
12429 | 0 | return 0; |
12430 | 0 | } |
12431 | 12.6k | if (pdev->smaskcolor != NULL) { |
12432 | 16 | pdev->smaskcolor->ref_count++; |
12433 | 16 | if_debug1m(gs_debug_flag_icc, dev->memory, |
12434 | 16 | "[icc] Increment smask color now %d\n", |
12435 | 16 | pdev->smaskcolor->ref_count); |
12436 | 12.6k | } else { |
12437 | | /* Allocate and swap out the current profiles. The softmask |
12438 | | profiles should already be in place */ |
12439 | 12.6k | result = gs_alloc_struct(pdev->memory->stable_memory, pdf14_smaskcolor_t, |
12440 | 12.6k | &st_pdf14_smaskcolor, |
12441 | 12.6k | "pdf14_increment_smask_color"); |
12442 | 12.6k | if (result == NULL) |
12443 | 0 | return gs_error_VMerror; |
12444 | | |
12445 | 12.6k | result->profiles = gsicc_new_iccsmask(pdev->memory->stable_memory); |
12446 | 12.6k | if (result->profiles == NULL) |
12447 | 0 | return gs_error_VMerror; |
12448 | | |
12449 | 12.6k | pdev->smaskcolor = result; |
12450 | | |
12451 | 12.6k | result->profiles->smask_gray = pgs->icc_manager->default_gray; |
12452 | 12.6k | result->profiles->smask_rgb = pgs->icc_manager->default_rgb; |
12453 | 12.6k | result->profiles->smask_cmyk = pgs->icc_manager->default_cmyk; |
12454 | 12.6k | pgs->icc_manager->default_gray = smask_profiles->smask_gray; |
12455 | 12.6k | gsicc_adjust_profile_rc(pgs->icc_manager->default_gray, 1, "pdf14_increment_smask_color"); |
12456 | 12.6k | pgs->icc_manager->default_rgb = smask_profiles->smask_rgb; |
12457 | 12.6k | gsicc_adjust_profile_rc(pgs->icc_manager->default_rgb, 1, "pdf14_increment_smask_color"); |
12458 | 12.6k | pgs->icc_manager->default_cmyk = smask_profiles->smask_cmyk; |
12459 | 12.6k | gsicc_adjust_profile_rc(pgs->icc_manager->default_cmyk, 1, "pdf14_increment_smask_color"); |
12460 | 12.6k | pgs->icc_manager->smask_profiles->swapped = true; |
12461 | 12.6k | if_debug0m(gs_debug_flag_icc, pgs->memory, |
12462 | 12.6k | "[icc] Initial creation of smask color. Ref count 1\n"); |
12463 | 12.6k | pdev->smaskcolor->ref_count = 1; |
12464 | | /* We also need to update the profile that is currently in the |
12465 | | color spaces of the graphic state. Otherwise this can be |
12466 | | referenced, which will result in a mismatch. What we want to do |
12467 | | is see if it was the original default and only swap in that case. */ |
12468 | 37.9k | for (k = 0; k < 2; k++) { |
12469 | 25.3k | gs_color_space *pcs = pgs->color[k].color_space; |
12470 | 25.3k | cmm_profile_t *profile = pcs->cmm_icc_profile_data; |
12471 | 25.3k | if (profile != NULL) { |
12472 | 25.1k | switch(profile->data_cs) { |
12473 | 13.2k | case gsGRAY: |
12474 | 13.2k | if (profile->hashcode == |
12475 | 13.2k | result->profiles->smask_gray->hashcode) { |
12476 | 12.4k | profile = pgs->icc_manager->default_gray; |
12477 | 12.4k | } |
12478 | 13.2k | break; |
12479 | 11.8k | case gsRGB: |
12480 | 11.8k | if (profile->hashcode == |
12481 | 11.8k | result->profiles->smask_rgb->hashcode) { |
12482 | 4.44k | profile = pgs->icc_manager->default_rgb; |
12483 | 4.44k | } |
12484 | 11.8k | break; |
12485 | 97 | case gsCMYK: |
12486 | 97 | if (profile->hashcode == |
12487 | 97 | result->profiles->smask_cmyk->hashcode) { |
12488 | 97 | profile = pgs->icc_manager->default_cmyk; |
12489 | 97 | } |
12490 | 97 | break; |
12491 | 0 | default: |
12492 | |
|
12493 | 0 | break; |
12494 | 25.1k | } |
12495 | 25.1k | if (pcs->cmm_icc_profile_data != profile) { |
12496 | 17.0k | gsicc_adjust_profile_rc(profile, 1, "pdf14_increment_smask_color"); |
12497 | 17.0k | gsicc_adjust_profile_rc(pcs->cmm_icc_profile_data, -1, "pdf14_increment_smask_color"); |
12498 | 17.0k | pcs->cmm_icc_profile_data = profile; |
12499 | 17.0k | } |
12500 | 25.1k | } |
12501 | 25.3k | } |
12502 | 12.6k | } |
12503 | 12.6k | return 0; |
12504 | 12.6k | } |
12505 | | |
12506 | | static int |
12507 | | pdf14_decrement_smask_color(gs_gstate * pgs, gx_device * dev) |
12508 | 15.3k | { |
12509 | 15.3k | pdf14_device * pdev = (pdf14_device *) dev; |
12510 | 15.3k | pdf14_smaskcolor_t *smaskcolor = pdev->smaskcolor; |
12511 | 15.3k | gsicc_manager_t *icc_manager = pgs->icc_manager; |
12512 | 15.3k | int k; |
12513 | | |
12514 | | /* See comment in pdf14_increment_smask_color to understand this one */ |
12515 | 15.3k | if (pdev->smaskcolor == NULL && pgs->icc_manager->smask_profiles != NULL && |
12516 | 15.3k | pgs->icc_manager->smask_profiles->swapped) { |
12517 | 0 | return 0; |
12518 | 0 | } |
12519 | 15.3k | if (smaskcolor != NULL) { |
12520 | 12.6k | smaskcolor->ref_count--; |
12521 | 12.6k | if_debug1m(gs_debug_flag_icc, pgs->memory, |
12522 | 12.6k | "[icc] Decrement smask color. Now %d\n", |
12523 | 12.6k | smaskcolor->ref_count); |
12524 | 12.6k | if (smaskcolor->ref_count == 0) { |
12525 | 12.6k | if_debug0m(gs_debug_flag_icc, pgs->memory, "[icc] Reset smask color.\n"); |
12526 | | /* Lets return the profiles and clean up */ |
12527 | | /* First see if we need to "reset" the profiles that are in |
12528 | | the graphic state */ |
12529 | 12.6k | if_debug0m(gs_debug_flag_icc, pgs->memory, "[icc] Reseting graphic state color spaces\n"); |
12530 | 37.9k | for (k = 0; k < 2; k++) { |
12531 | 25.3k | gs_color_space *pcs = pgs->color[k].color_space; |
12532 | 25.3k | cmm_profile_t *profile = pcs->cmm_icc_profile_data; |
12533 | 25.3k | if (profile != NULL) { |
12534 | 25.1k | switch(profile->data_cs) { |
12535 | 13.2k | case gsGRAY: |
12536 | 13.2k | if (profile->hashcode == |
12537 | 13.2k | pgs->icc_manager->default_gray->hashcode) { |
12538 | 12.4k | profile = |
12539 | 12.4k | smaskcolor->profiles->smask_gray; |
12540 | 12.4k | } |
12541 | 13.2k | break; |
12542 | 11.8k | case gsRGB: |
12543 | 11.8k | if (profile->hashcode == |
12544 | 11.8k | pgs->icc_manager->default_rgb->hashcode) { |
12545 | 4.44k | profile = |
12546 | 4.44k | smaskcolor->profiles->smask_rgb; |
12547 | 4.44k | } |
12548 | 11.8k | break; |
12549 | 97 | case gsCMYK: |
12550 | 97 | if (profile->hashcode == |
12551 | 97 | pgs->icc_manager->default_cmyk->hashcode) { |
12552 | 97 | profile = |
12553 | 97 | smaskcolor->profiles->smask_cmyk; |
12554 | 97 | } |
12555 | 97 | break; |
12556 | 0 | default: |
12557 | |
|
12558 | 0 | break; |
12559 | 25.1k | } |
12560 | 25.1k | if (pcs->cmm_icc_profile_data != profile) { |
12561 | 17.0k | gsicc_adjust_profile_rc(profile, 1, "pdf14_decrement_smask_color"); |
12562 | 17.0k | gsicc_adjust_profile_rc(pcs->cmm_icc_profile_data, -1, "pdf14_decrement_smask_color"); |
12563 | 17.0k | pcs->cmm_icc_profile_data = profile; |
12564 | 17.0k | } |
12565 | 25.1k | } |
12566 | 25.3k | } |
12567 | | |
12568 | 12.6k | gsicc_adjust_profile_rc(icc_manager->default_gray, -1, "pdf14_decrement_smask_color"); |
12569 | 12.6k | icc_manager->default_gray = smaskcolor->profiles->smask_gray; |
12570 | 12.6k | gsicc_adjust_profile_rc(icc_manager->default_rgb, -1, "pdf14_decrement_smask_color"); |
12571 | 12.6k | icc_manager->default_rgb = smaskcolor->profiles->smask_rgb; |
12572 | 12.6k | gsicc_adjust_profile_rc(icc_manager->default_cmyk, -1, "pdf14_decrement_smask_color"); |
12573 | 12.6k | icc_manager->default_cmyk = smaskcolor->profiles->smask_cmyk; |
12574 | 12.6k | icc_manager->smask_profiles->swapped = false; |
12575 | | /* We didn't increment the reference count when we assigned these |
12576 | | * so NULL them to avoid decrementing when smaskcolor is freed |
12577 | | */ |
12578 | 12.6k | smaskcolor->profiles->smask_gray = |
12579 | 12.6k | smaskcolor->profiles->smask_rgb = |
12580 | 12.6k | smaskcolor->profiles->smask_cmyk = NULL; |
12581 | | |
12582 | 12.6k | pdf14_free_smask_color(pdev); |
12583 | 12.6k | } |
12584 | 12.6k | } |
12585 | 15.3k | return 0; |
12586 | 15.3k | } |
12587 | | |
12588 | | static void |
12589 | | pdf14_free_smask_color(pdf14_device * pdev) |
12590 | 12.6k | { |
12591 | 12.6k | if (pdev->smaskcolor != NULL) { |
12592 | 12.6k | if ( pdev->smaskcolor->profiles != NULL) { |
12593 | | /* Do not decrement the profiles - the references were moved |
12594 | | here and moved back again, so the ref counts don't change |
12595 | | */ |
12596 | 12.6k | gs_free_object(pdev->memory->stable_memory, pdev->smaskcolor->profiles, |
12597 | 12.6k | "pdf14_free_smask_color"); |
12598 | 12.6k | } |
12599 | 12.6k | gs_free_object(pdev->memory->stable_memory, pdev->smaskcolor, "pdf14_free_smask_color"); |
12600 | 12.6k | pdev->smaskcolor = NULL; |
12601 | 12.6k | } |
12602 | 12.6k | } |
12603 | | |
12604 | | static void |
12605 | | pdf14_device_finalize(const gs_memory_t *cmem, void *vptr) |
12606 | 263k | { |
12607 | 263k | gx_device * const dev = (gx_device *)vptr; |
12608 | 263k | pdf14_device * pdev = (pdf14_device *)dev; |
12609 | 263k | int k; |
12610 | | |
12611 | 263k | pdf14_cleanup_group_color_profiles (pdev); |
12612 | | |
12613 | 263k | if (pdev->ctx) { |
12614 | 0 | pdf14_ctx_free(pdev->ctx); |
12615 | 0 | pdev->ctx = NULL; |
12616 | 0 | } |
12617 | | |
12618 | 263k | while (pdev->color_model_stack) { |
12619 | 24 | pdf14_pop_group_color(dev, NULL); |
12620 | 24 | } |
12621 | | |
12622 | 263k | for (k = 0; k < pdev->devn_params.separations.num_separations; k++) { |
12623 | 12 | if (pdev->devn_params.separations.names[k].data) { |
12624 | 12 | gs_free_object(pdev->memory->stable_memory, pdev->devn_params.separations.names[k].data, "pdf14_device_finalize"); |
12625 | 12 | pdev->devn_params.separations.names[k].data = NULL; |
12626 | 12 | } |
12627 | 12 | } |
12628 | | |
12629 | 263k | for (k = 0; k < pdev->devn_params.pdf14_separations.num_separations; k++) { |
12630 | 0 | if (pdev->devn_params.pdf14_separations.names[k].data) { |
12631 | 0 | gs_free_object(pdev->memory->stable_memory, pdev->devn_params.pdf14_separations.names[k].data, "pdf14_device_finalize"); |
12632 | 0 | pdev->devn_params.pdf14_separations.names[k].data = NULL; |
12633 | 0 | } |
12634 | 0 | } |
12635 | | |
12636 | 263k | gx_device_finalize(cmem, vptr); |
12637 | 263k | } |
12638 | | |
12639 | | #if DUMP_MASK_STACK |
12640 | | |
12641 | | static void |
12642 | | dump_mask_stack(pdf14_mask_t *mask_stack) |
12643 | | { |
12644 | | pdf14_mask_t *curr_mask = mask_stack; |
12645 | | int level = 0; |
12646 | | |
12647 | | while (curr_mask != NULL) { |
12648 | | if_debug1m('v', curr_mask->memory, "[v]mask_level, %d\n", level); |
12649 | | if_debug1m('v', curr_mask->memory, "[v]mask_buf, %p\n", curr_mask->rc_mask->mask_buf); |
12650 | | if_debug1m('v', curr_mask->memory, "[v]rc_count, %ld\n", curr_mask->rc_mask->rc.ref_count); |
12651 | | level++; |
12652 | | curr_mask = curr_mask->previous; |
12653 | | } |
12654 | | } |
12655 | | |
12656 | | /* A function to display the current state of the mask stack */ |
12657 | | static void |
12658 | | pdf14_debug_mask_stack_state(pdf14_ctx *ctx) |
12659 | | { |
12660 | | if_debug1m('v', ctx->memory, "[v]ctx_maskstack, %p\n", ctx->mask_stack); |
12661 | | if (ctx->mask_stack != NULL) { |
12662 | | dump_mask_stack(ctx->mask_stack); |
12663 | | } |
12664 | | if_debug1m('v', ctx->memory, "[v]ctx_stack, %p\n", ctx->stack); |
12665 | | if (ctx->stack != NULL) { |
12666 | | if_debug1m('v', ctx->memory, "[v]ctx_stack_maskstack, %p\n", ctx->stack->mask_stack); |
12667 | | if (ctx->stack->mask_stack != NULL) { |
12668 | | dump_mask_stack(ctx->stack->mask_stack); |
12669 | | } |
12670 | | } |
12671 | | } |
12672 | | |
12673 | | #else |
12674 | | |
12675 | | #ifdef DEBUG |
12676 | | static void |
12677 | | pdf14_debug_mask_stack_state(pdf14_ctx *ctx) |
12678 | | { |
12679 | | return; |
12680 | | } |
12681 | | #endif |
12682 | | |
12683 | | #endif /* DUMP_MASK_STACK */ |