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4251 Serge 1
/*
2
 * Copyright © 2007-2011 Intel Corporation
3
 *
4
 * Permission is hereby granted, free of charge, to any person obtaining a
5
 * copy of this software and associated documentation files (the "Software"),
6
 * to deal in the Software without restriction, including without limitation
7
 * the rights to use, copy, modify, merge, publish, distribute, sublicense,
8
 * and/or sell copies of the Software, and to permit persons to whom the
9
 * Software is furnished to do so, subject to the following conditions:
10
 *
11
 * The above copyright notice and this permission notice (including the next
12
 * paragraph) shall be included in all copies or substantial portions of the
13
 * Software.
14
 *
15
 * THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
16
 * IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
17
 * FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT.  IN NO EVENT SHALL
18
 * THE AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER
19
 * LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM,
20
 * OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE
21
 * SOFTWARE.
22
 *
23
 * Authors:
24
 *    Eric Anholt 
25
 *    Chris Wilson 
26
 *
27
 */
28
 
29
#ifdef HAVE_CONFIG_H
30
#include "config.h"
31
#endif
32
 
33
#include 
34
 
35
#include "sna.h"
36
#include "sna_reg.h"
37
#include "gen7_render.h"
38
 
39
#include "kgem_debug.h"
40
 
41
static struct state {
42
	struct vertex_buffer {
43
		int handle;
44
		void *base;
45
		const char *ptr;
46
		int pitch;
47
 
48
		struct kgem_bo *current;
49
	} vb[33];
50
	struct vertex_elements {
51
		int buffer;
52
		int offset;
53
		bool valid;
54
		uint32_t type;
55
		uint8_t swizzle[4];
56
	} ve[33];
57
	int num_ve;
58
 
59
	struct dynamic_state {
60
		struct kgem_bo *current;
61
		void *base, *ptr;
62
	} dynamic_state;
63
} state;
64
 
65
static void gen7_update_vertex_buffer(struct kgem *kgem, const uint32_t *data)
66
{
67
	uint32_t reloc = sizeof(uint32_t) * (&data[1] - kgem->batch);
68
	struct kgem_bo *bo = NULL;
69
	void *base, *ptr;
70
	int i;
71
 
72
	for (i = 0; i < kgem->nreloc; i++)
73
		if (kgem->reloc[i].offset == reloc)
74
			break;
75
	assert(i < kgem->nreloc);
76
	reloc = kgem->reloc[i].target_handle;
77
 
78
	if (reloc == 0) {
79
		base = kgem->batch;
80
	} else {
81
		list_for_each_entry(bo, &kgem->next_request->buffers, request)
82
			if (bo->handle == reloc)
83
				break;
84
		assert(&bo->request != &kgem->next_request->buffers);
85
		base = kgem_bo_map__debug(kgem, bo);
86
	}
87
	ptr = (char *)base + kgem->reloc[i].delta;
88
 
89
	i = data[0] >> 26;
90
 
91
	state.vb[i].current = bo;
92
	state.vb[i].base = base;
93
	state.vb[i].ptr = ptr;
94
	state.vb[i].pitch = data[0] & 0x7ff;
95
}
96
 
97
static void gen7_update_dynamic_buffer(struct kgem *kgem, const uint32_t offset)
98
{
99
	uint32_t reloc = sizeof(uint32_t) * offset;
100
	struct kgem_bo *bo = NULL;
101
	void *base, *ptr;
102
	int i;
103
 
104
	if ((kgem->batch[offset] & 1) == 0)
105
		return;
106
 
107
	for (i = 0; i < kgem->nreloc; i++)
108
		if (kgem->reloc[i].offset == reloc)
109
			break;
110
	if(i < kgem->nreloc) {
111
		reloc = kgem->reloc[i].target_handle;
112
 
113
		if (reloc == 0) {
114
			base = kgem->batch;
115
		} else {
116
			list_for_each_entry(bo, &kgem->next_request->buffers, request)
117
				if (bo->handle == reloc)
118
					break;
119
			assert(&bo->request != &kgem->next_request->buffers);
120
			base = kgem_bo_map__debug(kgem, bo);
121
		}
122
		ptr = (char *)base + (kgem->reloc[i].delta & ~1);
123
	} else {
124
		bo = NULL;
125
		base = NULL;
126
		ptr = NULL;
127
	}
128
 
129
	state.dynamic_state.current = bo;
130
	state.dynamic_state.base = base;
131
	state.dynamic_state.ptr = ptr;
132
}
133
 
134
static uint32_t
135
get_ve_component(uint32_t data, int component)
136
{
137
	return (data >> (16 + (3 - component) * 4)) & 0x7;
138
}
139
 
140
static void gen7_update_vertex_elements(struct kgem *kgem, int id, const uint32_t *data)
141
{
142
	state.ve[id].buffer = data[0] >> 26;
143
	state.ve[id].valid = !!(data[0] & (1 << 25));
144
	state.ve[id].type = (data[0] >> 16) & 0x1ff;
145
	state.ve[id].offset = data[0] & 0x7ff;
146
	state.ve[id].swizzle[0] = get_ve_component(data[1], 0);
147
	state.ve[id].swizzle[1] = get_ve_component(data[1], 1);
148
	state.ve[id].swizzle[2] = get_ve_component(data[1], 2);
149
	state.ve[id].swizzle[3] = get_ve_component(data[1], 3);
150
}
151
 
152
static void gen7_update_sf_state(struct kgem *kgem, uint32_t *data)
153
{
154
	state.num_ve = 1 + ((data[1] >> 22) & 0x3f);
155
}
156
 
157
static void vertices_sint16_out(const struct vertex_elements *ve, const int16_t *v, int max)
158
{
159
	int c;
160
 
161
	ErrorF("(");
162
	for (c = 0; c < max; c++) {
163
		switch (ve->swizzle[c]) {
164
		case 0: ErrorF("#"); break;
165
		case 1: ErrorF("%d", v[c]); break;
166
		case 2: ErrorF("0.0"); break;
167
		case 3: ErrorF("1.0"); break;
168
		case 4: ErrorF("0x1"); break;
169
		case 5: break;
170
		default: ErrorF("?");
171
		}
172
		if (c < 3)
173
			ErrorF(", ");
174
	}
175
	for (; c < 4; c++) {
176
		switch (ve->swizzle[c]) {
177
		case 0: ErrorF("#"); break;
178
		case 1: ErrorF("1.0"); break;
179
		case 2: ErrorF("0.0"); break;
180
		case 3: ErrorF("1.0"); break;
181
		case 4: ErrorF("0x1"); break;
182
		case 5: break;
183
		default: ErrorF("?");
184
		}
185
		if (c < 3)
186
			ErrorF(", ");
187
	}
188
	ErrorF(")");
189
}
190
 
191
static void vertices_float_out(const struct vertex_elements *ve, const float *f, int max)
192
{
193
	int c, o;
194
 
195
	ErrorF("(");
196
	for (c = o = 0; c < 4 && o < max; c++) {
197
		switch (ve->swizzle[c]) {
198
		case 0: ErrorF("#"); break;
199
		case 1: ErrorF("%f", f[o++]); break;
200
		case 2: ErrorF("0.0"); break;
201
		case 3: ErrorF("1.0"); break;
202
		case 4: ErrorF("0x1"); break;
203
		case 5: break;
204
		default: ErrorF("?");
205
		}
206
		if (c < 3)
207
			ErrorF(", ");
208
	}
209
	for (; c < 4; c++) {
210
		switch (ve->swizzle[c]) {
211
		case 0: ErrorF("#"); break;
212
		case 1: ErrorF("1.0"); break;
213
		case 2: ErrorF("0.0"); break;
214
		case 3: ErrorF("1.0"); break;
215
		case 4: ErrorF("0x1"); break;
216
		case 5: break;
217
		default: ErrorF("?");
218
		}
219
		if (c < 3)
220
			ErrorF(", ");
221
	}
222
	ErrorF(")");
223
}
224
 
225
static void ve_out(const struct vertex_elements *ve, const void *ptr)
226
{
227
	switch (ve->type) {
228
	case GEN7_SURFACEFORMAT_R32_FLOAT:
229
		vertices_float_out(ve, ptr, 1);
230
		break;
231
	case GEN7_SURFACEFORMAT_R32G32_FLOAT:
232
		vertices_float_out(ve, ptr, 2);
233
		break;
234
	case GEN7_SURFACEFORMAT_R32G32B32_FLOAT:
235
		vertices_float_out(ve, ptr, 3);
236
		break;
237
	case GEN7_SURFACEFORMAT_R32G32B32A32_FLOAT:
238
		vertices_float_out(ve, ptr, 4);
239
		break;
240
	case GEN7_SURFACEFORMAT_R16_SINT:
241
		vertices_sint16_out(ve, ptr, 1);
242
		break;
243
	case GEN7_SURFACEFORMAT_R16G16_SINT:
244
		vertices_sint16_out(ve, ptr, 2);
245
		break;
246
	case GEN7_SURFACEFORMAT_R16G16B16A16_SINT:
247
		vertices_sint16_out(ve, ptr, 4);
248
		break;
249
	case GEN7_SURFACEFORMAT_R16_SSCALED:
250
		vertices_sint16_out(ve, ptr, 1);
251
		break;
252
	case GEN7_SURFACEFORMAT_R16G16_SSCALED:
253
		vertices_sint16_out(ve, ptr, 2);
254
		break;
255
	case GEN7_SURFACEFORMAT_R16G16B16A16_SSCALED:
256
		vertices_sint16_out(ve, ptr, 4);
257
		break;
258
	}
259
}
260
 
261
static void indirect_vertex_out(struct kgem *kgem, uint32_t v)
262
{
263
	int i = 1;
264
 
265
	do {
266
		const struct vertex_elements *ve = &state.ve[i];
267
		const struct vertex_buffer *vb = &state.vb[ve->buffer];
268
		const void *ptr = vb->ptr + v * vb->pitch + ve->offset;
269
 
270
		if (!ve->valid)
271
			continue;
272
 
273
		ve_out(ve, ptr);
274
 
275
		while (++i <= state.num_ve && !state.ve[i].valid)
276
			;
277
 
278
		if (i <= state.num_ve)
279
			ErrorF(", ");
280
	} while (i <= state.num_ve);
281
}
282
 
283
static void primitive_out(struct kgem *kgem, uint32_t *data)
284
{
285
	int n;
286
 
287
	assert((data[0] & (1<<15)) == 0); /* XXX index buffers */
288
 
289
	for (n = 0; n < data[2]; n++) {
290
		int v = data[3] + n;
291
		ErrorF("	[%d:%d] = ", n, v);
292
		indirect_vertex_out(kgem, v);
293
		ErrorF("\n");
294
	}
295
}
296
 
297
static void finish_state(struct kgem *kgem)
298
{
299
	memset(&state, 0, sizeof(state));
300
}
301
 
302
static void
303
state_base_out(uint32_t *data, uint32_t offset, unsigned int index,
304
	       const char *name)
305
{
306
    if (data[index] & 1)
307
	kgem_debug_print(data, offset, index,
308
		  "%s state base address 0x%08x\n",
309
		  name, data[index] & ~1);
310
    else
311
	kgem_debug_print(data, offset, index,
312
		  "%s state base not updated\n",
313
		  name);
314
}
315
 
316
static void
317
state_max_out(uint32_t *data, uint32_t offset, unsigned int index,
318
	      const char *name)
319
{
320
	if (data[index] == 1)
321
		kgem_debug_print(data, offset, index,
322
			  "%s state upper bound disabled\n", name);
323
	else if (data[index] & 1)
324
		kgem_debug_print(data, offset, index,
325
			  "%s state upper bound 0x%08x\n",
326
			  name, data[index] & ~1);
327
	else
328
		kgem_debug_print(data, offset, index,
329
			  "%s state upper bound not updated\n",
330
			  name);
331
}
332
 
333
static const char *
334
get_965_surfacetype(unsigned int surfacetype)
335
{
336
	switch (surfacetype) {
337
	case 0: return "1D";
338
	case 1: return "2D";
339
	case 2: return "3D";
340
	case 3: return "CUBE";
341
	case 4: return "BUFFER";
342
	case 7: return "NULL";
343
	default: return "unknown";
344
	}
345
}
346
 
347
static const char *
348
get_965_depthformat(unsigned int depthformat)
349
{
350
	switch (depthformat) {
351
	case 0: return "s8_z24float";
352
	case 1: return "z32float";
353
	case 2: return "z24s8";
354
	case 5: return "z16";
355
	default: return "unknown";
356
	}
357
}
358
 
359
static const char *
360
get_element_component(uint32_t data, int component)
361
{
362
	uint32_t component_control = (data >> (16 + (3 - component) * 4)) & 0x7;
363
 
364
	switch (component_control) {
365
	case 0:
366
		return "nostore";
367
	case 1:
368
		switch (component) {
369
		case 0: return "X";
370
		case 1: return "Y";
371
		case 2: return "Z";
372
		case 3: return "W";
373
		default: return "fail";
374
		}
375
	case 2:
376
		return "0.0";
377
	case 3:
378
		return "1.0";
379
	case 4:
380
		return "0x1";
381
	case 5:
382
		return "VID";
383
	default:
384
		return "fail";
385
	}
386
}
387
 
388
static const char *
389
get_prim_type(uint32_t data)
390
{
391
	uint32_t primtype = data & 0x1f;
392
 
393
	switch (primtype) {
394
	case 0x01: return "point list";
395
	case 0x02: return "line list";
396
	case 0x03: return "line strip";
397
	case 0x04: return "tri list";
398
	case 0x05: return "tri strip";
399
	case 0x06: return "tri fan";
400
	case 0x07: return "quad list";
401
	case 0x08: return "quad strip";
402
	case 0x09: return "line list adj";
403
	case 0x0a: return "line strip adj";
404
	case 0x0b: return "tri list adj";
405
	case 0x0c: return "tri strip adj";
406
	case 0x0d: return "tri strip reverse";
407
	case 0x0e: return "polygon";
408
	case 0x0f: return "rect list";
409
	case 0x10: return "line loop";
410
	case 0x11: return "point list bf";
411
	case 0x12: return "line strip cont";
412
	case 0x13: return "line strip bf";
413
	case 0x14: return "line strip cont bf";
414
	case 0x15: return "tri fan no stipple";
415
	default: return "fail";
416
	}
417
}
418
 
419
struct reloc {
420
	struct kgem_bo *bo;
421
	void *base;
422
};
423
 
424
static void *
425
get_reloc(struct kgem *kgem,
426
	  void *base, const uint32_t *reloc,
427
	  struct reloc *r)
428
{
429
	uint32_t delta = *reloc;
430
 
431
	memset(r, 0, sizeof(*r));
432
 
433
	if (base == 0) {
434
		uint32_t handle = sizeof(uint32_t) * (reloc - kgem->batch);
435
		struct kgem_bo *bo = NULL;
436
		int i;
437
 
438
		for (i = 0; i < kgem->nreloc; i++)
439
			if (kgem->reloc[i].offset == handle)
440
				break;
441
		assert(i < kgem->nreloc);
442
		handle = kgem->reloc[i].target_handle;
443
		delta = kgem->reloc[i].delta;
444
 
445
		if (handle == 0) {
446
			base = kgem->batch;
447
		} else {
448
			list_for_each_entry(bo, &kgem->next_request->buffers, request)
449
				if (bo->handle == handle)
450
					break;
451
			assert(&bo->request != &kgem->next_request->buffers);
452
			base = kgem_bo_map__debug(kgem, bo);
453
			r->bo = bo;
454
			r->base = base;
455
		}
456
	}
457
 
458
	return (char *)base + (delta & ~3);
459
}
460
 
461
static const char *
462
gen7_filter_to_string(uint32_t filter)
463
{
464
	switch (filter) {
465
	default:
466
	case GEN7_MAPFILTER_NEAREST: return "nearest";
467
	case GEN7_MAPFILTER_LINEAR: return "linear";
468
	}
469
}
470
 
471
static const char *
472
gen7_repeat_to_string(uint32_t repeat)
473
{
474
	switch (repeat) {
475
	default:
476
	case GEN7_TEXCOORDMODE_CLAMP_BORDER: return "border";
477
	case GEN7_TEXCOORDMODE_WRAP: return "wrap";
478
	case GEN7_TEXCOORDMODE_CLAMP: return "clamp";
479
	case GEN7_TEXCOORDMODE_MIRROR: return "mirror";
480
	}
481
}
482
 
483
static void
484
gen7_decode_sampler_state(struct kgem *kgem, const uint32_t *reloc)
485
{
486
	const struct gen7_sampler_state *ss;
487
	struct reloc r;
488
	const char *min, *mag;
489
	const char *s_wrap, *t_wrap, *r_wrap;
490
 
491
	ss = get_reloc(kgem, state.dynamic_state.ptr, reloc, &r);
492
 
493
	min = gen7_filter_to_string(ss->ss0.min_filter);
494
	mag = gen7_filter_to_string(ss->ss0.mag_filter);
495
 
496
	s_wrap = gen7_repeat_to_string(ss->ss3.s_wrap_mode);
497
	t_wrap = gen7_repeat_to_string(ss->ss3.t_wrap_mode);
498
	r_wrap = gen7_repeat_to_string(ss->ss3.r_wrap_mode);
499
 
500
	ErrorF("  Sampler 0:\n");
501
	ErrorF("    filter: min=%s, mag=%s\n", min, mag);
502
	ErrorF("    wrap: s=%s, t=%s, r=%s\n", s_wrap, t_wrap, r_wrap);
503
 
504
	ss++;
505
	min = gen7_filter_to_string(ss->ss0.min_filter);
506
	mag = gen7_filter_to_string(ss->ss0.mag_filter);
507
 
508
	s_wrap = gen7_repeat_to_string(ss->ss3.s_wrap_mode);
509
	t_wrap = gen7_repeat_to_string(ss->ss3.t_wrap_mode);
510
	r_wrap = gen7_repeat_to_string(ss->ss3.r_wrap_mode);
511
 
512
	ErrorF("  Sampler 1:\n");
513
	ErrorF("    filter: min=%s, mag=%s\n", min, mag);
514
	ErrorF("    wrap: s=%s, t=%s, r=%s\n", s_wrap, t_wrap, r_wrap);
515
}
516
 
517
static const char *
518
gen7_blend_factor_to_string(uint32_t v)
519
{
520
	switch (v) {
521
#define C(x) case GEN7_BLENDFACTOR_##x: return #x;
522
		C(ONE);
523
		C(SRC_COLOR);
524
		C(SRC_ALPHA);
525
		C(DST_ALPHA);
526
		C(DST_COLOR);
527
		C(SRC_ALPHA_SATURATE);
528
		C(CONST_COLOR);
529
		C(CONST_ALPHA);
530
		C(SRC1_COLOR);
531
		C(SRC1_ALPHA);
532
		C(ZERO);
533
		C(INV_SRC_COLOR);
534
		C(INV_SRC_ALPHA);
535
		C(INV_DST_ALPHA);
536
		C(INV_DST_COLOR);
537
		C(INV_CONST_COLOR);
538
		C(INV_CONST_ALPHA);
539
		C(INV_SRC1_COLOR);
540
		C(INV_SRC1_ALPHA);
541
#undef C
542
	default: return "???";
543
	}
544
}
545
 
546
static const char *
547
gen7_blend_function_to_string(uint32_t v)
548
{
549
	switch (v) {
550
#define C(x) case GEN7_BLENDFUNCTION_##x: return #x;
551
		C(ADD);
552
		C(SUBTRACT);
553
		C(REVERSE_SUBTRACT);
554
		C(MIN);
555
		C(MAX);
556
#undef C
557
	default: return "???";
558
	}
559
}
560
 
561
static void
562
gen7_decode_blend(struct kgem *kgem, const uint32_t *reloc)
563
{
564
	const struct gen7_blend_state *blend;
565
	struct reloc r;
566
	const char *dst, *src;
567
	const char *func;
568
 
569
	blend = get_reloc(kgem, state.dynamic_state.ptr, reloc, &r);
570
 
571
	dst = gen7_blend_factor_to_string(blend->blend0.dest_blend_factor);
572
	src = gen7_blend_factor_to_string(blend->blend0.source_blend_factor);
573
	func = gen7_blend_function_to_string(blend->blend0.blend_func);
574
 
575
	ErrorF("  Blend (%s): function %s, src=%s, dst=%s\n",
576
	       blend->blend0.blend_enable ? "enabled" : "disabled",
577
	       func, src, dst);
578
}
579
 
580
int kgem_gen7_decode_3d(struct kgem *kgem, uint32_t offset)
581
{
582
	static const struct {
583
		uint32_t opcode;
584
		int min_len;
585
		int max_len;
586
		const char *name;
587
	} opcodes[] = {
588
		{ 0x6101, 6, 6, "STATE_BASE_ADDRESS" },
589
		{ 0x6102, 2, 2 , "STATE_SIP" },
590
		{ 0x6104, 1, 1, "3DSTATE_PIPELINE_SELECT" },
591
		{ 0x780a, 3, 3, "3DSTATE_INDEX_BUFFER" },
592
		{ 0x7900, 4, 4, "3DSTATE_DRAWING_RECTANGLE" },
593
	};
594
	uint32_t *data = kgem->batch + offset;
595
	uint32_t op;
596
	unsigned int len;
597
	int i;
598
	const char *name;
599
 
600
	len = (data[0] & 0xff) + 2;
601
	op = (data[0] & 0xffff0000) >> 16;
602
	switch (op) {
603
	case 0x6101:
604
		i = 0;
605
		kgem_debug_print(data, offset, i++, "STATE_BASE_ADDRESS\n");
606
		assert(len == 10);
607
 
608
		state_base_out(data, offset, i++, "general");
609
		state_base_out(data, offset, i++, "surface");
610
		state_base_out(data, offset, i++, "dynamic");
611
		state_base_out(data, offset, i++, "indirect");
612
		state_base_out(data, offset, i++, "instruction");
613
 
614
		state_max_out(data, offset, i++, "general");
615
		state_max_out(data, offset, i++, "dynamic");
616
		state_max_out(data, offset, i++, "indirect");
617
		state_max_out(data, offset, i++, "instruction");
618
 
619
		gen7_update_dynamic_buffer(kgem, offset + 3);
620
 
621
		return len;
622
 
623
	case 0x7808:
624
		assert((len - 1) % 4 == 0);
625
		kgem_debug_print(data, offset, 0, "3DSTATE_VERTEX_BUFFERS\n");
626
 
627
		for (i = 1; i < len;) {
628
			gen7_update_vertex_buffer(kgem, data + i);
629
 
630
			kgem_debug_print(data, offset, i, "buffer %d: %s, pitch %db\n",
631
				  data[i] >> 26,
632
				  data[i] & (1 << 20) ? "random" : "sequential",
633
				  data[i] & 0x07ff);
634
			i++;
635
			kgem_debug_print(data, offset, i++, "buffer address\n");
636
			kgem_debug_print(data, offset, i++, "max index\n");
637
			kgem_debug_print(data, offset, i++, "mbz\n");
638
		}
639
		return len;
640
 
641
	case 0x7809:
642
		assert((len + 1) % 2 == 0);
643
		kgem_debug_print(data, offset, 0, "3DSTATE_VERTEX_ELEMENTS\n");
644
 
645
		for (i = 1; i < len;) {
646
			gen7_update_vertex_elements(kgem, (i - 1)/2, data + i);
647
 
648
			kgem_debug_print(data, offset, i, "buffer %d: %svalid, type 0x%04x, "
649
				  "src offset 0x%04x bytes\n",
650
				  data[i] >> 26,
651
				  data[i] & (1 << 25) ? "" : "in",
652
				  (data[i] >> 16) & 0x1ff,
653
				  data[i] & 0x07ff);
654
			i++;
655
			kgem_debug_print(data, offset, i, "(%s, %s, %s, %s), "
656
				  "dst offset 0x%02x bytes\n",
657
				  get_element_component(data[i], 0),
658
				  get_element_component(data[i], 1),
659
				  get_element_component(data[i], 2),
660
				  get_element_component(data[i], 3),
661
				  (data[i] & 0xff) * 4);
662
			i++;
663
		}
664
		return len;
665
 
666
	case 0x780a:
667
		assert(len == 3);
668
		kgem_debug_print(data, offset, 0, "3DSTATE_INDEX_BUFFER\n");
669
		kgem_debug_print(data, offset, 1, "beginning buffer address\n");
670
		kgem_debug_print(data, offset, 2, "ending buffer address\n");
671
		return len;
672
 
673
	case 0x7b00:
674
		assert(len == 7);
675
		kgem_debug_print(data, offset, 0, "3DPRIMITIVE\n");
676
		kgem_debug_print(data, offset, 1, "type %s, %s\n",
677
			  get_prim_type(data[1]),
678
			  (data[1] & (1 << 15)) ? "random" : "sequential");
679
		kgem_debug_print(data, offset, 2, "vertex count\n");
680
		kgem_debug_print(data, offset, 3, "start vertex\n");
681
		kgem_debug_print(data, offset, 4, "instance count\n");
682
		kgem_debug_print(data, offset, 5, "start instance\n");
683
		kgem_debug_print(data, offset, 6, "index bias\n");
684
		primitive_out(kgem, data);
685
		return len;
686
	}
687
 
688
	/* For the rest, just dump the bytes */
689
	name = NULL;
690
	for (i = 0; i < ARRAY_SIZE(opcodes); i++)
691
		if (op == opcodes[i].opcode) {
692
			name = opcodes[i].name;
693
			break;
694
		}
695
 
696
	len = (data[0] & 0xff) + 2;
697
	if (name == NULL) {
698
		kgem_debug_print(data, offset, 0, "unknown\n");
699
	} else {
700
		kgem_debug_print(data, offset, 0, "%s\n", opcodes[i].name);
701
		if (opcodes[i].max_len > 1) {
702
			assert(len >= opcodes[i].min_len &&
703
					len <= opcodes[i].max_len);
704
		}
705
	}
706
	for (i = 1; i < len; i++)
707
		kgem_debug_print(data, offset, i, "dword %d\n", i);
708
 
709
	return len;
710
}
711
 
712
void kgem_gen7_finish_state(struct kgem *kgem)
713
{
714
	finish_state(kgem);
715
}