void r300_emit_scissor_state(struct r300_context* r300,
unsigned size, void* state)
{
struct pipe_scissor_state* scissor = (struct pipe_scissor_state*)state;
CS_LOCALS(r300);
BEGIN_CS(size);
OUT_CS_REG_SEQ(R300_SC_CLIPRECT_TL_0, 2);
if (r300->screen->caps.is_r500) {
OUT_CS((scissor->minx << R300_CLIPRECT_X_SHIFT) |
(scissor->miny << R300_CLIPRECT_Y_SHIFT));
OUT_CS(((scissor->maxx - 1) << R300_CLIPRECT_X_SHIFT) |
((scissor->maxy - 1) << R300_CLIPRECT_Y_SHIFT));
} else {
OUT_CS(((scissor->minx + 1440) << R300_CLIPRECT_X_SHIFT) |
((scissor->miny + 1440) << R300_CLIPRECT_Y_SHIFT));
OUT_CS(((scissor->maxx + 1440-1) << R300_CLIPRECT_X_SHIFT) |
((scissor->maxy + 1440-1) << R300_CLIPRECT_Y_SHIFT));
}
END_CS;
}
void r300_emit_gpu_flush(struct r300_context *r300, unsigned size, void *state)
{
struct r300_gpu_flush *gpuflush = (struct r300_gpu_flush*)state;
struct pipe_framebuffer_state* fb =
(struct pipe_framebuffer_state*)r300->fb_state.state;
uint32_t height = fb->height;
uint32_t width = fb->width;
CS_LOCALS(r300);
if (r300->cbzb_clear) {
struct r300_surface *surf = r300_surface(fb->cbufs[0]);
height = surf->cbzb_height;
width = surf->cbzb_width;
}
DBG(r300, DBG_SCISSOR,
"r300: Scissor width: %i, height: %i, CBZB clear: %s\n",
width, height, r300->cbzb_clear ? "YES" : "NO");
BEGIN_CS(size);
/* Set up scissors.
* By writing to the SC registers, SC & US assert idle. */
OUT_CS_REG_SEQ(R300_SC_SCISSORS_TL, 2);
if (r300->screen->caps.is_r500) {
OUT_CS(0);
OUT_CS(((width - 1) << R300_SCISSORS_X_SHIFT) |
((height - 1) << R300_SCISSORS_Y_SHIFT));
} else {
OUT_CS((1440 << R300_SCISSORS_X_SHIFT) |
(1440 << R300_SCISSORS_Y_SHIFT));
OUT_CS(((width + 1440-1) << R300_SCISSORS_X_SHIFT) |
((height + 1440-1) << R300_SCISSORS_Y_SHIFT));
}
/* Flush CB & ZB caches and wait until the 3D engine is idle and clean. */
OUT_CS_TABLE(gpuflush->cb_flush_clean, 6);
END_CS;
}
void r300_emit_vertex_arrays_swtcl(struct r300_context *r300, boolean indexed)
{
CS_LOCALS(r300);
DBG(r300, DBG_SWTCL, "r300: Preparing vertex buffer %p for render, "
"vertex size %d\n", r300->vbo,
r300->vertex_info.size);
/* Set the pointer to our vertex buffer. The emitted values are this:
* PACKET3 [3D_LOAD_VBPNTR]
* COUNT [1]
* FORMAT [size | stride << 8]
* OFFSET [offset into BO]
* VBPNTR [relocated BO]
*/
BEGIN_CS(7);
OUT_CS_PKT3(R300_PACKET3_3D_LOAD_VBPNTR, 3);
OUT_CS(1 | (!indexed ? R300_VC_FORCE_PREFETCH : 0));
OUT_CS(r300->vertex_info.size |
(r300->vertex_info.size << 8));
OUT_CS(r300->draw_vbo_offset);
OUT_CS(0);
assert(r300->vbo_cs);
OUT_CS(0xc0001000); /* PKT3_NOP */
OUT_CS(r300->rws->cs_get_reloc(r300->cs, r300->vbo_cs) * 4);
END_CS;
}
static void r300_emit_draw_arrays(struct r300_context *r300,
unsigned mode,
unsigned count)
{
CS_LOCALS(r300);
BEGIN_CS(4);
OUT_CS_REG(R300_VAP_VF_MAX_VTX_INDX, count);
OUT_CS_PKT3(R300_PACKET3_3D_DRAW_VBUF_2, 0);
OUT_CS(R300_VAP_VF_CNTL__PRIM_WALK_VERTEX_LIST | (count << 16) |
r300_translate_primitive(mode));
END_CS;
}
void r300_emit_rs_block_state(struct r300_context* r300,
unsigned size, void* state)
{
struct r300_rs_block* rs = (struct r300_rs_block*)state;
unsigned i;
/* It's the same for both INST and IP tables */
unsigned count = (rs->inst_count & R300_RS_INST_COUNT_MASK) + 1;
CS_LOCALS(r300);
if (DBG_ON(r300, DBG_RS_BLOCK)) {
r500_dump_rs_block(rs);
fprintf(stderr, "r300: RS emit:\n");
for (i = 0; i < count; i++)
fprintf(stderr, " : ip %d: 0x%08x\n", i, rs->ip[i]);
for (i = 0; i < count; i++)
fprintf(stderr, " : inst %d: 0x%08x\n", i, rs->inst[i]);
fprintf(stderr, " : count: 0x%08x inst_count: 0x%08x\n",
rs->count, rs->inst_count);
}
BEGIN_CS(size);
OUT_CS_REG_SEQ(R300_VAP_VTX_STATE_CNTL, 2);
OUT_CS(rs->vap_vtx_state_cntl);
OUT_CS(rs->vap_vsm_vtx_assm);
OUT_CS_REG_SEQ(R300_VAP_OUTPUT_VTX_FMT_0, 2);
OUT_CS(rs->vap_out_vtx_fmt[0]);
OUT_CS(rs->vap_out_vtx_fmt[1]);
OUT_CS_REG_SEQ(R300_GB_ENABLE, 1);
OUT_CS(rs->gb_enable);
if (r300->screen->caps.is_r500) {
OUT_CS_REG_SEQ(R500_RS_IP_0, count);
} else {
OUT_CS_REG_SEQ(R300_RS_IP_0, count);
}
OUT_CS_TABLE(rs->ip, count);
OUT_CS_REG_SEQ(R300_RS_COUNT, 2);
OUT_CS(rs->count);
OUT_CS(rs->inst_count);
if (r300->screen->caps.is_r500) {
OUT_CS_REG_SEQ(R500_RS_INST_0, count);
} else {
OUT_CS_REG_SEQ(R300_RS_INST_0, count);
}
OUT_CS_TABLE(rs->inst, count);
END_CS;
}
void r300_emit_zmask_clear(struct r300_context *r300, unsigned size, void *state)
{
struct pipe_framebuffer_state *fb =
(struct pipe_framebuffer_state*)r300->fb_state.state;
struct r300_resource *tex;
CS_LOCALS(r300);
tex = r300_resource(fb->zsbuf->texture);
BEGIN_CS(size);
OUT_CS_REG(R300_ZB_ZCACHE_CTLSTAT,
R300_ZB_ZCACHE_CTLSTAT_ZC_FLUSH_FLUSH_AND_FREE |
R300_ZB_ZCACHE_CTLSTAT_ZC_FREE_FREE);
OUT_CS_PKT3(R300_PACKET3_3D_CLEAR_ZMASK, 2);
OUT_CS(0);
OUT_CS(tex->tex.zmask_dwords[fb->zsbuf->u.tex.level]);
OUT_CS(0);
END_CS;
/* Mark the current zbuffer's zmask as in use. */
r300->zmask_in_use = TRUE;
r300_mark_atom_dirty(r300, &r300->hyperz_state);
}
static void r300_flush_and_cleanup(struct r300_context *r300, unsigned flags,
struct pipe_fence_handle **fence)
{
struct r300_atom *atom;
r300_emit_hyperz_end(r300);
r300_emit_query_end(r300);
if (r300->screen->caps.is_r500)
r500_emit_index_bias(r300, 0);
/* The DDX doesn't set these regs. */
if (r300->screen->info.drm_minor >= 6) {
CS_LOCALS(r300);
OUT_CS_REG_SEQ(R300_GB_MSPOS0, 2);
OUT_CS(0x66666666);
OUT_CS(0x6666666);
}
r300->flush_counter++;
r300->rws->cs_flush(r300->cs, flags, fence, 0);
r300->dirty_hw = 0;
/* New kitchen sink, baby. */
foreach_atom(r300, atom) {
if (atom->state || atom->allow_null_state) {
r300_mark_atom_dirty(r300, atom);
}
}
r300->vertex_arrays_dirty = TRUE;
/* Unmark HWTCL state for SWTCL. */
if (!r300->screen->caps.has_tcl) {
r300->vs_state.dirty = FALSE;
r300->vs_constants.dirty = FALSE;
r300->clip_state.dirty = FALSE;
}
}
static void r300_render_draw(struct vbuf_render* render,
const ushort* indices,
uint count)
{
struct r300_render* r300render = r300_render(render);
struct r300_context* r300 = r300render->r300;
int i;
CS_LOCALS(r300);
r300_emit_dirty_state(r300);
BEGIN_CS(2 + (count+1)/2);
OUT_CS_PKT3(R300_PACKET3_3D_DRAW_INDX_2, (count+1)/2);
OUT_CS(R300_VAP_VF_CNTL__PRIM_WALK_INDICES | (count << 16) |
r300render->hwprim);
for (i = 0; i < count-1; i += 2) {
OUT_CS(indices[i+1] << 16 | indices[i]);
}
if (count % 2) {
OUT_CS(indices[count-1]);
}
END_CS;
}
static void r300_render_draw_arrays(struct vbuf_render* render,
unsigned start,
unsigned count)
{
struct r300_render* r300render = r300_render(render);
struct r300_context* r300 = r300render->r300;
CS_LOCALS(r300);
r300_emit_dirty_state(r300);
DBG(r300, DBG_DRAW, "r300: Doing vbuf render, count %d\n", count);
BEGIN_CS(2);
OUT_CS_PKT3(R300_PACKET3_3D_DRAW_VBUF_2, 0);
OUT_CS(R300_VAP_VF_CNTL__PRIM_WALK_VERTEX_LIST | (count << 16) |
r300render->hwprim);
END_CS;
}
static void r300_render_draw_arrays(struct vbuf_render* render,
unsigned start,
unsigned count)
{
struct r300_render* r300render = r300_render(render);
struct r300_context* r300 = r300render->r300;
uint8_t* ptr;
unsigned i;
unsigned dwords = 6;
CS_LOCALS(r300);
(void) i; (void) ptr;
DBG(r300, DBG_DRAW, "r300: render_draw_arrays (count: %d)\n", count);
if (r300->draw_first_emitted) {
if (!r300_prepare_for_rendering(r300,
PREP_EMIT_STATES | PREP_EMIT_VARRAYS_SWTCL,
NULL, dwords, 0, 0, -1))
return;
} else {
if (!r300_emit_states(r300,
PREP_EMIT_STATES | PREP_EMIT_VARRAYS_SWTCL,
NULL, 0, 0, -1))
return;
}
BEGIN_CS(dwords);
OUT_CS_REG(R300_GA_COLOR_CONTROL,
r300_provoking_vertex_fixes(r300, r300render->prim));
OUT_CS_REG(R300_VAP_VF_MAX_VTX_INDX, count - 1);
OUT_CS_PKT3(R300_PACKET3_3D_DRAW_VBUF_2, 0);
OUT_CS(R300_VAP_VF_CNTL__PRIM_WALK_VERTEX_LIST | (count << 16) |
r300render->hwprim);
END_CS;
r300->draw_first_emitted = TRUE;
}
void r300_emit_fb_state_pipelined(struct r300_context *r300,
unsigned size, void *state)
{
struct pipe_framebuffer_state* fb =
(struct pipe_framebuffer_state*)r300->fb_state.state;
unsigned i, num_cbufs = fb->nr_cbufs;
unsigned mspos0, mspos1;
CS_LOCALS(r300);
/* If we use the multiwrite feature, the colorbuffers 2,3,4 must be
* marked as UNUSED in the US block. */
if (r300->fb_multiwrite) {
num_cbufs = MIN2(num_cbufs, 1);
}
BEGIN_CS(size);
/* Colorbuffer format in the US block.
* (must be written after unpipelined regs) */
OUT_CS_REG_SEQ(R300_US_OUT_FMT_0, 4);
for (i = 0; i < num_cbufs; i++) {
OUT_CS(r300_surface(fb->cbufs[i])->format);
}
for (; i < 1; i++) {
OUT_CS(R300_US_OUT_FMT_C4_8 |
R300_C0_SEL_B | R300_C1_SEL_G |
R300_C2_SEL_R | R300_C3_SEL_A);
}
for (; i < 4; i++) {
OUT_CS(R300_US_OUT_FMT_UNUSED);
}
/* Multisampling. Depends on framebuffer sample count.
* These are pipelined regs and as such cannot be moved
* to the AA state. */
mspos0 = 0x66666666;
mspos1 = 0x6666666;
if (fb->nr_cbufs && fb->cbufs[0]->texture->nr_samples > 1) {
/* Subsample placement. These may not be optimal. */
switch (fb->cbufs[0]->texture->nr_samples) {
case 2:
mspos0 = 0x33996633;
mspos1 = 0x6666663;
break;
case 3:
mspos0 = 0x33936933;
mspos1 = 0x6666663;
break;
case 4:
mspos0 = 0x33939933;
mspos1 = 0x3966663;
break;
case 6:
mspos0 = 0x22a2aa22;
mspos1 = 0x2a65672;
break;
default:
debug_printf("r300: Bad number of multisamples!\n");
}
}
OUT_CS_REG_SEQ(R300_GB_MSPOS0, 2);
OUT_CS(mspos0);
OUT_CS(mspos1);
END_CS;
}
static void r300_emit_draw_elements(struct r300_context *r300,
struct pipe_resource* indexBuffer,
unsigned indexSize,
unsigned max_index,
unsigned mode,
unsigned start,
unsigned count,
uint16_t *imm_indices3)
{
uint32_t count_dwords, offset_dwords;
boolean alt_num_verts = count > 65535;
CS_LOCALS(r300);
if (count >= (1 << 24)) {
fprintf(stderr, "r300: Got a huge number of vertices: %i, "
"refusing to render (max_index: %i).\n", count, max_index);
return;
}
DBG(r300, DBG_DRAW, "r300: Indexbuf of %u indices, max %u\n",
count, max_index);
r300_emit_draw_init(r300, mode, max_index);
/* If start is odd, render the first triangle with indices embedded
* in the command stream. This will increase start by 3 and make it
* even. We can then proceed without a fallback. */
if (indexSize == 2 && (start & 1) &&
mode == PIPE_PRIM_TRIANGLES) {
BEGIN_CS(4);
OUT_CS_PKT3(R300_PACKET3_3D_DRAW_INDX_2, 2);
OUT_CS(R300_VAP_VF_CNTL__PRIM_WALK_INDICES | (3 << 16) |
R300_VAP_VF_CNTL__PRIM_TRIANGLES);
OUT_CS(imm_indices3[1] << 16 | imm_indices3[0]);
OUT_CS(imm_indices3[2]);
END_CS;
start += 3;
count -= 3;
if (!count)
return;
}
offset_dwords = indexSize * start / sizeof(uint32_t);
BEGIN_CS(8 + (alt_num_verts ? 2 : 0));
if (alt_num_verts) {
OUT_CS_REG(R500_VAP_ALT_NUM_VERTICES, count);
}
OUT_CS_PKT3(R300_PACKET3_3D_DRAW_INDX_2, 0);
if (indexSize == 4) {
count_dwords = count;
OUT_CS(R300_VAP_VF_CNTL__PRIM_WALK_INDICES | (count << 16) |
R300_VAP_VF_CNTL__INDEX_SIZE_32bit |
r300_translate_primitive(mode) |
(alt_num_verts ? R500_VAP_VF_CNTL__USE_ALT_NUM_VERTS : 0));
} else {
count_dwords = (count + 1) / 2;
OUT_CS(R300_VAP_VF_CNTL__PRIM_WALK_INDICES | (count << 16) |
r300_translate_primitive(mode) |
(alt_num_verts ? R500_VAP_VF_CNTL__USE_ALT_NUM_VERTS : 0));
}
OUT_CS_PKT3(R300_PACKET3_INDX_BUFFER, 2);
OUT_CS(R300_INDX_BUFFER_ONE_REG_WR | (R300_VAP_PORT_IDX0 >> 2) |
(0 << R300_INDX_BUFFER_SKIP_SHIFT));
OUT_CS(offset_dwords << 2);
OUT_CS(count_dwords);
OUT_CS_RELOC(r300_resource(indexBuffer));
END_CS;
}
static void amdgpu_cs_flush(struct radeon_winsys_cs *rcs,
unsigned flags,
struct pipe_fence_handle **fence,
uint32_t cs_trace_id)
{
struct amdgpu_cs *cs = amdgpu_cs(rcs);
struct amdgpu_winsys *ws = cs->ctx->ws;
switch (cs->base.ring_type) {
case RING_DMA:
/* pad DMA ring to 8 DWs */
while (rcs->cdw & 7)
OUT_CS(&cs->base, 0x00000000); /* NOP packet */
break;
case RING_GFX:
/* pad GFX ring to 8 DWs to meet CP fetch alignment requirements */
while (rcs->cdw & 7)
OUT_CS(&cs->base, 0xffff1000); /* type3 nop packet */
break;
case RING_UVD:
while (rcs->cdw & 15)
OUT_CS(&cs->base, 0x80000000); /* type2 nop packet */
break;
default:
break;
}
if (rcs->cdw > rcs->max_dw) {
fprintf(stderr, "amdgpu: command stream overflowed\n");
}
amdgpu_cs_add_buffer(rcs, (void*)cs->big_ib_winsys_buffer,
RADEON_USAGE_READ, 0, RADEON_PRIO_IB1);
/* If the CS is not empty or overflowed.... */
if (cs->base.cdw && cs->base.cdw <= cs->base.max_dw && !debug_get_option_noop()) {
int r;
r = amdgpu_bo_list_create(ws->dev, cs->num_buffers,
cs->handles, cs->flags,
&cs->request.resources);
if (r) {
fprintf(stderr, "amdgpu: resource list creation failed (%d)\n", r);
cs->request.resources = NULL;
goto cleanup;
}
cs->ib.size = cs->base.cdw;
cs->used_ib_space += cs->base.cdw * 4;
amdgpu_cs_do_submission(cs, fence);
/* Cleanup. */
if (cs->request.resources)
amdgpu_bo_list_destroy(cs->request.resources);
}
cleanup:
amdgpu_cs_context_cleanup(cs);
amdgpu_get_new_ib(cs);
ws->num_cs_flushes++;
}
/* This functions is used to draw a rectangle for the blitter module.
*
* If we rendered a quad, the pixels on the main diagonal
* would be computed and stored twice, which makes the clear/copy codepaths
* somewhat inefficient. Instead we use a rectangular point sprite. */
void r300_blitter_draw_rectangle(struct blitter_context *blitter,
int x1, int y1, int x2, int y2,
float depth,
enum blitter_attrib_type type,
const union pipe_color_union *attrib)
{
struct r300_context *r300 = r300_context(util_blitter_get_pipe(blitter));
unsigned last_sprite_coord_enable = r300->sprite_coord_enable;
unsigned width = x2 - x1;
unsigned height = y2 - y1;
unsigned vertex_size =
type == UTIL_BLITTER_ATTRIB_COLOR || !r300->draw ? 8 : 4;
unsigned dwords = 13 + vertex_size +
(type == UTIL_BLITTER_ATTRIB_TEXCOORD ? 7 : 0);
static const union pipe_color_union zeros;
CS_LOCALS(r300);
/* XXX workaround for a lockup in MSAA resolve on SWTCL chipsets, this
* function most probably doesn't handle type=NONE correctly */
if (!r300->screen->caps.has_tcl && type == UTIL_BLITTER_ATTRIB_NONE) {
util_blitter_draw_rectangle(blitter, x1, y1, x2, y2, depth, type, attrib);
return;
}
if (r300->skip_rendering)
return;
if (type == UTIL_BLITTER_ATTRIB_TEXCOORD)
r300->sprite_coord_enable = 1;
r300_update_derived_state(r300);
/* Mark some states we don't care about as non-dirty. */
r300->viewport_state.dirty = FALSE;
if (!r300_prepare_for_rendering(r300, PREP_EMIT_STATES, NULL, dwords, 0, 0, -1))
goto done;
DBG(r300, DBG_DRAW, "r300: draw_rectangle\n");
BEGIN_CS(dwords);
/* Set up GA. */
OUT_CS_REG(R300_GA_POINT_SIZE, (height * 6) | ((width * 6) << 16));
if (type == UTIL_BLITTER_ATTRIB_TEXCOORD) {
/* Set up the GA to generate texcoords. */
OUT_CS_REG(R300_GB_ENABLE, R300_GB_POINT_STUFF_ENABLE |
(R300_GB_TEX_STR << R300_GB_TEX0_SOURCE_SHIFT));
OUT_CS_REG_SEQ(R300_GA_POINT_S0, 4);
OUT_CS_32F(attrib->f[0]);
OUT_CS_32F(attrib->f[3]);
OUT_CS_32F(attrib->f[2]);
OUT_CS_32F(attrib->f[1]);
}
/* Set up VAP controls. */
OUT_CS_REG(R300_VAP_CLIP_CNTL, R300_CLIP_DISABLE);
OUT_CS_REG(R300_VAP_VTE_CNTL, R300_VTX_XY_FMT | R300_VTX_Z_FMT);
OUT_CS_REG(R300_VAP_VTX_SIZE, vertex_size);
OUT_CS_REG_SEQ(R300_VAP_VF_MAX_VTX_INDX, 2);
OUT_CS(1);
OUT_CS(0);
/* Draw. */
OUT_CS_PKT3(R300_PACKET3_3D_DRAW_IMMD_2, vertex_size);
OUT_CS(R300_VAP_VF_CNTL__PRIM_WALK_VERTEX_EMBEDDED | (1 << 16) |
R300_VAP_VF_CNTL__PRIM_POINTS);
OUT_CS_32F(x1 + width * 0.5f);
OUT_CS_32F(y1 + height * 0.5f);
OUT_CS_32F(depth);
OUT_CS_32F(1);
if (vertex_size == 8) {
if (!attrib)
attrib = &zeros;
OUT_CS_TABLE(attrib->f, 4);
}
END_CS;
done:
/* Restore the state. */
r300_mark_atom_dirty(r300, &r300->rs_state);
r300_mark_atom_dirty(r300, &r300->viewport_state);
r300->sprite_coord_enable = last_sprite_coord_enable;
}
static void radeon_drm_cs_flush(struct radeon_winsys_cs *rcs,
unsigned flags,
struct pipe_fence_handle **fence,
uint32_t cs_trace_id)
{
struct radeon_drm_cs *cs = radeon_drm_cs(rcs);
struct radeon_cs_context *tmp;
switch (cs->base.ring_type) {
case RING_DMA:
/* pad DMA ring to 8 DWs */
if (cs->ws->info.chip_class <= SI) {
while (rcs->cdw & 7)
OUT_CS(&cs->base, 0xf0000000); /* NOP packet */
} else {
while (rcs->cdw & 7)
OUT_CS(&cs->base, 0x00000000); /* NOP packet */
}
break;
case RING_GFX:
/* pad DMA ring to 8 DWs to meet CP fetch alignment requirements
* r6xx, requires at least 4 dw alignment to avoid a hw bug.
* hawaii with old firmware needs type2 nop packet.
* accel_working2 with value 3 indicates the new firmware.
*/
if (cs->ws->info.chip_class <= SI ||
(cs->ws->info.family == CHIP_HAWAII &&
cs->ws->accel_working2 < 3)) {
while (rcs->cdw & 7)
OUT_CS(&cs->base, 0x80000000); /* type2 nop packet */
} else {
while (rcs->cdw & 7)
OUT_CS(&cs->base, 0xffff1000); /* type3 nop packet */
}
break;
case RING_UVD:
while (rcs->cdw & 15)
OUT_CS(&cs->base, 0x80000000); /* type2 nop packet */
break;
default:
break;
}
if (rcs->cdw > RADEON_MAX_CMDBUF_DWORDS) {
fprintf(stderr, "radeon: command stream overflowed\n");
}
if (fence) {
radeon_fence_reference(fence, NULL);
*fence = radeon_cs_create_fence(rcs);
}
radeon_drm_cs_sync_flush(rcs);
/* Swap command streams. */
tmp = cs->csc;
cs->csc = cs->cst;
cs->cst = tmp;
cs->cst->cs_trace_id = cs_trace_id;
/* If the CS is not empty or overflowed, emit it in a separate thread. */
if (cs->base.cdw && cs->base.cdw <= RADEON_MAX_CMDBUF_DWORDS && !debug_get_option_noop()) {
unsigned i, crelocs;
crelocs = cs->cst->crelocs;
cs->cst->chunks[0].length_dw = cs->base.cdw;
for (i = 0; i < crelocs; i++) {
/* Update the number of active asynchronous CS ioctls for the buffer. */
p_atomic_inc(&cs->cst->relocs_bo[i]->num_active_ioctls);
}
switch (cs->base.ring_type) {
case RING_DMA:
cs->cst->flags[0] = 0;
cs->cst->flags[1] = RADEON_CS_RING_DMA;
cs->cst->cs.num_chunks = 3;
if (cs->ws->info.r600_virtual_address) {
cs->cst->flags[0] |= RADEON_CS_USE_VM;
}
break;
case RING_UVD:
cs->cst->flags[0] = 0;
cs->cst->flags[1] = RADEON_CS_RING_UVD;
cs->cst->cs.num_chunks = 3;
break;
case RING_VCE:
cs->cst->flags[0] = 0;
cs->cst->flags[1] = RADEON_CS_RING_VCE;
cs->cst->cs.num_chunks = 3;
break;
default:
case RING_GFX:
cs->cst->flags[0] = 0;
cs->cst->flags[1] = RADEON_CS_RING_GFX;
cs->cst->cs.num_chunks = 2;
if (flags & RADEON_FLUSH_KEEP_TILING_FLAGS) {
cs->cst->flags[0] |= RADEON_CS_KEEP_TILING_FLAGS;
cs->cst->cs.num_chunks = 3;
}
if (cs->ws->info.r600_virtual_address) {
cs->cst->flags[0] |= RADEON_CS_USE_VM;
cs->cst->cs.num_chunks = 3;
}
if (flags & RADEON_FLUSH_END_OF_FRAME) {
cs->cst->flags[0] |= RADEON_CS_END_OF_FRAME;
cs->cst->cs.num_chunks = 3;
}
if (flags & RADEON_FLUSH_COMPUTE) {
cs->cst->flags[1] = RADEON_CS_RING_COMPUTE;
cs->cst->cs.num_chunks = 3;
}
break;
}
if (cs->ws->thread) {
pipe_semaphore_wait(&cs->flush_completed);
radeon_drm_ws_queue_cs(cs->ws, cs);
if (!(flags & RADEON_FLUSH_ASYNC))
radeon_drm_cs_sync_flush(rcs);
} else {
radeon_drm_cs_emit_ioctl_oneshot(cs, cs->cst);
}
} else {
radeon_cs_context_cleanup(cs->cst);
}
/* Prepare a new CS. */
cs->base.buf = cs->csc->buf;
cs->base.cdw = 0;
cs->ws->num_cs_flushes++;
}
void r300_emit_vertex_arrays(struct r300_context* r300, int offset,
boolean indexed, int instance_id)
{
struct pipe_vertex_buffer *vbuf = r300->vertex_buffer;
struct pipe_vertex_element *velem = r300->velems->velem;
struct r300_resource *buf;
int i;
unsigned vertex_array_count = r300->velems->count;
unsigned packet_size = (vertex_array_count * 3 + 1) / 2;
struct pipe_vertex_buffer *vb1, *vb2;
unsigned *hw_format_size = r300->velems->format_size;
unsigned size1, size2, offset1, offset2, stride1, stride2;
CS_LOCALS(r300);
BEGIN_CS(2 + packet_size + vertex_array_count * 2);
OUT_CS_PKT3(R300_PACKET3_3D_LOAD_VBPNTR, packet_size);
OUT_CS(vertex_array_count | (!indexed ? R300_VC_FORCE_PREFETCH : 0));
if (instance_id == -1) {
/* Non-instanced arrays. This ignores instance_divisor and instance_id. */
for (i = 0; i < vertex_array_count - 1; i += 2) {
vb1 = &vbuf[velem[i].vertex_buffer_index];
vb2 = &vbuf[velem[i+1].vertex_buffer_index];
size1 = hw_format_size[i];
size2 = hw_format_size[i+1];
OUT_CS(R300_VBPNTR_SIZE0(size1) | R300_VBPNTR_STRIDE0(vb1->stride) |
R300_VBPNTR_SIZE1(size2) | R300_VBPNTR_STRIDE1(vb2->stride));
OUT_CS(vb1->buffer_offset + velem[i].src_offset + offset * vb1->stride);
OUT_CS(vb2->buffer_offset + velem[i+1].src_offset + offset * vb2->stride);
}
if (vertex_array_count & 1) {
vb1 = &vbuf[velem[i].vertex_buffer_index];
size1 = hw_format_size[i];
OUT_CS(R300_VBPNTR_SIZE0(size1) | R300_VBPNTR_STRIDE0(vb1->stride));
OUT_CS(vb1->buffer_offset + velem[i].src_offset + offset * vb1->stride);
}
for (i = 0; i < vertex_array_count; i++) {
buf = r300_resource(vbuf[velem[i].vertex_buffer_index].buffer);
OUT_CS_RELOC(buf);
}
} else {
/* Instanced arrays. */
for (i = 0; i < vertex_array_count - 1; i += 2) {
vb1 = &vbuf[velem[i].vertex_buffer_index];
vb2 = &vbuf[velem[i+1].vertex_buffer_index];
size1 = hw_format_size[i];
size2 = hw_format_size[i+1];
if (velem[i].instance_divisor) {
stride1 = 0;
offset1 = vb1->buffer_offset + velem[i].src_offset +
(instance_id / velem[i].instance_divisor) * vb1->stride;
} else {
stride1 = vb1->stride;
offset1 = vb1->buffer_offset + velem[i].src_offset + offset * vb1->stride;
}
if (velem[i+1].instance_divisor) {
stride2 = 0;
offset2 = vb2->buffer_offset + velem[i+1].src_offset +
(instance_id / velem[i+1].instance_divisor) * vb2->stride;
} else {
stride2 = vb2->stride;
offset2 = vb2->buffer_offset + velem[i+1].src_offset + offset * vb2->stride;
}
OUT_CS(R300_VBPNTR_SIZE0(size1) | R300_VBPNTR_STRIDE0(stride1) |
R300_VBPNTR_SIZE1(size2) | R300_VBPNTR_STRIDE1(stride2));
OUT_CS(offset1);
OUT_CS(offset2);
}
if (vertex_array_count & 1) {
vb1 = &vbuf[velem[i].vertex_buffer_index];
size1 = hw_format_size[i];
if (velem[i].instance_divisor) {
stride1 = 0;
offset1 = vb1->buffer_offset + velem[i].src_offset +
(instance_id / velem[i].instance_divisor) * vb1->stride;
} else {
stride1 = vb1->stride;
offset1 = vb1->buffer_offset + velem[i].src_offset + offset * vb1->stride;
}
OUT_CS(R300_VBPNTR_SIZE0(size1) | R300_VBPNTR_STRIDE0(stride1));
OUT_CS(offset1);
}
for (i = 0; i < vertex_array_count; i++) {
buf = r300_resource(vbuf[velem[i].vertex_buffer_index].buffer);
OUT_CS_RELOC(buf);
}
}
END_CS;
}
void r300_emit_fb_state(struct r300_context* r300, unsigned size, void* state)
{
struct pipe_framebuffer_state* fb = (struct pipe_framebuffer_state*)state;
struct r300_surface* surf;
unsigned i;
uint32_t rb3d_cctl = 0;
CS_LOCALS(r300);
BEGIN_CS(size);
if (r300->screen->caps.is_r500) {
rb3d_cctl = R300_RB3D_CCTL_INDEPENDENT_COLORFORMAT_ENABLE_ENABLE;
}
/* NUM_MULTIWRITES replicates COLOR[0] to all colorbuffers. */
if (fb->nr_cbufs && r300->fb_multiwrite) {
rb3d_cctl |= R300_RB3D_CCTL_NUM_MULTIWRITES(fb->nr_cbufs);
}
if (r300->cmask_in_use) {
rb3d_cctl |= R300_RB3D_CCTL_AA_COMPRESSION_ENABLE |
R300_RB3D_CCTL_CMASK_ENABLE;
}
OUT_CS_REG(R300_RB3D_CCTL, rb3d_cctl);
/* Set up colorbuffers. */
for (i = 0; i < fb->nr_cbufs; i++) {
surf = r300_surface(r300_get_nonnull_cb(fb, i));
OUT_CS_REG(R300_RB3D_COLOROFFSET0 + (4 * i), surf->offset);
OUT_CS_RELOC(surf);
OUT_CS_REG(R300_RB3D_COLORPITCH0 + (4 * i), surf->pitch);
OUT_CS_RELOC(surf);
if (r300->cmask_in_use && i == 0) {
OUT_CS_REG(R300_RB3D_CMASK_OFFSET0, 0);
OUT_CS_REG(R300_RB3D_CMASK_PITCH0, surf->pitch_cmask);
OUT_CS_REG(R300_RB3D_COLOR_CLEAR_VALUE, r300->color_clear_value);
if (r300->screen->caps.is_r500 && r300->screen->info.drm_minor >= 29) {
OUT_CS_REG_SEQ(R500_RB3D_COLOR_CLEAR_VALUE_AR, 2);
OUT_CS(r300->color_clear_value_ar);
OUT_CS(r300->color_clear_value_gb);
}
}
}
/* Set up the ZB part of the CBZB clear. */
if (r300->cbzb_clear) {
surf = r300_surface(fb->cbufs[0]);
OUT_CS_REG(R300_ZB_FORMAT, surf->cbzb_format);
OUT_CS_REG(R300_ZB_DEPTHOFFSET, surf->cbzb_midpoint_offset);
OUT_CS_RELOC(surf);
OUT_CS_REG(R300_ZB_DEPTHPITCH, surf->cbzb_pitch);
OUT_CS_RELOC(surf);
DBG(r300, DBG_CBZB,
"CBZB clearing cbuf %08x %08x\n", surf->cbzb_format,
surf->cbzb_pitch);
}
/* Set up a zbuffer. */
else if (fb->zsbuf) {
surf = r300_surface(fb->zsbuf);
OUT_CS_REG(R300_ZB_FORMAT, surf->format);
OUT_CS_REG(R300_ZB_DEPTHOFFSET, surf->offset);
OUT_CS_RELOC(surf);
OUT_CS_REG(R300_ZB_DEPTHPITCH, surf->pitch);
OUT_CS_RELOC(surf);
if (r300->hyperz_enabled) {
/* HiZ RAM. */
OUT_CS_REG(R300_ZB_HIZ_OFFSET, 0);
OUT_CS_REG(R300_ZB_HIZ_PITCH, surf->pitch_hiz);
/* Z Mask RAM. (compressed zbuffer) */
OUT_CS_REG(R300_ZB_ZMASK_OFFSET, 0);
OUT_CS_REG(R300_ZB_ZMASK_PITCH, surf->pitch_zmask);
}
}
END_CS;
}
void r300_emit_fb_state_pipelined(struct r300_context *r300,
unsigned size, void *state)
{
/* The sample coordinates are in the range [0,11], because
* GB_TILE_CONFIG.SUBPIXEL is set to the 1/12 subpixel precision.
*
* Some sample coordinates reach to neighboring pixels and should not be used.
* (e.g. Y=11)
*
* The unused samples must be set to the positions of other valid samples. */
static unsigned sample_locs_1x[12] = {
6,6, 6,6, 6,6, 6,6, 6,6, 6,6
};
static unsigned sample_locs_2x[12] = {
3,9, 9,3, 9,3, 9,3, 9,3, 9,3
};
static unsigned sample_locs_4x[12] = {
4,4, 8,8, 2,10, 10,2, 10,2, 10,2
};
static unsigned sample_locs_6x[12] = {
3,1, 7,3, 11,5, 1,7, 5,9, 9,10
};
struct pipe_framebuffer_state* fb =
(struct pipe_framebuffer_state*)r300->fb_state.state;
unsigned i, num_cbufs = fb->nr_cbufs;
unsigned mspos0, mspos1;
CS_LOCALS(r300);
/* If we use the multiwrite feature, the colorbuffers 2,3,4 must be
* marked as UNUSED in the US block. */
if (r300->fb_multiwrite) {
num_cbufs = MIN2(num_cbufs, 1);
}
BEGIN_CS(size);
/* Colorbuffer format in the US block.
* (must be written after unpipelined regs) */
OUT_CS_REG_SEQ(R300_US_OUT_FMT_0, 4);
for (i = 0; i < num_cbufs; i++) {
OUT_CS(r300_surface(r300_get_nonnull_cb(fb, i))->format);
}
for (; i < 1; i++) {
OUT_CS(R300_US_OUT_FMT_C4_8 |
R300_C0_SEL_B | R300_C1_SEL_G |
R300_C2_SEL_R | R300_C3_SEL_A);
}
for (; i < 4; i++) {
OUT_CS(R300_US_OUT_FMT_UNUSED);
}
/* Set sample positions. It depends on the framebuffer sample count.
* These are pipelined regs and as such cannot be moved to the AA state.
*/
switch (r300->num_samples) {
default:
mspos0 = r300_get_mspos(0, sample_locs_1x);
mspos1 = r300_get_mspos(1, sample_locs_1x);
break;
case 2:
mspos0 = r300_get_mspos(0, sample_locs_2x);
mspos1 = r300_get_mspos(1, sample_locs_2x);
break;
case 4:
mspos0 = r300_get_mspos(0, sample_locs_4x);
mspos1 = r300_get_mspos(1, sample_locs_4x);
break;
case 6:
mspos0 = r300_get_mspos(0, sample_locs_6x);
mspos1 = r300_get_mspos(1, sample_locs_6x);
break;
}
OUT_CS_REG_SEQ(R300_GB_MSPOS0, 2);
OUT_CS(mspos0);
OUT_CS(mspos1);
END_CS;
}
static int radeon_drm_cs_flush(struct radeon_winsys_cs *rcs,
unsigned flags,
struct pipe_fence_handle **fence)
{
struct radeon_drm_cs *cs = radeon_drm_cs(rcs);
struct radeon_cs_context *tmp;
switch (cs->ring_type) {
case RING_DMA:
/* pad DMA ring to 8 DWs */
if (cs->ws->info.chip_class <= SI) {
while (rcs->current.cdw & 7)
OUT_CS(&cs->base, 0xf0000000); /* NOP packet */
} else {
while (rcs->current.cdw & 7)
OUT_CS(&cs->base, 0x00000000); /* NOP packet */
}
break;
case RING_GFX:
/* pad GFX ring to 8 DWs to meet CP fetch alignment requirements
* r6xx, requires at least 4 dw alignment to avoid a hw bug.
*/
if (cs->ws->info.gfx_ib_pad_with_type2) {
while (rcs->current.cdw & 7)
OUT_CS(&cs->base, 0x80000000); /* type2 nop packet */
} else {
while (rcs->current.cdw & 7)
OUT_CS(&cs->base, 0xffff1000); /* type3 nop packet */
}
break;
case RING_UVD:
while (rcs->current.cdw & 15)
OUT_CS(&cs->base, 0x80000000); /* type2 nop packet */
break;
default:
break;
}
if (rcs->current.cdw > rcs->current.max_dw) {
fprintf(stderr, "radeon: command stream overflowed\n");
}
if (fence) {
if (cs->next_fence) {
radeon_fence_reference(fence, cs->next_fence);
} else {
radeon_fence_reference(fence, NULL);
*fence = radeon_cs_create_fence(rcs);
}
}
radeon_fence_reference(&cs->next_fence, NULL);
radeon_drm_cs_sync_flush(rcs);
/* Swap command streams. */
tmp = cs->csc;
cs->csc = cs->cst;
cs->cst = tmp;
/* If the CS is not empty or overflowed, emit it in a separate thread. */
if (cs->base.current.cdw && cs->base.current.cdw <= cs->base.current.max_dw && !debug_get_option_noop()) {
unsigned i, crelocs;
crelocs = cs->cst->crelocs;
cs->cst->chunks[0].length_dw = cs->base.current.cdw;
for (i = 0; i < crelocs; i++) {
/* Update the number of active asynchronous CS ioctls for the buffer. */
p_atomic_inc(&cs->cst->relocs_bo[i].bo->num_active_ioctls);
}
switch (cs->ring_type) {
case RING_DMA:
cs->cst->flags[0] = 0;
cs->cst->flags[1] = RADEON_CS_RING_DMA;
cs->cst->cs.num_chunks = 3;
if (cs->ws->info.has_virtual_memory) {
cs->cst->flags[0] |= RADEON_CS_USE_VM;
}
break;
case RING_UVD:
cs->cst->flags[0] = 0;
cs->cst->flags[1] = RADEON_CS_RING_UVD;
cs->cst->cs.num_chunks = 3;
break;
case RING_VCE:
cs->cst->flags[0] = 0;
cs->cst->flags[1] = RADEON_CS_RING_VCE;
cs->cst->cs.num_chunks = 3;
break;
default:
case RING_GFX:
case RING_COMPUTE:
cs->cst->flags[0] = RADEON_CS_KEEP_TILING_FLAGS;
cs->cst->flags[1] = RADEON_CS_RING_GFX;
cs->cst->cs.num_chunks = 3;
if (cs->ws->info.has_virtual_memory) {
cs->cst->flags[0] |= RADEON_CS_USE_VM;
cs->cst->cs.num_chunks = 3;
}
if (flags & RADEON_FLUSH_END_OF_FRAME) {
cs->cst->flags[0] |= RADEON_CS_END_OF_FRAME;
cs->cst->cs.num_chunks = 3;
}
if (cs->ring_type == RING_COMPUTE) {
cs->cst->flags[1] = RADEON_CS_RING_COMPUTE;
cs->cst->cs.num_chunks = 3;
}
break;
}
if (util_queue_is_initialized(&cs->ws->cs_queue)) {
util_queue_add_job(&cs->ws->cs_queue, cs, &cs->flush_completed,
radeon_drm_cs_emit_ioctl_oneshot, NULL);
if (!(flags & RADEON_FLUSH_ASYNC))
radeon_drm_cs_sync_flush(rcs);
} else {
radeon_drm_cs_emit_ioctl_oneshot(cs, 0);
}
} else {
radeon_cs_context_cleanup(cs->cst);
}
/* Prepare a new CS. */
cs->base.current.buf = cs->csc->buf;
cs->base.current.cdw = 0;
cs->base.used_vram = 0;
cs->base.used_gart = 0;
cs->ws->num_cs_flushes++;
return 0;
}
/* This functions is used to draw a rectangle for the blitter module.
*
* If we rendered a quad, the pixels on the main diagonal
* would be computed and stored twice, which makes the clear/copy codepaths
* somewhat inefficient. Instead we use a rectangular point sprite. */
static void r300_blitter_draw_rectangle(struct blitter_context *blitter,
unsigned x1, unsigned y1,
unsigned x2, unsigned y2,
float depth,
enum blitter_attrib_type type,
const float attrib[4])
{
struct r300_context *r300 = r300_context(util_blitter_get_pipe(blitter));
unsigned last_sprite_coord_enable = r300->sprite_coord_enable;
unsigned width = x2 - x1;
unsigned height = y2 - y1;
unsigned vertex_size =
type == UTIL_BLITTER_ATTRIB_COLOR || !r300->draw ? 8 : 4;
unsigned dwords = 13 + vertex_size +
(type == UTIL_BLITTER_ATTRIB_TEXCOORD ? 7 : 0);
const float zeros[4] = {0, 0, 0, 0};
CS_LOCALS(r300);
if (type == UTIL_BLITTER_ATTRIB_TEXCOORD)
r300->sprite_coord_enable = 1;
r300_update_derived_state(r300);
/* Mark some states we don't care about as non-dirty. */
r300->clip_state.dirty = FALSE;
r300->viewport_state.dirty = FALSE;
if (!r300_prepare_for_rendering(r300, PREP_FIRST_DRAW, NULL, dwords, 0, 0))
goto done;
DBG(r300, DBG_DRAW, "r300: draw_rectangle\n");
BEGIN_CS(dwords);
/* Set up GA. */
OUT_CS_REG(R300_GA_POINT_SIZE, (height * 6) | ((width * 6) << 16));
if (type == UTIL_BLITTER_ATTRIB_TEXCOORD) {
/* Set up the GA to generate texcoords. */
OUT_CS_REG(R300_GB_ENABLE, R300_GB_POINT_STUFF_ENABLE |
(R300_GB_TEX_STR << R300_GB_TEX0_SOURCE_SHIFT));
OUT_CS_REG_SEQ(R300_GA_POINT_S0, 4);
OUT_CS_32F(attrib[0]);
OUT_CS_32F(attrib[3]);
OUT_CS_32F(attrib[2]);
OUT_CS_32F(attrib[1]);
}
/* Set up VAP controls. */
OUT_CS_REG(R300_VAP_CLIP_CNTL, R300_CLIP_DISABLE);
OUT_CS_REG(R300_VAP_VTE_CNTL, R300_VTX_XY_FMT | R300_VTX_Z_FMT);
OUT_CS_REG(R300_VAP_VTX_SIZE, vertex_size);
OUT_CS_REG_SEQ(R300_VAP_VF_MAX_VTX_INDX, 2);
OUT_CS(1);
OUT_CS(0);
/* Draw. */
OUT_CS_PKT3(R300_PACKET3_3D_DRAW_IMMD_2, vertex_size);
OUT_CS(R300_VAP_VF_CNTL__PRIM_WALK_VERTEX_EMBEDDED | (1 << 16) |
R300_VAP_VF_CNTL__PRIM_POINTS);
OUT_CS_32F(x1 + width * 0.5f);
OUT_CS_32F(y1 + height * 0.5f);
OUT_CS_32F(depth);
OUT_CS_32F(1);
if (vertex_size == 8) {
if (!attrib)
attrib = zeros;
OUT_CS_TABLE(attrib, 4);
}
END_CS;
done:
/* Restore the state. */
r300->clip_state.dirty = TRUE;
r300->rs_state.dirty = TRUE;
r300->viewport_state.dirty = TRUE;
r300->sprite_coord_enable = last_sprite_coord_enable;
}
static void r300_draw_arrays_immediate(struct r300_context *r300,
const struct pipe_draw_info *info)
{
struct pipe_vertex_element* velem;
struct pipe_vertex_buffer* vbuf;
unsigned vertex_element_count = r300->velems->count;
unsigned i, v, vbi;
/* Size of the vertex, in dwords. */
unsigned vertex_size = r300->velems->vertex_size_dwords;
/* The number of dwords for this draw operation. */
unsigned dwords = 4 + info->count * vertex_size;
/* Size of the vertex element, in dwords. */
unsigned size[PIPE_MAX_ATTRIBS];
/* Stride to the same attrib in the next vertex in the vertex buffer,
* in dwords. */
unsigned stride[PIPE_MAX_ATTRIBS];
/* Mapped vertex buffers. */
uint32_t* map[PIPE_MAX_ATTRIBS] = {0};
uint32_t* mapelem[PIPE_MAX_ATTRIBS];
CS_LOCALS(r300);
if (!r300_prepare_for_rendering(r300, PREP_EMIT_STATES, NULL, dwords, 0, 0, -1))
return;
/* Calculate the vertex size, offsets, strides etc. and map the buffers. */
for (i = 0; i < vertex_element_count; i++) {
velem = &r300->velems->velem[i];
size[i] = r300->velems->format_size[i] / 4;
vbi = velem->vertex_buffer_index;
vbuf = &r300->vertex_buffer[vbi];
stride[i] = vbuf->stride / 4;
/* Map the buffer. */
if (!map[vbi]) {
map[vbi] = (uint32_t*)r300->rws->buffer_map(
r300_resource(vbuf->buffer)->cs_buf,
r300->cs, PIPE_TRANSFER_READ | PIPE_TRANSFER_UNSYNCHRONIZED);
map[vbi] += (vbuf->buffer_offset / 4) + stride[i] * info->start;
}
mapelem[i] = map[vbi] + (velem->src_offset / 4);
}
r300_emit_draw_init(r300, info->mode, info->count-1);
BEGIN_CS(dwords);
OUT_CS_REG(R300_VAP_VTX_SIZE, vertex_size);
OUT_CS_PKT3(R300_PACKET3_3D_DRAW_IMMD_2, info->count * vertex_size);
OUT_CS(R300_VAP_VF_CNTL__PRIM_WALK_VERTEX_EMBEDDED | (info->count << 16) |
r300_translate_primitive(info->mode));
/* Emit vertices. */
for (v = 0; v < info->count; v++) {
for (i = 0; i < vertex_element_count; i++) {
OUT_CS_TABLE(&mapelem[i][stride[i] * v], size[i]);
}
}
END_CS;
}
static void r300_emit_draw_arrays_immediate(struct r300_context *r300,
unsigned mode,
unsigned start,
unsigned count)
{
struct pipe_vertex_element* velem;
struct pipe_vertex_buffer* vbuf;
unsigned vertex_element_count = r300->velems->count;
unsigned i, v, vbi;
/* Size of the vertex, in dwords. */
unsigned vertex_size = r300->velems->vertex_size_dwords;
/* The number of dwords for this draw operation. */
unsigned dwords = 9 + count * vertex_size;
/* Size of the vertex element, in dwords. */
unsigned size[PIPE_MAX_ATTRIBS];
/* Stride to the same attrib in the next vertex in the vertex buffer,
* in dwords. */
unsigned stride[PIPE_MAX_ATTRIBS];
/* Mapped vertex buffers. */
uint32_t* map[PIPE_MAX_ATTRIBS];
uint32_t* mapelem[PIPE_MAX_ATTRIBS];
struct pipe_transfer* transfer[PIPE_MAX_ATTRIBS] = {0};
CS_LOCALS(r300);
if (!r300_prepare_for_rendering(r300, PREP_FIRST_DRAW, NULL, dwords, 0, 0))
return;
/* Calculate the vertex size, offsets, strides etc. and map the buffers. */
for (i = 0; i < vertex_element_count; i++) {
velem = &r300->velems->velem[i];
size[i] = r300->velems->hw_format_size[i] / 4;
vbi = velem->vertex_buffer_index;
vbuf = &r300->vertex_buffer[vbi];
stride[i] = vbuf->stride / 4;
/* Map the buffer. */
if (!transfer[vbi]) {
map[vbi] = (uint32_t*)pipe_buffer_map(&r300->context,
vbuf->buffer,
PIPE_TRANSFER_READ,
&transfer[vbi]);
map[vbi] += (vbuf->buffer_offset / 4) + stride[i] * start;
}
mapelem[i] = map[vbi] + (velem->src_offset / 4);
}
BEGIN_CS(dwords);
OUT_CS_REG(R300_GA_COLOR_CONTROL,
r300_provoking_vertex_fixes(r300, mode));
OUT_CS_REG(R300_VAP_VTX_SIZE, vertex_size);
OUT_CS_REG_SEQ(R300_VAP_VF_MAX_VTX_INDX, 2);
OUT_CS(count - 1);
OUT_CS(0);
OUT_CS_PKT3(R300_PACKET3_3D_DRAW_IMMD_2, count * vertex_size);
OUT_CS(R300_VAP_VF_CNTL__PRIM_WALK_VERTEX_EMBEDDED | (count << 16) |
r300_translate_primitive(mode));
/* Emit vertices. */
for (v = 0; v < count; v++) {
for (i = 0; i < vertex_element_count; i++) {
OUT_CS_TABLE(&mapelem[i][stride[i] * v], size[i]);
}
}
END_CS;
/* Unmap buffers. */
for (i = 0; i < vertex_element_count; i++) {
vbi = r300->velems->velem[i].vertex_buffer_index;
if (transfer[vbi]) {
vbuf = &r300->vertex_buffer[vbi];
pipe_buffer_unmap(&r300->context, vbuf->buffer, transfer[vbi]);
transfer[vbi] = NULL;
}
}
}
static void r300_draw_elements_immediate(struct r300_context *r300,
const struct pipe_draw_info *info)
{
const uint8_t *ptr1;
const uint16_t *ptr2;
const uint32_t *ptr4;
unsigned index_size = r300->index_buffer.index_size;
unsigned i, count_dwords = index_size == 4 ? info->count :
(info->count + 1) / 2;
CS_LOCALS(r300);
/* 19 dwords for r300_draw_elements_immediate. Give up if the function fails. */
if (!r300_prepare_for_rendering(r300,
PREP_EMIT_STATES | PREP_VALIDATE_VBOS | PREP_EMIT_VARRAYS |
PREP_INDEXED, NULL, 2+count_dwords, 0, info->index_bias, -1))
return;
r300_emit_draw_init(r300, info->mode, info->max_index);
BEGIN_CS(2 + count_dwords);
OUT_CS_PKT3(R300_PACKET3_3D_DRAW_INDX_2, count_dwords);
switch (index_size) {
case 1:
ptr1 = (uint8_t*)r300->index_buffer.user_buffer;
ptr1 += info->start;
OUT_CS(R300_VAP_VF_CNTL__PRIM_WALK_INDICES | (info->count << 16) |
r300_translate_primitive(info->mode));
if (info->index_bias && !r300->screen->caps.is_r500) {
for (i = 0; i < info->count-1; i += 2)
OUT_CS(((ptr1[i+1] + info->index_bias) << 16) |
(ptr1[i] + info->index_bias));
if (info->count & 1)
OUT_CS(ptr1[i] + info->index_bias);
} else {
for (i = 0; i < info->count-1; i += 2)
OUT_CS(((ptr1[i+1]) << 16) |
(ptr1[i] ));
if (info->count & 1)
OUT_CS(ptr1[i]);
}
break;
case 2:
ptr2 = (uint16_t*)r300->index_buffer.user_buffer;
ptr2 += info->start;
OUT_CS(R300_VAP_VF_CNTL__PRIM_WALK_INDICES | (info->count << 16) |
r300_translate_primitive(info->mode));
if (info->index_bias && !r300->screen->caps.is_r500) {
for (i = 0; i < info->count-1; i += 2)
OUT_CS(((ptr2[i+1] + info->index_bias) << 16) |
(ptr2[i] + info->index_bias));
if (info->count & 1)
OUT_CS(ptr2[i] + info->index_bias);
} else {
OUT_CS_TABLE(ptr2, count_dwords);
}
break;
case 4:
ptr4 = (uint32_t*)r300->index_buffer.user_buffer;
ptr4 += info->start;
OUT_CS(R300_VAP_VF_CNTL__PRIM_WALK_INDICES | (info->count << 16) |
R300_VAP_VF_CNTL__INDEX_SIZE_32bit |
r300_translate_primitive(info->mode));
if (info->index_bias && !r300->screen->caps.is_r500) {
for (i = 0; i < info->count; i++)
OUT_CS(ptr4[i] + info->index_bias);
} else {
OUT_CS_TABLE(ptr4, count_dwords);
}
break;
}
END_CS;
}
static void r300_emit_draw_elements(struct r300_context *r300,
struct pipe_resource* indexBuffer,
unsigned indexSize,
unsigned minIndex,
unsigned maxIndex,
unsigned mode,
unsigned start,
unsigned count)
{
uint32_t count_dwords;
uint32_t offset_dwords = indexSize * start / sizeof(uint32_t);
boolean alt_num_verts = count > 65535;
CS_LOCALS(r300);
if (count >= (1 << 24)) {
fprintf(stderr, "r300: Got a huge number of vertices: %i, "
"refusing to render.\n", count);
return;
}
maxIndex = MIN2(maxIndex, r300->vertex_buffer_max_index);
DBG(r300, DBG_DRAW, "r300: Indexbuf of %u indices, min %u max %u\n",
count, minIndex, maxIndex);
BEGIN_CS(13 + (alt_num_verts ? 2 : 0));
if (alt_num_verts) {
OUT_CS_REG(R500_VAP_ALT_NUM_VERTICES, count);
}
OUT_CS_REG(R300_GA_COLOR_CONTROL,
r300_provoking_vertex_fixes(r300, mode));
OUT_CS_REG_SEQ(R300_VAP_VF_MAX_VTX_INDX, 2);
OUT_CS(maxIndex);
OUT_CS(minIndex);
OUT_CS_PKT3(R300_PACKET3_3D_DRAW_INDX_2, 0);
if (indexSize == 4) {
count_dwords = count;
OUT_CS(R300_VAP_VF_CNTL__PRIM_WALK_INDICES | (count << 16) |
R300_VAP_VF_CNTL__INDEX_SIZE_32bit |
r300_translate_primitive(mode) |
(alt_num_verts ? R500_VAP_VF_CNTL__USE_ALT_NUM_VERTS : 0));
} else {
count_dwords = (count + 1) / 2;
OUT_CS(R300_VAP_VF_CNTL__PRIM_WALK_INDICES | (count << 16) |
r300_translate_primitive(mode) |
(alt_num_verts ? R500_VAP_VF_CNTL__USE_ALT_NUM_VERTS : 0));
}
/* INDX_BUFFER is a truly special packet3.
* Unlike most other packet3, where the offset is after the count,
* the order is reversed, so the relocation ends up carrying the
* size of the indexbuf instead of the offset.
*/
OUT_CS_PKT3(R300_PACKET3_INDX_BUFFER, 2);
OUT_CS(R300_INDX_BUFFER_ONE_REG_WR | (R300_VAP_PORT_IDX0 >> 2) |
(0 << R300_INDX_BUFFER_SKIP_SHIFT));
OUT_CS(offset_dwords << 2);
OUT_CS_BUF_RELOC(indexBuffer, count_dwords,
r300_buffer(indexBuffer)->domain, 0);
END_CS;
}
static void radeon_drm_cs_flush(struct radeon_winsys_cs *rcs, unsigned flags, uint32_t cs_trace_id)
{
struct radeon_drm_cs *cs = radeon_drm_cs(rcs);
struct radeon_cs_context *tmp;
switch (cs->base.ring_type) {
case RING_DMA:
/* pad DMA ring to 8 DWs */
if (cs->ws->info.chip_class <= SI) {
while (rcs->cdw & 7)
OUT_CS(&cs->base, 0xf0000000); /* NOP packet */
} else {
while (rcs->cdw & 7)
OUT_CS(&cs->base, 0x00000000); /* NOP packet */
}
break;
case RING_GFX:
/* pad DMA ring to 8 DWs to meet CP fetch alignment requirements
* r6xx, requires at least 4 dw alignment to avoid a hw bug.
*/
if (flags & RADEON_FLUSH_COMPUTE) {
if (cs->ws->info.chip_class <= SI) {
while (rcs->cdw & 7)
OUT_CS(&cs->base, 0x80000000); /* type2 nop packet */
} else {
while (rcs->cdw & 7)
OUT_CS(&cs->base, 0xffff1000); /* type3 nop packet */
}
} else {
while (rcs->cdw & 7)
OUT_CS(&cs->base, 0x80000000); /* type2 nop packet */
}
break;
}
if (rcs->cdw > RADEON_MAX_CMDBUF_DWORDS) {
fprintf(stderr, "radeon: command stream overflowed\n");
}
radeon_drm_cs_sync_flush(rcs);
/* Flip command streams. */
tmp = cs->csc;
cs->csc = cs->cst;
cs->cst = tmp;
cs->cst->cs_trace_id = cs_trace_id;
/* If the CS is not empty or overflowed, emit it in a separate thread. */
if (cs->base.cdw && cs->base.cdw <= RADEON_MAX_CMDBUF_DWORDS && !debug_get_option_noop()) {
unsigned i, crelocs = cs->cst->crelocs;
cs->cst->chunks[0].length_dw = cs->base.cdw;
for (i = 0; i < crelocs; i++) {
/* Update the number of active asynchronous CS ioctls for the buffer. */
p_atomic_inc(&cs->cst->relocs_bo[i]->num_active_ioctls);
}
switch (cs->base.ring_type) {
case RING_DMA:
cs->cst->flags[0] = 0;
cs->cst->flags[1] = RADEON_CS_RING_DMA;
cs->cst->cs.num_chunks = 3;
if (cs->ws->info.r600_virtual_address) {
cs->cst->flags[0] |= RADEON_CS_USE_VM;
}
break;
case RING_UVD:
cs->cst->flags[0] = 0;
cs->cst->flags[1] = RADEON_CS_RING_UVD;
cs->cst->cs.num_chunks = 3;
break;
default:
case RING_GFX:
cs->cst->flags[0] = 0;
cs->cst->flags[1] = RADEON_CS_RING_GFX;
cs->cst->cs.num_chunks = 2;
if (flags & RADEON_FLUSH_KEEP_TILING_FLAGS) {
cs->cst->flags[0] |= RADEON_CS_KEEP_TILING_FLAGS;
cs->cst->cs.num_chunks = 3;
}
if (cs->ws->info.r600_virtual_address) {
cs->cst->flags[0] |= RADEON_CS_USE_VM;
cs->cst->cs.num_chunks = 3;
}
if (flags & RADEON_FLUSH_END_OF_FRAME) {
cs->cst->flags[0] |= RADEON_CS_END_OF_FRAME;
cs->cst->cs.num_chunks = 3;
}
if (flags & RADEON_FLUSH_COMPUTE) {
cs->cst->flags[1] = RADEON_CS_RING_COMPUTE;
cs->cst->cs.num_chunks = 3;
}
break;
}
if (cs->ws->thread && (flags & RADEON_FLUSH_ASYNC)) {
cs->flush_started = 1;
radeon_drm_ws_queue_cs(cs->ws, cs);
} else {
pipe_mutex_lock(cs->ws->cs_stack_lock);
if (cs->ws->thread) {
while (p_atomic_read(&cs->ws->ncs)) {
pipe_condvar_wait(cs->ws->cs_queue_empty, cs->ws->cs_stack_lock);
}
}
pipe_mutex_unlock(cs->ws->cs_stack_lock);
radeon_drm_cs_emit_ioctl_oneshot(cs, cs->cst);
}
} else {
radeon_cs_context_cleanup(cs->cst);
}
/* Prepare a new CS. */
cs->base.buf = cs->csc->buf;
cs->base.cdw = 0;
}
static void r300_render_draw_elements(struct vbuf_render* render,
const ushort* indices,
uint count)
{
struct r300_render* r300render = r300_render(render);
struct r300_context* r300 = r300render->r300;
int i;
unsigned end_cs_dwords;
unsigned max_index = (r300->draw_vbo_size - r300->draw_vbo_offset) /
(r300render->r300->vertex_info.size * 4) - 1;
unsigned short_count;
unsigned free_dwords;
CS_LOCALS(r300);
DBG(r300, DBG_DRAW, "r300: render_draw_elements (count: %d)\n", count);
if (r300->draw_first_emitted) {
if (!r300_prepare_for_rendering(r300,
PREP_EMIT_STATES | PREP_EMIT_VARRAYS_SWTCL | PREP_INDEXED,
NULL, 256, 0, 0, -1))
return;
} else {
if (!r300_emit_states(r300,
PREP_EMIT_STATES | PREP_EMIT_VARRAYS_SWTCL | PREP_INDEXED,
NULL, 0, 0, -1))
return;
}
/* Below we manage the CS space manually because there may be more
* indices than it can fit in CS. */
end_cs_dwords = r300_get_num_cs_end_dwords(r300);
while (count) {
free_dwords = RADEON_MAX_CMDBUF_DWORDS - r300->cs->cdw;
short_count = MIN2(count, (free_dwords - end_cs_dwords - 6) * 2);
BEGIN_CS(6 + (short_count+1)/2);
OUT_CS_REG(R300_GA_COLOR_CONTROL,
r300_provoking_vertex_fixes(r300, r300render->prim));
OUT_CS_REG(R300_VAP_VF_MAX_VTX_INDX, max_index);
OUT_CS_PKT3(R300_PACKET3_3D_DRAW_INDX_2, (short_count+1)/2);
OUT_CS(R300_VAP_VF_CNTL__PRIM_WALK_INDICES | (short_count << 16) |
r300render->hwprim);
for (i = 0; i < short_count-1; i += 2) {
OUT_CS(indices[i+1] << 16 | indices[i]);
}
if (short_count % 2) {
OUT_CS(indices[short_count-1]);
}
END_CS;
/* OK now subtract the emitted indices and see if we need to emit
* another draw packet. */
indices += short_count;
count -= short_count;
if (count) {
if (!r300_prepare_for_rendering(r300,
PREP_EMIT_VARRAYS_SWTCL | PREP_INDEXED,
NULL, 256, 0, 0, -1))
return;
end_cs_dwords = r300_get_num_cs_end_dwords(r300);
}
}
r300->draw_first_emitted = TRUE;
}
