static void check_attrib_edgeflag(struct st_context *st)
{
const struct gl_client_array **arrays = st->ctx->Array._DrawArrays;
GLboolean vertdata_edgeflags, edgeflag_culls_prims, edgeflags_enabled;
struct gl_vertex_program *vp = st->ctx->VertexProgram._Current;
if (!arrays)
return;
edgeflags_enabled = st->ctx->Polygon.FrontMode != GL_FILL ||
st->ctx->Polygon.BackMode != GL_FILL;
vertdata_edgeflags = edgeflags_enabled &&
arrays[VERT_ATTRIB_EDGEFLAG]->StrideB != 0;
if (vertdata_edgeflags != st->vertdata_edgeflags) {
st->vertdata_edgeflags = vertdata_edgeflags;
if (vp)
st->dirty |= ST_NEW_VERTEX_PROGRAM(st, st_vertex_program(vp));
}
edgeflag_culls_prims = edgeflags_enabled && !vertdata_edgeflags &&
!st->ctx->Current.Attrib[VERT_ATTRIB_EDGEFLAG][0];
if (edgeflag_culls_prims != st->edgeflag_culls_prims) {
st->edgeflag_culls_prims = edgeflag_culls_prims;
st->dirty |= ST_NEW_RASTERIZER;
}
}
/* Too complex to figure out, just check every time:
*/
static void check_program_state( struct st_context *st )
{
struct gl_context *ctx = st->ctx;
struct st_vertex_program *old_vp = st->vp;
struct st_tessctrl_program *old_tcp = st->tcp;
struct st_tesseval_program *old_tep = st->tep;
struct st_geometry_program *old_gp = st->gp;
struct st_fragment_program *old_fp = st->fp;
struct gl_vertex_program *new_vp = ctx->VertexProgram._Current;
struct gl_tess_ctrl_program *new_tcp = ctx->TessCtrlProgram._Current;
struct gl_tess_eval_program *new_tep = ctx->TessEvalProgram._Current;
struct gl_geometry_program *new_gp = ctx->GeometryProgram._Current;
struct gl_fragment_program *new_fp = ctx->FragmentProgram._Current;
uint64_t dirty = 0;
/* Flag states used by both new and old shaders to unbind shader resources
* properly when transitioning to shaders that don't use them.
*/
if (unlikely(new_vp != &old_vp->Base)) {
if (old_vp)
dirty |= old_vp->affected_states;
if (new_vp)
dirty |= ST_NEW_VERTEX_PROGRAM(st, st_vertex_program(new_vp));
}
if (unlikely(new_tcp != &old_tcp->Base)) {
if (old_tcp)
dirty |= old_tcp->affected_states;
if (new_tcp)
dirty |= st_tessctrl_program(new_tcp)->affected_states;
}
if (unlikely(new_tep != &old_tep->Base)) {
if (old_tep)
dirty |= old_tep->affected_states;
if (new_tep)
dirty |= st_tesseval_program(new_tep)->affected_states;
}
if (unlikely(new_gp != &old_gp->Base)) {
if (old_gp)
dirty |= old_gp->affected_states;
if (new_gp)
dirty |= st_geometry_program(new_gp)->affected_states;
}
if (unlikely(new_fp != &old_fp->Base)) {
if (old_fp)
dirty |= old_fp->affected_states;
if (new_fp)
dirty |= st_fragment_program(new_fp)->affected_states;
}
st->dirty |= dirty;
st->gfx_shaders_may_be_dirty = false;
}
static void
st_deserialise_ir_program(struct gl_context *ctx,
struct gl_shader_program *shProg,
struct gl_program *prog, bool nir)
{
struct st_context *st = st_context(ctx);
size_t size = prog->driver_cache_blob_size;
uint8_t *buffer = (uint8_t *) prog->driver_cache_blob;
const struct nir_shader_compiler_options *options =
ctx->Const.ShaderCompilerOptions[prog->info.stage].NirOptions;
assert(prog->driver_cache_blob && prog->driver_cache_blob_size > 0);
struct blob_reader blob_reader;
blob_reader_init(&blob_reader, buffer, size);
switch (prog->info.stage) {
case MESA_SHADER_VERTEX: {
struct st_vertex_program *stvp = (struct st_vertex_program *) prog;
st_release_vp_variants(st, stvp);
stvp->num_inputs = blob_read_uint32(&blob_reader);
blob_copy_bytes(&blob_reader, (uint8_t *) stvp->index_to_input,
sizeof(stvp->index_to_input));
blob_copy_bytes(&blob_reader, (uint8_t *) stvp->input_to_index,
sizeof(stvp->input_to_index));
blob_copy_bytes(&blob_reader, (uint8_t *) stvp->result_to_output,
sizeof(stvp->result_to_output));
read_stream_out_from_cache(&blob_reader, &stvp->tgsi);
if (nir) {
stvp->tgsi.type = PIPE_SHADER_IR_NIR;
stvp->shader_program = shProg;
stvp->tgsi.ir.nir = nir_deserialize(NULL, options, &blob_reader);
prog->nir = stvp->tgsi.ir.nir;
} else {
read_tgsi_from_cache(&blob_reader, &stvp->tgsi.tokens,
&stvp->num_tgsi_tokens);
}
if (st->vp == stvp)
st->dirty |= ST_NEW_VERTEX_PROGRAM(st, stvp);
break;
}
case MESA_SHADER_TESS_CTRL: {
struct st_common_program *sttcp = st_common_program(prog);
st_release_basic_variants(st, sttcp->Base.Target,
&sttcp->variants, &sttcp->tgsi);
read_stream_out_from_cache(&blob_reader, &sttcp->tgsi);
if (nir) {
sttcp->tgsi.type = PIPE_SHADER_IR_NIR;
sttcp->shader_program = shProg;
sttcp->tgsi.ir.nir = nir_deserialize(NULL, options, &blob_reader);
prog->nir = sttcp->tgsi.ir.nir;
} else {
read_tgsi_from_cache(&blob_reader, &sttcp->tgsi.tokens,
&sttcp->num_tgsi_tokens);
}
if (st->tcp == sttcp)
st->dirty |= sttcp->affected_states;
break;
}
case MESA_SHADER_TESS_EVAL: {
struct st_common_program *sttep = st_common_program(prog);
st_release_basic_variants(st, sttep->Base.Target,
&sttep->variants, &sttep->tgsi);
read_stream_out_from_cache(&blob_reader, &sttep->tgsi);
if (nir) {
sttep->tgsi.type = PIPE_SHADER_IR_NIR;
sttep->shader_program = shProg;
sttep->tgsi.ir.nir = nir_deserialize(NULL, options, &blob_reader);
prog->nir = sttep->tgsi.ir.nir;
} else {
read_tgsi_from_cache(&blob_reader, &sttep->tgsi.tokens,
&sttep->num_tgsi_tokens);
}
if (st->tep == sttep)
st->dirty |= sttep->affected_states;
break;
}
case MESA_SHADER_GEOMETRY: {
struct st_common_program *stgp = st_common_program(prog);
st_release_basic_variants(st, stgp->Base.Target, &stgp->variants,
&stgp->tgsi);
read_stream_out_from_cache(&blob_reader, &stgp->tgsi);
if (nir) {
stgp->tgsi.type = PIPE_SHADER_IR_NIR;
stgp->shader_program = shProg;
stgp->tgsi.ir.nir = nir_deserialize(NULL, options, &blob_reader);
prog->nir = stgp->tgsi.ir.nir;
} else {
read_tgsi_from_cache(&blob_reader, &stgp->tgsi.tokens,
&stgp->num_tgsi_tokens);
}
if (st->gp == stgp)
st->dirty |= stgp->affected_states;
break;
}
case MESA_SHADER_FRAGMENT: {
struct st_fragment_program *stfp = (struct st_fragment_program *) prog;
st_release_fp_variants(st, stfp);
if (nir) {
stfp->tgsi.type = PIPE_SHADER_IR_NIR;
stfp->shader_program = shProg;
stfp->tgsi.ir.nir = nir_deserialize(NULL, options, &blob_reader);
prog->nir = stfp->tgsi.ir.nir;
} else {
read_tgsi_from_cache(&blob_reader, &stfp->tgsi.tokens,
&stfp->num_tgsi_tokens);
}
if (st->fp == stfp)
st->dirty |= stfp->affected_states;
break;
}
case MESA_SHADER_COMPUTE: {
struct st_compute_program *stcp = (struct st_compute_program *) prog;
st_release_cp_variants(st, stcp);
if (nir) {
stcp->tgsi.ir_type = PIPE_SHADER_IR_NIR;
stcp->shader_program = shProg;
stcp->tgsi.prog = nir_deserialize(NULL, options, &blob_reader);
prog->nir = (nir_shader *) stcp->tgsi.prog;
} else {
read_tgsi_from_cache(&blob_reader,
(const struct tgsi_token**) &stcp->tgsi.prog,
&stcp->num_tgsi_tokens);
}
stcp->tgsi.req_local_mem = stcp->Base.info.cs.shared_size;
stcp->tgsi.req_private_mem = 0;
stcp->tgsi.req_input_mem = 0;
if (st->cp == stcp)
st->dirty |= stcp->affected_states;
break;
}
default:
unreachable("Unsupported stage");
}
/* Make sure we don't try to read more data than we wrote. This should
* never happen in release builds but its useful to have this check to
* catch development bugs.
*/
if (blob_reader.current != blob_reader.end || blob_reader.overrun) {
assert(!"Invalid TGSI shader disk cache item!");
if (ctx->_Shader->Flags & GLSL_CACHE_INFO) {
fprintf(stderr, "Error reading program from cache (invalid "
"TGSI cache item)\n");
}
}
st_set_prog_affected_state_flags(prog);
_mesa_associate_uniform_storage(ctx, shProg, prog, false);
/* Create Gallium shaders now instead of on demand. */
if (ST_DEBUG & DEBUG_PRECOMPILE ||
st->shader_has_one_variant[prog->info.stage])
st_precompile_shader_variant(st, prog);
}
/* Too complex to figure out, just check every time:
*/
static void check_program_state( struct st_context *st )
{
struct gl_context *ctx = st->ctx;
struct st_vertex_program *old_vp = st->vp;
struct st_common_program *old_tcp = st->tcp;
struct st_common_program *old_tep = st->tep;
struct st_common_program *old_gp = st->gp;
struct st_fragment_program *old_fp = st->fp;
struct gl_program *new_vp = ctx->VertexProgram._Current;
struct gl_program *new_tcp = ctx->TessCtrlProgram._Current;
struct gl_program *new_tep = ctx->TessEvalProgram._Current;
struct gl_program *new_gp = ctx->GeometryProgram._Current;
struct gl_program *new_fp = ctx->FragmentProgram._Current;
uint64_t dirty = 0;
unsigned num_viewports = 1;
/* Flag states used by both new and old shaders to unbind shader resources
* properly when transitioning to shaders that don't use them.
*/
if (unlikely(new_vp != &old_vp->Base)) {
if (old_vp)
dirty |= old_vp->affected_states;
if (new_vp)
dirty |= ST_NEW_VERTEX_PROGRAM(st, st_vertex_program(new_vp));
}
if (unlikely(new_tcp != &old_tcp->Base)) {
if (old_tcp)
dirty |= old_tcp->affected_states;
if (new_tcp)
dirty |= st_common_program(new_tcp)->affected_states;
}
if (unlikely(new_tep != &old_tep->Base)) {
if (old_tep)
dirty |= old_tep->affected_states;
if (new_tep)
dirty |= st_common_program(new_tep)->affected_states;
}
if (unlikely(new_gp != &old_gp->Base)) {
if (old_gp)
dirty |= old_gp->affected_states;
if (new_gp)
dirty |= st_common_program(new_gp)->affected_states;
}
if (unlikely(new_fp != &old_fp->Base)) {
if (old_fp)
dirty |= old_fp->affected_states;
if (new_fp)
dirty |= st_fragment_program(new_fp)->affected_states;
}
/* Find out the number of viewports. This determines how many scissors
* and viewport states we need to update.
*/
struct gl_program *last_prim_shader = new_gp ? new_gp :
new_tep ? new_tep : new_vp;
if (last_prim_shader &&
last_prim_shader->info.outputs_written & VARYING_BIT_VIEWPORT)
num_viewports = ctx->Const.MaxViewports;
if (st->state.num_viewports != num_viewports) {
st->state.num_viewports = num_viewports;
dirty |= ST_NEW_VIEWPORT;
if (ctx->Scissor.EnableFlags & u_bit_consecutive(0, num_viewports))
dirty |= ST_NEW_SCISSOR;
}
st->dirty |= dirty;
}