namespace aco {
namespace {
+#define isel_err(...) _isel_err(ctx, __FILE__, __LINE__, __VA_ARGS__)
+
+static void _isel_err(isel_context *ctx, const char *file, unsigned line,
+ const nir_instr *instr, const char *msg)
+{
+ char *out;
+ size_t outsize;
+ FILE *memf = open_memstream(&out, &outsize);
+
+ fprintf(memf, "%s: ", msg);
+ nir_print_instr(instr, memf);
+ fclose(memf);
+
+ _aco_err(ctx->program, file, line, out);
+ free(out);
+}
+
class loop_info_RAII {
isel_context* ctx;
unsigned header_idx_old;
if (ctx->program->wave_size == 32) {
return thread_id_lo;
+ } else if (ctx->program->chip_class <= GFX7) {
+ Temp thread_id_hi = bld.vop2(aco_opcode::v_mbcnt_hi_u32_b32, dst, mask_hi, thread_id_lo);
+ return thread_id_hi;
} else {
- Temp thread_id_hi = bld.vop3(aco_opcode::v_mbcnt_hi_u32_b32, dst, mask_hi, thread_id_lo);
+ Temp thread_id_hi = bld.vop3(aco_opcode::v_mbcnt_hi_u32_b32_e64, dst, mask_hi, thread_id_lo);
return thread_id_hi;
}
}
}
}
+static Temp emit_masked_swizzle(isel_context *ctx, Builder &bld, Temp src, unsigned mask)
+{
+ if (ctx->options->chip_class >= GFX8) {
+ unsigned and_mask = mask & 0x1f;
+ unsigned or_mask = (mask >> 5) & 0x1f;
+ unsigned xor_mask = (mask >> 10) & 0x1f;
+
+ uint16_t dpp_ctrl = 0xffff;
+
+ // TODO: we could use DPP8 for some swizzles
+ if (and_mask == 0x1f && or_mask < 4 && xor_mask < 4) {
+ unsigned res[4] = {0, 1, 2, 3};
+ for (unsigned i = 0; i < 4; i++)
+ res[i] = ((res[i] | or_mask) ^ xor_mask) & 0x3;
+ dpp_ctrl = dpp_quad_perm(res[0], res[1], res[2], res[3]);
+ } else if (and_mask == 0x1f && !or_mask && xor_mask == 8) {
+ dpp_ctrl = dpp_row_rr(8);
+ } else if (and_mask == 0x1f && !or_mask && xor_mask == 0xf) {
+ dpp_ctrl = dpp_row_mirror;
+ } else if (and_mask == 0x1f && !or_mask && xor_mask == 0x7) {
+ dpp_ctrl = dpp_row_half_mirror;
+ }
+
+ if (dpp_ctrl != 0xffff)
+ return bld.vop1_dpp(aco_opcode::v_mov_b32, bld.def(v1), src, dpp_ctrl);
+ }
+
+ return bld.ds(aco_opcode::ds_swizzle_b32, bld.def(v1), src, mask, 0, false);
+}
+
Temp as_vgpr(isel_context *ctx, Temp val)
{
if (val.type() == RegType::sgpr) {
bld.pseudo(aco_opcode::p_split_vector, Definition(lo), Definition(hi), vec);
hi = bld.pseudo(aco_opcode::p_extract_vector, bld.def(s1), hi, Operand(0u));
if (select != Temp())
- hi = bld.sop2(aco_opcode::s_cselect_b32, bld.def(s1), hi, Operand(0u), select);
+ hi = bld.sop2(aco_opcode::s_cselect_b32, bld.def(s1), hi, Operand(0u), bld.scc(select));
lo = bld.sop2(aco_opcode::s_lshr_b64, bld.def(s2), bld.def(s1, scc), lo, shift);
Temp mid = bld.tmp(s1);
lo = bld.pseudo(aco_opcode::p_split_vector, bld.def(s1), Definition(mid), lo);
offset = Operand(0u);
}
- unsigned num_components = dst.bytes() / component_size;
+ unsigned num_components = vec.bytes() / component_size;
if (vec.regClass() == dst.regClass()) {
assert(offset.constantValue() == 0);
bld.copy(Definition(dst), vec);
return;
}
- emit_split_vector(ctx, vec, vec.bytes() / component_size);
+ emit_split_vector(ctx, vec, num_components);
std::array<Temp, NIR_MAX_VEC_COMPONENTS> elems;
RegClass rc = RegClass(RegType::vgpr, component_size).as_subdword();
assert(offset.constantValue() % component_size == 0);
unsigned skip = offset.constantValue() / component_size;
- for (unsigned i = 0; i < num_components; i++)
- elems[i] = emit_extract_vector(ctx, vec, i + skip, rc);
+ for (unsigned i = skip; i < num_components; i++)
+ elems[i - skip] = emit_extract_vector(ctx, vec, i, rc);
/* if dst is vgpr - split the src and create a shrunk version according to the mask. */
if (dst.type() == RegType::vgpr) {
+ num_components = dst.bytes() / component_size;
aco_ptr<Pseudo_instruction> create_vec{create_instruction<Pseudo_instruction>(aco_opcode::p_create_vector, Format::PSEUDO, num_components, 1)};
for (unsigned i = 0; i < num_components; i++)
create_vec->operands[i] = Operand(elems[i]);
return emit_wqm(ctx, tmp, dst);
}
+Temp convert_int(isel_context *ctx, Builder& bld, Temp src, unsigned src_bits, unsigned dst_bits, bool is_signed, Temp dst=Temp())
+{
+ if (!dst.id()) {
+ if (dst_bits % 32 == 0 || src.type() == RegType::sgpr)
+ dst = bld.tmp(src.type(), DIV_ROUND_UP(dst_bits, 32u));
+ else
+ dst = bld.tmp(RegClass(RegType::vgpr, dst_bits / 8u).as_subdword());
+ }
+
+ if (dst.bytes() == src.bytes() && dst_bits < src_bits)
+ return bld.copy(Definition(dst), src);
+ else if (dst.bytes() < src.bytes())
+ return bld.pseudo(aco_opcode::p_extract_vector, Definition(dst), src, Operand(0u));
+
+ Temp tmp = dst;
+ if (dst_bits == 64)
+ tmp = src_bits == 32 ? src : bld.tmp(src.type(), 1);
+
+ if (tmp == src) {
+ } else if (src.regClass() == s1) {
+ if (is_signed)
+ bld.sop1(src_bits == 8 ? aco_opcode::s_sext_i32_i8 : aco_opcode::s_sext_i32_i16, Definition(tmp), src);
+ else
+ bld.sop2(aco_opcode::s_and_b32, Definition(tmp), bld.def(s1, scc), Operand(src_bits == 8 ? 0xFFu : 0xFFFFu), src);
+ } else if (ctx->options->chip_class >= GFX8) {
+ assert(src_bits != 8 || src.regClass() == v1b);
+ assert(src_bits != 16 || src.regClass() == v2b);
+ aco_ptr<SDWA_instruction> sdwa{create_instruction<SDWA_instruction>(aco_opcode::v_mov_b32, asSDWA(Format::VOP1), 1, 1)};
+ sdwa->operands[0] = Operand(src);
+ sdwa->definitions[0] = Definition(tmp);
+ if (is_signed)
+ sdwa->sel[0] = src_bits == 8 ? sdwa_sbyte : sdwa_sword;
+ else
+ sdwa->sel[0] = src_bits == 8 ? sdwa_ubyte : sdwa_uword;
+ sdwa->dst_sel = tmp.bytes() == 2 ? sdwa_uword : sdwa_udword;
+ bld.insert(std::move(sdwa));
+ } else {
+ assert(ctx->options->chip_class == GFX6 || ctx->options->chip_class == GFX7);
+ aco_opcode opcode = is_signed ? aco_opcode::v_bfe_i32 : aco_opcode::v_bfe_u32;
+ bld.vop3(opcode, Definition(tmp), src, Operand(0u), Operand(src_bits == 8 ? 8u : 16u));
+ }
+
+ if (dst_bits == 64) {
+ if (is_signed && dst.regClass() == s2) {
+ Temp high = bld.sop2(aco_opcode::s_ashr_i32, bld.def(s1), bld.def(s1, scc), tmp, Operand(31u));
+ bld.pseudo(aco_opcode::p_create_vector, Definition(dst), tmp, high);
+ } else if (is_signed && dst.regClass() == v2) {
+ Temp high = bld.vop2(aco_opcode::v_ashrrev_i32, bld.def(v1), Operand(31u), tmp);
+ bld.pseudo(aco_opcode::p_create_vector, Definition(dst), tmp, high);
+ } else {
+ bld.pseudo(aco_opcode::p_create_vector, Definition(dst), tmp, Operand(0u));
+ }
+ }
+
+ return dst;
+}
+
+enum sgpr_extract_mode {
+ sgpr_extract_sext,
+ sgpr_extract_zext,
+ sgpr_extract_undef,
+};
+
+Temp extract_8_16_bit_sgpr_element(isel_context *ctx, Temp dst, nir_alu_src *src, sgpr_extract_mode mode)
+{
+ Temp vec = get_ssa_temp(ctx, src->src.ssa);
+ unsigned src_size = src->src.ssa->bit_size;
+ unsigned swizzle = src->swizzle[0];
+
+ if (vec.size() > 1) {
+ assert(src_size == 16);
+ vec = emit_extract_vector(ctx, vec, swizzle / 2, s1);
+ swizzle = swizzle & 1;
+ }
+
+ Builder bld(ctx->program, ctx->block);
+ unsigned offset = src_size * swizzle;
+ Temp tmp = dst.regClass() == s2 ? bld.tmp(s1) : dst;
+
+ if (mode == sgpr_extract_undef && swizzle == 0) {
+ bld.copy(Definition(tmp), vec);
+ } else if (mode == sgpr_extract_undef || (offset == 24 && mode == sgpr_extract_zext)) {
+ bld.sop2(aco_opcode::s_lshr_b32, Definition(tmp), bld.def(s1, scc), vec, Operand(offset));
+ } else if (src_size == 8 && swizzle == 0 && mode == sgpr_extract_sext) {
+ bld.sop1(aco_opcode::s_sext_i32_i8, Definition(tmp), vec);
+ } else if (src_size == 16 && swizzle == 0 && mode == sgpr_extract_sext) {
+ bld.sop1(aco_opcode::s_sext_i32_i16, Definition(tmp), vec);
+ } else {
+ aco_opcode op = mode == sgpr_extract_zext ? aco_opcode::s_bfe_u32 : aco_opcode::s_bfe_i32;
+ bld.sop2(op, Definition(tmp), bld.def(s1, scc), vec, Operand((src_size << 16) | offset));
+ }
+
+ if (dst.regClass() == s2)
+ convert_int(ctx, bld, tmp, 32, 64, mode == sgpr_extract_sext, dst);
+
+ return dst;
+}
+
Temp get_alu_src(struct isel_context *ctx, nir_alu_src src, unsigned size=1)
{
if (src.src.ssa->num_components == 1 && src.swizzle[0] == 0 && size == 1)
if (elem_size < 4 && vec.type() == RegType::sgpr) {
assert(src.src.ssa->bit_size == 8 || src.src.ssa->bit_size == 16);
assert(size == 1);
- unsigned swizzle = src.swizzle[0];
- if (vec.size() > 1) {
- assert(src.src.ssa->bit_size == 16);
- vec = emit_extract_vector(ctx, vec, swizzle / 2, s1);
- swizzle = swizzle & 1;
- }
- if (swizzle == 0)
- return vec;
-
- Temp dst{ctx->program->allocateId(), s1};
- aco_ptr<SOP2_instruction> bfe{create_instruction<SOP2_instruction>(aco_opcode::s_bfe_u32, Format::SOP2, 2, 2)};
- bfe->operands[0] = Operand(vec);
- bfe->operands[1] = Operand(uint32_t((src.src.ssa->bit_size << 16) | (src.src.ssa->bit_size * swizzle)));
- bfe->definitions[0] = Definition(dst);
- bfe->definitions[1] = Definition(ctx->program->allocateId(), scc, s1);
- ctx->block->instructions.emplace_back(std::move(bfe));
- return dst;
+ return extract_8_16_bit_sgpr_element(
+ ctx, Temp(ctx->program->allocateId(), s1), &src, sgpr_extract_undef);
}
RegClass elem_rc = elem_size < 4 ? RegClass(vec.type(), elem_size).as_subdword() : RegClass(vec.type(), elem_size / 4);
sop2->operands[0] = Operand(get_alu_src(ctx, instr->src[0]));
sop2->operands[1] = Operand(get_alu_src(ctx, instr->src[1]));
sop2->definitions[0] = Definition(dst);
+ if (instr->no_unsigned_wrap)
+ sop2->definitions[0].setNUW(true);
if (writes_scc)
sop2->definitions[1] = Definition(ctx->program->allocateId(), scc, s1);
ctx->block->instructions.emplace_back(std::move(sop2));
bool commutative, bool swap_srcs=false, bool flush_denorms = false)
{
Builder bld(ctx->program, ctx->block);
+ bld.is_precise = instr->exact;
+
Temp src0 = get_alu_src(ctx, instr->src[swap_srcs ? 1 : 0]);
Temp src1 = get_alu_src(ctx, instr->src[swap_srcs ? 0 : 1]);
if (src1.type() == RegType::sgpr) {
}
}
+void emit_vop2_instruction_logic64(isel_context *ctx, nir_alu_instr *instr,
+ aco_opcode op, Temp dst)
+{
+ Builder bld(ctx->program, ctx->block);
+ bld.is_precise = instr->exact;
+
+ Temp src0 = get_alu_src(ctx, instr->src[0]);
+ Temp src1 = get_alu_src(ctx, instr->src[1]);
+
+ if (src1.type() == RegType::sgpr) {
+ assert(src0.type() == RegType::vgpr);
+ std::swap(src0, src1);
+ }
+
+ Temp src00 = bld.tmp(src0.type(), 1);
+ Temp src01 = bld.tmp(src0.type(), 1);
+ bld.pseudo(aco_opcode::p_split_vector, Definition(src00), Definition(src01), src0);
+ Temp src10 = bld.tmp(v1);
+ Temp src11 = bld.tmp(v1);
+ bld.pseudo(aco_opcode::p_split_vector, Definition(src10), Definition(src11), src1);
+ Temp lo = bld.vop2(op, bld.def(v1), src00, src10);
+ Temp hi = bld.vop2(op, bld.def(v1), src01, src11);
+ bld.pseudo(aco_opcode::p_create_vector, Definition(dst), lo, hi);
+}
+
void emit_vop3a_instruction(isel_context *ctx, nir_alu_instr *instr, aco_opcode op, Temp dst,
bool flush_denorms = false)
{
src2 = as_vgpr(ctx, src2);
Builder bld(ctx->program, ctx->block);
+ bld.is_precise = instr->exact;
if (flush_denorms && ctx->program->chip_class < GFX9) {
assert(dst.size() == 1);
Temp tmp = bld.vop3(op, Definition(dst), src0, src1, src2);
void emit_vop1_instruction(isel_context *ctx, nir_alu_instr *instr, aco_opcode op, Temp dst)
{
Builder bld(ctx->program, ctx->block);
+ bld.is_precise = instr->exact;
if (dst.type() == RegType::sgpr)
bld.pseudo(aco_opcode::p_as_uniform, Definition(dst),
bld.vop1(op, bld.def(RegType::vgpr, dst.size()), get_alu_src(ctx, instr->src[0])));
bld.pseudo(aco_opcode::p_create_vector, Definition(dst), dst0, dst1);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
return;
}
aco_opcode op = dst.regClass() == s1 ? aco_opcode::s_cselect_b32 : aco_opcode::s_cselect_b64;
bld.sop2(op, Definition(dst), then, els, bld.scc(bool_to_scalar_condition(ctx, cond)));
} else {
- fprintf(stderr, "Unimplemented uniform bcsel bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented uniform bcsel bit size");
}
return;
}
if (ctx->options->chip_class >= GFX7)
return bld.vop1(aco_opcode::v_floor_f64, Definition(dst), val);
- /* GFX6 doesn't support V_FLOOR_F64, lower it. */
+ /* GFX6 doesn't support V_FLOOR_F64, lower it (note that it's actually
+ * lowered at NIR level for precision reasons). */
Temp src0 = as_vgpr(ctx, val);
Temp mask = bld.copy(bld.def(s1), Operand(3u)); /* isnan */
return add->definitions[0].getTemp();
}
-Temp convert_int(isel_context *ctx, Builder& bld, Temp src, unsigned src_bits, unsigned dst_bits, bool is_signed, Temp dst=Temp()) {
- if (!dst.id()) {
- if (dst_bits % 32 == 0 || src.type() == RegType::sgpr)
- dst = bld.tmp(src.type(), DIV_ROUND_UP(dst_bits, 32u));
- else
- dst = bld.tmp(RegClass(RegType::vgpr, dst_bits / 8u).as_subdword());
- }
-
- if (dst.bytes() == src.bytes() && dst_bits < src_bits)
- return bld.copy(Definition(dst), src);
- else if (dst.bytes() < src.bytes())
- return bld.pseudo(aco_opcode::p_extract_vector, Definition(dst), src, Operand(0u));
-
- Temp tmp = dst;
- if (dst_bits == 64)
- tmp = src_bits == 32 ? src : bld.tmp(src.type(), 1);
-
- if (tmp == src) {
- } else if (src.regClass() == s1) {
- if (is_signed)
- bld.sop1(src_bits == 8 ? aco_opcode::s_sext_i32_i8 : aco_opcode::s_sext_i32_i16, Definition(tmp), src);
- else
- bld.sop2(aco_opcode::s_and_b32, Definition(tmp), bld.def(s1, scc), Operand(src_bits == 8 ? 0xFFu : 0xFFFFu), src);
- } else if (ctx->options->chip_class >= GFX8) {
- assert(src_bits != 8 || src.regClass() == v1b);
- assert(src_bits != 16 || src.regClass() == v2b);
- aco_ptr<SDWA_instruction> sdwa{create_instruction<SDWA_instruction>(aco_opcode::v_mov_b32, asSDWA(Format::VOP1), 1, 1)};
- sdwa->operands[0] = Operand(src);
- sdwa->definitions[0] = Definition(tmp);
- if (is_signed)
- sdwa->sel[0] = src_bits == 8 ? sdwa_sbyte : sdwa_sword;
- else
- sdwa->sel[0] = src_bits == 8 ? sdwa_ubyte : sdwa_uword;
- sdwa->dst_sel = tmp.bytes() == 2 ? sdwa_uword : sdwa_udword;
- bld.insert(std::move(sdwa));
- } else {
- assert(ctx->options->chip_class == GFX6 || ctx->options->chip_class == GFX7);
- aco_opcode opcode = is_signed ? aco_opcode::v_bfe_i32 : aco_opcode::v_bfe_u32;
- bld.vop3(opcode, Definition(tmp), src, Operand(0u), Operand(src_bits == 8 ? 8u : 16u));
- }
-
- if (dst_bits == 64) {
- if (is_signed && dst.regClass() == s2) {
- Temp high = bld.sop2(aco_opcode::s_ashr_i32, bld.def(s1), bld.def(s1, scc), tmp, Operand(31u));
- bld.pseudo(aco_opcode::p_create_vector, Definition(dst), tmp, high);
- } else if (is_signed && dst.regClass() == v2) {
- Temp high = bld.vop2(aco_opcode::v_ashrrev_i32, bld.def(v1), Operand(31u), tmp);
- bld.pseudo(aco_opcode::p_create_vector, Definition(dst), tmp, high);
- } else {
- bld.pseudo(aco_opcode::p_create_vector, Definition(dst), tmp, Operand(0u));
- }
- }
-
- return dst;
-}
-
void visit_alu_instr(isel_context *ctx, nir_alu_instr *instr)
{
if (!instr->dest.dest.is_ssa) {
- fprintf(stderr, "nir alu dst not in ssa: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "nir alu dst not in ssa");
abort();
}
Builder bld(ctx->program, ctx->block);
+ bld.is_precise = instr->exact;
Temp dst = get_ssa_temp(ctx, &instr->dest.dest.ssa);
switch(instr->op) {
case nir_op_vec2:
bld.sop2(Builder::s_and, Definition(dst), bld.def(s1, scc), tmp, Operand(exec, bld.lm));
} else if (dst.regClass() == v1) {
emit_vop1_instruction(ctx, instr, aco_opcode::v_not_b32, dst);
+ } else if (dst.regClass() == v2) {
+ Temp lo = bld.tmp(v1), hi = bld.tmp(v1);
+ bld.pseudo(aco_opcode::p_split_vector, Definition(lo), Definition(hi), src);
+ lo = bld.vop1(aco_opcode::v_not_b32, bld.def(v1), lo);
+ hi = bld.vop1(aco_opcode::v_not_b32, bld.def(v1), hi);
+ bld.pseudo(aco_opcode::p_create_vector, Definition(dst), lo, hi);
} else if (dst.type() == RegType::sgpr) {
aco_opcode opcode = dst.size() == 1 ? aco_opcode::s_not_b32 : aco_opcode::s_not_b64;
bld.sop1(opcode, Definition(dst), bld.def(s1, scc), src);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
bld.pseudo(aco_opcode::p_create_vector, Definition(dst), lower, upper);
}
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
Temp src = get_alu_src(ctx, instr->src[0]);
bld.vop2(aco_opcode::v_max_i32, Definition(dst), src, bld.vsub32(bld.def(v1), Operand(0u), src));
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
upper = bld.vop2(aco_opcode::v_cndmask_b32, bld.def(v1), Operand(0u), neg, gtz);
bld.pseudo(aco_opcode::p_create_vector, Definition(dst), lower, upper);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == s1) {
emit_sop2_instruction(ctx, instr, aco_opcode::s_max_i32, dst, true);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == s1) {
emit_sop2_instruction(ctx, instr, aco_opcode::s_max_u32, dst, true);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == s1) {
emit_sop2_instruction(ctx, instr, aco_opcode::s_min_i32, dst, true);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == s1) {
emit_sop2_instruction(ctx, instr, aco_opcode::s_min_u32, dst, true);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
emit_boolean_logic(ctx, instr, Builder::s_or, dst);
} else if (dst.regClass() == v1) {
emit_vop2_instruction(ctx, instr, aco_opcode::v_or_b32, dst, true);
+ } else if (dst.regClass() == v2) {
+ emit_vop2_instruction_logic64(ctx, instr, aco_opcode::v_or_b32, dst);
} else if (dst.regClass() == s1) {
emit_sop2_instruction(ctx, instr, aco_opcode::s_or_b32, dst, true);
} else if (dst.regClass() == s2) {
emit_sop2_instruction(ctx, instr, aco_opcode::s_or_b64, dst, true);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
emit_boolean_logic(ctx, instr, Builder::s_and, dst);
} else if (dst.regClass() == v1) {
emit_vop2_instruction(ctx, instr, aco_opcode::v_and_b32, dst, true);
+ } else if (dst.regClass() == v2) {
+ emit_vop2_instruction_logic64(ctx, instr, aco_opcode::v_and_b32, dst);
} else if (dst.regClass() == s1) {
emit_sop2_instruction(ctx, instr, aco_opcode::s_and_b32, dst, true);
} else if (dst.regClass() == s2) {
emit_sop2_instruction(ctx, instr, aco_opcode::s_and_b64, dst, true);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
emit_boolean_logic(ctx, instr, Builder::s_xor, dst);
} else if (dst.regClass() == v1) {
emit_vop2_instruction(ctx, instr, aco_opcode::v_xor_b32, dst, true);
+ } else if (dst.regClass() == v2) {
+ emit_vop2_instruction_logic64(ctx, instr, aco_opcode::v_xor_b32, dst);
} else if (dst.regClass() == s1) {
emit_sop2_instruction(ctx, instr, aco_opcode::s_xor_b32, dst, true);
} else if (dst.regClass() == s2) {
emit_sop2_instruction(ctx, instr, aco_opcode::s_xor_b64, dst, true);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == s1) {
emit_sop2_instruction(ctx, instr, aco_opcode::s_lshr_b32, dst, true);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == s2) {
emit_sop2_instruction(ctx, instr, aco_opcode::s_lshl_b64, dst, true);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == s2) {
emit_sop2_instruction(ctx, instr, aco_opcode::s_ashr_i64, dst, true);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (src.regClass() == s2) {
bld.sop1(aco_opcode::s_ff1_i32_b64, Definition(dst), src);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
Temp carry = bld.vsub32(Definition(msb), Operand(31u), Operand(msb_rev), true).def(1).getTemp();
bld.vop2_e64(aco_opcode::v_cndmask_b32, Definition(dst), msb, Operand((uint32_t)-1), carry);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == v1) {
bld.vop1(aco_opcode::v_bfrev_b32, Definition(dst), get_alu_src(ctx, instr->src[0]));
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
Temp dst1 = bld.vadd32(bld.def(v1), src01, src11, false, carry);
bld.pseudo(aco_opcode::p_create_vector, Definition(dst), dst0, dst1);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
bld.vop2_e64(aco_opcode::v_cndmask_b32, Definition(dst), tmp, Operand((uint32_t) -1), carry);
}
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
carry = bld.vop2_e64(aco_opcode::v_cndmask_b32, bld.def(v1), Operand(0u), Operand(1u), carry);
bld.pseudo(aco_opcode::p_create_vector, Definition(dst), carry, Operand(0u));
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
Temp upper = bld.vsub32(bld.def(v1), src01, src11, false, borrow);
bld.pseudo(aco_opcode::p_create_vector, Definition(dst), lower, upper);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
borrow = bld.vop2_e64(aco_opcode::v_cndmask_b32, bld.def(v1), Operand(0u), Operand(1u), borrow);
bld.pseudo(aco_opcode::p_create_vector, Definition(dst), borrow, Operand(0u));
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == s1) {
emit_sop2_instruction(ctx, instr, aco_opcode::s_mul_i32, dst, false);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
as_vgpr(ctx, get_alu_src(ctx, instr->src[1])));
bld.pseudo(aco_opcode::p_as_uniform, Definition(dst), tmp);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
as_vgpr(ctx, get_alu_src(ctx, instr->src[1])));
bld.pseudo(aco_opcode::p_as_uniform, Definition(dst), tmp);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == v2) {
bld.vop3(aco_opcode::v_mul_f64, Definition(dst), src0, src1);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == v2) {
bld.vop3(aco_opcode::v_add_f64, Definition(dst), src0, src1);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
VOP3A_instruction* sub = static_cast<VOP3A_instruction*>(add);
sub->neg[1] = true;
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
bld.vop3(aco_opcode::v_max_f64, Definition(dst), src0, src1);
}
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
bld.vop3(aco_opcode::v_min_f64, Definition(dst), src0, src1);
}
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == v1) {
emit_vop3a_instruction(ctx, instr, aco_opcode::v_max3_f32, dst, ctx->block->fp_mode.must_flush_denorms32);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == v1) {
emit_vop3a_instruction(ctx, instr, aco_opcode::v_min3_f32, dst, ctx->block->fp_mode.must_flush_denorms32);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == v1) {
emit_vop3a_instruction(ctx, instr, aco_opcode::v_med3_f32, dst, ctx->block->fp_mode.must_flush_denorms32);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
if (dst.size() == 1) {
emit_vop3a_instruction(ctx, instr, aco_opcode::v_max3_u32, dst);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
if (dst.size() == 1) {
emit_vop3a_instruction(ctx, instr, aco_opcode::v_min3_u32, dst);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
if (dst.size() == 1) {
emit_vop3a_instruction(ctx, instr, aco_opcode::v_med3_u32, dst);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
if (dst.size() == 1) {
emit_vop3a_instruction(ctx, instr, aco_opcode::v_max3_i32, dst);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
if (dst.size() == 1) {
emit_vop3a_instruction(ctx, instr, aco_opcode::v_min3_i32, dst);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
if (dst.size() == 1) {
emit_vop3a_instruction(ctx, instr, aco_opcode::v_med3_i32, dst);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
ma = bld.vop1(aco_opcode::v_rcp_f32, bld.def(v1), ma);
Temp sc = bld.vop3(aco_opcode::v_cubesc_f32, bld.def(v1), src[0], src[1], src[2]);
Temp tc = bld.vop3(aco_opcode::v_cubetc_f32, bld.def(v1), src[0], src[1], src[2]);
- sc = bld.vop2(aco_opcode::v_madak_f32, bld.def(v1), sc, ma, Operand(0x3f000000u/*0.5*/));
- tc = bld.vop2(aco_opcode::v_madak_f32, bld.def(v1), tc, ma, Operand(0x3f000000u/*0.5*/));
+ sc = bld.vop2(aco_opcode::v_add_f32, bld.def(v1),
+ bld.vop2(aco_opcode::v_mul_f32, bld.def(v1), sc, ma), Operand(0x3f000000u/*0.5*/));
+ tc = bld.vop2(aco_opcode::v_add_f32, bld.def(v1),
+ bld.vop2(aco_opcode::v_mul_f32, bld.def(v1), tc, ma), Operand(0x3f000000u/*0.5*/));
bld.pseudo(aco_opcode::p_create_vector, Definition(dst), sc, tc);
break;
}
} else if (dst.regClass() == v1) {
emit_rsq(ctx, bld, Definition(dst), src);
} else if (dst.regClass() == v2) {
+ /* Lowered at NIR level for precision reasons. */
emit_vop1_instruction(ctx, instr, aco_opcode::v_rsq_f64, dst);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
case nir_op_fneg: {
Temp src = get_alu_src(ctx, instr->src[0]);
if (dst.regClass() == v2b) {
+ if (ctx->block->fp_mode.must_flush_denorms16_64)
+ src = bld.vop2(aco_opcode::v_mul_f16, bld.def(v2b), Operand((uint16_t)0x3C00), as_vgpr(ctx, src));
bld.vop2(aco_opcode::v_xor_b32, Definition(dst), Operand(0x8000u), as_vgpr(ctx, src));
} else if (dst.regClass() == v1) {
if (ctx->block->fp_mode.must_flush_denorms32)
upper = bld.vop2(aco_opcode::v_xor_b32, bld.def(v1), Operand(0x80000000u), upper);
bld.pseudo(aco_opcode::p_create_vector, Definition(dst), lower, upper);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
case nir_op_fabs: {
Temp src = get_alu_src(ctx, instr->src[0]);
if (dst.regClass() == v2b) {
+ if (ctx->block->fp_mode.must_flush_denorms16_64)
+ src = bld.vop2(aco_opcode::v_mul_f16, bld.def(v2b), Operand((uint16_t)0x3C00), as_vgpr(ctx, src));
bld.vop2(aco_opcode::v_and_b32, Definition(dst), Operand(0x7FFFu), as_vgpr(ctx, src));
} else if (dst.regClass() == v1) {
if (ctx->block->fp_mode.must_flush_denorms32)
upper = bld.vop2(aco_opcode::v_and_b32, bld.def(v1), Operand(0x7FFFFFFFu), upper);
bld.pseudo(aco_opcode::p_create_vector, Definition(dst), lower, upper);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
case nir_op_fsat: {
Temp src = get_alu_src(ctx, instr->src[0]);
if (dst.regClass() == v2b) {
- bld.vop3(aco_opcode::v_med3_f16, Definition(dst), Operand(0u), Operand(0x3f800000u), src);
+ bld.vop3(aco_opcode::v_med3_f16, Definition(dst), Operand((uint16_t)0u), Operand((uint16_t)0x3c00), src);
} else if (dst.regClass() == v1) {
bld.vop3(aco_opcode::v_med3_f32, Definition(dst), Operand(0u), Operand(0x3f800000u), src);
/* apparently, it is not necessary to flush denorms if this instruction is used with these operands */
VOP3A_instruction* vop3 = static_cast<VOP3A_instruction*>(add);
vop3->clamp = true;
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == v1) {
emit_log2(ctx, bld, Definition(dst), src);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == v1) {
emit_rcp(ctx, bld, Definition(dst), src);
} else if (dst.regClass() == v2) {
+ /* Lowered at NIR level for precision reasons. */
emit_vop1_instruction(ctx, instr, aco_opcode::v_rcp_f64, dst);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == v1) {
emit_vop1_instruction(ctx, instr, aco_opcode::v_exp_f32, dst);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == v1) {
emit_sqrt(ctx, bld, Definition(dst), src);
} else if (dst.regClass() == v2) {
+ /* Lowered at NIR level for precision reasons. */
emit_vop1_instruction(ctx, instr, aco_opcode::v_sqrt_f64, dst);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == v2) {
emit_vop1_instruction(ctx, instr, aco_opcode::v_fract_f64, dst);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == v2) {
emit_floor_f64(ctx, bld, Definition(dst), src);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
bld.vop3(aco_opcode::v_add_f64, Definition(dst), trunc, add);
}
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == v2) {
emit_trunc_f64(ctx, bld, Definition(dst), src);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
bld.pseudo(aco_opcode::p_create_vector, Definition(dst), dst0, dst1);
}
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
case nir_op_fcos: {
Temp src = as_vgpr(ctx, get_alu_src(ctx, instr->src[0]));
aco_ptr<Instruction> norm;
- Temp half_pi = bld.copy(bld.def(s1), Operand(0x3e22f983u));
if (dst.regClass() == v2b) {
+ Temp half_pi = bld.copy(bld.def(s1), Operand(0x3118u));
Temp tmp = bld.vop2(aco_opcode::v_mul_f16, bld.def(v1), half_pi, src);
aco_opcode opcode = instr->op == nir_op_fsin ? aco_opcode::v_sin_f16 : aco_opcode::v_cos_f16;
bld.vop1(opcode, Definition(dst), tmp);
} else if (dst.regClass() == v1) {
+ Temp half_pi = bld.copy(bld.def(s1), Operand(0x3e22f983u));
Temp tmp = bld.vop2(aco_opcode::v_mul_f32, bld.def(v1), half_pi, src);
/* before GFX9, v_sin_f32 and v_cos_f32 had a valid input domain of [-256, +256] */
aco_opcode opcode = instr->op == nir_op_fsin ? aco_opcode::v_sin_f32 : aco_opcode::v_cos_f32;
bld.vop1(opcode, Definition(dst), tmp);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == v2) {
bld.vop3(aco_opcode::v_ldexp_f64, Definition(dst), as_vgpr(ctx, src0), src1);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == v2) {
bld.vop1(aco_opcode::v_frexp_mant_f64, Definition(dst), src);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (instr->src[0].src.ssa->bit_size == 64) {
bld.vop1(aco_opcode::v_frexp_exp_i32_f64, Definition(dst), src);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
bld.pseudo(aco_opcode::p_create_vector, Definition(dst), Operand(0u), upper);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
Temp src = get_alu_src(ctx, instr->src[0]);
if (instr->src[0].src.ssa->bit_size == 64)
src = bld.vop1(aco_opcode::v_cvt_f32_f64, bld.def(v1), src);
- bld.vop1(aco_opcode::v_cvt_f16_f32, Definition(dst), src);
+ if (instr->op == nir_op_f2f16_rtne && ctx->block->fp_mode.round16_64 != fp_round_ne)
+ /* We emit s_round_mode/s_setreg_imm32 in lower_to_hw_instr to
+ * keep value numbering and the scheduler simpler.
+ */
+ bld.vop1(aco_opcode::p_cvt_f16_f32_rtne, Definition(dst), src);
+ else
+ bld.vop1(aco_opcode::v_cvt_f16_f32, Definition(dst), src);
break;
}
case nir_op_f2f16_rtz: {
} else if (instr->src[0].src.ssa->bit_size == 64) {
emit_vop1_instruction(ctx, instr, aco_opcode::v_cvt_f32_f64, dst);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
bld.vop3(aco_opcode::v_add_f64, Definition(dst), lower, upper);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
upper = bld.vop3(aco_opcode::v_ldexp_f64, bld.def(v2), upper, Operand(32u));
bld.vop3(aco_opcode::v_add_f64, Definition(dst), lower, upper);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (instr->src[0].src.ssa->bit_size == 64) {
emit_vop1_instruction(ctx, instr, aco_opcode::v_cvt_i32_f64, dst);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (instr->src[0].src.ssa->bit_size == 64) {
emit_vop1_instruction(ctx, instr, aco_opcode::v_cvt_u32_f64, dst);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
bld.pseudo(aco_opcode::p_create_vector, Definition(dst), lower, upper);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
bld.pseudo(aco_opcode::p_create_vector, Definition(dst), lower, upper);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
case nir_op_i2i16:
case nir_op_i2i32:
case nir_op_i2i64: {
- convert_int(ctx, bld, get_alu_src(ctx, instr->src[0]),
- instr->src[0].src.ssa->bit_size, instr->dest.dest.ssa.bit_size, true, dst);
+ if (dst.type() == RegType::sgpr && instr->src[0].src.ssa->bit_size < 32) {
+ /* no need to do the extract in get_alu_src() */
+ sgpr_extract_mode mode = instr->dest.dest.ssa.bit_size > instr->src[0].src.ssa->bit_size ?
+ sgpr_extract_sext : sgpr_extract_undef;
+ extract_8_16_bit_sgpr_element(ctx, dst, &instr->src[0], mode);
+ } else {
+ convert_int(ctx, bld, get_alu_src(ctx, instr->src[0]),
+ instr->src[0].src.ssa->bit_size, instr->dest.dest.ssa.bit_size, true, dst);
+ }
break;
}
case nir_op_u2u8:
case nir_op_u2u16:
case nir_op_u2u32:
case nir_op_u2u64: {
- convert_int(ctx, bld, get_alu_src(ctx, instr->src[0]),
- instr->src[0].src.ssa->bit_size, instr->dest.dest.ssa.bit_size, false, dst);
+ if (dst.type() == RegType::sgpr && instr->src[0].src.ssa->bit_size < 32) {
+ /* no need to do the extract in get_alu_src() */
+ sgpr_extract_mode mode = instr->dest.dest.ssa.bit_size > instr->src[0].src.ssa->bit_size ?
+ sgpr_extract_zext : sgpr_extract_undef;
+ extract_8_16_bit_sgpr_element(ctx, dst, &instr->src[0], mode);
+ } else {
+ convert_int(ctx, bld, get_alu_src(ctx, instr->src[0]),
+ instr->src[0].src.ssa->bit_size, instr->dest.dest.ssa.bit_size, false, dst);
+ }
break;
}
case nir_op_b2b32:
- case nir_op_b2i32: {
+ case nir_op_b2i8:
+ case nir_op_b2i16:
+ case nir_op_b2i32:
+ case nir_op_b2i64: {
Temp src = get_alu_src(ctx, instr->src[0]);
assert(src.regClass() == bld.lm);
- if (dst.regClass() == s1) {
+ Temp tmp = dst.bytes() == 8 ? bld.tmp(RegClass::get(dst.type(), 4)) : dst;
+ if (tmp.regClass() == s1) {
// TODO: in a post-RA optimization, we can check if src is in VCC, and directly use VCCNZ
- bool_to_scalar_condition(ctx, src, dst);
- } else if (dst.regClass() == v1) {
- bld.vop2_e64(aco_opcode::v_cndmask_b32, Definition(dst), Operand(0u), Operand(1u), src);
+ bool_to_scalar_condition(ctx, src, tmp);
+ } else if (tmp.type() == RegType::vgpr) {
+ bld.vop2_e64(aco_opcode::v_cndmask_b32, Definition(tmp), Operand(0u), Operand(1u), src);
} else {
unreachable("Invalid register class for b2i32");
}
+
+ if (tmp != dst)
+ bld.pseudo(aco_opcode::p_create_vector, Definition(dst), tmp, Operand(0u));
break;
}
case nir_op_b2b1:
Temp src0 = bld.tmp(v1);
Temp src1 = bld.tmp(v1);
bld.pseudo(aco_opcode::p_split_vector, Definition(src0), Definition(src1), src);
- if (!ctx->block->fp_mode.care_about_round32 || ctx->block->fp_mode.round32 == fp_round_tz)
+ if (0 && (!ctx->block->fp_mode.care_about_round32 || ctx->block->fp_mode.round32 == fp_round_tz)) {
bld.vop3(aco_opcode::v_cvt_pkrtz_f16_f32, Definition(dst), src0, src1);
- else
- bld.vop3(aco_opcode::v_cvt_pk_u16_u32, Definition(dst),
- bld.vop1(aco_opcode::v_cvt_f32_f16, bld.def(v1), src0),
- bld.vop1(aco_opcode::v_cvt_f32_f16, bld.def(v1), src1));
+ } else {
+ src0 = bld.vop1(aco_opcode::v_cvt_f16_f32, bld.def(v1), src0);
+ src1 = bld.vop1(aco_opcode::v_cvt_f16_f32, bld.def(v1), src1);
+ if (ctx->program->chip_class >= GFX10) {
+ /* the high bits of v_cvt_f16_f32 isn't zero'd on GFX10 */
+ bld.vop3(aco_opcode::v_pack_b32_f16, Definition(dst), src0, src1);
+ } else {
+ bld.vop3(aco_opcode::v_cvt_pk_u16_u32, Definition(dst), src0, src1);
+ }
+ }
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
case nir_op_unpack_half_2x16_split_x: {
if (dst.regClass() == v1) {
- Builder bld(ctx->program, ctx->block);
bld.vop1(aco_opcode::v_cvt_f32_f16, Definition(dst), get_alu_src(ctx, instr->src[0]));
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
case nir_op_unpack_half_2x16_split_y: {
if (dst.regClass() == v1) {
- Builder bld(ctx->program, ctx->block);
/* TODO: use SDWA here */
bld.vop1(aco_opcode::v_cvt_f32_f16, Definition(dst),
bld.vop2(aco_opcode::v_lshrrev_b32, bld.def(v1), Operand(16u), as_vgpr(ctx, get_alu_src(ctx, instr->src[0]))));
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (dst.regClass() == v1) {
bld.vop3(aco_opcode::v_bfm_b32, Definition(dst), bits, offset);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
bld.vop3(aco_opcode::v_bfi_b32, Definition(dst), bitmask, insert, base);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
} else if (src.regClass() == s2) {
bld.sop1(aco_opcode::s_bcnt1_i32_b64, Definition(dst), bld.def(s1, scc), src);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
emit_comparison(ctx, instr, dst, aco_opcode::v_cmp_eq_f16, aco_opcode::v_cmp_eq_f32, aco_opcode::v_cmp_eq_f64);
break;
}
- case nir_op_fne: {
+ case nir_op_fneu: {
emit_comparison(ctx, instr, dst, aco_opcode::v_cmp_neq_f16, aco_opcode::v_cmp_neq_f32, aco_opcode::v_cmp_neq_f64);
break;
}
break;
}
default:
- fprintf(stderr, "Unknown NIR ALU instr: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unknown NIR ALU instr");
}
}
bool glc = false;
unsigned swizzle_component_size = 0;
- barrier_interaction barrier = barrier_none;
- bool can_reorder = true;
+ memory_sync_info sync;
Temp soffset = Temp(0, s1);
};
int byte_align = align_mul % 4 == 0 ? align_offset % 4 : -1;
if (byte_align) {
- if ((bytes_needed > 2 || !supports_8bit_16bit_loads) && byte_align_loads) {
+ if ((bytes_needed > 2 ||
+ (bytes_needed == 2 && (align_mul % 2 || align_offset % 2)) ||
+ !supports_8bit_16bit_loads) && byte_align_loads) {
if (info->component_stride) {
assert(supports_8bit_16bit_loads && "unimplemented");
bytes_needed = 2;
/* align offset down if needed */
Operand aligned_offset = offset;
+ unsigned align = align_offset ? 1 << (ffs(align_offset) - 1) : align_mul;
if (need_to_align_offset) {
+ align = 4;
Temp offset_tmp = offset.isTemp() ? offset.getTemp() : Temp();
if (offset.isConstant()) {
aligned_offset = Operand(offset.constantValue() & 0xfffffffcu);
Temp aligned_offset_tmp = aligned_offset.isTemp() ? aligned_offset.getTemp() :
bld.copy(bld.def(s1), aligned_offset);
- unsigned align = align_offset ? 1 << (ffs(align_offset) - 1) : align_mul;
Temp val = callback(bld, info, aligned_offset_tmp, bytes_needed, align,
reduced_const_offset, byte_align ? Temp() : info->dst);
if (num_tmps > 1) {
aco_ptr<Pseudo_instruction> vec{create_instruction<Pseudo_instruction>(
aco_opcode::p_create_vector, Format::PSEUDO, num_tmps, 1)};
- for (unsigned i = 0; i < num_vals; i++)
+ for (unsigned i = 0; i < num_tmps; i++)
vec->operands[i] = Operand(tmp[i]);
tmp[0] = bld.tmp(RegClass::get(reg_type, tmp_size));
vec->definitions[0] = Definition(tmp[0]);
RegClass rc = RegClass(RegType::vgpr, DIV_ROUND_UP(size, 4));
Temp val = rc == info->dst.regClass() && dst_hint.id() ? dst_hint : bld.tmp(rc);
+ Instruction *instr;
if (read2)
- bld.ds(op, Definition(val), offset, m, const_offset, const_offset + 1);
+ instr = bld.ds(op, Definition(val), offset, m, const_offset, const_offset + 1);
else
- bld.ds(op, Definition(val), offset, m, const_offset);
+ instr = bld.ds(op, Definition(val), offset, m, const_offset);
+ static_cast<DS_instruction *>(instr)->sync = info->sync;
if (size < 4)
val = bld.pseudo(aco_opcode::p_extract_vector, bld.def(RegClass::get(RegType::vgpr, size)), val, Operand(0u));
load->definitions[0] = Definition(val);
load->glc = info->glc;
load->dlc = info->glc && bld.program->chip_class >= GFX10;
- load->barrier = info->barrier;
- load->can_reorder = false; // FIXME: currently, it doesn't seem beneficial due to how our scheduler works
+ load->sync = info->sync;
bld.insert(std::move(load));
return val;
}
unsigned bytes_size = 0;
aco_opcode op;
- if (bytes_needed == 1) {
+ if (bytes_needed == 1 || align_ % 2) {
bytes_size = 1;
op = aco_opcode::buffer_load_ubyte;
- } else if (bytes_needed == 2) {
+ } else if (bytes_needed == 2 || align_ % 4) {
bytes_size = 2;
op = aco_opcode::buffer_load_ushort;
} else if (bytes_needed <= 4) {
mubuf->offen = (offset.type() == RegType::vgpr);
mubuf->glc = info->glc;
mubuf->dlc = info->glc && bld.program->chip_class >= GFX10;
- mubuf->barrier = info->barrier;
- mubuf->can_reorder = info->can_reorder;
+ mubuf->sync = info->sync;
mubuf->offset = const_offset;
- RegClass rc = RegClass::get(RegType::vgpr, align(bytes_size, 4));
+ mubuf->swizzled = info->swizzle_component_size != 0;
+ RegClass rc = RegClass::get(RegType::vgpr, bytes_size);
Temp val = dst_hint.id() && rc == dst_hint.regClass() ? dst_hint : bld.tmp(rc);
mubuf->definitions[0] = Definition(val);
bld.insert(std::move(mubuf));
}
static auto emit_mubuf_load = emit_load<mubuf_load_callback, true, true, 4096>;
+static auto emit_scratch_load = emit_load<mubuf_load_callback, false, true, 4096>;
Temp get_gfx6_global_rsrc(Builder& bld, Temp addr)
{
mubuf->offset = 0;
mubuf->addr64 = offset.type() == RegType::vgpr;
mubuf->disable_wqm = false;
- mubuf->barrier = info->barrier;
+ mubuf->sync = info->sync;
mubuf->definitions[0] = Definition(val);
bld.insert(std::move(mubuf));
} else {
flat->operands[1] = Operand(s1);
flat->glc = info->glc;
flat->dlc = info->glc && bld.program->chip_class >= GFX10;
- flat->barrier = info->barrier;
+ flat->sync = info->sync;
flat->offset = 0u;
flat->definitions[0] = Definition(val);
bld.insert(std::move(flat));
LoadEmitInfo info = {Operand(as_vgpr(ctx, address)), dst, num_components, elem_size_bytes};
info.align_mul = align;
info.align_offset = 0;
- info.barrier = barrier_shared;
- info.can_reorder = false;
+ info.sync = memory_sync_info(storage_shared);
info.const_offset = base_offset;
emit_lds_load(ctx, bld, &info);
/* use allocated_vec if possible */
auto it = ctx->allocated_vec.find(src.id());
if (it != ctx->allocated_vec.end()) {
- unsigned total_size = 0;
- for (unsigned i = 0; it->second[i].bytes() && (i < NIR_MAX_VEC_COMPONENTS); i++)
- total_size += it->second[i].bytes();
- if (total_size != src.bytes())
+ if (!it->second[0].id())
goto split;
-
unsigned elem_size = it->second[0].bytes();
+ assert(src.bytes() % elem_size == 0);
+
+ for (unsigned i = 0; i < src.bytes() / elem_size; i++) {
+ if (!it->second[i].id())
+ goto split;
+ }
for (unsigned i = 0; i < count; i++) {
if (offsets[i] % elem_size || dst[i].bytes() % elem_size)
}
}
+ split:
+
if (dst_type == RegType::sgpr)
src = bld.as_uniform(src);
- split:
/* just split it */
aco_ptr<Instruction> split{create_instruction<Pseudo_instruction>(aco_opcode::p_split_vector, Format::PSEUDO, 1, count)};
split->operands[0] = Operand(src);
}
assert(inline_offset <= max_offset); /* offsets[i] shouldn't be large enough for this to happen */
+ Instruction *instr;
if (write2) {
Temp second_data = write_datas[second];
inline_offset /= data.bytes();
- bld.ds(op, address_offset, data, second_data, m, inline_offset, inline_offset + write2_off);
+ instr = bld.ds(op, address_offset, data, second_data, m, inline_offset, inline_offset + write2_off);
} else {
- bld.ds(op, address_offset, data, m, inline_offset);
+ instr = bld.ds(op, address_offset, data, m, inline_offset);
}
+ static_cast<DS_instruction *>(instr)->sync =
+ memory_sync_info(storage_shared);
}
}
/* dword or larger stores have to be dword-aligned */
unsigned align_mul = instr ? nir_intrinsic_align_mul(instr) : 4;
- unsigned align_offset = instr ? nir_intrinsic_align_mul(instr) : 0;
- bool dword_aligned = (align_offset + offset) % 4 == 0 && align_mul % 4 == 0;
- if (bytes >= 4 && !dword_aligned)
- bytes = MIN2(bytes, 2);
+ unsigned align_offset = (instr ? nir_intrinsic_align_offset(instr) : 0) + offset;
+ bool dword_aligned = align_offset % 4 == 0 && align_mul % 4 == 0;
+ if (!dword_aligned)
+ bytes = MIN2(bytes, (align_offset % 2 == 0 && align_mul % 2 == 0) ? 2 : 1);
advance_write_mask(&todo, offset, bytes);
write_count_with_skips++;
}
void emit_single_mubuf_store(isel_context *ctx, Temp descriptor, Temp voffset, Temp soffset, Temp vdata,
- unsigned const_offset = 0u, bool allow_reorder = true, bool slc = false)
+ unsigned const_offset = 0u, memory_sync_info sync=memory_sync_info(),
+ bool slc = false, bool swizzled = false)
{
assert(vdata.id());
assert(vdata.size() != 3 || ctx->program->chip_class != GFX6);
Operand voffset_op = voffset.id() ? Operand(as_vgpr(ctx, voffset)) : Operand(v1);
Operand soffset_op = soffset.id() ? Operand(soffset) : Operand(0u);
Builder::Result r = bld.mubuf(op, Operand(descriptor), voffset_op, soffset_op, Operand(vdata), const_offset,
- /* offen */ !voffset_op.isUndefined(), /* idxen*/ false, /* addr64 */ false,
- /* disable_wqm */ false, /* glc */ true, /* dlc*/ false, /* slc */ slc);
+ /* offen */ !voffset_op.isUndefined(), /* swizzled */ swizzled,
+ /* idxen*/ false, /* addr64 */ false, /* disable_wqm */ false, /* glc */ true,
+ /* dlc*/ false, /* slc */ slc);
- static_cast<MUBUF_instruction *>(r.instr)->can_reorder = allow_reorder;
+ static_cast<MUBUF_instruction *>(r.instr)->sync = sync;
}
void store_vmem_mubuf(isel_context *ctx, Temp src, Temp descriptor, Temp voffset, Temp soffset,
unsigned base_const_offset, unsigned elem_size_bytes, unsigned write_mask,
- bool allow_combining = true, bool reorder = true, bool slc = false)
+ bool allow_combining = true, memory_sync_info sync=memory_sync_info(), bool slc = false)
{
Builder bld(ctx->program, ctx->block);
assert(elem_size_bytes == 2 || elem_size_bytes == 4 || elem_size_bytes == 8);
for (unsigned i = 0; i < write_count; i++) {
unsigned const_offset = offsets[i] + base_const_offset;
- emit_single_mubuf_store(ctx, descriptor, voffset, soffset, write_datas[i], const_offset, reorder, slc);
+ emit_single_mubuf_store(ctx, descriptor, voffset, soffset, write_datas[i], const_offset, sync, slc, !allow_combining);
}
}
/* GFX6-8: ES stage is not merged into GS, data is passed from ES to GS in VMEM. */
Temp esgs_ring = bld.smem(aco_opcode::s_load_dwordx4, bld.def(s4), ctx->program->private_segment_buffer, Operand(RING_ESGS_VS * 16u));
Temp es2gs_offset = get_arg(ctx, ctx->args->es2gs_offset);
- store_vmem_mubuf(ctx, src, esgs_ring, offs.first, es2gs_offset, offs.second, elem_size_bytes, write_mask, false, true, true);
+ store_vmem_mubuf(ctx, src, esgs_ring, offs.first, es2gs_offset, offs.second, elem_size_bytes, write_mask, false, memory_sync_info(), true);
} else {
Temp lds_base;
Temp hs_ring_tess_offchip = bld.smem(aco_opcode::s_load_dwordx4, bld.def(s4), ctx->program->private_segment_buffer, Operand(RING_HS_TESS_OFFCHIP * 16u));
Temp oc_lds = get_arg(ctx, ctx->args->oc_lds);
- store_vmem_mubuf(ctx, store_val, hs_ring_tess_offchip, vmem_offs.first, oc_lds, vmem_offs.second, elem_size_bytes, write_mask, true, false);
+ store_vmem_mubuf(ctx, store_val, hs_ring_tess_offchip, vmem_offs.first, oc_lds, vmem_offs.second, elem_size_bytes, write_mask, true, memory_sync_info(storage_vmem_output));
}
if (write_to_lds) {
ctx->shader->info.stage == MESA_SHADER_GEOMETRY) {
bool stored_to_temps = store_output_to_temps(ctx, instr);
if (!stored_to_temps) {
- fprintf(stderr, "Unimplemented output offset instruction:\n");
- nir_print_instr(instr->src[1].ssa->parent_instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(instr->src[1].ssa->parent_instr, "Unimplemented output offset instruction");
abort();
}
} else if (ctx->stage == vertex_es ||
nir_instr *off_instr = instr->src[0].ssa->parent_instr;
if (off_instr->type != nir_instr_type_load_const) {
- fprintf(stderr, "Unimplemented nir_intrinsic_load_input offset\n");
- nir_print_instr(off_instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(off_instr, "Unimplemented nir_intrinsic_load_input offset");
}
uint32_t offset = nir_instr_as_load_const(off_instr)->value[0].u32;
}
if (use_mubuf) {
- Instruction *mubuf = bld.mubuf(opcode,
- Definition(fetch_dst), list, fetch_index, soffset,
- fetch_offset, false, true).instr;
- static_cast<MUBUF_instruction*>(mubuf)->can_reorder = true;
+ bld.mubuf(opcode,
+ Definition(fetch_dst), list, fetch_index, soffset,
+ fetch_offset, false, false, true).instr;
} else {
- Instruction *mtbuf = bld.mtbuf(opcode,
- Definition(fetch_dst), list, fetch_index, soffset,
- fetch_dfmt, nfmt, fetch_offset, false, true).instr;
- static_cast<MTBUF_instruction*>(mtbuf)->can_reorder = true;
+ bld.mtbuf(opcode,
+ Definition(fetch_dst), list, fetch_index, soffset,
+ fetch_dfmt, nfmt, fetch_offset, false, true).instr;
}
emit_split_vector(ctx, fetch_dst, fetch_dst.size());
nir_instr *off_instr = instr->src[offset_idx].ssa->parent_instr;
if (off_instr->type != nir_instr_type_load_const ||
nir_instr_as_load_const(off_instr)->value[0].u32 != 0) {
- fprintf(stderr, "Unimplemented nir_intrinsic_load_input offset\n");
- nir_print_instr(off_instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(off_instr, "Unimplemented nir_intrinsic_load_input offset");
}
Temp prim_mask = get_arg(ctx, ctx->args->ac.prim_mask);
void load_buffer(isel_context *ctx, unsigned num_components, unsigned component_size,
Temp dst, Temp rsrc, Temp offset, unsigned align_mul, unsigned align_offset,
- bool glc=false, bool readonly=true)
+ bool glc=false, bool allow_smem=true, memory_sync_info sync=memory_sync_info())
{
Builder bld(ctx->program, ctx->block);
- bool use_smem = dst.type() != RegType::vgpr && ((ctx->options->chip_class >= GFX8 && component_size >= 4) || readonly);
+ bool use_smem = dst.type() != RegType::vgpr && (!glc || ctx->options->chip_class >= GFX8) && allow_smem;
if (use_smem)
offset = bld.as_uniform(offset);
LoadEmitInfo info = {Operand(offset), dst, num_components, component_size, rsrc};
info.glc = glc;
- info.barrier = readonly ? barrier_none : barrier_buffer;
- info.can_reorder = readonly;
+ info.sync = sync;
info.align_mul = align_mul;
info.align_offset = align_offset;
if (use_smem)
Temp index = bld.as_uniform(get_ssa_temp(ctx, instr->src[0].ssa));
if (offset != 0) // TODO check if index != 0 as well
- index = bld.sop2(aco_opcode::s_add_i32, bld.def(s1), bld.def(s1, scc), Operand(offset), index);
+ index = bld.nuw().sop2(aco_opcode::s_add_i32, bld.def(s1), bld.def(s1, scc), Operand(offset), index);
Temp ptr = convert_pointer_to_64_bit(ctx, get_arg(ctx, ctx->args->ac.push_constants));
Temp vec = dst;
bool trim = false;
unreachable("unimplemented or forbidden load_push_constant.");
}
- bld.smem(op, Definition(vec), ptr, index);
+ static_cast<SMEM_instruction*>(bld.smem(op, Definition(vec), ptr, index).instr)->prevent_overflow = true;
if (!aligned) {
Operand byte_offset = index_cv ? Operand((offset + index_cv->u32) % 4) : Operand(index);
Temp offset = get_ssa_temp(ctx, instr->src[0].ssa);
if (base && offset.type() == RegType::sgpr)
- offset = bld.sop2(aco_opcode::s_add_u32, bld.def(s1), bld.def(s1, scc), offset, Operand(base));
+ offset = bld.nuw().sop2(aco_opcode::s_add_u32, bld.def(s1), bld.def(s1, scc), offset, Operand(base));
else if (base && offset.type() == RegType::vgpr)
offset = bld.vadd32(bld.def(v1), Operand(base), offset);
load->unrm = true;
load->da = da;
load->dim = dim;
- load->can_reorder = true; /* fmask images shouldn't be modified */
ctx->block->instructions.emplace_back(std::move(load));
Operand sample_index4;
}
+memory_sync_info get_memory_sync_info(nir_intrinsic_instr *instr, storage_class storage, unsigned semantics)
+{
+ /* atomicrmw might not have NIR_INTRINSIC_ACCESS and there's nothing interesting there anyway */
+ if (semantics & semantic_atomicrmw)
+ return memory_sync_info(storage, semantics);
+
+ unsigned access = nir_intrinsic_access(instr);
+
+ if (access & ACCESS_VOLATILE)
+ semantics |= semantic_volatile;
+ if (access & ACCESS_CAN_REORDER)
+ semantics |= semantic_can_reorder | semantic_private;
+
+ return memory_sync_info(storage, semantics);
+}
+
void visit_image_load(isel_context *ctx, nir_intrinsic_instr *instr)
{
Builder bld(ctx->program, ctx->block);
bool is_array = glsl_sampler_type_is_array(type);
Temp dst = get_ssa_temp(ctx, &instr->dest.ssa);
+ memory_sync_info sync = get_memory_sync_info(instr, storage_image, 0);
+ unsigned access = var->data.access | nir_intrinsic_access(instr);
+
if (dim == GLSL_SAMPLER_DIM_BUF) {
unsigned mask = nir_ssa_def_components_read(&instr->dest.ssa);
unsigned num_channels = util_last_bit(mask);
tmp = {ctx->program->allocateId(), RegClass(RegType::vgpr, num_channels)};
load->definitions[0] = Definition(tmp);
load->idxen = true;
- load->glc = var->data.access & (ACCESS_VOLATILE | ACCESS_COHERENT);
+ load->glc = access & (ACCESS_VOLATILE | ACCESS_COHERENT);
load->dlc = load->glc && ctx->options->chip_class >= GFX10;
- load->barrier = barrier_image;
+ load->sync = sync;
ctx->block->instructions.emplace_back(std::move(load));
expand_vector(ctx, tmp, dst, instr->dest.ssa.num_components, (1 << num_channels) - 1);
load->operands[1] = Operand(s4); /* no sampler */
load->operands[2] = Operand(coords);
load->definitions[0] = Definition(tmp);
- load->glc = var->data.access & (ACCESS_VOLATILE | ACCESS_COHERENT) ? 1 : 0;
+ load->glc = access & (ACCESS_VOLATILE | ACCESS_COHERENT) ? 1 : 0;
load->dlc = load->glc && ctx->options->chip_class >= GFX10;
load->dim = ac_get_image_dim(ctx->options->chip_class, dim, is_array);
load->dmask = dmask;
load->unrm = true;
load->da = should_declare_array(ctx, dim, glsl_sampler_type_is_array(type));
- load->barrier = barrier_image;
+ load->sync = sync;
ctx->block->instructions.emplace_back(std::move(load));
expand_vector(ctx, tmp, dst, instr->dest.ssa.num_components, dmask);
bool is_array = glsl_sampler_type_is_array(type);
Temp data = as_vgpr(ctx, get_ssa_temp(ctx, instr->src[3].ssa));
- bool glc = ctx->options->chip_class == GFX6 || var->data.access & (ACCESS_VOLATILE | ACCESS_COHERENT | ACCESS_NON_READABLE) ? 1 : 0;
+ memory_sync_info sync = get_memory_sync_info(instr, storage_image, 0);
+ unsigned access = var->data.access | nir_intrinsic_access(instr);
+ bool glc = ctx->options->chip_class == GFX6 || access & (ACCESS_VOLATILE | ACCESS_COHERENT | ACCESS_NON_READABLE) ? 1 : 0;
if (dim == GLSL_SAMPLER_DIM_BUF) {
Temp rsrc = get_sampler_desc(ctx, nir_instr_as_deref(instr->src[0].ssa->parent_instr), ACO_DESC_BUFFER, nullptr, true, true);
store->glc = glc;
store->dlc = false;
store->disable_wqm = true;
- store->barrier = barrier_image;
+ store->sync = sync;
ctx->program->needs_exact = true;
ctx->block->instructions.emplace_back(std::move(store));
return;
store->unrm = true;
store->da = should_declare_array(ctx, dim, glsl_sampler_type_is_array(type));
store->disable_wqm = true;
- store->barrier = barrier_image;
+ store->sync = sync;
ctx->program->needs_exact = true;
ctx->block->instructions.emplace_back(std::move(store));
return;
}
Temp dst = get_ssa_temp(ctx, &instr->dest.ssa);
+ memory_sync_info sync = get_memory_sync_info(instr, storage_image, semantic_atomicrmw);
if (dim == GLSL_SAMPLER_DIM_BUF) {
Temp vindex = emit_extract_vector(ctx, get_ssa_temp(ctx, instr->src[1].ssa), 0, v1);
mubuf->glc = return_previous;
mubuf->dlc = false; /* Not needed for atomics */
mubuf->disable_wqm = true;
- mubuf->barrier = barrier_image;
+ mubuf->sync = sync;
ctx->program->needs_exact = true;
ctx->block->instructions.emplace_back(std::move(mubuf));
return;
mimg->unrm = true;
mimg->da = should_declare_array(ctx, dim, glsl_sampler_type_is_array(type));
mimg->disable_wqm = true;
- mimg->barrier = barrier_image;
+ mimg->sync = sync;
ctx->program->needs_exact = true;
ctx->block->instructions.emplace_back(std::move(mimg));
return;
}
/* LOD */
+ assert(nir_src_as_uint(instr->src[1]) == 0);
Temp lod = bld.vop1(aco_opcode::v_mov_b32, bld.def(v1), Operand(0u));
/* Resource */
mimg->dim = ac_get_image_dim(ctx->options->chip_class, dim, is_array);
mimg->dmask = (1 << instr->dest.ssa.num_components) - 1;
mimg->da = glsl_sampler_type_is_array(type);
- mimg->can_reorder = true;
Definition& def = mimg->definitions[0];
ctx->block->instructions.emplace_back(std::move(mimg));
Temp rsrc = convert_pointer_to_64_bit(ctx, get_ssa_temp(ctx, instr->src[0].ssa));
rsrc = bld.smem(aco_opcode::s_load_dwordx4, bld.def(s4), rsrc, Operand(0u));
- bool glc = nir_intrinsic_access(instr) & (ACCESS_VOLATILE | ACCESS_COHERENT);
+ unsigned access = nir_intrinsic_access(instr);
+ bool glc = access & (ACCESS_VOLATILE | ACCESS_COHERENT);
unsigned size = instr->dest.ssa.bit_size / 8;
+
+ uint32_t flags = get_all_buffer_resource_flags(ctx, instr->src[0].ssa, access);
+ /* GLC bypasses VMEM/SMEM caches, so GLC SMEM loads/stores are coherent with GLC VMEM loads/stores
+ * TODO: this optimization is disabled for now because we still need to ensure correct ordering
+ */
+ bool allow_smem = !(flags & (0 && glc ? has_nonglc_vmem_store : has_vmem_store));
+ allow_smem |= ((access & ACCESS_RESTRICT) && (access & ACCESS_NON_WRITEABLE)) || (access & ACCESS_CAN_REORDER);
+
load_buffer(ctx, num_components, size, dst, rsrc, get_ssa_temp(ctx, instr->src[1].ssa),
- nir_intrinsic_align_mul(instr), nir_intrinsic_align_offset(instr), glc, false);
+ nir_intrinsic_align_mul(instr), nir_intrinsic_align_offset(instr), glc, allow_smem,
+ get_memory_sync_info(instr, storage_buffer, 0));
}
void visit_store_ssbo(isel_context *ctx, nir_intrinsic_instr *instr)
Temp rsrc = convert_pointer_to_64_bit(ctx, get_ssa_temp(ctx, instr->src[1].ssa));
rsrc = bld.smem(aco_opcode::s_load_dwordx4, bld.def(s4), rsrc, Operand(0u));
+ memory_sync_info sync = get_memory_sync_info(instr, storage_buffer, 0);
+ bool glc = nir_intrinsic_access(instr) & (ACCESS_VOLATILE | ACCESS_COHERENT | ACCESS_NON_READABLE);
+ uint32_t flags = get_all_buffer_resource_flags(ctx, instr->src[1].ssa, nir_intrinsic_access(instr));
+ /* GLC bypasses VMEM/SMEM caches, so GLC SMEM loads/stores are coherent with GLC VMEM loads/stores
+ * TODO: this optimization is disabled for now because we still need to ensure correct ordering
+ */
+ bool allow_smem = !(flags & (0 && glc ? has_nonglc_vmem_loadstore : has_vmem_loadstore));
+
bool smem = !nir_src_is_divergent(instr->src[2]) &&
ctx->options->chip_class >= GFX8 &&
- elem_size_bytes >= 4;
+ ctx->options->chip_class < GFX10_3 &&
+ (elem_size_bytes >= 4 || can_subdword_ssbo_store_use_smem(instr)) &&
+ allow_smem;
if (smem)
offset = bld.as_uniform(offset);
bool smem_nonfs = smem && ctx->stage != fragment_fs;
aco_ptr<SMEM_instruction> store{create_instruction<SMEM_instruction>(op, Format::SMEM, 3, 0)};
store->operands[0] = Operand(rsrc);
if (offsets[i]) {
- Temp off = bld.sop2(aco_opcode::s_add_i32, bld.def(s1), bld.def(s1, scc),
- offset, Operand(offsets[i]));
+ Temp off = bld.nuw().sop2(aco_opcode::s_add_i32, bld.def(s1), bld.def(s1, scc),
+ offset, Operand(offsets[i]));
store->operands[1] = Operand(off);
} else {
store->operands[1] = Operand(offset);
if (op != aco_opcode::p_fs_buffer_store_smem)
store->operands[1].setFixed(m0);
store->operands[2] = Operand(write_datas[i]);
- store->glc = nir_intrinsic_access(instr) & (ACCESS_VOLATILE | ACCESS_COHERENT | ACCESS_NON_READABLE);
+ store->glc = glc;
store->dlc = false;
store->disable_wqm = true;
- store->barrier = barrier_buffer;
+ store->sync = sync;
ctx->block->instructions.emplace_back(std::move(store));
ctx->program->wb_smem_l1_on_end = true;
if (op == aco_opcode::p_fs_buffer_store_smem) {
store->operands[3] = Operand(write_datas[i]);
store->offset = offsets[i];
store->offen = (offset.type() == RegType::vgpr);
- store->glc = nir_intrinsic_access(instr) & (ACCESS_VOLATILE | ACCESS_COHERENT | ACCESS_NON_READABLE);
+ store->glc = glc;
store->dlc = false;
store->disable_wqm = true;
- store->barrier = barrier_buffer;
+ store->sync = sync;
ctx->program->needs_exact = true;
ctx->block->instructions.emplace_back(std::move(store));
}
mubuf->glc = return_previous;
mubuf->dlc = false; /* Not needed for atomics */
mubuf->disable_wqm = true;
- mubuf->barrier = barrier_buffer;
+ mubuf->sync = get_memory_sync_info(instr, storage_buffer, semantic_atomicrmw);
ctx->program->needs_exact = true;
ctx->block->instructions.emplace_back(std::move(mubuf));
}
info.glc = nir_intrinsic_access(instr) & (ACCESS_VOLATILE | ACCESS_COHERENT);
info.align_mul = nir_intrinsic_align_mul(instr);
info.align_offset = nir_intrinsic_align_offset(instr);
- info.barrier = barrier_buffer;
- info.can_reorder = false;
+ info.sync = get_memory_sync_info(instr, storage_buffer, 0);
/* VMEM stores don't update the SMEM cache and it's difficult to prove that
* it's safe to use SMEM */
bool can_use_smem = nir_intrinsic_access(instr) & ACCESS_NON_WRITEABLE;
Temp data = as_vgpr(ctx, get_ssa_temp(ctx, instr->src[0].ssa));
Temp addr = get_ssa_temp(ctx, instr->src[1].ssa);
+ memory_sync_info sync = get_memory_sync_info(instr, storage_buffer, 0);
bool glc = nir_intrinsic_access(instr) & (ACCESS_VOLATILE | ACCESS_COHERENT | ACCESS_NON_READABLE);
if (ctx->options->chip_class >= GFX7)
flat->dlc = false;
flat->offset = offset;
flat->disable_wqm = true;
- flat->barrier = barrier_buffer;
+ flat->sync = sync;
ctx->program->needs_exact = true;
ctx->block->instructions.emplace_back(std::move(flat));
} else {
mubuf->offset = offsets[i];
mubuf->addr64 = addr.type() == RegType::vgpr;
mubuf->disable_wqm = true;
- mubuf->barrier = barrier_buffer;
+ mubuf->sync = sync;
ctx->program->needs_exact = true;
ctx->block->instructions.emplace_back(std::move(mubuf));
}
flat->dlc = false; /* Not needed for atomics */
flat->offset = 0;
flat->disable_wqm = true;
- flat->barrier = barrier_buffer;
+ flat->sync = get_memory_sync_info(instr, storage_buffer, semantic_atomicrmw);
ctx->program->needs_exact = true;
ctx->block->instructions.emplace_back(std::move(flat));
} else {
mubuf->offset = 0;
mubuf->addr64 = addr.type() == RegType::vgpr;
mubuf->disable_wqm = true;
- mubuf->barrier = barrier_buffer;
+ mubuf->sync = get_memory_sync_info(instr, storage_buffer, semantic_atomicrmw);
ctx->program->needs_exact = true;
ctx->block->instructions.emplace_back(std::move(mubuf));
}
}
-void emit_memory_barrier(isel_context *ctx, nir_intrinsic_instr *instr) {
- Builder bld(ctx->program, ctx->block);
- switch(instr->intrinsic) {
- case nir_intrinsic_group_memory_barrier:
- case nir_intrinsic_memory_barrier:
- bld.barrier(aco_opcode::p_memory_barrier_common);
- break;
- case nir_intrinsic_memory_barrier_buffer:
- bld.barrier(aco_opcode::p_memory_barrier_buffer);
- break;
- case nir_intrinsic_memory_barrier_image:
- bld.barrier(aco_opcode::p_memory_barrier_image);
- break;
- case nir_intrinsic_memory_barrier_tcs_patch:
- case nir_intrinsic_memory_barrier_shared:
- bld.barrier(aco_opcode::p_memory_barrier_shared);
- break;
- default:
- unreachable("Unimplemented memory barrier intrinsic");
- break;
+sync_scope translate_nir_scope(nir_scope scope)
+{
+ switch (scope) {
+ case NIR_SCOPE_NONE:
+ case NIR_SCOPE_INVOCATION:
+ return scope_invocation;
+ case NIR_SCOPE_SUBGROUP:
+ return scope_subgroup;
+ case NIR_SCOPE_WORKGROUP:
+ return scope_workgroup;
+ case NIR_SCOPE_QUEUE_FAMILY:
+ return scope_queuefamily;
+ case NIR_SCOPE_DEVICE:
+ return scope_device;
}
+ unreachable("invalid scope");
+}
+
+void emit_scoped_barrier(isel_context *ctx, nir_intrinsic_instr *instr) {
+ Builder bld(ctx->program, ctx->block);
+
+ unsigned semantics = 0;
+ unsigned storage = 0;
+ sync_scope mem_scope = translate_nir_scope(nir_intrinsic_memory_scope(instr));
+ sync_scope exec_scope = translate_nir_scope(nir_intrinsic_execution_scope(instr));
+
+ unsigned nir_storage = nir_intrinsic_memory_modes(instr);
+ if (nir_storage & (nir_var_mem_ssbo | nir_var_mem_global))
+ storage |= storage_buffer | storage_image; //TODO: split this when NIR gets nir_var_mem_image
+ if (ctx->shader->info.stage == MESA_SHADER_COMPUTE && (nir_storage & nir_var_mem_shared))
+ storage |= storage_shared;
+ if (ctx->shader->info.stage == MESA_SHADER_TESS_CTRL && (nir_storage & nir_var_shader_out))
+ storage |= storage_shared;
+
+ unsigned nir_semantics = nir_intrinsic_memory_semantics(instr);
+ if (nir_semantics & NIR_MEMORY_ACQUIRE)
+ semantics |= semantic_acquire | semantic_release;
+ if (nir_semantics & NIR_MEMORY_RELEASE)
+ semantics |= semantic_acquire | semantic_release;
+
+ assert(!(nir_semantics & (NIR_MEMORY_MAKE_AVAILABLE | NIR_MEMORY_MAKE_VISIBLE)));
+
+ bld.barrier(aco_opcode::p_barrier,
+ memory_sync_info((storage_class)storage, (memory_semantics)semantics, mem_scope),
+ exec_scope);
}
void visit_load_shared(isel_context *ctx, nir_intrinsic_instr *instr)
op64_rtn = aco_opcode::ds_cmpst_rtn_b64;
num_operands = 4;
break;
+ case nir_intrinsic_shared_atomic_fadd:
+ op32 = aco_opcode::ds_add_f32;
+ op32_rtn = aco_opcode::ds_add_rtn_f32;
+ op64 = aco_opcode::num_opcodes;
+ op64_rtn = aco_opcode::num_opcodes;
+ break;
default:
unreachable("Unhandled shared atomic intrinsic");
}
ds->offset0 = offset;
if (return_previous)
ds->definitions[0] = Definition(get_ssa_temp(ctx, &instr->dest.ssa));
+ ds->sync = memory_sync_info(storage_shared, semantic_atomicrmw);
ctx->block->instructions.emplace_back(std::move(ds));
}
scratch_addr = bld.smem(aco_opcode::s_load_dwordx2, bld.def(s2), scratch_addr, Operand(0u));
uint32_t rsrc_conf = S_008F0C_ADD_TID_ENABLE(1) |
- S_008F0C_INDEX_STRIDE(ctx->program->wave_size == 64 ? 3 : 2);;
+ S_008F0C_INDEX_STRIDE(ctx->program->wave_size == 64 ? 3 : 2);
if (ctx->program->chip_class >= GFX10) {
rsrc_conf |= S_008F0C_FORMAT(V_008F0C_IMG_FORMAT_32_FLOAT) |
S_008F0C_DATA_FORMAT(V_008F0C_BUF_DATA_FORMAT_32);
}
- /* older generations need element size = 16 bytes. element size removed in GFX9 */
+ /* older generations need element size = 4 bytes. element size removed in GFX9 */
if (ctx->program->chip_class <= GFX8)
- rsrc_conf |= S_008F0C_ELEMENT_SIZE(3);
+ rsrc_conf |= S_008F0C_ELEMENT_SIZE(1);
return bld.pseudo(aco_opcode::p_create_vector, bld.def(s4), scratch_addr, Operand(-1u), Operand(rsrc_conf));
}
instr->dest.ssa.bit_size / 8u, rsrc};
info.align_mul = nir_intrinsic_align_mul(instr);
info.align_offset = nir_intrinsic_align_offset(instr);
- info.swizzle_component_size = 16;
- info.can_reorder = false;
+ info.swizzle_component_size = ctx->program->chip_class <= GFX8 ? 4 : 0;
+ info.sync = memory_sync_info(storage_scratch, semantic_private);
info.soffset = ctx->program->scratch_offset;
- emit_mubuf_load(ctx, bld, &info);
+ emit_scratch_load(ctx, bld, &info);
}
void visit_store_scratch(isel_context *ctx, nir_intrinsic_instr *instr) {
unsigned write_count = 0;
Temp write_datas[32];
unsigned offsets[32];
+ unsigned swizzle_component_size = ctx->program->chip_class <= GFX8 ? 4 : 16;
split_buffer_store(ctx, instr, false, RegType::vgpr, data, writemask,
- 16, &write_count, write_datas, offsets);
+ swizzle_component_size, &write_count, write_datas, offsets);
for (unsigned i = 0; i < write_count; i++) {
aco_opcode op = get_buffer_store_op(false, write_datas[i].bytes());
- bld.mubuf(op, rsrc, offset, ctx->program->scratch_offset, write_datas[i], offsets[i], true);
+ Instruction *instr = bld.mubuf(op, rsrc, offset, ctx->program->scratch_offset, write_datas[i], offsets[i], true, true);
+ static_cast<MUBUF_instruction *>(instr)->sync = memory_sync_info(storage_scratch, semantic_private);
}
}
mtbuf->offset = const_offset;
mtbuf->glc = true;
mtbuf->slc = true;
- mtbuf->barrier = barrier_gs_data;
- mtbuf->can_reorder = true;
+ mtbuf->sync = memory_sync_info(storage_vmem_output, semantic_can_reorder);
bld.insert(std::move(mtbuf));
}
} else if (src.regClass() == s2) {
bld.sop1(aco_opcode::s_mov_b64, dst, src);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
}
}
/* res_k = p_k + ddx_k * pos1 + ddy_k * pos2 */
- Temp tmp1 = bld.vop3(aco_opcode::v_mad_f32, bld.def(v1), ddx_1, pos1, p1);
- Temp tmp2 = bld.vop3(aco_opcode::v_mad_f32, bld.def(v1), ddx_2, pos1, p2);
- tmp1 = bld.vop3(aco_opcode::v_mad_f32, bld.def(v1), ddy_1, pos2, tmp1);
- tmp2 = bld.vop3(aco_opcode::v_mad_f32, bld.def(v1), ddy_2, pos2, tmp2);
+ aco_opcode mad = ctx->program->chip_class >= GFX10_3 ? aco_opcode::v_fma_f32 : aco_opcode::v_mad_f32;
+ Temp tmp1 = bld.vop3(mad, bld.def(v1), ddx_1, pos1, p1);
+ Temp tmp2 = bld.vop3(mad, bld.def(v1), ddx_2, pos1, p2);
+ tmp1 = bld.vop3(mad, bld.def(v1), ddy_1, pos2, tmp1);
+ tmp2 = bld.vop3(mad, bld.def(v1), ddy_2, pos2, tmp2);
Temp wqm1 = bld.tmp(v1);
emit_wqm(ctx, tmp1, wqm1, true);
Temp wqm2 = bld.tmp(v1);
Temp addr = get_ssa_temp(ctx, instr->src[0].ssa);
nir_const_value* const_addr = nir_src_as_const_value(instr->src[0]);
Temp private_segment_buffer = ctx->program->private_segment_buffer;
+ //TODO: bounds checking?
if (addr.type() == RegType::sgpr) {
Operand offset;
if (const_addr) {
load->glc = false;
load->dlc = false;
load->disable_wqm = false;
- load->barrier = barrier_none;
- load->can_reorder = true;
ctx->block->instructions.emplace_back(std::move(load));
}
case nir_intrinsic_shared_atomic_xor:
case nir_intrinsic_shared_atomic_exchange:
case nir_intrinsic_shared_atomic_comp_swap:
+ case nir_intrinsic_shared_atomic_fadd:
visit_shared_atomic(ctx, instr);
break;
case nir_intrinsic_image_deref_load:
case nir_intrinsic_get_buffer_size:
visit_get_buffer_size(ctx, instr);
break;
- case nir_intrinsic_control_barrier: {
- if (ctx->program->chip_class == GFX6 && ctx->shader->info.stage == MESA_SHADER_TESS_CTRL) {
- /* GFX6 only (thanks to a hw bug workaround):
- * The real barrier instruction isn’t needed, because an entire patch
- * always fits into a single wave.
- */
- break;
- }
-
- if (ctx->program->workgroup_size > ctx->program->wave_size)
- bld.sopp(aco_opcode::s_barrier);
-
- break;
- }
- case nir_intrinsic_memory_barrier_tcs_patch:
- case nir_intrinsic_group_memory_barrier:
- case nir_intrinsic_memory_barrier:
- case nir_intrinsic_memory_barrier_buffer:
- case nir_intrinsic_memory_barrier_image:
- case nir_intrinsic_memory_barrier_shared:
- emit_memory_barrier(ctx, instr);
+ case nir_intrinsic_scoped_barrier:
+ emit_scoped_barrier(ctx, instr);
break;
case nir_intrinsic_load_num_work_groups: {
Temp dst = get_ssa_temp(ctx, &instr->dest.ssa);
} else if (instr->src[0].ssa->bit_size == 64 && src.regClass() == v2) {
bld.vopc(aco_opcode::v_cmp_lg_u64, lanemask_tmp, Operand(0u), src);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
if (dst.size() != bld.lm.size()) {
/* Wave32 with ballot size set to 64 */
tmp = bld.vop2(aco_opcode::v_and_b32, bld.def(v1), Operand(1u), tmp);
emit_wqm(ctx, bld.vopc(aco_opcode::v_cmp_lg_u32, bld.def(bld.lm), Operand(0u), tmp), dst);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
}
break;
} else if (src.regClass() == s2) {
bld.pseudo(aco_opcode::p_create_vector, Definition(dst), src);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
bld.pseudo(aco_opcode::p_create_vector, Definition(dst), lo, hi);
emit_split_vector(ctx, dst, 2);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
}
break;
bld.pseudo(aco_opcode::p_create_vector, Definition(dst), lo, hi);
emit_split_vector(ctx, dst, 2);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
}
Temp dst = get_ssa_temp(ctx, &instr->dest.ssa);
uint32_t mask = nir_intrinsic_swizzle_mask(instr);
- if (dst.regClass() == v1) {
- emit_wqm(ctx,
- bld.ds(aco_opcode::ds_swizzle_b32, bld.def(v1), src, mask, 0, false),
- dst);
+ if (instr->dest.ssa.bit_size == 1) {
+ assert(src.regClass() == bld.lm);
+ src = bld.vop2_e64(aco_opcode::v_cndmask_b32, bld.def(v1), Operand(0u), Operand((uint32_t)-1), src);
+ src = emit_masked_swizzle(ctx, bld, src, mask);
+ Temp tmp = bld.vopc(aco_opcode::v_cmp_lg_u32, bld.def(bld.lm), Operand(0u), src);
+ emit_wqm(ctx, tmp, dst);
+ } else if (dst.regClass() == v1b) {
+ Temp tmp = emit_wqm(ctx, emit_masked_swizzle(ctx, bld, src, mask));
+ emit_extract_vector(ctx, tmp, 0, dst);
+ } else if (dst.regClass() == v2b) {
+ Temp tmp = emit_wqm(ctx, emit_masked_swizzle(ctx, bld, src, mask));
+ emit_extract_vector(ctx, tmp, 0, dst);
+ } else if (dst.regClass() == v1) {
+ emit_wqm(ctx, emit_masked_swizzle(ctx, bld, src, mask), dst);
} else if (dst.regClass() == v2) {
Temp lo = bld.tmp(v1), hi = bld.tmp(v1);
bld.pseudo(aco_opcode::p_split_vector, Definition(lo), Definition(hi), src);
- lo = emit_wqm(ctx, bld.ds(aco_opcode::ds_swizzle_b32, bld.def(v1), lo, mask, 0, false));
- hi = emit_wqm(ctx, bld.ds(aco_opcode::ds_swizzle_b32, bld.def(v1), hi, mask, 0, false));
+ lo = emit_wqm(ctx, emit_masked_swizzle(ctx, bld, lo, mask));
+ hi = emit_wqm(ctx, emit_masked_swizzle(ctx, bld, hi, mask));
bld.pseudo(aco_opcode::p_create_vector, Definition(dst), lo, hi);
emit_split_vector(ctx, dst, 2);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
bld.pseudo(aco_opcode::p_create_vector, Definition(dst), lo, hi);
emit_split_vector(ctx, dst, 2);
} else {
- fprintf(stderr, "Unimplemented NIR instr bit size: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented NIR instr bit size");
}
break;
}
break;
}
case nir_intrinsic_shader_clock: {
- aco_opcode opcode =
- nir_intrinsic_memory_scope(instr) == NIR_SCOPE_DEVICE ?
- aco_opcode::s_memrealtime : aco_opcode::s_memtime;
- bld.smem(opcode, Definition(get_ssa_temp(ctx, &instr->dest.ssa)), false);
- emit_split_vector(ctx, get_ssa_temp(ctx, &instr->dest.ssa), 2);
+ Temp dst = get_ssa_temp(ctx, &instr->dest.ssa);
+ if (nir_intrinsic_memory_scope(instr) == NIR_SCOPE_SUBGROUP && ctx->options->chip_class >= GFX10_3) {
+ /* "((size - 1) << 11) | register" (SHADER_CYCLES is encoded as register 29) */
+ Temp clock = bld.sopk(aco_opcode::s_getreg_b32, bld.def(s1), ((20 - 1) << 11) | 29);
+ bld.pseudo(aco_opcode::p_create_vector, Definition(dst), clock, Operand(0u));
+ } else {
+ aco_opcode opcode =
+ nir_intrinsic_memory_scope(instr) == NIR_SCOPE_DEVICE ?
+ aco_opcode::s_memrealtime : aco_opcode::s_memtime;
+ bld.smem(opcode, Definition(dst), memory_sync_info(0, semantic_volatile));
+ }
+ emit_split_vector(ctx, dst, 2);
break;
}
case nir_intrinsic_load_vertex_id_zero_base: {
break;
}
default:
- fprintf(stderr, "Unimplemented intrinsic instr: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unimplemented intrinsic instr");
abort();
break;
{
Builder bld(ctx->program, ctx->block);
Temp ma, tc, sc, id;
+ aco_opcode madak = ctx->program->chip_class >= GFX10_3 ? aco_opcode::v_fmaak_f32 : aco_opcode::v_madak_f32;
+ aco_opcode madmk = ctx->program->chip_class >= GFX10_3 ? aco_opcode::v_fmamk_f32 : aco_opcode::v_madmk_f32;
if (is_array) {
coords[3] = bld.vop1(aco_opcode::v_rndne_f32, bld.def(v1), coords[3]);
sc = bld.vop3(aco_opcode::v_cubesc_f32, bld.def(v1), coords[0], coords[1], coords[2]);
if (!is_deriv)
- sc = bld.vop2(aco_opcode::v_madak_f32, bld.def(v1), sc, invma, Operand(0x3fc00000u/*1.5*/));
+ sc = bld.vop2(madak, bld.def(v1), sc, invma, Operand(0x3fc00000u/*1.5*/));
tc = bld.vop3(aco_opcode::v_cubetc_f32, bld.def(v1), coords[0], coords[1], coords[2]);
if (!is_deriv)
- tc = bld.vop2(aco_opcode::v_madak_f32, bld.def(v1), tc, invma, Operand(0x3fc00000u/*1.5*/));
+ tc = bld.vop2(madak, bld.def(v1), tc, invma, Operand(0x3fc00000u/*1.5*/));
id = bld.vop3(aco_opcode::v_cubeid_f32, bld.def(v1), coords[0], coords[1], coords[2]);
}
if (is_array)
- id = bld.vop2(aco_opcode::v_madmk_f32, bld.def(v1), coords[3], id, Operand(0x41000000u/*8.0*/));
+ id = bld.vop2(madmk, bld.def(v1), coords[3], id, Operand(0x41000000u/*8.0*/));
coords.resize(3);
coords[0] = sc;
coords[1] = tc;
tex->da = da;
tex->definitions[0] = Definition(tmp_dst);
tex->dim = dim;
- tex->can_reorder = true;
ctx->block->instructions.emplace_back(std::move(tex));
if (div_by_6) {
tex->da = da;
Temp size = bld.tmp(v2);
tex->definitions[0] = Definition(size);
- tex->can_reorder = true;
ctx->block->instructions.emplace_back(std::move(tex));
emit_split_vector(ctx, size, size.size());
mubuf->operands[2] = Operand((uint32_t) 0);
mubuf->definitions[0] = Definition(tmp_dst);
mubuf->idxen = true;
- mubuf->can_reorder = true;
ctx->block->instructions.emplace_back(std::move(mubuf));
expand_vector(ctx, tmp_dst, dst, instr->dest.ssa.num_components, (1 << last_bit) - 1);
tex->unrm = true;
tex->da = da;
tex->definitions[0] = Definition(tmp_dst);
- tex->can_reorder = true;
ctx->block->instructions.emplace_back(std::move(tex));
if (instr->op == nir_texop_samples_identical) {
tex->dmask = dmask;
tex->da = da;
tex->definitions[0] = Definition(tmp_dst);
- tex->can_reorder = true;
ctx->block->instructions.emplace_back(std::move(tex));
if (tg4_integer_cube_workaround) {
}
-Operand get_phi_operand(isel_context *ctx, nir_ssa_def *ssa)
+Operand get_phi_operand(isel_context *ctx, nir_ssa_def *ssa, RegClass rc, bool logical)
{
Temp tmp = get_ssa_temp(ctx, ssa);
- if (ssa->parent_instr->type == nir_instr_type_ssa_undef)
- return Operand(tmp.regClass());
- else
+ if (ssa->parent_instr->type == nir_instr_type_ssa_undef) {
+ return Operand(rc);
+ } else if (logical && ssa->bit_size == 1 && ssa->parent_instr->type == nir_instr_type_load_const) {
+ if (ctx->program->wave_size == 64)
+ return Operand(nir_instr_as_load_const(ssa->parent_instr)->value[0].b ? UINT64_MAX : 0u);
+ else
+ return Operand(nir_instr_as_load_const(ssa->parent_instr)->value[0].b ? UINT32_MAX : 0u);
+ } else {
return Operand(tmp);
+ }
}
void visit_phi(isel_context *ctx, nir_phi_instr *instr)
if (!(ctx->block->kind & block_kind_loop_header) && cur_pred_idx >= preds.size())
continue;
cur_pred_idx++;
- Operand op = get_phi_operand(ctx, src.second);
+ Operand op = get_phi_operand(ctx, src.second, dst.regClass(), logical);
operands[num_operands++] = op;
num_defined += !op.isUndefined();
}
}
break;
default:
- fprintf(stderr, "Unknown NIR jump instr: ");
- nir_print_instr(&instr->instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(&instr->instr, "Unknown NIR jump instr");
abort();
}
visit_jump(ctx, nir_instr_as_jump(instr));
break;
default:
- fprintf(stderr, "Unknown NIR instr type: ");
- nir_print_instr(instr, stderr);
- fprintf(stderr, "\n");
+ isel_err(instr, "Unknown NIR instr type");
//abort();
}
}
else
exp->operands[i] = Operand(v1);
}
- /* Navi10-14 skip POS0 exports if EXEC=0 and DONE=0, causing a hang.
+ /* GFX10 (Navi1x) skip POS0 exports if EXEC=0 and DONE=0, causing a hang.
* Setting valid_mask=1 prevents it and has no other effect.
*/
- exp->valid_mask = ctx->options->chip_class >= GFX10 && is_pos && *next_pos == 0;
+ exp->valid_mask = ctx->options->chip_class == GFX10 && is_pos && *next_pos == 0;
exp->done = false;
exp->compressed = false;
if (is_pos)
exp->enabled_mask |= 0x4;
}
}
- exp->valid_mask = ctx->options->chip_class >= GFX10 && *next_pos == 0;
+ exp->valid_mask = ctx->options->chip_class == GFX10 && *next_pos == 0;
exp->done = false;
exp->compressed = false;
exp->dest = V_008DFC_SQ_EXP_POS + (*next_pos)++;
create_null_export(ctx);
}
+static void create_workgroup_barrier(Builder& bld)
+{
+ bld.barrier(aco_opcode::p_barrier,
+ memory_sync_info(storage_shared, semantic_acqrel, scope_workgroup),
+ scope_workgroup);
+}
+
static void write_tcs_tess_factors(isel_context *ctx)
{
unsigned outer_comps;
Builder bld(ctx->program, ctx->block);
- bld.barrier(aco_opcode::p_memory_barrier_shared);
- if (unlikely(ctx->program->chip_class != GFX6 && ctx->program->workgroup_size > ctx->program->wave_size))
- bld.sopp(aco_opcode::s_barrier);
+ create_workgroup_barrier(bld);
Temp tcs_rel_ids = get_arg(ctx, ctx->args->ac.tcs_rel_ids);
Temp invocation_id = bld.vop3(aco_opcode::v_bfe_u32, bld.def(v1), tcs_rel_ids, Operand(8u), Operand(5u));
Temp control_word = bld.copy(bld.def(v1), Operand(0x80000000u));
bld.mubuf(aco_opcode::buffer_store_dword,
/* SRSRC */ hs_ring_tess_factor, /* VADDR */ Operand(v1), /* SOFFSET */ tf_base, /* VDATA */ control_word,
- /* immediate OFFSET */ 0, /* OFFEN */ false, /* idxen*/ false, /* addr64 */ false,
- /* disable_wqm */ false, /* glc */ true);
+ /* immediate OFFSET */ 0, /* OFFEN */ false, /* swizzled */ false, /* idxen*/ false,
+ /* addr64 */ false, /* disable_wqm */ false, /* glc */ true);
tf_const_offset += 4;
begin_divergent_if_else(ctx, &ic_rel_patch_id_is_zero);
assert(stride == 2 || stride == 4 || stride == 6);
Temp tf_vec = create_vec_from_array(ctx, out, stride, RegType::vgpr, 4u);
- store_vmem_mubuf(ctx, tf_vec, hs_ring_tess_factor, byte_offset, tf_base, tf_const_offset, 4, (1 << stride) - 1, true, false);
+ store_vmem_mubuf(ctx, tf_vec, hs_ring_tess_factor, byte_offset, tf_base, tf_const_offset, 4, (1 << stride) - 1, true, memory_sync_info());
/* Store to offchip for TES to read - only if TES reads them */
if (ctx->args->options->key.tcs.tes_reads_tess_factors) {
Temp oc_lds = get_arg(ctx, ctx->args->oc_lds);
std::pair<Temp, unsigned> vmem_offs_outer = get_tcs_per_patch_output_vmem_offset(ctx, nullptr, ctx->tcs_tess_lvl_out_loc);
- store_vmem_mubuf(ctx, tf_outer_vec, hs_ring_tess_offchip, vmem_offs_outer.first, oc_lds, vmem_offs_outer.second, 4, (1 << outer_comps) - 1, true, false);
+ store_vmem_mubuf(ctx, tf_outer_vec, hs_ring_tess_offchip, vmem_offs_outer.first, oc_lds, vmem_offs_outer.second, 4, (1 << outer_comps) - 1, true, memory_sync_info(storage_vmem_output));
if (likely(inner_comps)) {
std::pair<Temp, unsigned> vmem_offs_inner = get_tcs_per_patch_output_vmem_offset(ctx, nullptr, ctx->tcs_tess_lvl_in_loc);
- store_vmem_mubuf(ctx, tf_inner_vec, hs_ring_tess_offchip, vmem_offs_inner.first, oc_lds, vmem_offs_inner.second, 4, (1 << inner_comps) - 1, true, false);
+ store_vmem_mubuf(ctx, tf_inner_vec, hs_ring_tess_offchip, vmem_offs_inner.first, oc_lds, vmem_offs_inner.second, 4, (1 << inner_comps) - 1, true, memory_sync_info(storage_vmem_output));
}
}
store->glc = true;
store->dlc = false;
store->slc = true;
- store->can_reorder = true;
ctx->block->instructions.emplace_back(std::move(store));
}
}
float_controls & (FLOAT_CONTROLS_ROUNDING_MODE_RTZ_FP16 | FLOAT_CONTROLS_ROUNDING_MODE_RTZ_FP64 |
FLOAT_CONTROLS_ROUNDING_MODE_RTE_FP16 | FLOAT_CONTROLS_ROUNDING_MODE_RTE_FP64);
- /* default to preserving fp16 and fp64 denorms, since it's free */
+ /* default to preserving fp16 and fp64 denorms, since it's free for fp64 and
+ * the precision seems needed for Wolfenstein: Youngblood to render correctly */
if (program->next_fp_mode.must_flush_denorms16_64)
program->next_fp_mode.denorm16_64 = 0;
else
if (ctx->stage == ngg_vertex_gs) {
/* Wait for GS threads to store primitive ID in LDS. */
- bld.barrier(aco_opcode::p_memory_barrier_shared);
- bld.sopp(aco_opcode::s_barrier);
+ create_workgroup_barrier(bld);
/* Calculate LDS address where the GS threads stored the primitive ID. */
Temp wave_id_in_tg = bld.sop2(aco_opcode::s_bfe_u32, bld.def(s1), bld.def(s1, scc),
if (i) {
Builder bld(ctx.program, ctx.block);
- bld.barrier(aco_opcode::p_memory_barrier_shared);
- bld.sopp(aco_opcode::s_barrier);
+ create_workgroup_barrier(bld);
if (ctx.stage == vertex_geometry_gs || ctx.stage == tess_eval_geometry_gs) {
ctx.gs_wave_id = bld.sop2(aco_opcode::s_bfe_u32, bld.def(s1, m0), bld.def(s1, scc), get_arg(&ctx, args->merged_wave_info), Operand((8u << 16) | 16u));
ngg_emit_nogs_output(&ctx);
} else if (nir->info.stage == MESA_SHADER_GEOMETRY) {
Builder bld(ctx.program, ctx.block);
- bld.barrier(aco_opcode::p_memory_barrier_gs_data);
+ bld.barrier(aco_opcode::p_barrier,
+ memory_sync_info(storage_vmem_output, semantic_release, scope_device));
bld.sopp(aco_opcode::s_sendmsg, bld.m0(ctx.gs_wave_id), -1, sendmsg_gs_done(false, false, 0));
} else if (nir->info.stage == MESA_SHADER_TESS_CTRL) {
write_tcs_tess_factors(&ctx);
ctx.block->kind |= block_kind_uniform;
Builder bld(ctx.program, ctx.block);
if (ctx.program->wb_smem_l1_on_end)
- bld.smem(aco_opcode::s_dcache_wb, false);
+ bld.smem(aco_opcode::s_dcache_wb, memory_sync_info(storage_buffer, semantic_volatile));
bld.sopp(aco_opcode::s_endpgm);
cleanup_cfg(program);
{
isel_context ctx = setup_isel_context(program, 1, &gs_shader, config, args, true);
- program->next_fp_mode.preserve_signed_zero_inf_nan32 = false;
- program->next_fp_mode.preserve_signed_zero_inf_nan16_64 = false;
- program->next_fp_mode.must_flush_denorms32 = false;
- program->next_fp_mode.must_flush_denorms16_64 = false;
- program->next_fp_mode.care_about_round32 = false;
- program->next_fp_mode.care_about_round16_64 = false;
- program->next_fp_mode.denorm16_64 = fp_denorm_keep;
- program->next_fp_mode.denorm32 = 0;
- program->next_fp_mode.round32 = fp_round_ne;
- program->next_fp_mode.round16_64 = fp_round_ne;
ctx.block->fp_mode = program->next_fp_mode;
add_startpgm(&ctx);
mubuf->glc = true;
mubuf->slc = true;
mubuf->dlc = args->options->chip_class >= GFX10;
- mubuf->barrier = barrier_none;
- mubuf->can_reorder = true;
ctx.outputs.mask[i] |= 1 << j;
ctx.outputs.temps[i * 4u + j] = mubuf->definitions[0].getTemp();
cleanup_cfg(program);
}
+
+void select_trap_handler_shader(Program *program, struct nir_shader *shader,
+ ac_shader_config* config,
+ struct radv_shader_args *args)
+{
+ assert(args->options->chip_class == GFX8);
+
+ init_program(program, compute_cs, args->shader_info,
+ args->options->chip_class, args->options->family, config);
+
+ isel_context ctx = {};
+ ctx.program = program;
+ ctx.args = args;
+ ctx.options = args->options;
+ ctx.stage = program->stage;
+
+ ctx.block = ctx.program->create_and_insert_block();
+ ctx.block->loop_nest_depth = 0;
+ ctx.block->kind = block_kind_top_level;
+
+ program->workgroup_size = 1; /* XXX */
+
+ add_startpgm(&ctx);
+ append_logical_start(ctx.block);
+
+ Builder bld(ctx.program, ctx.block);
+
+ /* Load the buffer descriptor from TMA. */
+ bld.smem(aco_opcode::s_load_dwordx4, Definition(PhysReg{ttmp4}, s4),
+ Operand(PhysReg{tma}, s2), Operand(0u));
+
+ /* Store TTMP0-TTMP1. */
+ bld.smem(aco_opcode::s_buffer_store_dwordx2, Operand(PhysReg{ttmp4}, s4),
+ Operand(0u), Operand(PhysReg{ttmp0}, s2), memory_sync_info(), true);
+
+ uint32_t hw_regs_idx[] = {
+ 2, /* HW_REG_STATUS */
+ 3, /* HW_REG_TRAP_STS */
+ 4, /* HW_REG_HW_ID */
+ 7, /* HW_REG_IB_STS */
+ };
+
+ /* Store some hardware registers. */
+ for (unsigned i = 0; i < ARRAY_SIZE(hw_regs_idx); i++) {
+ /* "((size - 1) << 11) | register" */
+ bld.sopk(aco_opcode::s_getreg_b32, Definition(PhysReg{ttmp8}, s1),
+ ((20 - 1) << 11) | hw_regs_idx[i]);
+
+ bld.smem(aco_opcode::s_buffer_store_dword, Operand(PhysReg{ttmp4}, s4),
+ Operand(8u + i * 4), Operand(PhysReg{ttmp8}, s1), memory_sync_info(), true);
+ }
+
+ program->config->float_mode = program->blocks[0].fp_mode.val;
+
+ append_logical_end(ctx.block);
+ ctx.block->kind |= block_kind_uniform;
+ bld.sopp(aco_opcode::s_endpgm);
+
+ cleanup_cfg(program);
+}
}
projects / mesa.git / blobdiff