/* * Copyright (C) 2019 Connor Abbott * Copyright (C) 2019 Lyude Paul * Copyright (C) 2019 Ryan Houdek * Copyright (C) 2019-2020 Collabora, Ltd. * * Permission is hereby granted, free of charge, to any person obtaining a * copy of this software and associated documentation files (the "Software"), * to deal in the Software without restriction, including without limitation * the rights to use, copy, modify, merge, publish, distribute, sublicense, * and/or sell copies of the Software, and to permit persons to whom the * Software is furnished to do so, subject to the following conditions: * * The above copyright notice and this permission notice (including the next * paragraph) shall be included in all copies or substantial portions of the * Software. * * THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR * IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY, * FITNESS FOR A PARTICULAR PURPOSE AND NONINFRINGEMENT. IN NO EVENT SHALL * THE AUTHORS OR COPYRIGHT HOLDERS BE LIABLE FOR ANY CLAIM, DAMAGES OR OTHER * LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR OTHERWISE, ARISING FROM, * OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE USE OR OTHER DEALINGS IN THE * SOFTWARE. */ #include "bi_print.h" #include "bi_print_common.h" static const char * bi_segment_name(enum bi_segment seg) { switch (seg) { case BI_SEGMENT_NONE: return "global"; case BI_SEGMENT_WLS: return "wls"; case BI_SEGMENT_UBO: return "ubo"; case BI_SEGMENT_TLS: return "tls"; default: return "invalid"; } } const char * bi_class_name(enum bi_class cl) { switch (cl) { case BI_ADD: return "add"; case BI_ATEST: return "atest"; case BI_BRANCH: return "branch"; case BI_CMP: return "cmp"; case BI_BLEND: return "blend"; case BI_BITWISE: return "bitwise"; case BI_COMBINE: return "combine"; case BI_CONVERT: return "convert"; case BI_CSEL: return "csel"; case BI_DISCARD: return "discard"; case BI_FMA: return "fma"; case BI_FMOV: return "fmov"; case BI_FREXP: return "frexp"; case BI_IMATH: return "imath"; case BI_LOAD: return "load"; case BI_LOAD_UNIFORM: return "load_uniform"; case BI_LOAD_ATTR: return "load_attr"; case BI_LOAD_VAR: return "load_var"; case BI_LOAD_VAR_ADDRESS: return "load_var_address"; case BI_LOAD_TILE: return "load_tile"; case BI_MINMAX: return "minmax"; case BI_MOV: return "mov"; case BI_SELECT: return "select"; case BI_STORE: return "store"; case BI_STORE_VAR: return "store_var"; case BI_SPECIAL_ADD: return "special"; case BI_SPECIAL_FMA: return "special"; case BI_TABLE: return "table"; case BI_TEXS: return "texs"; case BI_TEXC: return "texc"; case BI_TEXC_DUAL: return "texc_dual"; case BI_ROUND: return "round"; case BI_IMUL: return "imul"; case BI_ZS_EMIT: return "zs_emit"; default: return "unknown_class"; } } static bool bi_print_dest_index(FILE *fp, bi_instruction *ins, unsigned index) { if ((index & BIR_SPECIAL) && (index & BIR_SPECIAL) != BIR_INDEX_REGISTER) return false; if (!index) fprintf(fp, "_"); else if (index & BIR_INDEX_REGISTER) fprintf(fp, "br%u", index & ~BIR_INDEX_REGISTER); else if (index & PAN_IS_REG) fprintf(fp, "r%u", index >> 1); else fprintf(fp, "%u", (index >> 1) - 1); return true; } static void bi_print_index(FILE *fp, bi_instruction *ins, unsigned index, unsigned s) { if (bi_print_dest_index(fp, ins, index)) return; if (index & BIR_INDEX_UNIFORM) fprintf(fp, "u%u", index & ~BIR_INDEX_UNIFORM); else if (index & BIR_INDEX_CONSTANT) fprintf(fp, "#0x%" PRIx64, bi_get_immediate(ins, s)); else if (index & BIR_INDEX_ZERO) fprintf(fp, "#0"); else if (index & BIR_INDEX_BLEND) fprintf(fp, "blend_descriptor_%u.%c", ins->blend_location, (index & ~BIR_INDEX_BLEND) == BIFROST_SRC_FAU_HI ? 'y' : 'x'); else fprintf(fp, "#err"); } static void bi_print_src(FILE *fp, bi_instruction *ins, unsigned s) { unsigned src = ins->src[s]; bool mods = bi_has_source_mods(ins); bool abs = ins->src_abs[s] && mods; bool neg = ins->src_neg[s] && mods; if (neg) fprintf(fp, "-"); if (abs) fprintf(fp, "abs("); bi_print_index(fp, ins, src, s); if (ins->type == BI_BITWISE && s == 1 && ins->bitwise.src1_invert) { /* For XOR, just use the destination invert */ assert(ins->op.bitwise != BI_BITWISE_XOR); fprintf(fp, ".not"); } if (abs) fprintf(fp, ")"); } static void bi_print_swizzle(bi_instruction *ins, unsigned src, FILE *fp) { fprintf(fp, "."); for (unsigned u = 0; u < bi_get_component_count(ins, src); ++u) { assert(ins->swizzle[src][u] < 4); fputc("xyzw"[ins->swizzle[src][u]], fp); } } static const char * bi_bitwise_op_name(enum bi_bitwise_op op) { switch (op) { case BI_BITWISE_AND: return "and"; case BI_BITWISE_OR: return "or"; case BI_BITWISE_XOR: return "xor"; default: return "invalid"; } } static const char * bi_imath_op_name(enum bi_imath_op op) { switch (op) { case BI_IMATH_ADD: return "iadd"; case BI_IMATH_SUB: return "isub"; default: return "invalid"; } } const char * bi_table_op_name(enum bi_table_op op) { switch (op) { case BI_TABLE_LOG2_U_OVER_U_1_LOW: return "log2.help"; default: return "invalid"; } } const char * bi_special_op_name(enum bi_special_op op) { switch (op) { case BI_SPECIAL_FRCP: return "frcp"; case BI_SPECIAL_FRSQ: return "frsq"; case BI_SPECIAL_EXP2_LOW: return "exp2_low"; case BI_SPECIAL_CUBEFACE1: return "cubeface1"; case BI_SPECIAL_CUBEFACE2: return "cubeface2"; case BI_SPECIAL_CUBE_SSEL: return "cube_ssel"; case BI_SPECIAL_CUBE_TSEL: return "cube_tsel"; default: return "invalid"; } } const char * bi_reduce_op_name(enum bi_reduce_op op) { switch (op) { case BI_REDUCE_ADD_FREXPM: return "add_frexpm"; default: return "invalid"; } } const char * bi_frexp_op_name(enum bi_frexp_op op) { switch (op) { case BI_FREXPE_LOG: return "frexpe_log"; default: return "invalid"; } } static void bi_print_load_vary(struct bi_load_vary *load, FILE *fp) { fprintf(fp, "%s", bi_interp_mode_name(load->interp_mode)); if (load->reuse) fprintf(fp, ".reuse"); if (load->flat) fprintf(fp, ".flat"); } const char * bi_cond_name(enum bi_cond cond) { switch (cond) { case BI_COND_ALWAYS: return "always"; case BI_COND_LT: return "lt"; case BI_COND_LE: return "le"; case BI_COND_GE: return "ge"; case BI_COND_GT: return "gt"; case BI_COND_EQ: return "eq"; case BI_COND_NE: return "ne"; default: return "invalid"; } } static void bi_print_texture(struct bi_texture *tex, FILE *fp) { fprintf(fp, " - texture %u, sampler %u%s", tex->texture_index, tex->sampler_index, tex->compute_lod ? ", compute lod" : ""); } void bi_print_instruction(bi_instruction *ins, FILE *fp) { if (ins->type == BI_MINMAX) fprintf(fp, "%s", ins->op.minmax == BI_MINMAX_MIN ? "min" : "max"); else if (ins->type == BI_BITWISE) fprintf(fp, "%s", bi_bitwise_op_name(ins->op.bitwise)); else if (ins->type == BI_IMATH) fprintf(fp, "%s", bi_imath_op_name(ins->op.imath)); else if (ins->type == BI_SPECIAL_ADD || ins->type == BI_SPECIAL_FMA) fprintf(fp, "%s", bi_special_op_name(ins->op.special)); else if (ins->type == BI_TABLE) fprintf(fp, "%s", bi_table_op_name(ins->op.table)); else if (ins->type == BI_REDUCE_FMA) fprintf(fp, "%s", bi_reduce_op_name(ins->op.reduce)); else if (ins->type == BI_FREXP) fprintf(fp, "%s", bi_frexp_op_name(ins->op.frexp)); else fprintf(fp, "%s", bi_class_name(ins->type)); if ((ins->type == BI_ADD || ins->type == BI_FMA) && ins->op.mscale) fprintf(fp, ".mscale"); if (ins->type == BI_MINMAX) fprintf(fp, "%s", bi_minmax_mode_name(ins->minmax)); else if (ins->type == BI_LOAD_VAR) bi_print_load_vary(&ins->load_vary, fp); else if (ins->type == BI_BLEND) fprintf(fp, ".loc%u", ins->blend_location); else if (ins->type == BI_BITWISE) fprintf(fp, ".%cshift", ins->bitwise.rshift ? 'r' : 'l'); if (bi_class_props[ins->type] & BI_CONDITIONAL) fprintf(fp, ".%s", bi_cond_name(ins->cond)); if (ins->skip) fprintf(fp, ".skip"); if (ins->no_spill) fprintf(fp, ".no_spill"); if (ins->vector_channels) fprintf(fp, ".v%u", ins->vector_channels); if (ins->segment) fprintf(fp, ".%s", bi_segment_name(ins->segment)); if (ins->dest) pan_print_alu_type(ins->dest_type, fp); if (ins->format && ins->dest != ins->format) pan_print_alu_type(ins->format, fp); if (bi_has_outmod(ins)) fprintf(fp, "%s", bi_output_mod_name(ins->outmod)); if (bi_class_props[ins->type] & BI_ROUNDMODE) fprintf(fp, "%s", bi_round_mode_name(ins->roundmode)); if (ins->type == BI_BITWISE && ins->bitwise.dest_invert) fprintf(fp, ".not"); fprintf(fp, " "); ASSERTED bool succ = bi_print_dest_index(fp, ins, ins->dest); assert(succ); if (ins->dest_offset) fprintf(fp, "+%u", ins->dest_offset); fprintf(fp, ", "); bi_foreach_src(ins, s) { bi_print_src(fp, ins, s); if (ins->src[s] && !(ins->src[s] & (BIR_INDEX_CONSTANT | BIR_INDEX_ZERO))) { pan_print_alu_type(ins->src_types[s], fp); bi_print_swizzle(ins, s, fp); } if (s < BIR_SRC_COUNT) fprintf(fp, ", "); } if (ins->type == BI_BRANCH) { if (ins->branch_target) { fprintf(fp, "-> block%u", ins->branch_target->base.name); } else { fprintf(fp, "-> void"); } } else if (ins->type == BI_TEXS) { bi_print_texture(&ins->texture, fp); } fprintf(fp, "\n"); } static const char * bi_reg_op_name(enum bifrost_reg_op op) { switch (op) { case BIFROST_OP_IDLE: return "idle"; case BIFROST_OP_READ: return "read"; case BIFROST_OP_WRITE: return "write"; case BIFROST_OP_WRITE_LO: return "write lo"; case BIFROST_OP_WRITE_HI: return "write hi"; default: return "invalid"; } } void bi_print_slots(bi_registers *regs, FILE *fp) { for (unsigned i = 0; i < 2; ++i) { if (regs->enabled[i]) fprintf(fp, "slot %u: %u\n", i, regs->slot[i]); } if (regs->slot23.slot2) { fprintf(fp, "slot 2 (%s%s): %u\n", bi_reg_op_name(regs->slot23.slot2), regs->slot23.slot2 >= BIFROST_OP_WRITE ? " FMA": "", regs->slot[2]); } if (regs->slot23.slot3) { fprintf(fp, "slot 3 (%s %s): %u\n", bi_reg_op_name(regs->slot23.slot3), regs->slot23.slot3_fma ? "FMA" : "ADD", regs->slot[3]); } } void bi_print_bundle(bi_bundle *bundle, FILE *fp) { bi_instruction *ins[2] = { bundle->fma, bundle->add }; for (unsigned i = 0; i < 2; ++i) { if (ins[i]) bi_print_instruction(ins[i], fp); else fprintf(fp, "nop\n"); } } void bi_print_clause(bi_clause *clause, FILE *fp) { fprintf(fp, "\tid(%u)", clause->scoreboard_id); if (clause->dependencies) { fprintf(fp, ", wait("); for (unsigned i = 0; i < 8; ++i) { if (clause->dependencies & (1 << i)) fprintf(fp, "%u ", i); } fprintf(fp, ")"); } fprintf(fp, " %s", bi_flow_control_name(clause->flow_control)); if (!clause->next_clause_prefetch) fprintf(fp, " no_prefetch"); if (clause->staging_barrier) fprintf(fp, " osrb"); fprintf(fp, "\n"); for (unsigned i = 0; i < clause->bundle_count; ++i) bi_print_bundle(&clause->bundles[i], fp); if (clause->constant_count) { for (unsigned i = 0; i < clause->constant_count; ++i) fprintf(fp, "%" PRIx64 " ", clause->constants[i]); if (clause->branch_constant) fprintf(fp, "*"); fprintf(fp, "\n"); } } void bi_print_block(bi_block *block, FILE *fp) { fprintf(fp, "block%u {\n", block->base.name); if (block->scheduled) { bi_foreach_clause_in_block(block, clause) bi_print_clause(clause, fp); } else { bi_foreach_instr_in_block(block, ins) bi_print_instruction(ins, fp); } fprintf(fp, "}"); if (block->base.successors[0]) { fprintf(fp, " -> "); pan_foreach_successor((&block->base), succ) fprintf(fp, "block%u ", succ->name); } if (block->base.predecessors->entries) { fprintf(fp, " from"); bi_foreach_predecessor(block, pred) fprintf(fp, " block%u", pred->base.name); } fprintf(fp, "\n\n"); } void bi_print_shader(bi_context *ctx, FILE *fp) { bi_foreach_block(ctx, block) bi_print_block((bi_block *) block, fp); }