mirror of
https://github.com/KhronosGroup/SPIRV-Tools
synced 2024-11-27 13:50:07 +00:00
489 lines
21 KiB
C++
489 lines
21 KiB
C++
// Copyright (c) 2018 Google LLC
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//
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// Licensed under the Apache License, Version 2.0 (the "License");
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// you may not use this file except in compliance with the License.
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// You may obtain a copy of the License at
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//
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// http://www.apache.org/licenses/LICENSE-2.0
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//
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// Unless required by applicable law or agreed to in writing, software
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// distributed under the License is distributed on an "AS IS" BASIS,
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// WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
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// See the License for the specific language governing permissions and
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// limitations under the License.
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#include "const_folding_rules.h"
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namespace spvtools {
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namespace opt {
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namespace {
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const uint32_t kExtractCompositeIdInIdx = 0;
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// Folds an OpcompositeExtract where input is a composite constant.
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ConstantFoldingRule FoldExtractWithConstants() {
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return [](ir::Instruction* inst,
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const std::vector<const analysis::Constant*>& constants)
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-> const analysis::Constant* {
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const analysis::Constant* c = constants[kExtractCompositeIdInIdx];
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if (c == nullptr) {
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return nullptr;
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}
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for (uint32_t i = 1; i < inst->NumInOperands(); ++i) {
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uint32_t element_index = inst->GetSingleWordInOperand(i);
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if (c->AsNullConstant()) {
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// Return Null for the return type.
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ir::IRContext* context = inst->context();
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analysis::ConstantManager* const_mgr = context->get_constant_mgr();
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analysis::TypeManager* type_mgr = context->get_type_mgr();
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return const_mgr->GetConstant(type_mgr->GetType(inst->type_id()), {});
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}
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auto cc = c->AsCompositeConstant();
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assert(cc != nullptr);
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auto components = cc->GetComponents();
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c = components[element_index];
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}
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return c;
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};
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}
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ConstantFoldingRule FoldVectorShuffleWithConstants() {
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return [](ir::Instruction* inst,
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const std::vector<const analysis::Constant*>& constants)
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-> const analysis::Constant* {
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assert(inst->opcode() == SpvOpVectorShuffle);
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const analysis::Constant* c1 = constants[0];
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const analysis::Constant* c2 = constants[1];
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if (c1 == nullptr || c2 == nullptr) {
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return nullptr;
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}
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ir::IRContext* context = inst->context();
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analysis::ConstantManager* const_mgr = context->get_constant_mgr();
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const analysis::Type* element_type = c1->type()->AsVector()->element_type();
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std::vector<const analysis::Constant*> c1_components;
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if (const analysis::VectorConstant* vec_const = c1->AsVectorConstant()) {
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c1_components = vec_const->GetComponents();
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} else {
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assert(c1->AsNullConstant());
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const analysis::Constant* element =
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const_mgr->GetConstant(element_type, {});
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c1_components.resize(c1->type()->AsVector()->element_count(), element);
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}
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std::vector<const analysis::Constant*> c2_components;
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if (const analysis::VectorConstant* vec_const = c2->AsVectorConstant()) {
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c2_components = vec_const->GetComponents();
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} else {
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assert(c2->AsNullConstant());
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const analysis::Constant* element =
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const_mgr->GetConstant(element_type, {});
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c2_components.resize(c2->type()->AsVector()->element_count(), element);
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}
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std::vector<uint32_t> ids;
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for (uint32_t i = 2; i < inst->NumInOperands(); ++i) {
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uint32_t index = inst->GetSingleWordInOperand(i);
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if (index < c1_components.size()) {
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ir::Instruction* member_inst =
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const_mgr->GetDefiningInstruction(c1_components[index]);
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ids.push_back(member_inst->result_id());
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} else {
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ir::Instruction* member_inst = const_mgr->GetDefiningInstruction(
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c2_components[index - c1_components.size()]);
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ids.push_back(member_inst->result_id());
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}
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}
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analysis::TypeManager* type_mgr = context->get_type_mgr();
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return const_mgr->GetConstant(type_mgr->GetType(inst->type_id()), ids);
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};
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} // namespace
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ConstantFoldingRule FoldCompositeWithConstants() {
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// Folds an OpCompositeConstruct where all of the inputs are constants to a
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// constant. A new constant is created if necessary.
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return [](ir::Instruction* inst,
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const std::vector<const analysis::Constant*>& constants)
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-> const analysis::Constant* {
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ir::IRContext* context = inst->context();
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analysis::ConstantManager* const_mgr = context->get_constant_mgr();
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analysis::TypeManager* type_mgr = context->get_type_mgr();
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const analysis::Type* new_type = type_mgr->GetType(inst->type_id());
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std::vector<uint32_t> ids;
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for (const analysis::Constant* element_const : constants) {
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if (element_const == nullptr) {
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return nullptr;
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}
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uint32_t element_id = const_mgr->FindDeclaredConstant(element_const);
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if (element_id == 0) {
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return nullptr;
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}
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ids.push_back(element_id);
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}
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return const_mgr->GetConstant(new_type, ids);
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};
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}
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// The interface for a function that returns the result of applying a scalar
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// floating-point binary operation on |a| and |b|. The type of the return value
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// will be |type|. The input constants must also be of type |type|.
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using UnaryScalarFoldingRule = std::function<const analysis::Constant*(
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const analysis::Type* result_type, const analysis::Constant* a,
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analysis::ConstantManager*)>;
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// The interface for a function that returns the result of applying a scalar
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// floating-point binary operation on |a| and |b|. The type of the return value
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// will be |type|. The input constants must also be of type |type|.
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using BinaryScalarFoldingRule = std::function<const analysis::Constant*(
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const analysis::Type* result_type, const analysis::Constant* a,
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const analysis::Constant* b, analysis::ConstantManager*)>;
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// Returns an std::vector containing the elements of |constant|. The type of
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// |constant| must be |Vector|.
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std::vector<const analysis::Constant*> GetVectorComponents(
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const analysis::Constant* constant, analysis::ConstantManager* const_mgr) {
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std::vector<const analysis::Constant*> components;
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const analysis::VectorConstant* a = constant->AsVectorConstant();
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const analysis::Vector* vector_type = constant->type()->AsVector();
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assert(vector_type != nullptr);
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if (a != nullptr) {
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for (uint32_t i = 0; i < vector_type->element_count(); ++i) {
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components.push_back(a->GetComponents()[i]);
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}
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} else {
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const analysis::Type* element_type = vector_type->element_type();
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const analysis::Constant* element_null_const =
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const_mgr->GetConstant(element_type, {});
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for (uint32_t i = 0; i < vector_type->element_count(); ++i) {
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components.push_back(element_null_const);
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}
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}
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return components;
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}
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// Returns a |ConstantFoldingRule| that folds unary floating point scalar ops
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// using |scalar_rule| and unary float point vectors ops by applying
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// |scalar_rule| to the elements of the vector. The |ConstantFoldingRule|
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// that is returned assumes that |constants| contains 1 entry. If they are
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// not |nullptr|, then their type is either |Float| or |Integer| or a |Vector|
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// whose element type is |Float| or |Integer|.
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ConstantFoldingRule FoldFPUnaryOp(UnaryScalarFoldingRule scalar_rule) {
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return [scalar_rule](ir::Instruction* inst,
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const std::vector<const analysis::Constant*>& constants)
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-> const analysis::Constant* {
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ir::IRContext* context = inst->context();
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analysis::ConstantManager* const_mgr = context->get_constant_mgr();
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analysis::TypeManager* type_mgr = context->get_type_mgr();
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const analysis::Type* result_type = type_mgr->GetType(inst->type_id());
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const analysis::Vector* vector_type = result_type->AsVector();
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if (!inst->IsFloatingPointFoldingAllowed()) {
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return nullptr;
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}
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if (constants[0] == nullptr) {
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return nullptr;
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}
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if (vector_type != nullptr) {
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std::vector<const analysis::Constant*> a_components;
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std::vector<const analysis::Constant*> results_components;
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a_components = GetVectorComponents(constants[0], const_mgr);
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// Fold each component of the vector.
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for (uint32_t i = 0; i < a_components.size(); ++i) {
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results_components.push_back(scalar_rule(vector_type->element_type(),
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a_components[i], const_mgr));
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if (results_components[i] == nullptr) {
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return nullptr;
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}
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}
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// Build the constant object and return it.
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std::vector<uint32_t> ids;
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for (const analysis::Constant* member : results_components) {
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ids.push_back(const_mgr->GetDefiningInstruction(member)->result_id());
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}
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return const_mgr->GetConstant(vector_type, ids);
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} else {
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return scalar_rule(result_type, constants[0], const_mgr);
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}
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};
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}
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// Returns a |ConstantFoldingRule| that folds floating point scalars using
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// |scalar_rule| and vectors of floating point by applying |scalar_rule| to the
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// elements of the vector. The |ConstantFoldingRule| that is returned assumes
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// that |constants| contains 2 entries. If they are not |nullptr|, then their
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// type is either |Float| or a |Vector| whose element type is |Float|.
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ConstantFoldingRule FoldFPBinaryOp(BinaryScalarFoldingRule scalar_rule) {
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return [scalar_rule](ir::Instruction* inst,
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const std::vector<const analysis::Constant*>& constants)
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-> const analysis::Constant* {
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ir::IRContext* context = inst->context();
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analysis::ConstantManager* const_mgr = context->get_constant_mgr();
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analysis::TypeManager* type_mgr = context->get_type_mgr();
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const analysis::Type* result_type = type_mgr->GetType(inst->type_id());
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const analysis::Vector* vector_type = result_type->AsVector();
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if (!inst->IsFloatingPointFoldingAllowed()) {
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return nullptr;
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}
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if (constants[0] == nullptr || constants[1] == nullptr) {
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return nullptr;
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}
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if (vector_type != nullptr) {
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std::vector<const analysis::Constant*> a_components;
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std::vector<const analysis::Constant*> b_components;
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std::vector<const analysis::Constant*> results_components;
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a_components = GetVectorComponents(constants[0], const_mgr);
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b_components = GetVectorComponents(constants[1], const_mgr);
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// Fold each component of the vector.
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for (uint32_t i = 0; i < a_components.size(); ++i) {
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results_components.push_back(scalar_rule(vector_type->element_type(),
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a_components[i],
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b_components[i], const_mgr));
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if (results_components[i] == nullptr) {
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return nullptr;
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}
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}
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// Build the constant object and return it.
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std::vector<uint32_t> ids;
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for (const analysis::Constant* member : results_components) {
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ids.push_back(const_mgr->GetDefiningInstruction(member)->result_id());
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}
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return const_mgr->GetConstant(vector_type, ids);
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} else {
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return scalar_rule(result_type, constants[0], constants[1], const_mgr);
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}
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};
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}
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// This macro defines a |UnaryScalarFoldingRule| that performs float to
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// integer conversion.
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// TODO(greg-lunarg): Support for 64-bit integer types.
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UnaryScalarFoldingRule FoldFToIOp() {
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return [](const analysis::Type* result_type, const analysis::Constant* a,
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analysis::ConstantManager* const_mgr) -> const analysis::Constant* {
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assert(result_type != nullptr && a != nullptr);
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const analysis::Integer* integer_type = result_type->AsInteger();
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const analysis::Float* float_type = a->type()->AsFloat();
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assert(float_type != nullptr);
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assert(integer_type != nullptr);
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if (integer_type->width() != 32) return nullptr;
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if (float_type->width() == 32) {
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float fa = a->GetFloat();
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uint32_t result = integer_type->IsSigned()
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? static_cast<uint32_t>(static_cast<int32_t>(fa))
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: static_cast<uint32_t>(fa);
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std::vector<uint32_t> words = {result};
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return const_mgr->GetConstant(result_type, words);
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} else if (float_type->width() == 64) {
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double fa = a->GetDouble();
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uint32_t result = integer_type->IsSigned()
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? static_cast<uint32_t>(static_cast<int32_t>(fa))
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: static_cast<uint32_t>(fa);
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std::vector<uint32_t> words = {result};
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return const_mgr->GetConstant(result_type, words);
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}
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return nullptr;
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};
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}
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// This macro defines a |UnaryScalarFoldingRule| that performs integer to
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// float conversion.
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// TODO(greg-lunarg): Support for 64-bit integer types.
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UnaryScalarFoldingRule FoldIToFOp() {
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return [](const analysis::Type* result_type, const analysis::Constant* a,
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analysis::ConstantManager* const_mgr) -> const analysis::Constant* {
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assert(result_type != nullptr && a != nullptr);
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const analysis::Integer* integer_type = a->type()->AsInteger();
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const analysis::Float* float_type = result_type->AsFloat();
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assert(float_type != nullptr);
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assert(integer_type != nullptr);
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if (integer_type->width() != 32) return nullptr;
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uint32_t ua = a->GetU32();
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if (float_type->width() == 32) {
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float result_val = integer_type->IsSigned()
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? static_cast<float>(static_cast<int32_t>(ua))
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: static_cast<float>(ua);
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spvutils::FloatProxy<float> result(result_val);
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std::vector<uint32_t> words = {result.data()};
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return const_mgr->GetConstant(result_type, words);
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} else if (float_type->width() == 64) {
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double result_val = integer_type->IsSigned()
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? static_cast<double>(static_cast<int32_t>(ua))
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: static_cast<double>(ua);
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spvutils::FloatProxy<double> result(result_val);
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std::vector<uint32_t> words = result.GetWords();
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return const_mgr->GetConstant(result_type, words);
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}
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return nullptr;
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};
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}
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// This macro defines a |BinaryScalarFoldingRule| that applies |op|. The
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// operator |op| must work for both float and double, and use syntax "f1 op f2".
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#define FOLD_FPARITH_OP(op) \
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[](const analysis::Type* result_type, const analysis::Constant* a, \
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const analysis::Constant* b, \
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analysis::ConstantManager* const_mgr) -> const analysis::Constant* { \
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assert(result_type != nullptr && a != nullptr && b != nullptr); \
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assert(result_type == a->type() && result_type == b->type()); \
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const analysis::Float* float_type = result_type->AsFloat(); \
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assert(float_type != nullptr); \
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if (float_type->width() == 32) { \
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float fa = a->GetFloat(); \
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float fb = b->GetFloat(); \
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spvutils::FloatProxy<float> result(fa op fb); \
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std::vector<uint32_t> words = result.GetWords(); \
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return const_mgr->GetConstant(result_type, words); \
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} else if (float_type->width() == 64) { \
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double fa = a->GetDouble(); \
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double fb = b->GetDouble(); \
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spvutils::FloatProxy<double> result(fa op fb); \
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std::vector<uint32_t> words = result.GetWords(); \
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return const_mgr->GetConstant(result_type, words); \
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} \
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return nullptr; \
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}
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// Define the folding rule for conversion between floating point and integer
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ConstantFoldingRule FoldFToI() { return FoldFPUnaryOp(FoldFToIOp()); }
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ConstantFoldingRule FoldIToF() { return FoldFPUnaryOp(FoldIToFOp()); }
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// Define the folding rules for subtraction, addition, multiplication, and
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// division for floating point values.
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ConstantFoldingRule FoldFSub() { return FoldFPBinaryOp(FOLD_FPARITH_OP(-)); }
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ConstantFoldingRule FoldFAdd() { return FoldFPBinaryOp(FOLD_FPARITH_OP(+)); }
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ConstantFoldingRule FoldFMul() { return FoldFPBinaryOp(FOLD_FPARITH_OP(*)); }
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ConstantFoldingRule FoldFDiv() { return FoldFPBinaryOp(FOLD_FPARITH_OP(/)); }
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bool CompareFloatingPoint(bool op_result, bool op_unordered,
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bool need_ordered) {
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if (need_ordered) {
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// operands are ordered and Operand 1 is |op| Operand 2
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return !op_unordered && op_result;
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} else {
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// operands are unordered or Operand 1 is |op| Operand 2
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return op_unordered || op_result;
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}
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}
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// This macro defines a |BinaryScalarFoldingRule| that applies |op|. The
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// operator |op| must work for both float and double, and use syntax "f1 op f2".
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#define FOLD_FPCMP_OP(op, ord) \
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[](const analysis::Type* result_type, const analysis::Constant* a, \
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const analysis::Constant* b, \
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analysis::ConstantManager* const_mgr) -> const analysis::Constant* { \
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assert(result_type != nullptr && a != nullptr && b != nullptr); \
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assert(result_type->AsBool()); \
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assert(a->type() == b->type()); \
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const analysis::Float* float_type = a->type()->AsFloat(); \
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assert(float_type != nullptr); \
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if (float_type->width() == 32) { \
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float fa = a->GetFloat(); \
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float fb = b->GetFloat(); \
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bool result = CompareFloatingPoint( \
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fa op fb, std::isnan(fa) || std::isnan(fb), ord); \
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std::vector<uint32_t> words = {uint32_t(result)}; \
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return const_mgr->GetConstant(result_type, words); \
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} else if (float_type->width() == 64) { \
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double fa = a->GetDouble(); \
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double fb = b->GetDouble(); \
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bool result = CompareFloatingPoint( \
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fa op fb, std::isnan(fa) || std::isnan(fb), ord); \
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std::vector<uint32_t> words = {uint32_t(result)}; \
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return const_mgr->GetConstant(result_type, words); \
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} \
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return nullptr; \
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}
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// Define the folding rules for ordered and unordered comparison for floating
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// point values.
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ConstantFoldingRule FoldFOrdEqual() {
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return FoldFPBinaryOp(FOLD_FPCMP_OP(==, true));
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}
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ConstantFoldingRule FoldFUnordEqual() {
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return FoldFPBinaryOp(FOLD_FPCMP_OP(==, false));
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}
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ConstantFoldingRule FoldFOrdNotEqual() {
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return FoldFPBinaryOp(FOLD_FPCMP_OP(!=, true));
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}
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ConstantFoldingRule FoldFUnordNotEqual() {
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return FoldFPBinaryOp(FOLD_FPCMP_OP(!=, false));
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}
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ConstantFoldingRule FoldFOrdLessThan() {
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return FoldFPBinaryOp(FOLD_FPCMP_OP(<, true));
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}
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ConstantFoldingRule FoldFUnordLessThan() {
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return FoldFPBinaryOp(FOLD_FPCMP_OP(<, false));
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}
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ConstantFoldingRule FoldFOrdGreaterThan() {
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return FoldFPBinaryOp(FOLD_FPCMP_OP(>, true));
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}
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ConstantFoldingRule FoldFUnordGreaterThan() {
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return FoldFPBinaryOp(FOLD_FPCMP_OP(>, false));
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}
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ConstantFoldingRule FoldFOrdLessThanEqual() {
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return FoldFPBinaryOp(FOLD_FPCMP_OP(<=, true));
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}
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ConstantFoldingRule FoldFUnordLessThanEqual() {
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return FoldFPBinaryOp(FOLD_FPCMP_OP(<=, false));
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}
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ConstantFoldingRule FoldFOrdGreaterThanEqual() {
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return FoldFPBinaryOp(FOLD_FPCMP_OP(>=, true));
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}
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ConstantFoldingRule FoldFUnordGreaterThanEqual() {
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return FoldFPBinaryOp(FOLD_FPCMP_OP(>=, false));
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}
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} // namespace
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spvtools::opt::ConstantFoldingRules::ConstantFoldingRules() {
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// Add all folding rules to the list for the opcodes to which they apply.
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// Note that the order in which rules are added to the list matters. If a rule
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// applies to the instruction, the rest of the rules will not be attempted.
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// Take that into consideration.
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rules_[SpvOpCompositeConstruct].push_back(FoldCompositeWithConstants());
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rules_[SpvOpCompositeExtract].push_back(FoldExtractWithConstants());
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rules_[SpvOpConvertFToS].push_back(FoldFToI());
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rules_[SpvOpConvertFToU].push_back(FoldFToI());
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rules_[SpvOpConvertSToF].push_back(FoldIToF());
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rules_[SpvOpConvertUToF].push_back(FoldIToF());
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rules_[SpvOpFAdd].push_back(FoldFAdd());
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rules_[SpvOpFDiv].push_back(FoldFDiv());
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rules_[SpvOpFMul].push_back(FoldFMul());
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rules_[SpvOpFSub].push_back(FoldFSub());
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rules_[SpvOpFOrdEqual].push_back(FoldFOrdEqual());
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rules_[SpvOpFUnordEqual].push_back(FoldFUnordEqual());
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rules_[SpvOpFOrdNotEqual].push_back(FoldFOrdNotEqual());
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rules_[SpvOpFUnordNotEqual].push_back(FoldFUnordNotEqual());
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rules_[SpvOpFOrdLessThan].push_back(FoldFOrdLessThan());
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rules_[SpvOpFUnordLessThan].push_back(FoldFUnordLessThan());
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rules_[SpvOpFOrdGreaterThan].push_back(FoldFOrdGreaterThan());
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rules_[SpvOpFUnordGreaterThan].push_back(FoldFUnordGreaterThan());
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rules_[SpvOpFOrdLessThanEqual].push_back(FoldFOrdLessThanEqual());
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rules_[SpvOpFUnordLessThanEqual].push_back(FoldFUnordLessThanEqual());
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rules_[SpvOpFOrdGreaterThanEqual].push_back(FoldFOrdGreaterThanEqual());
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rules_[SpvOpFUnordGreaterThanEqual].push_back(FoldFUnordGreaterThanEqual());
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rules_[SpvOpVectorShuffle].push_back(FoldVectorShuffleWithConstants());
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}
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} // namespace opt
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} // namespace spvtools
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