SPIRV-Tools/test/val/val_id_test.cpp

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2016-01-07 18:44:22 +00:00
// Copyright (c) 2015-2016 The Khronos Group Inc.
//
// Licensed under the Apache License, Version 2.0 (the "License");
// you may not use this file except in compliance with the License.
// You may obtain a copy of the License at
//
// http://www.apache.org/licenses/LICENSE-2.0
//
// Unless required by applicable law or agreed to in writing, software
// distributed under the License is distributed on an "AS IS" BASIS,
// WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
// See the License for the specific language governing permissions and
// limitations under the License.
2016-04-04 19:55:05 +00:00
#include <sstream>
#include <string>
#include "gmock/gmock.h"
#include "test_fixture.h"
#include "unit_spirv.h"
#include "val_fixtures.h"
// NOTE: The tests in this file are ONLY testing ID usage, there for the input
// SPIR-V does not follow the logical layout rules from the spec in all cases in
// order to makes the tests smaller. Validation of the whole module is handled
// in stages, ID validation is only one of these stages. All validation stages
// are stand alone.
namespace {
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using ::testing::ValuesIn;
using ::testing::HasSubstr;
using spvtest::ScopedContext;
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using std::ostringstream;
using std::string;
using std::vector;
using ValidateIdWithMessage = spvtest::ValidateBase<bool>;
string kGLSL450MemoryModel = R"(
OpCapability Shader
OpCapability Linkage
OpCapability Addresses
OpCapability Pipes
OpCapability LiteralSampler
OpCapability DeviceEnqueue
OpCapability Vector16
OpCapability Int8
OpCapability Int16
OpCapability Int64
OpCapability Float64
OpMemoryModel Logical GLSL450
)";
string kOpenCLMemoryModel32 = R"(
OpCapability Addresses
OpCapability Linkage
OpCapability Kernel
%1 = OpExtInstImport "OpenCL.std"
OpMemoryModel Physical32 OpenCL
)";
string kOpenCLMemoryModel64 = R"(
OpCapability Addresses
OpCapability Linkage
OpCapability Kernel
OpCapability Int64
%1 = OpExtInstImport "OpenCL.std"
OpMemoryModel Physical64 OpenCL
)";
string sampledImageSetup = R"(
%void = OpTypeVoid
%typeFuncVoid = OpTypeFunction %void
%float = OpTypeFloat 32
%v4float = OpTypeVector %float 4
%image_type = OpTypeImage %float 2D 0 0 0 1 Unknown
%_ptr_UniformConstant_img = OpTypePointer UniformConstant %image_type
%tex = OpVariable %_ptr_UniformConstant_img UniformConstant
%sampler_type = OpTypeSampler
%_ptr_UniformConstant_sam = OpTypePointer UniformConstant %sampler_type
%s = OpVariable %_ptr_UniformConstant_sam UniformConstant
%sampled_image_type = OpTypeSampledImage %image_type
%v2float = OpTypeVector %float 2
%float_1 = OpConstant %float 1
%float_2 = OpConstant %float 2
%const_vec_1_1 = OpConstantComposite %v2float %float_1 %float_1
%const_vec_2_2 = OpConstantComposite %v2float %float_2 %float_2
%bool_type = OpTypeBool
%spec_true = OpSpecConstantTrue %bool_type
%main = OpFunction %void None %typeFuncVoid
%label_1 = OpLabel
%image_inst = OpLoad %image_type %tex
%sampler_inst = OpLoad %sampler_type %s
)";
// TODO: OpUndef
TEST_F(ValidateIdWithMessage, OpName) {
string spirv = kGLSL450MemoryModel + R"(
OpName %2 "name"
%1 = OpTypeInt 32 0
%2 = OpTypePointer UniformConstant %1
%3 = OpVariable %2 UniformConstant)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpMemberNameGood) {
string spirv = kGLSL450MemoryModel + R"(
OpMemberName %2 0 "foo"
%1 = OpTypeInt 32 0
%2 = OpTypeStruct %1)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpMemberNameTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
OpMemberName %1 0 "foo"
%1 = OpTypeInt 32 0)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpMemberName Type <id> '1' is not a struct type."));
}
TEST_F(ValidateIdWithMessage, OpMemberNameMemberBad) {
string spirv = kGLSL450MemoryModel + R"(
OpMemberName %2 1 "foo"
%1 = OpTypeInt 32 0
%2 = OpTypeStruct %1)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpMemberName Member <id> '1' index is larger than "
"Type <id> '1's member count."));
}
TEST_F(ValidateIdWithMessage, OpLineGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpString "/path/to/source.file"
OpLine %1 0 0
%2 = OpTypeInt 32 0
%3 = OpTypePointer Input %2
%4 = OpVariable %3 Input)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpLineFileBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
OpLine %1 0 0
)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpLine Target <id> '1' is not an OpString."));
}
TEST_F(ValidateIdWithMessage, OpDecorateGood) {
string spirv = kGLSL450MemoryModel + R"(
OpDecorate %2 GLSLShared
%1 = OpTypeInt 64 0
%2 = OpTypeStruct %1 %1)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpDecorateBad) {
string spirv = kGLSL450MemoryModel + R"(
OpDecorate %1 GLSLShared)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("forward referenced IDs have not been defined"));
}
TEST_F(ValidateIdWithMessage, OpMemberDecorateGood) {
string spirv = kGLSL450MemoryModel + R"(
OpMemberDecorate %2 0 Uniform
%1 = OpTypeInt 32 0
%2 = OpTypeStruct %1 %1)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpMemberDecorateBad) {
string spirv = kGLSL450MemoryModel + R"(
OpMemberDecorate %1 0 Uniform
%1 = OpTypeInt 32 0)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr(
"OpMemberDecorate Structure type <id> '1' is not a struct type."));
}
TEST_F(ValidateIdWithMessage, OpMemberDecorateMemberBad) {
string spirv = kGLSL450MemoryModel + R"(
OpMemberDecorate %1 3 Uniform
%int = OpTypeInt 32 0
%1 = OpTypeStruct %int %int)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("Index 3 provided in OpMemberDecorate for struct <id> "
"1 is out of bounds. The structure has 2 members. "
"Largest valid index is 1."));
}
TEST_F(ValidateIdWithMessage, OpGroupDecorateGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpDecorationGroup
OpDecorate %1 Uniform
OpDecorate %1 GLSLShared
OpGroupDecorate %1 %3 %4
%2 = OpTypeInt 32 0
%3 = OpConstant %2 42
%4 = OpConstant %2 23)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpGroupDecorateDecorationGroupBad) {
string spirv = R"(
OpCapability Shader
OpCapability Linkage
%1 = OpExtInstImport "GLSL.std.450"
OpMemoryModel Logical GLSL450
OpGroupDecorate %1 %2 %3
%2 = OpTypeInt 32 0
%3 = OpConstant %2 42)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpGroupDecorate Decoration group <id> '1' is not a "
"decoration group."));
}
TEST_F(ValidateIdWithMessage, OpGroupDecorateTargetBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpDecorationGroup
OpDecorate %1 Uniform
OpDecorate %1 GLSLShared
OpGroupDecorate %1 %3
%2 = OpTypeInt 32 0)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("forward referenced IDs have not been defined"));
}
TEST_F(ValidateIdWithMessage, OpGroupMemberDecorateDecorationGroupBad) {
string spirv = R"(
OpCapability Shader
OpCapability Linkage
%1 = OpExtInstImport "GLSL.std.450"
OpMemoryModel Logical GLSL450
OpGroupMemberDecorate %1 %2 0
%2 = OpTypeInt 32 0)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpGroupMemberDecorate Decoration group <id> '1' is "
"not a decoration group."));
}
TEST_F(ValidateIdWithMessage, OpGroupMemberDecorateIdNotStructBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpDecorationGroup
OpGroupMemberDecorate %1 %2 0
%2 = OpTypeInt 32 0)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpGroupMemberDecorate Structure type <id> '2' is not "
"a struct type."));
}
TEST_F(ValidateIdWithMessage, OpGroupMemberDecorateIndexOutOfBoundBad) {
string spirv = kGLSL450MemoryModel + R"(
OpDecorate %1 Offset 0
%1 = OpDecorationGroup
OpGroupMemberDecorate %1 %struct 3
%float = OpTypeFloat 32
%struct = OpTypeStruct %float %float %float
)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("Index 3 provided in OpGroupMemberDecorate for struct "
"<id> 2 is out of bounds. The structure has 3 members. "
"Largest valid index is 2."));
}
// TODO: OpExtInst
TEST_F(ValidateIdWithMessage, OpEntryPointGood) {
string spirv = kGLSL450MemoryModel + R"(
Use opcode operand definitions from SPIR-V specification generator. The assembler and disassembler now use a dynamically adjusted sequence of expected operand types. (Internally, it is a deque, for readability.) Both parsers repeatedly pull an expected operand type from the left of this pattern list, and try to match the next input token against it. The expected pattern is adjusted during the parse to accommodate: - an extended instruction's expected operands, depending on the extended instruction's index. - when an operand itself has operands - to handle sequences of zero or more operands, or pairs of operands. These are expanded lazily during the parse. Adds spv::OperandClass from the SPIR-V specification generator. Modifies spv_operand_desc_t: - adds hasResult, hasType, and operandClass array to the opcode description type. - "wordCount" is replaced with "numTypes", which counts the number of entries in operandTypes. And each of those describes a *logical* operand, including the type id for the instruction, and the result id for the instruction. A logical operand could be variable-width, such as a literal string. Adds opcode.inc, an automatically-generated table of operation descriptions, with one line to describe each core instruction. Externally, we have modified the SPIR-V spec doc generator to emit this file. (We have hacked this copy to use the old semantics for OpLine.) Inside the assembler, parsing an operand may fail with new error code SPV_FAIL_MATCH. For an optional operand, this is not fatal, but should trigger backtracking at a higher level. The spvTextIsStartOfNewInst checks the case of the third letter of what might be an opcode. So now, "OpenCL" does not look like an opcode name. In assembly, the EntryPoint name field is mandatory, but can be an empty string. Adjust tests for changes to: - OpSampedImage - OpTypeSampler
2015-08-27 17:03:52 +00:00
OpEntryPoint GLCompute %3 ""
%1 = OpTypeVoid
%2 = OpTypeFunction %1
%3 = OpFunction %1 None %2
%4 = OpLabel
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpEntryPointFunctionBad) {
string spirv = kGLSL450MemoryModel + R"(
Use opcode operand definitions from SPIR-V specification generator. The assembler and disassembler now use a dynamically adjusted sequence of expected operand types. (Internally, it is a deque, for readability.) Both parsers repeatedly pull an expected operand type from the left of this pattern list, and try to match the next input token against it. The expected pattern is adjusted during the parse to accommodate: - an extended instruction's expected operands, depending on the extended instruction's index. - when an operand itself has operands - to handle sequences of zero or more operands, or pairs of operands. These are expanded lazily during the parse. Adds spv::OperandClass from the SPIR-V specification generator. Modifies spv_operand_desc_t: - adds hasResult, hasType, and operandClass array to the opcode description type. - "wordCount" is replaced with "numTypes", which counts the number of entries in operandTypes. And each of those describes a *logical* operand, including the type id for the instruction, and the result id for the instruction. A logical operand could be variable-width, such as a literal string. Adds opcode.inc, an automatically-generated table of operation descriptions, with one line to describe each core instruction. Externally, we have modified the SPIR-V spec doc generator to emit this file. (We have hacked this copy to use the old semantics for OpLine.) Inside the assembler, parsing an operand may fail with new error code SPV_FAIL_MATCH. For an optional operand, this is not fatal, but should trigger backtracking at a higher level. The spvTextIsStartOfNewInst checks the case of the third letter of what might be an opcode. So now, "OpenCL" does not look like an opcode name. In assembly, the EntryPoint name field is mandatory, but can be an empty string. Adjust tests for changes to: - OpSampedImage - OpTypeSampler
2015-08-27 17:03:52 +00:00
OpEntryPoint GLCompute %1 ""
%1 = OpTypeVoid)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr("OpEntryPoint Entry Point <id> '1' is not a function."));
}
TEST_F(ValidateIdWithMessage, OpEntryPointParameterCountBad) {
string spirv = kGLSL450MemoryModel + R"(
Use opcode operand definitions from SPIR-V specification generator. The assembler and disassembler now use a dynamically adjusted sequence of expected operand types. (Internally, it is a deque, for readability.) Both parsers repeatedly pull an expected operand type from the left of this pattern list, and try to match the next input token against it. The expected pattern is adjusted during the parse to accommodate: - an extended instruction's expected operands, depending on the extended instruction's index. - when an operand itself has operands - to handle sequences of zero or more operands, or pairs of operands. These are expanded lazily during the parse. Adds spv::OperandClass from the SPIR-V specification generator. Modifies spv_operand_desc_t: - adds hasResult, hasType, and operandClass array to the opcode description type. - "wordCount" is replaced with "numTypes", which counts the number of entries in operandTypes. And each of those describes a *logical* operand, including the type id for the instruction, and the result id for the instruction. A logical operand could be variable-width, such as a literal string. Adds opcode.inc, an automatically-generated table of operation descriptions, with one line to describe each core instruction. Externally, we have modified the SPIR-V spec doc generator to emit this file. (We have hacked this copy to use the old semantics for OpLine.) Inside the assembler, parsing an operand may fail with new error code SPV_FAIL_MATCH. For an optional operand, this is not fatal, but should trigger backtracking at a higher level. The spvTextIsStartOfNewInst checks the case of the third letter of what might be an opcode. So now, "OpenCL" does not look like an opcode name. In assembly, the EntryPoint name field is mandatory, but can be an empty string. Adjust tests for changes to: - OpSampedImage - OpTypeSampler
2015-08-27 17:03:52 +00:00
OpEntryPoint GLCompute %3 ""
%1 = OpTypeVoid
%2 = OpTypeFunction %1 %1
%3 = OpFunction %1 None %2
%4 = OpLabel
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpEntryPoint Entry Point <id> '1's function parameter "
"count is not zero"));
}
TEST_F(ValidateIdWithMessage, OpEntryPointReturnTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
Use opcode operand definitions from SPIR-V specification generator. The assembler and disassembler now use a dynamically adjusted sequence of expected operand types. (Internally, it is a deque, for readability.) Both parsers repeatedly pull an expected operand type from the left of this pattern list, and try to match the next input token against it. The expected pattern is adjusted during the parse to accommodate: - an extended instruction's expected operands, depending on the extended instruction's index. - when an operand itself has operands - to handle sequences of zero or more operands, or pairs of operands. These are expanded lazily during the parse. Adds spv::OperandClass from the SPIR-V specification generator. Modifies spv_operand_desc_t: - adds hasResult, hasType, and operandClass array to the opcode description type. - "wordCount" is replaced with "numTypes", which counts the number of entries in operandTypes. And each of those describes a *logical* operand, including the type id for the instruction, and the result id for the instruction. A logical operand could be variable-width, such as a literal string. Adds opcode.inc, an automatically-generated table of operation descriptions, with one line to describe each core instruction. Externally, we have modified the SPIR-V spec doc generator to emit this file. (We have hacked this copy to use the old semantics for OpLine.) Inside the assembler, parsing an operand may fail with new error code SPV_FAIL_MATCH. For an optional operand, this is not fatal, but should trigger backtracking at a higher level. The spvTextIsStartOfNewInst checks the case of the third letter of what might be an opcode. So now, "OpenCL" does not look like an opcode name. In assembly, the EntryPoint name field is mandatory, but can be an empty string. Adjust tests for changes to: - OpSampedImage - OpTypeSampler
2015-08-27 17:03:52 +00:00
OpEntryPoint GLCompute %3 ""
%1 = OpTypeInt 32 0
%2 = OpTypeFunction %1
%3 = OpFunction %1 None %2
%4 = OpLabel
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpEntryPoint Entry Point <id> '1's function return "
"type is not void."));
}
TEST_F(ValidateIdWithMessage, OpEntryPointInterfaceIsNotVariableTypeBad) {
string spirv = R"(
OpCapability Shader
OpCapability Geometry
OpMemoryModel Logical GLSL450
OpEntryPoint Geometry %main "main" %ptr_builtin_1
OpMemberDecorate %struct_1 0 BuiltIn InvocationId
%int = OpTypeInt 32 1
%void = OpTypeVoid
%func = OpTypeFunction %void
%struct_1 = OpTypeStruct %int
%ptr_builtin_1 = OpTypePointer Input %struct_1
%main = OpFunction %void None %func
%5 = OpLabel
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv);
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("Interfaces passed to OpEntryPoint must be of type "
"OpTypeVariable. Found OpTypePointer."));
}
TEST_F(ValidateIdWithMessage, OpEntryPointInterfaceStorageClassBad) {
string spirv = R"(
OpCapability Shader
OpCapability Geometry
OpMemoryModel Logical GLSL450
OpEntryPoint Geometry %main "main" %in_1
OpMemberDecorate %struct_1 0 BuiltIn InvocationId
%int = OpTypeInt 32 1
%void = OpTypeVoid
%func = OpTypeFunction %void
%struct_1 = OpTypeStruct %int
%ptr_builtin_1 = OpTypePointer Uniform %struct_1
%in_1 = OpVariable %ptr_builtin_1 Uniform
%main = OpFunction %void None %func
%5 = OpLabel
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv);
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpEntryPoint interfaces must be OpVariables with "
"Storage Class of Input(1) or Output(3). Found Storage "
"Class 2 for Entry Point id 1."));
}
TEST_F(ValidateIdWithMessage, OpExecutionModeGood) {
string spirv = kGLSL450MemoryModel + R"(
Use opcode operand definitions from SPIR-V specification generator. The assembler and disassembler now use a dynamically adjusted sequence of expected operand types. (Internally, it is a deque, for readability.) Both parsers repeatedly pull an expected operand type from the left of this pattern list, and try to match the next input token against it. The expected pattern is adjusted during the parse to accommodate: - an extended instruction's expected operands, depending on the extended instruction's index. - when an operand itself has operands - to handle sequences of zero or more operands, or pairs of operands. These are expanded lazily during the parse. Adds spv::OperandClass from the SPIR-V specification generator. Modifies spv_operand_desc_t: - adds hasResult, hasType, and operandClass array to the opcode description type. - "wordCount" is replaced with "numTypes", which counts the number of entries in operandTypes. And each of those describes a *logical* operand, including the type id for the instruction, and the result id for the instruction. A logical operand could be variable-width, such as a literal string. Adds opcode.inc, an automatically-generated table of operation descriptions, with one line to describe each core instruction. Externally, we have modified the SPIR-V spec doc generator to emit this file. (We have hacked this copy to use the old semantics for OpLine.) Inside the assembler, parsing an operand may fail with new error code SPV_FAIL_MATCH. For an optional operand, this is not fatal, but should trigger backtracking at a higher level. The spvTextIsStartOfNewInst checks the case of the third letter of what might be an opcode. So now, "OpenCL" does not look like an opcode name. In assembly, the EntryPoint name field is mandatory, but can be an empty string. Adjust tests for changes to: - OpSampedImage - OpTypeSampler
2015-08-27 17:03:52 +00:00
OpEntryPoint GLCompute %3 ""
OpExecutionMode %3 LocalSize 1 1 1
%1 = OpTypeVoid
%2 = OpTypeFunction %1
%3 = OpFunction %1 None %2
%4 = OpLabel
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpExecutionModeEntryPointMissing) {
string spirv = kGLSL450MemoryModel + R"(
OpExecutionMode %3 LocalSize 1 1 1
%1 = OpTypeVoid
%2 = OpTypeFunction %1
%3 = OpFunction %1 None %2
%4 = OpLabel
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpExecutionMode Entry Point <id> '1' is not the Entry "
"Point operand of an OpEntryPoint."));
}
TEST_F(ValidateIdWithMessage, OpExecutionModeEntryPointBad) {
string spirv = kGLSL450MemoryModel + R"(
OpEntryPoint GLCompute %3 "" %a
OpExecutionMode %a LocalSize 1 1 1
%void = OpTypeVoid
%ptr = OpTypePointer Input %void
%a = OpVariable %ptr Input
%2 = OpTypeFunction %void
%3 = OpFunction %void None %2
%4 = OpLabel
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpExecutionMode Entry Point <id> '2' is not the Entry "
"Point operand of an OpEntryPoint."));
}
TEST_F(ValidateIdWithMessage, OpTypeVectorFloat) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpTypeVectorInt) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypeVector %1 4)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpTypeVectorUInt) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 64 0
%2 = OpTypeVector %1 4)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpTypeVectorBool) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeBool
%2 = OpTypeVector %1 4)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpTypeVectorComponentTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypePointer UniformConstant %1
%3 = OpTypeVector %2 4)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr("OpTypeVector Component Type <id> '2' is not a scalar type."));
}
TEST_F(ValidateIdWithMessage, OpTypeMatrixGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 2
%3 = OpTypeMatrix %2 3)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpTypeMatrixColumnTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypeMatrix %1 3)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("Columns in a matrix must be of type vector."));
}
TEST_F(ValidateIdWithMessage, OpTypeSamplerGood) {
Use opcode operand definitions from SPIR-V specification generator. The assembler and disassembler now use a dynamically adjusted sequence of expected operand types. (Internally, it is a deque, for readability.) Both parsers repeatedly pull an expected operand type from the left of this pattern list, and try to match the next input token against it. The expected pattern is adjusted during the parse to accommodate: - an extended instruction's expected operands, depending on the extended instruction's index. - when an operand itself has operands - to handle sequences of zero or more operands, or pairs of operands. These are expanded lazily during the parse. Adds spv::OperandClass from the SPIR-V specification generator. Modifies spv_operand_desc_t: - adds hasResult, hasType, and operandClass array to the opcode description type. - "wordCount" is replaced with "numTypes", which counts the number of entries in operandTypes. And each of those describes a *logical* operand, including the type id for the instruction, and the result id for the instruction. A logical operand could be variable-width, such as a literal string. Adds opcode.inc, an automatically-generated table of operation descriptions, with one line to describe each core instruction. Externally, we have modified the SPIR-V spec doc generator to emit this file. (We have hacked this copy to use the old semantics for OpLine.) Inside the assembler, parsing an operand may fail with new error code SPV_FAIL_MATCH. For an optional operand, this is not fatal, but should trigger backtracking at a higher level. The spvTextIsStartOfNewInst checks the case of the third letter of what might be an opcode. So now, "OpenCL" does not look like an opcode name. In assembly, the EntryPoint name field is mandatory, but can be an empty string. Adjust tests for changes to: - OpSampedImage - OpTypeSampler
2015-08-27 17:03:52 +00:00
// In Rev31, OpTypeSampler takes no arguments.
string spirv = kGLSL450MemoryModel + R"(
Use opcode operand definitions from SPIR-V specification generator. The assembler and disassembler now use a dynamically adjusted sequence of expected operand types. (Internally, it is a deque, for readability.) Both parsers repeatedly pull an expected operand type from the left of this pattern list, and try to match the next input token against it. The expected pattern is adjusted during the parse to accommodate: - an extended instruction's expected operands, depending on the extended instruction's index. - when an operand itself has operands - to handle sequences of zero or more operands, or pairs of operands. These are expanded lazily during the parse. Adds spv::OperandClass from the SPIR-V specification generator. Modifies spv_operand_desc_t: - adds hasResult, hasType, and operandClass array to the opcode description type. - "wordCount" is replaced with "numTypes", which counts the number of entries in operandTypes. And each of those describes a *logical* operand, including the type id for the instruction, and the result id for the instruction. A logical operand could be variable-width, such as a literal string. Adds opcode.inc, an automatically-generated table of operation descriptions, with one line to describe each core instruction. Externally, we have modified the SPIR-V spec doc generator to emit this file. (We have hacked this copy to use the old semantics for OpLine.) Inside the assembler, parsing an operand may fail with new error code SPV_FAIL_MATCH. For an optional operand, this is not fatal, but should trigger backtracking at a higher level. The spvTextIsStartOfNewInst checks the case of the third letter of what might be an opcode. So now, "OpenCL" does not look like an opcode name. In assembly, the EntryPoint name field is mandatory, but can be an empty string. Adjust tests for changes to: - OpSampedImage - OpTypeSampler
2015-08-27 17:03:52 +00:00
%s = OpTypeSampler)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpTypeArrayGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpConstant %1 1
%3 = OpTypeArray %1 %2)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
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TEST_F(ValidateIdWithMessage, OpTypeArrayElementTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpConstant %1 1
%3 = OpTypeArray %2 %2)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpTypeArray Element Type <id> '2' is not a type."));
}
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// Signed or unsigned.
enum Signed { kSigned, kUnsigned };
// Creates an assembly snippet declaring OpTypeArray with the given length.
string MakeArrayLength(const string& len, Signed isSigned, int width) {
ostringstream ss;
ss << R"(
OpCapability Shader
OpCapability Linkage
OpCapability Int16
OpCapability Int64
)";
ss << "OpMemoryModel Logical GLSL450\n";
ss << " %t = OpTypeInt " << width << (isSigned == kSigned ? " 1" : " 0");
ss << " %l = OpConstant %t " << len;
ss << " %a = OpTypeArray %t %l";
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return ss.str();
}
// Tests OpTypeArray. Parameter is the width (in bits) of the array-length's
// type.
class OpTypeArrayLengthTest
: public spvtest::TextToBinaryTestBase<::testing::TestWithParam<int>> {
protected:
OpTypeArrayLengthTest()
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: position_(spv_position_t{0, 0, 0}),
diagnostic_(spvDiagnosticCreate(&position_, "")) {}
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~OpTypeArrayLengthTest() { spvDiagnosticDestroy(diagnostic_); }
// Runs spvValidate() on v, printing any errors via spvDiagnosticPrint().
spv_result_t Val(const SpirvVector& v, const std::string &expected_err = "") {
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spv_const_binary_t cbinary{v.data(), v.size()};
const auto status =
spvValidate(ScopedContext().context, &cbinary, &diagnostic_);
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if (status != SPV_SUCCESS) {
spvDiagnosticPrint(diagnostic_);
EXPECT_THAT(std::string(diagnostic_->error), HasSubstr(expected_err));
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}
return status;
}
private:
spv_position_t position_; // For creating diagnostic_.
spv_diagnostic diagnostic_;
};
TEST_P(OpTypeArrayLengthTest, LengthPositive) {
const int width = GetParam();
EXPECT_EQ(SPV_SUCCESS,
Val(CompileSuccessfully(MakeArrayLength("1", kSigned, width))));
EXPECT_EQ(SPV_SUCCESS,
Val(CompileSuccessfully(MakeArrayLength("1", kUnsigned, width))));
EXPECT_EQ(SPV_SUCCESS,
Val(CompileSuccessfully(MakeArrayLength("2", kSigned, width))));
EXPECT_EQ(SPV_SUCCESS,
Val(CompileSuccessfully(MakeArrayLength("2", kUnsigned, width))));
EXPECT_EQ(SPV_SUCCESS,
Val(CompileSuccessfully(MakeArrayLength("55", kSigned, width))));
EXPECT_EQ(SPV_SUCCESS,
Val(CompileSuccessfully(MakeArrayLength("55", kUnsigned, width))));
const string fpad(width / 4 - 1, 'F');
EXPECT_EQ(
SPV_SUCCESS,
Val(CompileSuccessfully(MakeArrayLength("0x7" + fpad, kSigned, width))));
EXPECT_EQ(SPV_SUCCESS, Val(CompileSuccessfully(
MakeArrayLength("0xF" + fpad, kUnsigned, width))));
}
TEST_P(OpTypeArrayLengthTest, LengthZero) {
const int width = GetParam();
EXPECT_EQ(
SPV_ERROR_INVALID_ID,
Val(CompileSuccessfully(MakeArrayLength("0", kSigned, width)),
"OpTypeArray Length <id> '2' default value must be at least 1."));
EXPECT_EQ(
SPV_ERROR_INVALID_ID,
Val(CompileSuccessfully(MakeArrayLength("0", kUnsigned, width)),
"OpTypeArray Length <id> '2' default value must be at least 1."));
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}
TEST_P(OpTypeArrayLengthTest, LengthNegative) {
const int width = GetParam();
EXPECT_EQ(
SPV_ERROR_INVALID_ID,
Val(CompileSuccessfully(MakeArrayLength("-1", kSigned, width)),
"OpTypeArray Length <id> '2' default value must be at least 1."));
EXPECT_EQ(
SPV_ERROR_INVALID_ID,
Val(CompileSuccessfully(MakeArrayLength("-2", kSigned, width)),
"OpTypeArray Length <id> '2' default value must be at least 1."));
EXPECT_EQ(
SPV_ERROR_INVALID_ID,
Val(CompileSuccessfully(MakeArrayLength("-123", kSigned, width)),
"OpTypeArray Length <id> '2' default value must be at least 1."));
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const string neg_max = "0x8" + string(width / 4 - 1, '0');
EXPECT_EQ(
SPV_ERROR_INVALID_ID,
Val(CompileSuccessfully(MakeArrayLength(neg_max, kSigned, width)),
"OpTypeArray Length <id> '2' default value must be at least 1."));
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}
// The only valid widths for integers are 8, 16, 32, and 64.
// Since the Int8 capability requires the Kernel capability, and the Kernel
// capability prohibits usage of signed integers, we can skip 8-bit integers
// here since the purpose of these tests is to check the validity of
// OpTypeArray, not OpTypeInt.
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INSTANTIATE_TEST_CASE_P(Widths, OpTypeArrayLengthTest,
ValuesIn(vector<int>{16, 32, 64}));
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TEST_F(ValidateIdWithMessage, OpTypeArrayLengthNull) {
string spirv = kGLSL450MemoryModel + R"(
%i32 = OpTypeInt 32 0
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%len = OpConstantNull %i32
%ary = OpTypeArray %i32 %len)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr(
"OpTypeArray Length <id> '2' default value must be at least 1."));
}
TEST_F(ValidateIdWithMessage, OpTypeArrayLengthSpecConst) {
string spirv = kGLSL450MemoryModel + R"(
%i32 = OpTypeInt 32 0
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%len = OpSpecConstant %i32 2
%ary = OpTypeArray %i32 %len)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
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}
TEST_F(ValidateIdWithMessage, OpTypeArrayLengthSpecConstOp) {
string spirv = kGLSL450MemoryModel + R"(
%i32 = OpTypeInt 32 0
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%c1 = OpConstant %i32 1
%c2 = OpConstant %i32 2
%len = OpSpecConstantOp %i32 IAdd %c1 %c2
%ary = OpTypeArray %i32 %len)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
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}
TEST_F(ValidateIdWithMessage, OpTypeRuntimeArrayGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypeRuntimeArray %1)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpTypeRuntimeArrayBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpConstant %1 0
%3 = OpTypeRuntimeArray %2)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr("OpTypeRuntimeArray Element Type <id> '2' is not a type."));
}
// TODO: Object of this type can only be created with OpVariable using the
// Unifrom Storage Class
TEST_F(ValidateIdWithMessage, OpTypeStructGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypeFloat 64
%3 = OpTypePointer Input %1
%4 = OpTypeStruct %1 %2 %3)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpTypeStructMemberTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypeFloat 64
%3 = OpConstant %2 0.0
%4 = OpTypeStruct %1 %2 %3)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpTypeStruct Member Type <id> '3' is not a type."));
}
TEST_F(ValidateIdWithMessage, OpTypePointerGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypePointer Input %1)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpTypePointerBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpConstant %1 0
%3 = OpTypePointer Input %2)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpTypePointer Type <id> '2' is not a type."));
}
TEST_F(ValidateIdWithMessage, OpTypeFunctionGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeFunction %1)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpTypeFunctionReturnTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpConstant %1 0
%3 = OpTypeFunction %2)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpTypeFunction Return Type <id> '2' is not a type."));
}
TEST_F(ValidateIdWithMessage, OpTypeFunctionParameterBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpConstant %2 0
%4 = OpTypeFunction %1 %2 %3)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr("OpTypeFunction Parameter Type <id> '3' is not a type."));
}
TEST_F(ValidateIdWithMessage, OpTypePipeGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 16
%3 = OpTypePipe ReadOnly)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpConstantTrueGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeBool
%2 = OpConstantTrue %1)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpConstantTrueBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpConstantTrue %1)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr("OpConstantTrue Result Type <id> '1' is not a boolean type."));
}
TEST_F(ValidateIdWithMessage, OpConstantFalseGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeBool
%2 = OpConstantTrue %1)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpConstantFalseBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpConstantFalse %1)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr("OpConstantFalse Result Type <id> '1' is not a boolean type."));
}
TEST_F(ValidateIdWithMessage, OpConstantGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpConstant %1 1)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpConstantBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpConstant !1 !0)";
// The expected failure code is implementation dependent (currently
// INVALID_BINARY because the binary parser catches these cases) and may
// change over time, but this must always fail.
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_BINARY, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpConstantCompositeVectorGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4
%3 = OpConstant %1 3.14
%4 = OpConstantComposite %2 %3 %3 %3 %3)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpConstantCompositeVectorWithUndefGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4
%3 = OpConstant %1 3.14
%9 = OpUndef %1
%4 = OpConstantComposite %2 %3 %3 %3 %9)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpConstantCompositeVectorResultTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4
%3 = OpConstant %1 3.14
%4 = OpConstantComposite %1 %3 %3 %3 %3)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr(
"OpConstantComposite Result Type <id> '1' is not a composite type."));
}
TEST_F(ValidateIdWithMessage, OpConstantCompositeVectorConstituentTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4
%4 = OpTypeInt 32 0
%3 = OpConstant %1 3.14
%5 = OpConstant %4 42 ; bad type for constant value
%6 = OpConstantComposite %2 %3 %5 %3 %3)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr("OpConstantComposite Constituent <id> '5's type does not match "
"Result Type <id> '2's vector element type."));
}
TEST_F(ValidateIdWithMessage,
OpConstantCompositeVectorConstituentUndefTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4
%4 = OpTypeInt 32 0
%3 = OpConstant %1 3.14
%5 = OpUndef %4 ; bad type for undef value
%6 = OpConstantComposite %2 %3 %5 %3 %3)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr("OpConstantComposite Constituent <id> '5's type does not match "
"Result Type <id> '2's vector element type."));
}
TEST_F(ValidateIdWithMessage, OpConstantCompositeMatrixGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4
%3 = OpTypeMatrix %2 4
%4 = OpConstant %1 1.0
2015-08-24 20:27:02 +00:00
%5 = OpConstant %1 0.0
%6 = OpConstantComposite %2 %4 %5 %5 %5
%7 = OpConstantComposite %2 %5 %4 %5 %5
%8 = OpConstantComposite %2 %5 %5 %4 %5
%9 = OpConstantComposite %2 %5 %5 %5 %4
%10 = OpConstantComposite %3 %6 %7 %8 %9)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpConstantCompositeMatrixUndefGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4
%3 = OpTypeMatrix %2 4
%4 = OpConstant %1 1.0
%5 = OpConstant %1 0.0
%6 = OpConstantComposite %2 %4 %5 %5 %5
%7 = OpConstantComposite %2 %5 %4 %5 %5
%8 = OpConstantComposite %2 %5 %5 %4 %5
%9 = OpUndef %2
%10 = OpConstantComposite %3 %6 %7 %8 %9)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpConstantCompositeMatrixConstituentTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4
%11 = OpTypeVector %1 3
%3 = OpTypeMatrix %2 4
%4 = OpConstant %1 1.0
%5 = OpConstant %1 0.0
%6 = OpConstantComposite %2 %4 %5 %5 %5
%7 = OpConstantComposite %2 %5 %4 %5 %5
%8 = OpConstantComposite %2 %5 %5 %4 %5
%9 = OpConstantComposite %11 %5 %5 %5
%10 = OpConstantComposite %3 %6 %7 %8 %9)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpConstantComposite Constituent <id> '10' vector "
"component count does not match Result Type <id> '4's "
"vector component count."));
}
TEST_F(ValidateIdWithMessage,
OpConstantCompositeMatrixConstituentUndefTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4
%11 = OpTypeVector %1 3
%3 = OpTypeMatrix %2 4
%4 = OpConstant %1 1.0
%5 = OpConstant %1 0.0
%6 = OpConstantComposite %2 %4 %5 %5 %5
%7 = OpConstantComposite %2 %5 %4 %5 %5
%8 = OpConstantComposite %2 %5 %5 %4 %5
%9 = OpUndef %11
%10 = OpConstantComposite %3 %6 %7 %8 %9)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpConstantComposite Constituent <id> '10' vector "
"component count does not match Result Type <id> '4's "
"vector component count."));
}
TEST_F(ValidateIdWithMessage, OpConstantCompositeMatrixColumnTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypeFloat 32
%3 = OpTypeVector %1 2
%4 = OpTypeVector %3 2
%5 = OpTypeMatrix %2 2
%6 = OpConstant %1 42
%7 = OpConstant %2 3.14
%8 = OpConstantComposite %3 %6 %6
%9 = OpConstantComposite %4 %7 %7
%10 = OpConstantComposite %5 %8 %9)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("Columns in a matrix must be of type vector."));
}
TEST_F(ValidateIdWithMessage, OpConstantCompositeArrayGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpConstant %1 4
%3 = OpTypeArray %1 %2
%4 = OpConstantComposite %3 %2 %2 %2 %2)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpConstantCompositeArrayWithUndefGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpConstant %1 4
%9 = OpUndef %1
%3 = OpTypeArray %1 %2
%4 = OpConstantComposite %3 %2 %2 %2 %9)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpConstantCompositeArrayConstConstituentBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpConstant %1 4
%3 = OpTypeArray %1 %2
%4 = OpConstantComposite %3 %2 %2 %2 %1)"; // Uses a type as operand
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpConstantComposite Constituent <id> '1' is not a "
"constant or undef."));
}
TEST_F(ValidateIdWithMessage, OpConstantCompositeArrayConstituentTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpConstant %1 4
%3 = OpTypeArray %1 %2
%5 = OpTypeFloat 32
%6 = OpConstant %5 3.14 ; bad type for const value
%4 = OpConstantComposite %3 %2 %2 %2 %6)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpConstantComposite Constituent <id> '5's type does "
"not match Result Type <id> '3's array element type."));
}
TEST_F(ValidateIdWithMessage, OpConstantCompositeArrayConstituentUndefTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpConstant %1 4
%3 = OpTypeArray %1 %2
%5 = OpTypeFloat 32
%6 = OpUndef %5 ; bad type for undef
%4 = OpConstantComposite %3 %2 %2 %2 %6)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpConstantComposite Constituent <id> '5's type does "
"not match Result Type <id> '3's array element type."));
}
TEST_F(ValidateIdWithMessage, OpConstantCompositeStructGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypeInt 64 0
%3 = OpTypeStruct %1 %1 %2
%4 = OpConstant %1 42
%5 = OpConstant %2 4300000000
%6 = OpConstantComposite %3 %4 %4 %5)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpConstantCompositeStructUndefGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypeInt 64 0
%3 = OpTypeStruct %1 %1 %2
%4 = OpConstant %1 42
%5 = OpUndef %2
%6 = OpConstantComposite %3 %4 %4 %5)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpConstantCompositeStructMemberTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypeInt 64 0
%3 = OpTypeStruct %1 %1 %2
%4 = OpConstant %1 42
%5 = OpConstant %2 4300000000
%6 = OpConstantComposite %3 %4 %5 %4)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpConstantComposite Constituent <id> '5' type does "
"not match the Result Type <id> '3's member type."));
}
TEST_F(ValidateIdWithMessage, OpConstantCompositeStructMemberUndefTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypeInt 64 0
%3 = OpTypeStruct %1 %1 %2
%4 = OpConstant %1 42
%5 = OpUndef %2
%6 = OpConstantComposite %3 %4 %5 %4)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpConstantComposite Constituent <id> '5' type does "
"not match the Result Type <id> '3's member type."));
}
TEST_F(ValidateIdWithMessage, OpConstantSamplerGood) {
string spirv = kGLSL450MemoryModel + R"(
Use opcode operand definitions from SPIR-V specification generator. The assembler and disassembler now use a dynamically adjusted sequence of expected operand types. (Internally, it is a deque, for readability.) Both parsers repeatedly pull an expected operand type from the left of this pattern list, and try to match the next input token against it. The expected pattern is adjusted during the parse to accommodate: - an extended instruction's expected operands, depending on the extended instruction's index. - when an operand itself has operands - to handle sequences of zero or more operands, or pairs of operands. These are expanded lazily during the parse. Adds spv::OperandClass from the SPIR-V specification generator. Modifies spv_operand_desc_t: - adds hasResult, hasType, and operandClass array to the opcode description type. - "wordCount" is replaced with "numTypes", which counts the number of entries in operandTypes. And each of those describes a *logical* operand, including the type id for the instruction, and the result id for the instruction. A logical operand could be variable-width, such as a literal string. Adds opcode.inc, an automatically-generated table of operation descriptions, with one line to describe each core instruction. Externally, we have modified the SPIR-V spec doc generator to emit this file. (We have hacked this copy to use the old semantics for OpLine.) Inside the assembler, parsing an operand may fail with new error code SPV_FAIL_MATCH. For an optional operand, this is not fatal, but should trigger backtracking at a higher level. The spvTextIsStartOfNewInst checks the case of the third letter of what might be an opcode. So now, "OpenCL" does not look like an opcode name. In assembly, the EntryPoint name field is mandatory, but can be an empty string. Adjust tests for changes to: - OpSampedImage - OpTypeSampler
2015-08-27 17:03:52 +00:00
%float = OpTypeFloat 32
%samplerType = OpTypeSampler
%3 = OpConstantSampler %samplerType ClampToEdge 0 Nearest)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpConstantSamplerResultTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpConstantSampler %1 Clamp 0 Nearest)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr(
"OpConstantSampler Result Type <id> '1' is not a sampler type."));
}
TEST_F(ValidateIdWithMessage, OpConstantNullGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeBool
%2 = OpConstantNull %1
%3 = OpTypeInt 32 0
%4 = OpConstantNull %3
%5 = OpTypeFloat 32
%6 = OpConstantNull %5
%7 = OpTypePointer UniformConstant %3
%8 = OpConstantNull %7
%9 = OpTypeEvent
%10 = OpConstantNull %9
%11 = OpTypeDeviceEvent
%12 = OpConstantNull %11
%13 = OpTypeReserveId
%14 = OpConstantNull %13
%15 = OpTypeQueue
%16 = OpConstantNull %15
%17 = OpTypeVector %5 2
%18 = OpConstantNull %17
%19 = OpTypeMatrix %17 2
%20 = OpConstantNull %19
%25 = OpConstant %3 8
%21 = OpTypeArray %3 %25
%22 = OpConstantNull %21
%23 = OpTypeStruct %3 %5 %1
%24 = OpConstantNull %23
%26 = OpTypeArray %17 %25
%27 = OpConstantNull %26
%28 = OpTypeStruct %7 %26 %26 %1
%29 = OpConstantNull %28
)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpConstantNullBasicBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpConstantNull %1)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr(
"OpConstantNull Result Type <id> '1' cannot have a null value."));
}
TEST_F(ValidateIdWithMessage, OpConstantNullArrayBad) {
string spirv = kGLSL450MemoryModel + R"(
%2 = OpTypeInt 32 0
Use opcode operand definitions from SPIR-V specification generator. The assembler and disassembler now use a dynamically adjusted sequence of expected operand types. (Internally, it is a deque, for readability.) Both parsers repeatedly pull an expected operand type from the left of this pattern list, and try to match the next input token against it. The expected pattern is adjusted during the parse to accommodate: - an extended instruction's expected operands, depending on the extended instruction's index. - when an operand itself has operands - to handle sequences of zero or more operands, or pairs of operands. These are expanded lazily during the parse. Adds spv::OperandClass from the SPIR-V specification generator. Modifies spv_operand_desc_t: - adds hasResult, hasType, and operandClass array to the opcode description type. - "wordCount" is replaced with "numTypes", which counts the number of entries in operandTypes. And each of those describes a *logical* operand, including the type id for the instruction, and the result id for the instruction. A logical operand could be variable-width, such as a literal string. Adds opcode.inc, an automatically-generated table of operation descriptions, with one line to describe each core instruction. Externally, we have modified the SPIR-V spec doc generator to emit this file. (We have hacked this copy to use the old semantics for OpLine.) Inside the assembler, parsing an operand may fail with new error code SPV_FAIL_MATCH. For an optional operand, this is not fatal, but should trigger backtracking at a higher level. The spvTextIsStartOfNewInst checks the case of the third letter of what might be an opcode. So now, "OpenCL" does not look like an opcode name. In assembly, the EntryPoint name field is mandatory, but can be an empty string. Adjust tests for changes to: - OpSampedImage - OpTypeSampler
2015-08-27 17:03:52 +00:00
%3 = OpTypeSampler
%4 = OpConstant %2 4
%5 = OpTypeArray %3 %4
%6 = OpConstantNull %5)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr(
"OpConstantNull Result Type <id> '4' cannot have a null value."));
}
TEST_F(ValidateIdWithMessage, OpConstantNullStructBad) {
string spirv = kGLSL450MemoryModel + R"(
Use opcode operand definitions from SPIR-V specification generator. The assembler and disassembler now use a dynamically adjusted sequence of expected operand types. (Internally, it is a deque, for readability.) Both parsers repeatedly pull an expected operand type from the left of this pattern list, and try to match the next input token against it. The expected pattern is adjusted during the parse to accommodate: - an extended instruction's expected operands, depending on the extended instruction's index. - when an operand itself has operands - to handle sequences of zero or more operands, or pairs of operands. These are expanded lazily during the parse. Adds spv::OperandClass from the SPIR-V specification generator. Modifies spv_operand_desc_t: - adds hasResult, hasType, and operandClass array to the opcode description type. - "wordCount" is replaced with "numTypes", which counts the number of entries in operandTypes. And each of those describes a *logical* operand, including the type id for the instruction, and the result id for the instruction. A logical operand could be variable-width, such as a literal string. Adds opcode.inc, an automatically-generated table of operation descriptions, with one line to describe each core instruction. Externally, we have modified the SPIR-V spec doc generator to emit this file. (We have hacked this copy to use the old semantics for OpLine.) Inside the assembler, parsing an operand may fail with new error code SPV_FAIL_MATCH. For an optional operand, this is not fatal, but should trigger backtracking at a higher level. The spvTextIsStartOfNewInst checks the case of the third letter of what might be an opcode. So now, "OpenCL" does not look like an opcode name. In assembly, the EntryPoint name field is mandatory, but can be an empty string. Adjust tests for changes to: - OpSampedImage - OpTypeSampler
2015-08-27 17:03:52 +00:00
%2 = OpTypeSampler
%3 = OpTypeStruct %2 %2
%4 = OpConstantNull %3)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr(
"OpConstantNull Result Type <id> '2' cannot have a null value."));
}
TEST_F(ValidateIdWithMessage, OpConstantNullRuntimeArrayBad) {
string spirv = kGLSL450MemoryModel + R"(
%bool = OpTypeBool
%array = OpTypeRuntimeArray %bool
%null = OpConstantNull %array)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr(
"OpConstantNull Result Type <id> '2' cannot have a null value."));
}
TEST_F(ValidateIdWithMessage, OpSpecConstantTrueGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeBool
%2 = OpSpecConstantTrue %1)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpSpecConstantTrueBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpSpecConstantTrue %1)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("Specialization constant must be a boolean type."));
}
TEST_F(ValidateIdWithMessage, OpSpecConstantFalseGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeBool
%2 = OpSpecConstantFalse %1)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpSpecConstantFalseBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpSpecConstantFalse %1)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("Specialization constant must be a boolean type."));
}
TEST_F(ValidateIdWithMessage, OpSpecConstantGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpSpecConstant %1 42)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpSpecConstantBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpSpecConstant !1 !4)";
// The expected failure code is implementation dependent (currently
// INVALID_BINARY because the binary parser catches these cases) and may
// change over time, but this must always fail.
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_BINARY, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("Type Id 1 is not a scalar numeric type"));
}
// Valid: SpecConstantComposite specializes to a vector.
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeVectorGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4
%3 = OpSpecConstant %1 3.14
%4 = OpConstant %1 3.14
%5 = OpSpecConstantComposite %2 %3 %3 %4 %4)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// Valid: Vector of floats and Undefs.
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeVectorWithUndefGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4
%3 = OpSpecConstant %1 3.14
%5 = OpConstant %1 3.14
%9 = OpUndef %1
%4 = OpSpecConstantComposite %2 %3 %5 %3 %9)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// Invalid: result type is float.
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeVectorResultTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4
%3 = OpSpecConstant %1 3.14
%4 = OpSpecConstantComposite %1 %3 %3 %3 %3)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(), HasSubstr("is not a composite type"));
}
// Invalid: Vector contains a mix of Int and Float.
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeVectorConstituentTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4
%4 = OpTypeInt 32 0
%3 = OpSpecConstant %1 3.14
%5 = OpConstant %4 42 ; bad type for constant value
%6 = OpSpecConstantComposite %2 %3 %5 %3 %3)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpSpecConstantComposite Constituent <id> '5's type "
"does not match Result Type <id> '2's vector element "
"type."));
}
// Invalid: Constituent is not a constant
TEST_F(ValidateIdWithMessage,
OpSpecConstantCompositeVectorConstituentNotConstantBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4
%3 = OpTypeInt 32 0
%4 = OpSpecConstant %1 3.14
%6 = OpSpecConstantComposite %2 %3 %4 %4 %4)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpSpecConstantComposite Constituent <id> '3' is not a "
"constant or undef."));
}
// Invalid: Vector contains a mix of Undef-int and Float.
TEST_F(ValidateIdWithMessage,
OpSpecConstantCompositeVectorConstituentUndefTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4
%4 = OpTypeInt 32 0
%3 = OpSpecConstant %1 3.14
%5 = OpUndef %4 ; bad type for undef value
%6 = OpSpecConstantComposite %2 %3 %5 %3 %3)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpSpecConstantComposite Constituent <id> '5's type "
"does not match Result Type <id> '2's vector element "
"type."));
}
// Invalid: Vector expects 3 components, but 4 specified.
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeVectorNumComponentsBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 3
%3 = OpConstant %1 3.14
%5 = OpSpecConstant %1 4.0
%6 = OpSpecConstantComposite %2 %3 %5 %3 %3)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpSpecConstantComposite Constituent <id> count does "
"not match Result Type <id> '2's vector component "
"count."));
}
// Valid: 4x4 matrix of floats
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeMatrixGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4
%3 = OpTypeMatrix %2 4
%4 = OpConstant %1 1.0
%5 = OpSpecConstant %1 0.0
%6 = OpSpecConstantComposite %2 %4 %5 %5 %5
%7 = OpSpecConstantComposite %2 %5 %4 %5 %5
%8 = OpSpecConstantComposite %2 %5 %5 %4 %5
%9 = OpSpecConstantComposite %2 %5 %5 %5 %4
%10 = OpSpecConstantComposite %3 %6 %7 %8 %9)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// Valid: Matrix in which one column is Undef
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeMatrixUndefGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4
%3 = OpTypeMatrix %2 4
%4 = OpConstant %1 1.0
%5 = OpSpecConstant %1 0.0
%6 = OpSpecConstantComposite %2 %4 %5 %5 %5
%7 = OpSpecConstantComposite %2 %5 %4 %5 %5
%8 = OpSpecConstantComposite %2 %5 %5 %4 %5
%9 = OpUndef %2
%10 = OpSpecConstantComposite %3 %6 %7 %8 %9)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// Invalid: Matrix in which the sizes of column vectors are not equal.
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeMatrixConstituentTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4
%3 = OpTypeVector %1 3
%4 = OpTypeMatrix %2 4
%5 = OpSpecConstant %1 1.0
%6 = OpConstant %1 0.0
%7 = OpSpecConstantComposite %2 %5 %6 %6 %6
%8 = OpSpecConstantComposite %2 %6 %5 %6 %6
%9 = OpSpecConstantComposite %2 %6 %6 %5 %6
%10 = OpSpecConstantComposite %3 %6 %6 %6
%11 = OpSpecConstantComposite %4 %7 %8 %9 %10)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpSpecConstantComposite Constituent <id> '10' vector "
"component count does not match Result Type <id> '4's "
"vector component count."));
}
// Invalid: Matrix type expects 4 columns but only 3 specified.
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeMatrixNumColsBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4
%3 = OpTypeMatrix %2 4
%4 = OpSpecConstant %1 1.0
%5 = OpConstant %1 0.0
%6 = OpSpecConstantComposite %2 %4 %5 %5 %5
%7 = OpSpecConstantComposite %2 %5 %4 %5 %5
%8 = OpSpecConstantComposite %2 %5 %5 %4 %5
%10 = OpSpecConstantComposite %3 %6 %7 %8)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr("OpSpecConstantComposite Constituent <id> count does "
"not match Result Type <id> '3's matrix column count."));
}
// Invalid: Composite contains a non-const/undef component
TEST_F(ValidateIdWithMessage,
OpSpecConstantCompositeMatrixConstituentNotConstBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpConstant %1 0.0
%3 = OpTypeVector %1 4
%4 = OpTypeMatrix %3 4
%5 = OpSpecConstantComposite %3 %2 %2 %2 %2
%6 = OpSpecConstantComposite %4 %5 %5 %5 %1)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpSpecConstantComposite Constituent <id> '1' is not a "
"constant composite or undef."));
}
// Invalid: Composite contains a column that is *not* a vector (it's an array)
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeMatrixColTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeInt 32 0
%3 = OpSpecConstant %2 4
%4 = OpConstant %1 0.0
%5 = OpTypeVector %1 4
%6 = OpTypeArray %2 %3
%7 = OpTypeMatrix %5 4
%8 = OpSpecConstantComposite %6 %3 %3 %3 %3
%9 = OpSpecConstantComposite %5 %4 %4 %4 %4
%10 = OpSpecConstantComposite %7 %9 %9 %9 %8)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpSpecConstantComposite Constituent <id> '8' type "
"does not match Result Type <id> '7's matrix column "
"type."));
}
// Invalid: Matrix with an Undef column of the wrong size.
TEST_F(ValidateIdWithMessage,
OpSpecConstantCompositeMatrixConstituentUndefTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeFloat 32
%2 = OpTypeVector %1 4
%3 = OpTypeVector %1 3
%4 = OpTypeMatrix %2 4
%5 = OpSpecConstant %1 1.0
%6 = OpSpecConstant %1 0.0
%7 = OpSpecConstantComposite %2 %5 %6 %6 %6
%8 = OpSpecConstantComposite %2 %6 %5 %6 %6
%9 = OpSpecConstantComposite %2 %6 %6 %5 %6
%10 = OpUndef %3
%11 = OpSpecConstantComposite %4 %7 %8 %9 %10)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpSpecConstantComposite Constituent <id> '10' vector "
"component count does not match Result Type <id> '4's "
"vector component count."));
}
// Invalid: Matrix in which some columns are Int and some are Float.
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeMatrixColumnTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypeFloat 32
%3 = OpTypeVector %1 2
%4 = OpTypeVector %2 2
%5 = OpTypeMatrix %4 2
%6 = OpSpecConstant %1 42
%7 = OpConstant %2 3.14
%8 = OpSpecConstantComposite %3 %6 %6
%9 = OpSpecConstantComposite %4 %7 %7
%10 = OpSpecConstantComposite %5 %8 %9)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpSpecConstantComposite Constituent <id> '8' "
"component type does not match Result Type <id> '5's "
"matrix column component type."));
}
// Valid: Array of integers
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeArrayGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpSpecConstant %1 4
%5 = OpConstant %1 5
%3 = OpTypeArray %1 %2
%6 = OpTypeArray %1 %5
%4 = OpSpecConstantComposite %3 %2 %2 %2 %2
%7 = OpSpecConstantComposite %3 %5 %5 %5 %5)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// Invalid: Expecting an array of 4 components, but 3 specified.
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeArrayNumComponentsBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpSpecConstant %1 4
%3 = OpTypeArray %1 %2
%4 = OpSpecConstantComposite %3 %2 %2 %2)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpSpecConstantComposite Constituent count does not "
"match Result Type <id> '3's array length."));
}
// Valid: Array of Integers and Undef-int
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeArrayWithUndefGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpSpecConstant %1 4
%9 = OpUndef %1
%3 = OpTypeArray %1 %2
%4 = OpSpecConstantComposite %3 %2 %2 %2 %9)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// Invalid: Array uses a type as operand.
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeArrayConstConstituentBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpConstant %1 4
%3 = OpTypeArray %1 %2
%4 = OpSpecConstantComposite %3 %2 %2 %2 %1)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpSpecConstantComposite Constituent <id> '1' is not a "
"constant or undef."));
}
// Invalid: Array has a mix of Int and Float components.
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeArrayConstituentTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpConstant %1 4
%3 = OpTypeArray %1 %2
%4 = OpTypeFloat 32
%5 = OpSpecConstant %4 3.14 ; bad type for const value
%6 = OpSpecConstantComposite %3 %2 %2 %2 %5)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpSpecConstantComposite Constituent <id> '5's type "
"does not match Result Type <id> '3's array element "
"type."));
}
// Invalid: Array has a mix of Int and Undef-float.
TEST_F(ValidateIdWithMessage,
OpSpecConstantCompositeArrayConstituentUndefTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpSpecConstant %1 4
%3 = OpTypeArray %1 %2
%5 = OpTypeFloat 32
%6 = OpUndef %5 ; bad type for undef
%4 = OpSpecConstantComposite %3 %2 %2 %2 %6)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpSpecConstantComposite Constituent <id> '5's type "
"does not match Result Type <id> '3's array element "
"type."));
}
// Valid: Struct of {Int32,Int32,Int64}.
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeStructGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypeInt 64 0
%3 = OpTypeStruct %1 %1 %2
%4 = OpConstant %1 42
%5 = OpSpecConstant %2 4300000000
%6 = OpSpecConstantComposite %3 %4 %4 %5)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// Invalid: missing one int32 struct member.
TEST_F(ValidateIdWithMessage,
OpSpecConstantCompositeStructMissingComponentBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%3 = OpTypeStruct %1 %1 %1
%4 = OpConstant %1 42
%5 = OpSpecConstant %1 430
%6 = OpSpecConstantComposite %3 %4 %5)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpSpecConstantComposite Constituent <id> '2' count "
"does not match Result Type <id> '2's struct member "
"count."));
}
// Valid: Struct uses Undef-int64.
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeStructUndefGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypeInt 64 0
%3 = OpTypeStruct %1 %1 %2
%4 = OpSpecConstant %1 42
%5 = OpUndef %2
%6 = OpSpecConstantComposite %3 %4 %4 %5)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// Invalid: Composite contains non-const/undef component.
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeStructNonConstBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypeInt 64 0
%3 = OpTypeStruct %1 %1 %2
%4 = OpSpecConstant %1 42
%5 = OpUndef %2
%6 = OpSpecConstantComposite %3 %4 %1 %5)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpSpecConstantComposite Constituent <id> '1' is not a "
"constant or undef."));
}
// Invalid: Struct component type does not match expected specialization type.
// Second component was expected to be Int32, but got Int64.
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeStructMemberTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypeInt 64 0
%3 = OpTypeStruct %1 %1 %2
%4 = OpConstant %1 42
%5 = OpSpecConstant %2 4300000000
%6 = OpSpecConstantComposite %3 %4 %5 %4)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpSpecConstantComposite Constituent <id> '5' type "
"does not match the Result Type <id> '3's member "
"type."));
}
// Invalid: Undef-int64 used when Int32 was expected.
TEST_F(ValidateIdWithMessage, OpSpecConstantCompositeStructMemberUndefTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypeInt 64 0
%3 = OpTypeStruct %1 %1 %2
%4 = OpSpecConstant %1 42
%5 = OpUndef %2
%6 = OpSpecConstantComposite %3 %4 %5 %4)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpSpecConstantComposite Constituent <id> '5' type "
"does not match the Result Type <id> '3's member "
"type."));
}
// TODO: OpSpecConstantOp
TEST_F(ValidateIdWithMessage, OpVariableGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypePointer Input %1
%3 = OpVariable %2 Input)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpVariableInitializerConstantGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypePointer Input %1
%3 = OpConstant %1 42
%4 = OpVariable %2 Input %3)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpVariableInitializerGlobalVariableGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypePointer Uniform %1
%3 = OpVariable %2 Uniform
%4 = OpTypePointer Uniform %2 ; pointer to pointer
%5 = OpVariable %4 Uniform %3)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// TODO: Positive test OpVariable with OpConstantNull of OpTypePointer
TEST_F(ValidateIdWithMessage, OpVariableResultTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpVariable %1 Input)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr("OpVariable Result Type <id> '1' is not a pointer type."));
}
TEST_F(ValidateIdWithMessage, OpVariableInitializerIsTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeInt 32 0
%2 = OpTypePointer Input %1
%3 = OpVariable %2 Input %2)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpVariable Initializer <id> '2' is not a constant or "
"module-scope variable"));
}
TEST_F(ValidateIdWithMessage, OpVariableInitializerIsFunctionVarBad) {
string spirv = kGLSL450MemoryModel + R"(
%int = OpTypeInt 32 0
%ptrint = OpTypePointer Function %int
%ptrptrint = OpTypePointer Function %ptrint
%void = OpTypeVoid
%fnty = OpTypeFunction %void
%main = OpFunction %void None %fnty
%entry = OpLabel
%var = OpVariable %ptrint Function
%varinit = OpVariable %ptrptrint Function %var ; Can't initialize function variable.
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpVariable Initializer <id> '8' is not a constant or "
"module-scope variable"));
}
TEST_F(ValidateIdWithMessage, OpVariableInitializerIsModuleVarGood) {
string spirv = kGLSL450MemoryModel + R"(
%int = OpTypeInt 32 0
%ptrint = OpTypePointer Uniform %int
%mvar = OpVariable %ptrint Uniform
%ptrptrint = OpTypePointer Function %ptrint
%void = OpTypeVoid
%fnty = OpTypeFunction %void
%main = OpFunction %void None %fnty
%entry = OpLabel
%goodvar = OpVariable %ptrptrint Function %mvar ; This is ok
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpLoadGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypePointer UniformConstant %2
%4 = OpTypeFunction %1
%5 = OpVariable %3 UniformConstant
%6 = OpFunction %1 None %4
%7 = OpLabel
2016-01-21 14:00:15 +00:00
%8 = OpLoad %2 %5
%9 = OpReturn
%10 = OpFunctionEnd
)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpLoadResultTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypePointer UniformConstant %2
%4 = OpTypeFunction %1
%5 = OpVariable %3 UniformConstant
%6 = OpFunction %1 None %4
%7 = OpLabel
2016-01-21 14:00:15 +00:00
%8 = OpLoad %3 %5
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpLoad Result Type <id> '3' does not match Pointer "
"<id> '5's type."));
}
TEST_F(ValidateIdWithMessage, OpLoadPointerBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%9 = OpTypeFloat 32
%3 = OpTypePointer UniformConstant %2
%4 = OpTypeFunction %1
%6 = OpFunction %1 None %4
%7 = OpLabel
%8 = OpLoad %9 %3
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpLoad Pointer <id> '4' is not a pointer."));
}
TEST_F(ValidateIdWithMessage, OpStoreGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypePointer UniformConstant %2
%4 = OpTypeFunction %1
%5 = OpConstant %2 42
%6 = OpVariable %3 UniformConstant
%7 = OpFunction %1 None %4
%8 = OpLabel
OpStore %6 %5
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpStorePointerBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypePointer UniformConstant %2
%4 = OpTypeFunction %1
%5 = OpConstant %2 42
%6 = OpVariable %3 UniformConstant
%7 = OpFunction %1 None %4
%8 = OpLabel
OpStore %3 %5
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpStore Pointer <id> '3' is not a pointer."));
}
TEST_F(ValidateIdWithMessage, OpStoreObjectGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypePointer UniformConstant %2
%4 = OpTypeFunction %1
%5 = OpConstant %2 42
%6 = OpVariable %3 UniformConstant
%7 = OpFunction %1 None %4
%8 = OpLabel
OpStore %6 %7
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpStore Object <id> '7's type is void."));
}
TEST_F(ValidateIdWithMessage, OpStoreTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%9 = OpTypeFloat 32
%3 = OpTypePointer UniformConstant %2
%4 = OpTypeFunction %1
%5 = OpConstant %9 3.14
%6 = OpVariable %3 UniformConstant
%7 = OpFunction %1 None %4
%8 = OpLabel
OpStore %6 %5
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpStore Pointer <id> '7's type does not match Object "
"<id> '3's type."));
}
TEST_F(ValidateIdWithMessage, OpStoreVoid) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypePointer UniformConstant %2
%4 = OpTypeFunction %1
%6 = OpVariable %3 UniformConstant
%7 = OpFunction %1 None %4
%8 = OpLabel
%9 = OpFunctionCall %1 %7
OpStore %6 %9
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpStore Object <id> '8's type is void."));
}
TEST_F(ValidateIdWithMessage, OpStoreLabel) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypePointer UniformConstant %2
%4 = OpTypeFunction %1
%6 = OpVariable %3 UniformConstant
%7 = OpFunction %1 None %4
%8 = OpLabel
OpStore %6 %8
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpStore Object <id> '7' is not an object."));
}
// TODO: enable when this bug is fixed:
// https://cvs.khronos.org/bugzilla/show_bug.cgi?id=15404
TEST_F(ValidateIdWithMessage, DISABLED_OpStoreFunction) {
string spirv = kGLSL450MemoryModel + R"(
%2 = OpTypeInt 32 0
%3 = OpTypePointer UniformConstant %2
%4 = OpTypeFunction %2
%5 = OpConstant %2 123
%6 = OpVariable %3 UniformConstant
%7 = OpFunction %2 None %4
%8 = OpLabel
OpStore %6 %7
OpReturnValue %5
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpCopyMemoryGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypePointer UniformConstant %2
%4 = OpConstant %2 42
%5 = OpVariable %3 UniformConstant %4
%6 = OpTypePointer Function %2
%7 = OpTypeFunction %1
%8 = OpFunction %1 None %7
%9 = OpLabel
%10 = OpVariable %6 Function
OpCopyMemory %10 %5 None
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpCopyMemoryBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypePointer UniformConstant %2
%4 = OpConstant %2 42
%5 = OpVariable %3 UniformConstant %4
%11 = OpTypeFloat 32
%6 = OpTypePointer Function %11
%7 = OpTypeFunction %1
%8 = OpFunction %1 None %7
%9 = OpLabel
%10 = OpVariable %6 Function
OpCopyMemory %10 %5 None
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpCopyMemory Target <id> '5's type does not match "
"Source <id> '2's type."));
}
// TODO: OpCopyMemorySized
TEST_F(ValidateIdWithMessage, OpCopyMemorySizedGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypePointer UniformConstant %2
%4 = OpTypePointer Function %2
%5 = OpConstant %2 4
%6 = OpVariable %3 UniformConstant %5
%7 = OpTypeFunction %1
%8 = OpFunction %1 None %7
%9 = OpLabel
%10 = OpVariable %4 Function
OpCopyMemorySized %10 %6 %5 None
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpCopyMemorySizedTargetBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypePointer UniformConstant %2
%4 = OpTypePointer Function %2
%5 = OpConstant %2 4
%6 = OpVariable %3 UniformConstant %5
%7 = OpTypeFunction %1
%8 = OpFunction %1 None %7
%9 = OpLabel
OpCopyMemorySized %9 %6 %5 None
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpCopyMemorySized Target <id> '9' is not a pointer."));
}
TEST_F(ValidateIdWithMessage, OpCopyMemorySizedSourceBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypePointer UniformConstant %2
%4 = OpTypePointer Function %2
%5 = OpConstant %2 4
%6 = OpTypeFunction %1
%7 = OpFunction %1 None %6
%8 = OpLabel
%9 = OpVariable %4 Function
OpCopyMemorySized %9 %6 %5 None
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpCopyMemorySized Source <id> '6' is not a pointer."));
}
TEST_F(ValidateIdWithMessage, OpCopyMemorySizedSizeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypePointer UniformConstant %2
%4 = OpTypePointer Function %2
%5 = OpConstant %2 4
%6 = OpVariable %3 UniformConstant %5
%7 = OpTypeFunction %1
%8 = OpFunction %1 None %7
%9 = OpLabel
%10 = OpVariable %4 Function
OpCopyMemorySized %10 %6 %6 None
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpCopyMemorySized Size <id> '6's variable type is not "
"an integer type."));
}
TEST_F(ValidateIdWithMessage, OpCopyMemorySizedSizeTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypePointer UniformConstant %2
%4 = OpTypePointer Function %2
%5 = OpConstant %2 4
%6 = OpVariable %3 UniformConstant %5
%7 = OpTypeFunction %1
%11 = OpTypeFloat 32
%12 = OpConstant %11 1.0
%8 = OpFunction %1 None %7
%9 = OpLabel
%10 = OpVariable %4 Function
OpCopyMemorySized %10 %6 %12 None
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr(
"OpCopyMemorySized Size <id> '9's type is not an integer type."));
}
const char kDeeplyNestedStructureSetup[] = R"(
%void = OpTypeVoid
%void_f = OpTypeFunction %void
%int = OpTypeInt 32 0
%float = OpTypeFloat 32
%v3float = OpTypeVector %float 3
%mat4x3 = OpTypeMatrix %v3float 4
%_ptr_Private_mat4x3 = OpTypePointer Private %mat4x3
%_ptr_Private_float = OpTypePointer Private %float
%my_matrix = OpVariable %_ptr_Private_mat4x3 Private
%my_float_var = OpVariable %_ptr_Private_float Private
%_ptr_Function_float = OpTypePointer Function %float
%int_0 = OpConstant %int 0
%int_1 = OpConstant %int 1
%int_2 = OpConstant %int 2
%int_3 = OpConstant %int 3
%int_5 = OpConstant %int 5
; Making the following nested structures.
;
; struct S {
; bool b;
; vec4 v[5];
; int i;
; mat4x3 m[5];
; }
; uniform blockName {
; S s;
; bool cond;
; RunTimeArray arr;
; }
%f32arr = OpTypeRuntimeArray %float
%bool = OpTypeBool
%v4float = OpTypeVector %float 4
%array5_mat4x3 = OpTypeArray %mat4x3 %int_5
%array5_vec4 = OpTypeArray %v4float %int_5
%_ptr_Uniform_float = OpTypePointer Uniform %float
%_ptr_Function_vec4 = OpTypePointer Function %v4float
%_ptr_Uniform_vec4 = OpTypePointer Uniform %v4float
%struct_s = OpTypeStruct %bool %array5_vec4 %int %array5_mat4x3
%struct_blockName = OpTypeStruct %struct_s %bool %f32arr
%_ptr_Uniform_blockName = OpTypePointer Uniform %struct_blockName
%_ptr_Uniform_struct_s = OpTypePointer Uniform %struct_s
%_ptr_Uniform_array5_mat4x3 = OpTypePointer Uniform %array5_mat4x3
%_ptr_Uniform_mat4x3 = OpTypePointer Uniform %mat4x3
%_ptr_Uniform_v3float = OpTypePointer Uniform %v3float
%blockName_var = OpVariable %_ptr_Uniform_blockName Uniform
%spec_int = OpSpecConstant %int 2
%func = OpFunction %void None %void_f
%my_label = OpLabel
)";
// In what follows, Access Chain Instruction refers to one of the following:
// OpAccessChain, OpInBoundsAccessChain, OpPtrAccessChain, and
// OpInBoundsPtrAccessChain
using AccessChainInstructionTest = spvtest::ValidateBase<std::string>;
// Determines whether the access chain instruction requires the 'element id'
// argument.
bool AccessChainRequiresElemId(const std::string& instr) {
return (instr == "OpPtrAccessChain" || instr == "OpInBoundsPtrAccessChain");
}
// Valid: Access a float in a matrix using an access chain instruction.
TEST_P(AccessChainInstructionTest, AccessChainGood) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? "%int_0 " : "";
string spirv = kGLSL450MemoryModel + kDeeplyNestedStructureSetup +
"%float_entry = " + instr +
R"( %_ptr_Private_float %my_matrix )" + elem + R"(%int_0 %int_1
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv);
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// Invalid. The result type of an access chain instruction must be a pointer.
TEST_P(AccessChainInstructionTest, AccessChainResultTypeBad) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? "%int_0 " : "";
string spirv = kGLSL450MemoryModel + kDeeplyNestedStructureSetup + R"(
%float_entry = )" +
instr + R"( %float %my_matrix )" + elem + R"(%int_0 %int_1
OpReturn
OpFunctionEnd
)";
const std::string expected_err = "The Result Type of " + instr +
" <id> '36' must be "
"OpTypePointer. Found OpTypeFloat.";
CompileSuccessfully(spirv);
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(), HasSubstr(expected_err));
}
// Invalid. The base type of an access chain instruction must be a pointer.
TEST_P(AccessChainInstructionTest, AccessChainBaseTypeVoidBad) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? "%int_0 " : "";
string spirv = kGLSL450MemoryModel + kDeeplyNestedStructureSetup + R"(
%float_entry = )" +
instr + " %_ptr_Private_float %void " + elem + R"(%int_0 %int_1
OpReturn
OpFunctionEnd
)";
const std::string expected_err = "The Base <id> '1' in " + instr +
" instruction must "
"be a pointer.";
CompileSuccessfully(spirv);
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(), HasSubstr(expected_err));
}
// Invalid. The base type of an access chain instruction must be a pointer.
TEST_P(AccessChainInstructionTest, AccessChainBaseTypeNonPtrVariableBad) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? "%int_0 " : "";
string spirv = kGLSL450MemoryModel + kDeeplyNestedStructureSetup + R"(
%entry = )" + instr +
R"( %_ptr_Private_float %_ptr_Private_float )" + elem +
R"(%int_0 %int_1
OpReturn
OpFunctionEnd
)";
const std::string expected_err = "The Base <id> '8' in " + instr +
" instruction must "
"be a pointer.";
CompileSuccessfully(spirv);
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(), HasSubstr(expected_err));
}
// Invalid: The storage class of Base and Result do not match.
TEST_P(AccessChainInstructionTest,
AccessChainResultAndBaseStorageClassDoesntMatchBad) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? "%int_0 " : "";
string spirv = kGLSL450MemoryModel + kDeeplyNestedStructureSetup + R"(
%entry = )" + instr +
R"( %_ptr_Function_float %my_matrix )" + elem +
R"(%int_0 %int_1
OpReturn
OpFunctionEnd
)";
const std::string expected_err =
"The result pointer storage class and base pointer storage class in " +
instr + " do not match.";
CompileSuccessfully(spirv);
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(), HasSubstr(expected_err));
}
// Invalid. The base type of an access chain instruction must point to a
// composite object.
TEST_P(AccessChainInstructionTest,
AccessChainBasePtrNotPointingToCompositeBad) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? "%int_0 " : "";
string spirv = kGLSL450MemoryModel + kDeeplyNestedStructureSetup + R"(
%entry = )" + instr +
R"( %_ptr_Private_float %my_float_var )" + elem + R"(%int_0
OpReturn
OpFunctionEnd
)";
const std::string expected_err = instr +
" reached non-composite type while "
"indexes still remain to be traversed.";
CompileSuccessfully(spirv);
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(), HasSubstr(expected_err));
}
// Valid. No Indexes were passed to the access chain instruction. The Result
// Type is the same as the Base type.
TEST_P(AccessChainInstructionTest, AccessChainNoIndexesGood) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? "%int_0 " : "";
string spirv = kGLSL450MemoryModel + kDeeplyNestedStructureSetup + R"(
%entry = )" + instr +
R"( %_ptr_Private_float %my_float_var )" + elem + R"(
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv);
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// Invalid. No Indexes were passed to the access chain instruction, but the
// Result Type is different from the Base type.
TEST_P(AccessChainInstructionTest, AccessChainNoIndexesBad) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? "%int_0 " : "";
string spirv = kGLSL450MemoryModel + kDeeplyNestedStructureSetup + R"(
%entry = )" + instr +
R"( %_ptr_Private_mat4x3 %my_float_var )" + elem + R"(
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv);
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr("result type (OpTypeMatrix) does not match the type that "
"results from indexing into the base <id> (OpTypeFloat)."));
}
// Valid: 255 indexes passed to the access chain instruction. Limit is 255.
TEST_P(AccessChainInstructionTest, AccessChainTooManyIndexesGood) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? " %int_0 " : "";
int depth = 255;
std::string header = kGLSL450MemoryModel + kDeeplyNestedStructureSetup;
header.erase(header.find("%func"));
std::ostringstream spirv;
spirv << header << "\n";
// Build nested structures. Struct 'i' contains struct 'i-1'
spirv << "%s_depth_1 = OpTypeStruct %float\n";
for (int i = 2; i <= depth; ++i) {
spirv << "%s_depth_" << i << " = OpTypeStruct %s_depth_" << i - 1 << "\n";
}
// Define Pointer and Variable to use for the AccessChain instruction.
spirv << "%_ptr_Uniform_deep_struct = OpTypePointer Uniform %s_depth_"
<< depth << "\n";
spirv << "%deep_var = OpVariable %_ptr_Uniform_deep_struct Uniform\n";
// Function Start
spirv << R"(
%func = OpFunction %void None %void_f
%my_label = OpLabel
)";
// AccessChain with 'n' indexes (n = depth)
spirv << "%entry = " << instr << " %_ptr_Uniform_float %deep_var" << elem;
for (int i = 0; i < depth; ++i) {
spirv << " %int_0";
}
// Function end
spirv << R"(
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// Invalid: 256 indexes passed to the access chain instruction. Limit is 255.
TEST_P(AccessChainInstructionTest, AccessChainTooManyIndexesBad) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? " %int_0 " : "";
std::ostringstream spirv;
spirv << kGLSL450MemoryModel << kDeeplyNestedStructureSetup;
spirv << "%entry = " << instr << " %_ptr_Private_float %my_matrix" << elem;
for (int i = 0; i < 256; ++i) {
spirv << " %int_0";
}
spirv << R"(
OpReturn
OpFunctionEnd
)";
const std::string expected_err = "The number of indexes in " + instr +
" may not exceed 255. Found 256 indexes.";
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(), HasSubstr(expected_err));
}
// Valid: 10 indexes passed to the access chain instruction. (Custom limit: 10)
TEST_P(AccessChainInstructionTest, CustomizedAccessChainTooManyIndexesGood) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? " %int_0 " : "";
int depth = 10;
std::string header = kGLSL450MemoryModel + kDeeplyNestedStructureSetup;
header.erase(header.find("%func"));
std::ostringstream spirv;
spirv << header << "\n";
// Build nested structures. Struct 'i' contains struct 'i-1'
spirv << "%s_depth_1 = OpTypeStruct %float\n";
for (int i = 2; i <= depth; ++i) {
spirv << "%s_depth_" << i << " = OpTypeStruct %s_depth_" << i - 1 << "\n";
}
// Define Pointer and Variable to use for the AccessChain instruction.
spirv << "%_ptr_Uniform_deep_struct = OpTypePointer Uniform %s_depth_"
<< depth << "\n";
spirv << "%deep_var = OpVariable %_ptr_Uniform_deep_struct Uniform\n";
// Function Start
spirv << R"(
%func = OpFunction %void None %void_f
%my_label = OpLabel
)";
// AccessChain with 'n' indexes (n = depth)
spirv << "%entry = " << instr << " %_ptr_Uniform_float %deep_var" << elem;
for (int i = 0; i < depth; ++i) {
spirv << " %int_0";
}
// Function end
spirv << R"(
OpReturn
OpFunctionEnd
)";
spvValidatorOptionsSetUniversalLimit(
options_, spv_validator_limit_max_access_chain_indexes, 10u);
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// Invalid: 11 indexes passed to the access chain instruction. Custom Limit:10
TEST_P(AccessChainInstructionTest, CustomizedAccessChainTooManyIndexesBad) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? " %int_0 " : "";
std::ostringstream spirv;
spirv << kGLSL450MemoryModel << kDeeplyNestedStructureSetup;
spirv << "%entry = " << instr << " %_ptr_Private_float %my_matrix" << elem;
for (int i = 0; i < 11; ++i) {
spirv << " %int_0";
}
spirv << R"(
OpReturn
OpFunctionEnd
)";
const std::string expected_err = "The number of indexes in " + instr +
" may not exceed 10. Found 11 indexes.";
spvValidatorOptionsSetUniversalLimit(
options_, spv_validator_limit_max_access_chain_indexes, 10u);
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(), HasSubstr(expected_err));
}
// Invalid: Index passed to the access chain instruction is float (must be
// integer).
TEST_P(AccessChainInstructionTest, AccessChainUndefinedIndexBad) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? "%int_0 " : "";
string spirv = kGLSL450MemoryModel + kDeeplyNestedStructureSetup + R"(
%entry = )" + instr +
R"( %_ptr_Private_float %my_matrix )" + elem + R"(%float %int_1
OpReturn
OpFunctionEnd
)";
const std::string expected_err =
"Indexes passed to " + instr + " must be of type integer.";
CompileSuccessfully(spirv);
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(), HasSubstr(expected_err));
}
// Invalid: The index argument that indexes into a struct must be of type
// OpConstant.
TEST_P(AccessChainInstructionTest, AccessChainStructIndexNotConstantBad) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? "%int_0 " : "";
string spirv = kGLSL450MemoryModel + kDeeplyNestedStructureSetup + R"(
%f = )" + instr + R"( %_ptr_Uniform_float %blockName_var )" +
elem + R"(%int_0 %spec_int %int_2
OpReturn
OpFunctionEnd
)";
const std::string expected_err =
"The <id> passed to " + instr +
" to index into a structure must be an OpConstant.";
CompileSuccessfully(spirv);
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(), HasSubstr(expected_err));
}
// Invalid: Indexing up to a vec4 granularity, but result type expected float.
TEST_P(AccessChainInstructionTest,
AccessChainStructResultTypeDoesntMatchIndexedTypeBad) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? "%int_0 " : "";
string spirv = kGLSL450MemoryModel + kDeeplyNestedStructureSetup + R"(
%entry = )" + instr +
R"( %_ptr_Uniform_float %blockName_var )" + elem +
R"(%int_0 %int_1 %int_2
OpReturn
OpFunctionEnd
)";
const std::string expected_err = instr +
" result type (OpTypeFloat) does not match "
"the type that results from indexing into "
"the base <id> (OpTypeVector).";
CompileSuccessfully(spirv);
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(), HasSubstr(expected_err));
}
// Invalid: Reach non-composite type (bool) when unused indexes remain.
TEST_P(AccessChainInstructionTest, AccessChainStructTooManyIndexesBad) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? "%int_0 " : "";
string spirv = kGLSL450MemoryModel + kDeeplyNestedStructureSetup + R"(
%entry = )" + instr +
R"( %_ptr_Uniform_float %blockName_var )" + elem +
R"(%int_0 %int_2 %int_2
OpReturn
OpFunctionEnd
)";
const std::string expected_err = instr +
" reached non-composite type while "
"indexes still remain to be traversed.";
CompileSuccessfully(spirv);
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(), HasSubstr(expected_err));
}
// Invalid: Trying to find index 3 of the struct that has only 3 members.
TEST_P(AccessChainInstructionTest, AccessChainStructIndexOutOfBoundBad) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? "%int_0 " : "";
string spirv = kGLSL450MemoryModel + kDeeplyNestedStructureSetup + R"(
%entry = )" + instr +
R"( %_ptr_Uniform_float %blockName_var )" + elem +
R"(%int_3 %int_2 %int_2
OpReturn
OpFunctionEnd
)";
const std::string expected_err = "Index is out of bounds: " + instr +
" can not find index 3 into the structure "
"<id> '26'. This structure has 3 members. "
"Largest valid index is 2.";
CompileSuccessfully(spirv);
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(), HasSubstr(expected_err));
}
// Valid: Tests that we can index into Struct, Array, Matrix, and Vector!
TEST_P(AccessChainInstructionTest, AccessChainIndexIntoAllTypesGood) {
// indexes that we are passing are: 0, 3, 1, 2, 0
// 0 will select the struct_s within the base struct (blockName)
// 3 will select the Array that contains 5 matrices
// 1 will select the Matrix that is at index 1 of the array
// 2 will select the column (which is a vector) within the matrix at index 2
// 0 will select the element at the index 0 of the vector. (which is a float).
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? "%int_0 " : "";
ostringstream spirv;
spirv << kGLSL450MemoryModel << kDeeplyNestedStructureSetup << std::endl;
spirv << "%ss = " << instr << " %_ptr_Uniform_struct_s %blockName_var "
<< elem << "%int_0" << std::endl;
spirv << "%sa = " << instr << " %_ptr_Uniform_array5_mat4x3 %blockName_var "
<< elem << "%int_0 %int_3" << std::endl;
spirv << "%sm = " << instr << " %_ptr_Uniform_mat4x3 %blockName_var " << elem
<< "%int_0 %int_3 %int_1" << std::endl;
spirv << "%sc = " << instr << " %_ptr_Uniform_v3float %blockName_var " << elem
<< "%int_0 %int_3 %int_1 %int_2" << std::endl;
spirv << "%entry = " << instr << " %_ptr_Uniform_float %blockName_var "
<< elem << "%int_0 %int_3 %int_1 %int_2 %int_0" << std::endl;
spirv << R"(
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// Valid: Access an element of OpTypeRuntimeArray.
TEST_P(AccessChainInstructionTest, AccessChainIndexIntoRuntimeArrayGood) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? "%int_0 " : "";
string spirv = kGLSL450MemoryModel + kDeeplyNestedStructureSetup + R"(
%runtime_arr_entry = )" +
instr +
R"( %_ptr_Uniform_float %blockName_var )" + elem +
R"(%int_2 %int_0
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv);
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// Invalid: Unused index when accessing OpTypeRuntimeArray.
TEST_P(AccessChainInstructionTest, AccessChainIndexIntoRuntimeArrayBad) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? "%int_0 " : "";
string spirv = kGLSL450MemoryModel + kDeeplyNestedStructureSetup + R"(
%runtime_arr_entry = )" +
instr +
R"( %_ptr_Uniform_float %blockName_var )" + elem +
R"(%int_2 %int_0 %int_1
OpReturn
OpFunctionEnd
)";
const std::string expected_err =
instr +
" reached non-composite type while indexes still remain to be traversed.";
CompileSuccessfully(spirv);
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(), HasSubstr(expected_err));
}
// Invalid: Reached scalar type before arguments to the access chain instruction
// finished.
TEST_P(AccessChainInstructionTest, AccessChainMatrixMoreArgsThanNeededBad) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? "%int_0 " : "";
string spirv = kGLSL450MemoryModel + kDeeplyNestedStructureSetup + R"(
%entry = )" + instr +
R"( %_ptr_Private_float %my_matrix )" + elem +
R"(%int_0 %int_1 %int_0
OpReturn
OpFunctionEnd
)";
const std::string expected_err = instr +
" reached non-composite type while "
"indexes still remain to be traversed.";
CompileSuccessfully(spirv);
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(), HasSubstr(expected_err));
}
// Invalid: The result type and the type indexed into do not match.
TEST_P(AccessChainInstructionTest,
AccessChainResultTypeDoesntMatchIndexedTypeBad) {
const std::string instr = GetParam();
const std::string elem = AccessChainRequiresElemId(instr) ? "%int_0 " : "";
string spirv = kGLSL450MemoryModel + kDeeplyNestedStructureSetup + R"(
%entry = )" + instr +
R"( %_ptr_Private_mat4x3 %my_matrix )" + elem +
R"(%int_0 %int_1
OpReturn
OpFunctionEnd
)";
const std::string expected_err = instr +
" result type (OpTypeMatrix) does not match "
"the type that results from indexing into "
"the base <id> (OpTypeFloat).";
CompileSuccessfully(spirv);
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(), HasSubstr(expected_err));
}
// Run tests for Access Chain Instructions.
INSTANTIATE_TEST_CASE_P(
CheckAccessChainInstructions, AccessChainInstructionTest,
::testing::Values("OpAccessChain", "OpInBoundsAccessChain",
"OpPtrAccessChain", "OpInBoundsPtrAccessChain"));
// TODO: OpArrayLength
// TODO: OpImagePointer
// TODO: OpGenericPtrMemSemantics
TEST_F(ValidateIdWithMessage, OpFunctionGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypeFunction %1 %2 %2
%4 = OpFunction %1 None %3
%5 = OpLabel
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpFunctionResultTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpConstant %2 42
%4 = OpTypeFunction %1 %2 %2
%5 = OpFunction %2 None %4
%6 = OpLabel
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpFunction Result Type <id> '2' does not match the "
"Function Type <id> '2's return type."));
}
TEST_F(ValidateIdWithMessage, OpFunctionFunctionTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%4 = OpFunction %1 None %2
%5 = OpLabel
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr("OpFunction Function Type <id> '2' is not a function type."));
}
TEST_F(ValidateIdWithMessage, OpFunctionParameterGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypeFunction %1 %2
%4 = OpFunction %1 None %3
%5 = OpFunctionParameter %2
%6 = OpLabel
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpFunctionParameterMultipleGood) {
string spirv = kGLSL450MemoryModel + R"(
Basic SSA Validation Most uses of an ID must occur after the definition of the ID. Forward references are allowed for things like OpName, OpDecorate, and various cases of control-flow instructions such as OpBranch, OpPhi, and OpFunctionCall. TODO: Use CFG analysis for SSA checks. In particular, an ID defined inside a function body is only usable inside that function body. Also, use dominator info to catch some failing cases. Also: * Validator test cases use (standard) assignment form. * Update style to more closely follow the Google C++ style guide * Remove color-diagnostics flag. This is enabled by default on terminals with color. Prints hidden ASCII for terminals that can't handle color(Emacs) * Pass functors to SSAPass to check if the operand can be forward referenced based on its index value * Return SPV_ERROR_INVALID_ID for ID related errors spvBinaryParse returned SPV_ERROR_INVALID_BINARY for all types of errors. Since spvBinaryParse does some ID validation, this was returning inappropriate error codes for some tests. * Common fixture for validation tests. It only runs certian validation passes. * Add a SPV_VALIDATE_SSA_BIT for testing purposes * Fixtures now return error codes * Add OpName support in diag message and unit tests * Binary parsing can fail with invalid ID or invalid binary error code Tests include: * OpDecorate * OpName * OpMemberName * OpBranchConditional * OpSelectionMerge * OpMemberDecorate * OpGroupDecorate * OpDeviceEnqueue * Enable several tests failing in ID validation.
2015-11-18 20:43:43 +00:00
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypeFunction %1 %2 %2
%4 = OpFunction %1 None %3
%5 = OpFunctionParameter %2
%6 = OpFunctionParameter %2
%7 = OpLabel
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
Basic SSA Validation Most uses of an ID must occur after the definition of the ID. Forward references are allowed for things like OpName, OpDecorate, and various cases of control-flow instructions such as OpBranch, OpPhi, and OpFunctionCall. TODO: Use CFG analysis for SSA checks. In particular, an ID defined inside a function body is only usable inside that function body. Also, use dominator info to catch some failing cases. Also: * Validator test cases use (standard) assignment form. * Update style to more closely follow the Google C++ style guide * Remove color-diagnostics flag. This is enabled by default on terminals with color. Prints hidden ASCII for terminals that can't handle color(Emacs) * Pass functors to SSAPass to check if the operand can be forward referenced based on its index value * Return SPV_ERROR_INVALID_ID for ID related errors spvBinaryParse returned SPV_ERROR_INVALID_BINARY for all types of errors. Since spvBinaryParse does some ID validation, this was returning inappropriate error codes for some tests. * Common fixture for validation tests. It only runs certian validation passes. * Add a SPV_VALIDATE_SSA_BIT for testing purposes * Fixtures now return error codes * Add OpName support in diag message and unit tests * Binary parsing can fail with invalid ID or invalid binary error code Tests include: * OpDecorate * OpName * OpMemberName * OpBranchConditional * OpSelectionMerge * OpMemberDecorate * OpGroupDecorate * OpDeviceEnqueue * Enable several tests failing in ID validation.
2015-11-18 20:43:43 +00:00
}
TEST_F(ValidateIdWithMessage, OpFunctionParameterResultTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypeFunction %1 %2
%4 = OpFunction %1 None %3
%5 = OpFunctionParameter %1
%6 = OpLabel
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr("OpFunctionParameter Result Type <id> '1' does not match the "
"OpTypeFunction parameter type of the same index."));
}
TEST_F(ValidateIdWithMessage, OpFunctionCallGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypeFunction %2 %2
%4 = OpTypeFunction %1
%5 = OpConstant %2 42 ;21
%6 = OpFunction %2 None %3
%7 = OpFunctionParameter %2
%8 = OpLabel
2016-01-21 14:00:15 +00:00
OpReturnValue %7
OpFunctionEnd
%10 = OpFunction %1 None %4
%11 = OpLabel
%12 = OpFunctionCall %2 %6 %5
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpFunctionCallResultTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypeFunction %2 %2
%4 = OpTypeFunction %1
%5 = OpConstant %2 42 ;21
%6 = OpFunction %2 None %3
%7 = OpFunctionParameter %2
%8 = OpLabel
%9 = OpIAdd %2 %7 %7
OpReturnValue %9
OpFunctionEnd
%10 = OpFunction %1 None %4
%11 = OpLabel
%12 = OpFunctionCall %1 %6 %5
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpFunctionCall Result Type <id> '1's type does not "
"match Function <id> '2's return type."));
}
TEST_F(ValidateIdWithMessage, OpFunctionCallFunctionBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypeFunction %2 %2
%4 = OpTypeFunction %1
%5 = OpConstant %2 42 ;21
%10 = OpFunction %1 None %4
%11 = OpLabel
%12 = OpFunctionCall %2 %5 %5
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpFunctionCall Function <id> '5' is not a function."));
}
TEST_F(ValidateIdWithMessage, OpFunctionCallArgumentTypeBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypeFunction %2 %2
%4 = OpTypeFunction %1
%5 = OpConstant %2 42
%13 = OpTypeFloat 32
%14 = OpConstant %13 3.14
%6 = OpFunction %2 None %3
%7 = OpFunctionParameter %2
%8 = OpLabel
%9 = OpIAdd %2 %7 %7
OpReturnValue %9
OpFunctionEnd
%10 = OpFunction %1 None %4
%11 = OpLabel
%12 = OpFunctionCall %2 %6 %14
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpFunctionCall Argument <id> '7's type does not match "
"Function <id> '2's parameter type."));
}
// Valid: OpSampledImage result <id> is used in the same block by
// OpImageSampleImplictLod
TEST_F(ValidateIdWithMessage, OpSampledImageGood) {
string spirv = kGLSL450MemoryModel + sampledImageSetup + R"(
%smpld_img = OpSampledImage %sampled_image_type %image_inst %sampler_inst
%si_lod = OpImageSampleImplicitLod %v4float %smpld_img %const_vec_1_1
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// Invalid: OpSampledImage result <id> is defined in one block and used in a
// different block.
TEST_F(ValidateIdWithMessage, OpSampledImageUsedInDifferentBlockBad) {
string spirv = kGLSL450MemoryModel + sampledImageSetup + R"(
%smpld_img = OpSampledImage %sampled_image_type %image_inst %sampler_inst
OpBranch %label_2
%label_2 = OpLabel
%si_lod = OpImageSampleImplicitLod %v4float %smpld_img %const_vec_1_1
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr("All OpSampledImage instructions must be in the same block in "
"which their Result <id> are consumed. OpSampledImage Result "
"Type <id> '23' has a consumer in a different basic block. The "
"consumer instruction <id> is '25'."));
}
// Invalid: OpSampledImage result <id> is used by OpSelect
// Note: According to the Spec, OpSelect parameters must be either a scalar or a
// vector. Therefore, OpTypeSampledImage is an illegal parameter for OpSelect.
// However, the OpSelect validation does not catch this today. Therefore, it is
// caught by the OpSampledImage validation. If the OpSelect validation code is
// updated, the error message for this test may change.
TEST_F(ValidateIdWithMessage, OpSampledImageUsedInOpSelectBad) {
string spirv = kGLSL450MemoryModel + sampledImageSetup + R"(
%smpld_img = OpSampledImage %sampled_image_type %image_inst %sampler_inst
%select_img = OpSelect %sampled_image_type %spec_true %smpld_img %smpld_img
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("Result <id> from OpSampledImage instruction must not "
"appear as operands of OpSelect. Found result <id> "
"'23' as an operand of <id> '24'."));
}
// Invalid: OpSampledImage result <id> is used by OpPhi
TEST_F(ValidateIdWithMessage, OpSampledImageUsedInOpPhiBad) {
string spirv = kGLSL450MemoryModel + sampledImageSetup + R"(
%smpld_img = OpSampledImage %sampled_image_type %image_inst %sampler_inst
%phi_result = OpPhi %sampled_image_type %smpld_img %label_1
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("Result <id> from OpSampledImage instruction must not "
"appear as operands of OpPhi. Found result <id> '23' "
"as an operand of <id> '24'."));
}
// Valid: Get a float in a matrix using CompositeExtract.
// Valid: Insert float into a matrix using CompositeInsert.
TEST_F(ValidateIdWithMessage, CompositeExtractInsertGood) {
ostringstream spirv;
spirv << kGLSL450MemoryModel << kDeeplyNestedStructureSetup << std::endl;
spirv << "%matrix = OpLoad %mat4x3 %my_matrix" << std::endl;
spirv << "%float_entry = OpCompositeExtract %float %matrix 0 1" << std::endl;
// To test CompositeInsert, insert the object back in after extraction.
spirv << "%new_composite = OpCompositeInsert %mat4x3 %float_entry %matrix 0 1"
<< std::endl;
spirv << R"(OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// Valid. Tests both CompositeExtract and CompositeInsert with 255 indexes.
TEST_F(ValidateIdWithMessage, CompositeExtractInsertLimitsGood) {
int depth = 255;
std::string header = kGLSL450MemoryModel + kDeeplyNestedStructureSetup;
header.erase(header.find("%func"));
std::ostringstream spirv;
spirv << header << std::endl;
// Build nested structures. Struct 'i' contains struct 'i-1'
spirv << "%s_depth_1 = OpTypeStruct %float\n";
for (int i = 2; i <= depth; ++i) {
spirv << "%s_depth_" << i << " = OpTypeStruct %s_depth_" << i - 1 << "\n";
}
// Define Pointer and Variable to use for CompositeExtract/Insert.
spirv << "%_ptr_Uniform_deep_struct = OpTypePointer Uniform %s_depth_"
<< depth << "\n";
spirv << "%deep_var = OpVariable %_ptr_Uniform_deep_struct Uniform\n";
// Function Start
spirv << R"(
%func = OpFunction %void None %void_f
%my_label = OpLabel
)";
// OpCompositeExtract/Insert with 'n' indexes (n = depth)
spirv << "%deep = OpLoad %s_depth_" << depth << " %deep_var" << std::endl;
spirv << "%entry = OpCompositeExtract %float %deep";
for (int i = 0; i < depth; ++i) {
spirv << " 0";
}
spirv << std::endl;
spirv << "%new_composite = OpCompositeInsert %s_depth_" << depth
<< " %entry %deep";
for (int i = 0; i < depth; ++i) {
spirv << " 0";
}
spirv << std::endl;
// Function end
spirv << R"(
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// Invalid: 256 indexes passed to OpCompositeExtract. Limit is 255.
TEST_F(ValidateIdWithMessage, CompositeExtractArgCountExceededLimitBad) {
std::ostringstream spirv;
spirv << kGLSL450MemoryModel << kDeeplyNestedStructureSetup;
spirv << "%matrix = OpLoad %mat4x3 %my_matrix" << std::endl;
spirv << "%entry = OpCompositeExtract %float %matrix";
for (int i = 0; i < 256; ++i) {
spirv << " 0";
}
spirv << R"(
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("The number of indexes in OpCompositeExtract may not "
"exceed 255. Found 256 indexes."));
}
// Invalid: 256 indexes passed to OpCompositeInsert. Limit is 255.
TEST_F(ValidateIdWithMessage, CompositeInsertArgCountExceededLimitBad) {
std::ostringstream spirv;
spirv << kGLSL450MemoryModel << kDeeplyNestedStructureSetup;
spirv << "%matrix = OpLoad %mat4x3 %my_matrix" << std::endl;
spirv << "%new_composite = OpCompositeInsert %mat4x3 %int_0 %matrix";
for (int i = 0; i < 256; ++i) {
spirv << " 0";
}
spirv << R"(
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("The number of indexes in OpCompositeInsert may not "
"exceed 255. Found 256 indexes."));
}
// Invalid: In OpCompositeInsert, result type must be the same as composite type
TEST_F(ValidateIdWithMessage, CompositeInsertWrongResultTypeBad) {
ostringstream spirv;
spirv << kGLSL450MemoryModel << kDeeplyNestedStructureSetup << std::endl;
spirv << "%matrix = OpLoad %mat4x3 %my_matrix" << std::endl;
spirv << "%float_entry = OpCompositeExtract %float %matrix 0 1" << std::endl;
spirv << "%new_composite = OpCompositeInsert %float %float_entry %matrix 0 1"
<< std::endl;
spirv << R"(OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("The Result Type must be the same as Composite type"));
}
// Valid: No Indexes were passed to OpCompositeExtract, and the Result Type is
// the same as the Base Composite type.
TEST_F(ValidateIdWithMessage, CompositeExtractNoIndexesGood) {
ostringstream spirv;
spirv << kGLSL450MemoryModel << kDeeplyNestedStructureSetup << std::endl;
spirv << "%matrix = OpLoad %mat4x3 %my_matrix" << std::endl;
spirv << "%float_entry = OpCompositeExtract %mat4x3 %matrix" << std::endl;
spirv << R"(OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// Invalid: No Indexes were passed to OpCompositeExtract, but the Result Type is
// different from the Base Composite type.
TEST_F(ValidateIdWithMessage, CompositeExtractNoIndexesBad) {
ostringstream spirv;
spirv << kGLSL450MemoryModel << kDeeplyNestedStructureSetup << std::endl;
spirv << "%matrix = OpLoad %mat4x3 %my_matrix" << std::endl;
spirv << "%float_entry = OpCompositeExtract %float %matrix" << std::endl;
spirv << R"(OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpCompositeExtract result type (OpTypeFloat) does not "
"match the type that results from indexing into the "
"composite (OpTypeMatrix)."));
}
// Valid: No Indexes were passed to OpCompositeInsert, and the type of the
// Object<id> argument matches the Composite type.
TEST_F(ValidateIdWithMessage, CompositeInsertMissingIndexesGood) {
ostringstream spirv;
spirv << kGLSL450MemoryModel << kDeeplyNestedStructureSetup << std::endl;
spirv << "%matrix = OpLoad %mat4x3 %my_matrix" << std::endl;
spirv << "%matrix_2 = OpLoad %mat4x3 %my_matrix" << std::endl;
spirv << "%new_composite = OpCompositeInsert %mat4x3 %matrix_2 %matrix";
spirv << R"(
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// Invalid: No Indexes were passed to OpCompositeInsert, but the type of the
// Object<id> argument does not match the Composite type.
TEST_F(ValidateIdWithMessage, CompositeInsertMissingIndexesBad) {
ostringstream spirv;
spirv << kGLSL450MemoryModel << kDeeplyNestedStructureSetup << std::endl;
spirv << "%matrix = OpLoad %mat4x3 %my_matrix" << std::endl;
spirv << "%new_composite = OpCompositeInsert %mat4x3 %int_0 %matrix";
spirv << R"(
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("The Object type (OpTypeInt) in OpCompositeInsert does "
"not match the type that results from indexing into "
"the Composite (OpTypeMatrix)."));
}
// Valid: Tests that we can index into Struct, Array, Matrix, and Vector!
TEST_F(ValidateIdWithMessage, CompositeExtractInsertIndexIntoAllTypesGood) {
// indexes that we are passing are: 0, 3, 1, 2, 0
// 0 will select the struct_s within the base struct (blockName)
// 3 will select the Array that contains 5 matrices
// 1 will select the Matrix that is at index 1 of the array
// 2 will select the column (which is a vector) within the matrix at index 2
// 0 will select the element at the index 0 of the vector. (which is a float).
ostringstream spirv;
spirv << kGLSL450MemoryModel << kDeeplyNestedStructureSetup << R"(
%myblock = OpLoad %struct_blockName %blockName_var
%ss = OpCompositeExtract %struct_s %myblock 0
%sa = OpCompositeExtract %array5_mat4x3 %myblock 0 3
%sm = OpCompositeExtract %mat4x3 %myblock 0 3 1
%sc = OpCompositeExtract %v3float %myblock 0 3 1 2
%fl = OpCompositeExtract %float %myblock 0 3 1 2 0
;
; Now let's insert back at different levels...
;
%b1 = OpCompositeInsert %struct_blockName %ss %myblock 0
%b2 = OpCompositeInsert %struct_blockName %sa %myblock 0 3
%b3 = OpCompositeInsert %struct_blockName %sm %myblock 0 3 1
%b4 = OpCompositeInsert %struct_blockName %sc %myblock 0 3 1 2
%b5 = OpCompositeInsert %struct_blockName %fl %myblock 0 3 1 2 0
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
// Invalid. More indexes are provided than needed for OpCompositeExtract.
TEST_F(ValidateIdWithMessage, CompositeExtractReachedScalarBad) {
// indexes that we are passing are: 0, 3, 1, 2, 0
// 0 will select the struct_s within the base struct (blockName)
// 3 will select the Array that contains 5 matrices
// 1 will select the Matrix that is at index 1 of the array
// 2 will select the column (which is a vector) within the matrix at index 2
// 0 will select the element at the index 0 of the vector. (which is a float).
ostringstream spirv;
spirv << kGLSL450MemoryModel << kDeeplyNestedStructureSetup << R"(
%myblock = OpLoad %struct_blockName %blockName_var
%fl = OpCompositeExtract %float %myblock 0 3 1 2 0 1
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpCompositeExtract reached non-composite type while "
"indexes still remain to be traversed."));
}
// Invalid. More indexes are provided than needed for OpCompositeInsert.
TEST_F(ValidateIdWithMessage, CompositeInsertReachedScalarBad) {
// indexes that we are passing are: 0, 3, 1, 2, 0
// 0 will select the struct_s within the base struct (blockName)
// 3 will select the Array that contains 5 matrices
// 1 will select the Matrix that is at index 1 of the array
// 2 will select the column (which is a vector) within the matrix at index 2
// 0 will select the element at the index 0 of the vector. (which is a float).
ostringstream spirv;
spirv << kGLSL450MemoryModel << kDeeplyNestedStructureSetup << R"(
%myblock = OpLoad %struct_blockName %blockName_var
%fl = OpCompositeExtract %float %myblock 0 3 1 2 0
%b5 = OpCompositeInsert %struct_blockName %fl %myblock 0 3 1 2 0 1
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpCompositeInsert reached non-composite type while "
"indexes still remain to be traversed."));
}
// Invalid. Result type doesn't match the type we get from indexing into
// the composite.
TEST_F(ValidateIdWithMessage,
CompositeExtractResultTypeDoesntMatchIndexedTypeBad) {
// indexes that we are passing are: 0, 3, 1, 2, 0
// 0 will select the struct_s within the base struct (blockName)
// 3 will select the Array that contains 5 matrices
// 1 will select the Matrix that is at index 1 of the array
// 2 will select the column (which is a vector) within the matrix at index 2
// 0 will select the element at the index 0 of the vector. (which is a float).
ostringstream spirv;
spirv << kGLSL450MemoryModel << kDeeplyNestedStructureSetup << R"(
%myblock = OpLoad %struct_blockName %blockName_var
%fl = OpCompositeExtract %int %myblock 0 3 1 2 0
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpCompositeExtract result type (OpTypeInt) does not "
"match the type that results from indexing into the "
"composite (OpTypeFloat)."));
}
// Invalid. Given object type doesn't match the type we get from indexing into
// the composite.
TEST_F(ValidateIdWithMessage,
CompositeInsertObjectTypeDoesntMatchIndexedTypeBad) {
// indexes that we are passing are: 0, 3, 1, 2, 0
// 0 will select the struct_s within the base struct (blockName)
// 3 will select the Array that contains 5 matrices
// 1 will select the Matrix that is at index 1 of the array
// 2 will select the column (which is a vector) within the matrix at index 2
// 0 will select the element at the index 0 of the vector. (which is a float).
// We are trying to insert an integer where we should be inserting a float.
ostringstream spirv;
spirv << kGLSL450MemoryModel << kDeeplyNestedStructureSetup << R"(
%myblock = OpLoad %struct_blockName %blockName_var
%b5 = OpCompositeInsert %struct_blockName %int_0 %myblock 0 3 1 2 0
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("he Object type (OpTypeInt) in OpCompositeInsert does "
"not match the type that results from indexing into "
"the Composite (OpTypeFloat)."));
}
// Invalid. Index into a struct is larger than the number of struct members.
TEST_F(ValidateIdWithMessage, CompositeExtractStructIndexOutOfBoundBad) {
// struct_blockName has 3 members (index 0,1,2). We'll try to access index 3.
ostringstream spirv;
spirv << kGLSL450MemoryModel << kDeeplyNestedStructureSetup << R"(
%myblock = OpLoad %struct_blockName %blockName_var
%ss = OpCompositeExtract %struct_s %myblock 3
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("Index is out of bounds: OpCompositeExtract can not "
"find index 3 into the structure <id> '26'. This "
"structure has 3 members. Largest valid index is 2."));
}
// Invalid. Index into a struct is larger than the number of struct members.
TEST_F(ValidateIdWithMessage, CompositeInsertStructIndexOutOfBoundBad) {
// struct_blockName has 3 members (index 0,1,2). We'll try to access index 3.
ostringstream spirv;
spirv << kGLSL450MemoryModel << kDeeplyNestedStructureSetup << R"(
%myblock = OpLoad %struct_blockName %blockName_var
%ss = OpCompositeExtract %struct_s %myblock 0
%new_composite = OpCompositeInsert %struct_blockName %ss %myblock 3
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr("Index is out of bounds: OpCompositeInsert can not find "
"index 3 into the structure <id> '26'. This structure "
"has 3 members. Largest valid index is 2."));
}
#if 0
TEST_F(ValidateIdWithMessage, OpFunctionCallArgumentCountBar) {
const char *spirv = R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypeFunction %2 %2
%4 = OpTypeFunction %1
%5 = OpConstant %2 42 ;21
%6 = OpFunction %2 None %3
%7 = OpFunctionParameter %2
%8 = OpLabel
%9 = OpLoad %2 %7
OpReturnValue %9
OpFunctionEnd
%10 = OpFunction %1 None %4
%11 = OpLabel
OpReturn
%12 = OpFunctionCall %2 %6 %5
OpFunctionEnd)";
CHECK(spirv, SPV_ERROR_INVALID_ID);
}
#endif
Use opcode operand definitions from SPIR-V specification generator. The assembler and disassembler now use a dynamically adjusted sequence of expected operand types. (Internally, it is a deque, for readability.) Both parsers repeatedly pull an expected operand type from the left of this pattern list, and try to match the next input token against it. The expected pattern is adjusted during the parse to accommodate: - an extended instruction's expected operands, depending on the extended instruction's index. - when an operand itself has operands - to handle sequences of zero or more operands, or pairs of operands. These are expanded lazily during the parse. Adds spv::OperandClass from the SPIR-V specification generator. Modifies spv_operand_desc_t: - adds hasResult, hasType, and operandClass array to the opcode description type. - "wordCount" is replaced with "numTypes", which counts the number of entries in operandTypes. And each of those describes a *logical* operand, including the type id for the instruction, and the result id for the instruction. A logical operand could be variable-width, such as a literal string. Adds opcode.inc, an automatically-generated table of operation descriptions, with one line to describe each core instruction. Externally, we have modified the SPIR-V spec doc generator to emit this file. (We have hacked this copy to use the old semantics for OpLine.) Inside the assembler, parsing an operand may fail with new error code SPV_FAIL_MATCH. For an optional operand, this is not fatal, but should trigger backtracking at a higher level. The spvTextIsStartOfNewInst checks the case of the third letter of what might be an opcode. So now, "OpenCL" does not look like an opcode name. In assembly, the EntryPoint name field is mandatory, but can be an empty string. Adjust tests for changes to: - OpSampedImage - OpTypeSampler
2015-08-27 17:03:52 +00:00
// TODO: The many things that changed with how images are used.
// TODO: OpTextureSample
// TODO: OpTextureSampleDref
// TODO: OpTextureSampleLod
// TODO: OpTextureSampleProj
// TODO: OpTextureSampleGrad
// TODO: OpTextureSampleOffset
// TODO: OpTextureSampleProjLod
// TODO: OpTextureSampleProjGrad
// TODO: OpTextureSampleLodOffset
// TODO: OpTextureSampleProjOffset
// TODO: OpTextureSampleGradOffset
// TODO: OpTextureSampleProjLodOffset
// TODO: OpTextureSampleProjGradOffset
// TODO: OpTextureFetchTexelLod
// TODO: OpTextureFetchTexelOffset
// TODO: OpTextureFetchSample
// TODO: OpTextureFetchTexel
// TODO: OpTextureGather
// TODO: OpTextureGatherOffset
// TODO: OpTextureGatherOffsets
// TODO: OpTextureQuerySizeLod
// TODO: OpTextureQuerySize
// TODO: OpTextureQueryLevels
// TODO: OpTextureQuerySamples
// TODO: OpConvertUToF
// TODO: OpConvertFToS
// TODO: OpConvertSToF
// TODO: OpConvertUToF
// TODO: OpUConvert
// TODO: OpSConvert
// TODO: OpFConvert
// TODO: OpConvertPtrToU
// TODO: OpConvertUToPtr
// TODO: OpPtrCastToGeneric
// TODO: OpGenericCastToPtr
// TODO: OpBitcast
// TODO: OpGenericCastToPtrExplicit
// TODO: OpSatConvertSToU
// TODO: OpSatConvertUToS
// TODO: OpVectorExtractDynamic
// TODO: OpVectorInsertDynamic
// TODO: OpVectorShuffle
// TODO: OpCompositeConstruct
// TODO: OpCompositeExtract
// TODO: OpCompositeInsert
// TODO: OpCopyObject
// TODO: OpTranspose
// TODO: OpSNegate
// TODO: OpFNegate
// TODO: OpNot
// TODO: OpIAdd
// TODO: OpFAdd
// TODO: OpISub
// TODO: OpFSub
// TODO: OpIMul
// TODO: OpFMul
// TODO: OpUDiv
// TODO: OpSDiv
// TODO: OpFDiv
// TODO: OpUMod
// TODO: OpSRem
// TODO: OpSMod
// TODO: OpFRem
// TODO: OpFMod
// TODO: OpVectorTimesScalar
// TODO: OpMatrixTimesScalar
// TODO: OpVectorTimesMatrix
// TODO: OpMatrixTimesVector
// TODO: OpMatrixTimesMatrix
// TODO: OpOuterProduct
// TODO: OpDot
// TODO: OpShiftRightLogical
// TODO: OpShiftRightArithmetic
// TODO: OpShiftLeftLogical
// TODO: OpBitwiseOr
// TODO: OpBitwiseXor
// TODO: OpBitwiseAnd
// TODO: OpAny
// TODO: OpAll
// TODO: OpIsNan
// TODO: OpIsInf
// TODO: OpIsFinite
// TODO: OpIsNormal
// TODO: OpSignBitSet
// TODO: OpLessOrGreater
// TODO: OpOrdered
// TODO: OpUnordered
// TODO: OpLogicalOr
// TODO: OpLogicalXor
// TODO: OpLogicalAnd
// TODO: OpSelect
// TODO: OpIEqual
// TODO: OpFOrdEqual
// TODO: OpFUnordEqual
// TODO: OpINotEqual
// TODO: OpFOrdNotEqual
// TODO: OpFUnordNotEqual
// TODO: OpULessThan
// TODO: OpSLessThan
// TODO: OpFOrdLessThan
// TODO: OpFUnordLessThan
// TODO: OpUGreaterThan
// TODO: OpSGreaterThan
// TODO: OpFOrdGreaterThan
// TODO: OpFUnordGreaterThan
// TODO: OpULessThanEqual
// TODO: OpSLessThanEqual
// TODO: OpFOrdLessThanEqual
// TODO: OpFUnordLessThanEqual
// TODO: OpUGreaterThanEqual
// TODO: OpSGreaterThanEqual
// TODO: OpFOrdGreaterThanEqual
// TODO: OpFUnordGreaterThanEqual
// TODO: OpDPdx
// TODO: OpDPdy
// TODO: OpFWidth
// TODO: OpDPdxFine
// TODO: OpDPdyFine
// TODO: OpFwidthFine
// TODO: OpDPdxCoarse
// TODO: OpDPdyCoarse
// TODO: OpFwidthCoarse
// TODO: OpPhi
// TODO: OpLoopMerge
// TODO: OpSelectionMerge
// TODO: OpBranch
// TODO: OpBranchConditional
// TODO: OpSwitch
TEST_F(ValidateIdWithMessage, OpReturnValueConstantGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
2016-01-22 21:52:40 +00:00
%3 = OpTypeFunction %2
%4 = OpConstant %2 42
%5 = OpFunction %2 None %3
%6 = OpLabel
OpReturnValue %4
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
2016-01-22 21:52:40 +00:00
TEST_F(ValidateIdWithMessage, OpReturnValueVariableGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0 ;10
2016-01-22 21:52:40 +00:00
%3 = OpTypeFunction %2
%8 = OpTypePointer Function %2 ;18
%4 = OpConstant %2 42 ;22
%5 = OpFunction %2 None %3 ;27
%6 = OpLabel ;29
%7 = OpVariable %8 Function %4 ;34
2016-01-22 21:52:40 +00:00
%9 = OpLoad %2 %7
OpReturnValue %9 ;36
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
2016-01-22 21:52:40 +00:00
TEST_F(ValidateIdWithMessage, OpReturnValueExpressionGood) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
2016-01-22 21:52:40 +00:00
%3 = OpTypeFunction %2
%4 = OpConstant %2 42
%5 = OpFunction %2 None %3
2016-01-22 21:52:40 +00:00
%6 = OpLabel
%7 = OpIAdd %2 %4 %4
OpReturnValue %7
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
2016-01-22 21:52:40 +00:00
}
TEST_F(ValidateIdWithMessage, OpReturnValueIsType) {
string spirv = kGLSL450MemoryModel + R"(
2016-01-22 21:52:40 +00:00
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypeFunction %2
%5 = OpFunction %2 None %3
%6 = OpLabel
OpReturnValue %1
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr("OpReturnValue Value <id> '1' does not represent a value."));
}
TEST_F(ValidateIdWithMessage, OpReturnValueIsLabel) {
string spirv = kGLSL450MemoryModel + R"(
2016-01-22 21:52:40 +00:00
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypeFunction %2
%5 = OpFunction %2 None %3
%6 = OpLabel
OpReturnValue %6
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr("OpReturnValue Value <id> '5' does not represent a value."));
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}
TEST_F(ValidateIdWithMessage, OpReturnValueIsVoid) {
string spirv = kGLSL450MemoryModel + R"(
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%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypeFunction %1
%5 = OpFunction %1 None %3
%6 = OpLabel
%7 = OpFunctionCall %1 %5
OpReturnValue %7
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr("OpReturnValue value's type <id> '1' is missing or void."));
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}
TEST_F(ValidateIdWithMessage, OpReturnValueIsVariableInPhysical) {
// It's valid to return a pointer in a physical addressing model.
string spirv = kGLSL450MemoryModel + R"(
OpMemoryModel Physical32 OpenCL
%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypePointer Private %2
%4 = OpTypeFunction %3
%5 = OpFunction %3 None %4
%6 = OpLabel
%7 = OpVariable %3 Function
OpReturnValue %7
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpReturnValueIsVariableInLogical) {
// It's invalid to return a pointer in a physical addressing model.
string spirv = kGLSL450MemoryModel + R"(
OpMemoryModel Logical GLSL450
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%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypePointer Private %2
%4 = OpTypeFunction %3
%5 = OpFunction %3 None %4
%6 = OpLabel
%7 = OpVariable %3 Function
OpReturnValue %7
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("OpReturnValue value's type <id> '3' is a pointer, "
"which is invalid in the Logical addressing model."));
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}
// TODO: enable when this bug is fixed:
// https://cvs.khronos.org/bugzilla/show_bug.cgi?id=15404
TEST_F(ValidateIdWithMessage, DISABLED_OpReturnValueIsFunction) {
string spirv = kGLSL450MemoryModel + R"(
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%1 = OpTypeVoid
%2 = OpTypeInt 32 0
%3 = OpTypeFunction %2
%5 = OpFunction %2 None %3
%6 = OpLabel
OpReturnValue %5
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
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}
TEST_F(ValidateIdWithMessage, UndefinedTypeId) {
string spirv = kGLSL450MemoryModel + R"(
%s = OpTypeStruct %i32
)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(),
HasSubstr("Forward reference operands in an OpTypeStruct must "
"first be declared using OpTypeForwardPointer."));
}
TEST_F(ValidateIdWithMessage, UndefinedIdScope) {
string spirv = kGLSL450MemoryModel + R"(
%u32 = OpTypeInt 32 0
%memsem = OpConstant %u32 0
%void = OpTypeVoid
%void_f = OpTypeFunction %void
%f = OpFunction %void None %void_f
%l = OpLabel
OpMemoryBarrier %undef %memsem
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(), HasSubstr("ID 7 has not been defined"));
}
TEST_F(ValidateIdWithMessage, UndefinedIdMemSem) {
string spirv = kGLSL450MemoryModel + R"(
%u32 = OpTypeInt 32 0
%scope = OpConstant %u32 0
%void = OpTypeVoid
%void_f = OpTypeFunction %void
%f = OpFunction %void None %void_f
%l = OpLabel
OpMemoryBarrier %scope %undef
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(getDiagnosticString(), HasSubstr("ID 7 has not been defined"));
}
TEST_F(ValidateIdWithMessage,
KernelOpEntryPointAndOpInBoundsPtrAccessChainGood) {
string spirv = kOpenCLMemoryModel32 + R"(
OpEntryPoint Kernel %2 "simple_kernel"
OpSource OpenCL_C 200000
OpDecorate %3 BuiltIn GlobalInvocationId
OpDecorate %3 Constant
OpDecorate %4 FuncParamAttr NoCapture
OpDecorate %3 LinkageAttributes "__spirv_GlobalInvocationId" Import
%5 = OpTypeInt 32 0
%6 = OpTypeVector %5 3
%7 = OpTypePointer UniformConstant %6
%3 = OpVariable %7 UniformConstant
%8 = OpTypeVoid
%9 = OpTypeStruct %5
%10 = OpTypePointer CrossWorkgroup %9
%11 = OpTypeFunction %8 %10
%12 = OpConstant %5 0
%13 = OpTypePointer CrossWorkgroup %5
%14 = OpConstant %5 42
%2 = OpFunction %8 None %11
%4 = OpFunctionParameter %10
%15 = OpLabel
%16 = OpLoad %6 %3 Aligned 0
%17 = OpCompositeExtract %5 %16 0
%18 = OpInBoundsPtrAccessChain %13 %4 %17 %12
OpStore %18 %14 Aligned 4
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpPtrAccessChainGood) {
string spirv = kOpenCLMemoryModel64 + R"(
OpEntryPoint Kernel %2 "another_kernel"
OpSource OpenCL_C 200000
OpDecorate %3 BuiltIn GlobalInvocationId
OpDecorate %3 Constant
OpDecorate %4 FuncParamAttr NoCapture
OpDecorate %3 LinkageAttributes "__spirv_GlobalInvocationId" Import
%5 = OpTypeInt 64 0
%6 = OpTypeVector %5 3
%7 = OpTypePointer UniformConstant %6
%3 = OpVariable %7 UniformConstant
%8 = OpTypeVoid
%9 = OpTypeInt 32 0
%10 = OpTypeStruct %9
%11 = OpTypePointer CrossWorkgroup %10
%12 = OpTypeFunction %8 %11
%13 = OpConstant %5 4294967295
%14 = OpConstant %9 0
%15 = OpTypePointer CrossWorkgroup %9
%16 = OpConstant %9 42
%2 = OpFunction %8 None %12
%4 = OpFunctionParameter %11
%17 = OpLabel
%18 = OpLoad %6 %3 Aligned 0
%19 = OpCompositeExtract %5 %18 0
%20 = OpBitwiseAnd %5 %19 %13
%21 = OpPtrAccessChain %15 %4 %20 %14
OpStore %21 %16 Aligned 4
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpLoadBitcastPointerGood) {
string spirv = kOpenCLMemoryModel64 + R"(
%2 = OpTypeVoid
%3 = OpTypeInt 32 0
%4 = OpTypeFloat 32
%5 = OpTypePointer UniformConstant %3
%6 = OpTypePointer UniformConstant %4
%7 = OpVariable %5 UniformConstant
%8 = OpTypeFunction %2
%9 = OpFunction %2 None %8
%10 = OpLabel
%11 = OpBitcast %6 %7
%12 = OpLoad %4 %11
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpLoadBitcastNonPointerBad) {
string spirv = kOpenCLMemoryModel64 + R"(
%2 = OpTypeVoid
%3 = OpTypeInt 32 0
%4 = OpTypeFloat 32
%5 = OpTypePointer UniformConstant %3
%6 = OpTypeFunction %2
%7 = OpVariable %5 UniformConstant
%8 = OpFunction %2 None %6
%9 = OpLabel
%10 = OpLoad %3 %7
%11 = OpBitcast %4 %10
%12 = OpLoad %3 %11
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr("OpLoad type for pointer <id> '11' is not a pointer type."));
}
TEST_F(ValidateIdWithMessage, OpStoreBitcastPointerGood) {
string spirv = kOpenCLMemoryModel64 + R"(
%2 = OpTypeVoid
%3 = OpTypeInt 32 0
%4 = OpTypeFloat 32
%5 = OpTypePointer Function %3
%6 = OpTypePointer Function %4
%7 = OpTypeFunction %2
%8 = OpConstant %3 42
%9 = OpFunction %2 None %7
%10 = OpLabel
%11 = OpVariable %6 Function
%12 = OpBitcast %5 %11
OpStore %12 %8
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_SUCCESS, ValidateInstructions());
}
TEST_F(ValidateIdWithMessage, OpStoreBitcastNonPointerBad) {
string spirv = kOpenCLMemoryModel64 + R"(
%2 = OpTypeVoid
%3 = OpTypeInt 32 0
%4 = OpTypeFloat 32
%5 = OpTypePointer Function %4
%6 = OpTypeFunction %2
%7 = OpConstant %4 42
%8 = OpFunction %2 None %6
%9 = OpLabel
%10 = OpVariable %5 Function
%11 = OpBitcast %3 %7
OpStore %11 %7
OpReturn
OpFunctionEnd)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr("OpStore type for pointer <id> '11' is not a pointer type."));
}
// Result <id> resulting from an instruction within a function may not be used
// outside that function.
TEST_F(ValidateIdWithMessage, ResultIdUsedOutsideOfFunctionBad) {
string spirv = kGLSL450MemoryModel + R"(
%1 = OpTypeVoid
%2 = OpTypeFunction %1
%3 = OpTypeInt 32 0
%4 = OpTypePointer Function %3
%5 = OpFunction %1 None %2
%6 = OpLabel
%7 = OpVariable %4 Function
OpReturn
OpFunctionEnd
%8 = OpFunction %1 None %2
%9 = OpLabel
%10 = OpLoad %3 %7
OpReturn
OpFunctionEnd
)";
CompileSuccessfully(spirv.c_str());
EXPECT_EQ(SPV_ERROR_INVALID_ID, ValidateInstructions());
EXPECT_THAT(
getDiagnosticString(),
HasSubstr(
"ID 7 defined in block 6 does not dominate its use in block 9"));
}
// TODO: OpLifetimeStart
// TODO: OpLifetimeStop
// TODO: OpAtomicInit
// TODO: OpAtomicLoad
// TODO: OpAtomicStore
// TODO: OpAtomicExchange
// TODO: OpAtomicCompareExchange
// TODO: OpAtomicCompareExchangeWeak
// TODO: OpAtomicIIncrement
// TODO: OpAtomicIDecrement
// TODO: OpAtomicIAdd
// TODO: OpAtomicISub
// TODO: OpAtomicUMin
// TODO: OpAtomicUMax
// TODO: OpAtomicAnd
// TODO: OpAtomicOr
// TODO: OpAtomicXor
// TODO: OpAtomicIMin
// TODO: OpAtomicIMax
// TODO: OpEmitStreamVertex
// TODO: OpEndStreamPrimitive
// TODO: OpAsyncGroupCopy
// TODO: OpWaitGroupEvents
// TODO: OpGroupAll
// TODO: OpGroupAny
// TODO: OpGroupBroadcast
// TODO: OpGroupIAdd
// TODO: OpGroupFAdd
// TODO: OpGroupFMin
// TODO: OpGroupUMin
// TODO: OpGroupSMin
// TODO: OpGroupFMax
// TODO: OpGroupUMax
// TODO: OpGroupSMax
// TODO: OpEnqueueMarker
// TODO: OpEnqueueKernel
// TODO: OpGetKernelNDrangeSubGroupCount
// TODO: OpGetKernelNDrangeMaxSubGroupSize
// TODO: OpGetKernelWorkGroupSize
// TODO: OpGetKernelPreferredWorkGroupSizeMultiple
// TODO: OpRetainEvent
// TODO: OpReleaseEvent
// TODO: OpCreateUserEvent
// TODO: OpIsValidEvent
// TODO: OpSetUserEventStatus
// TODO: OpCaptureEventProfilingInfo
// TODO: OpGetDefaultQueue
// TODO: OpBuildNDRange
// TODO: OpReadPipe
// TODO: OpWritePipe
// TODO: OpReservedReadPipe
// TODO: OpReservedWritePipe
// TODO: OpReserveReadPipePackets
// TODO: OpReserveWritePipePackets
// TODO: OpCommitReadPipe
// TODO: OpCommitWritePipe
// TODO: OpIsValidReserveId
// TODO: OpGetNumPipePackets
// TODO: OpGetMaxPipePackets
// TODO: OpGroupReserveReadPipePackets
// TODO: OpGroupReserveWritePipePackets
// TODO: OpGroupCommitReadPipe
// TODO: OpGroupCommitWritePipe
} // anonymous namespace