llvm-project/llvm/unittests/DebugInfo/GSYM/GSYMTest.cpp

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Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
//===- llvm/unittest/DebugInfo/GSYMTest.cpp -------------------------------===//
//
// The LLVM Compiler Infrastructure
//
// This file is distributed under the University of Illinois Open Source
// License. See LICENSE.TXT for details.
//
//===----------------------------------------------------------------------===//
#include "llvm/ADT/DenseMap.h"
#include "llvm/ADT/SmallString.h"
#include "llvm/DebugInfo/GSYM/Header.h"
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
#include "llvm/DebugInfo/GSYM/FileEntry.h"
#include "llvm/DebugInfo/GSYM/FileWriter.h"
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
#include "llvm/DebugInfo/GSYM/FunctionInfo.h"
#include "llvm/DebugInfo/GSYM/GsymCreator.h"
#include "llvm/DebugInfo/GSYM/GsymReader.h"
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
#include "llvm/DebugInfo/GSYM/InlineInfo.h"
#include "llvm/DebugInfo/GSYM/Range.h"
#include "llvm/DebugInfo/GSYM/StringTable.h"
#include "llvm/Support/DataExtractor.h"
#include "llvm/Support/Endian.h"
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
#include "gtest/gtest.h"
#include <string>
using namespace llvm;
using namespace gsym;
void checkError(ArrayRef<std::string> ExpectedMsgs, Error Err) {
ASSERT_TRUE(bool(Err));
size_t WhichMsg = 0;
Error Remaining =
handleErrors(std::move(Err), [&](const ErrorInfoBase &Actual) {
ASSERT_LT(WhichMsg, ExpectedMsgs.size());
// Use .str(), because googletest doesn't visualise a StringRef
// properly.
EXPECT_EQ(Actual.message(), ExpectedMsgs[WhichMsg++]);
});
EXPECT_EQ(WhichMsg, ExpectedMsgs.size());
EXPECT_FALSE(Remaining);
}
void checkError(std::string ExpectedMsg, Error Err) {
checkError(ArrayRef<std::string>{ExpectedMsg}, std::move(Err));
}
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
TEST(GSYMTest, TestFileEntry) {
// Make sure default constructed GSYM FileEntry has zeroes in the
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
// directory and basename string table indexes.
FileEntry empty1;
FileEntry empty2;
EXPECT_EQ(empty1.Dir, 0u);
EXPECT_EQ(empty1.Base, 0u);
// Verify equality operator works
FileEntry a1(10, 30);
FileEntry a2(10, 30);
FileEntry b(10, 40);
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
EXPECT_EQ(empty1, empty2);
EXPECT_EQ(a1, a2);
EXPECT_NE(a1, b);
EXPECT_NE(a1, empty1);
// Test we can use llvm::gsym::FileEntry in llvm::DenseMap.
DenseMap<FileEntry, uint32_t> EntryToIndex;
constexpr uint32_t Index1 = 1;
constexpr uint32_t Index2 = 1;
auto R = EntryToIndex.insert(std::make_pair(a1, Index1));
EXPECT_TRUE(R.second);
EXPECT_EQ(R.first->second, Index1);
R = EntryToIndex.insert(std::make_pair(a1, Index1));
EXPECT_FALSE(R.second);
EXPECT_EQ(R.first->second, Index1);
R = EntryToIndex.insert(std::make_pair(b, Index2));
EXPECT_TRUE(R.second);
EXPECT_EQ(R.first->second, Index2);
R = EntryToIndex.insert(std::make_pair(a1, Index2));
EXPECT_FALSE(R.second);
EXPECT_EQ(R.first->second, Index2);
}
TEST(GSYMTest, TestFunctionInfo) {
// Test GSYM FunctionInfo structs and functionality.
FunctionInfo invalid;
EXPECT_FALSE(invalid.isValid());
EXPECT_FALSE(invalid.hasRichInfo());
const uint64_t StartAddr = 0x1000;
const uint64_t EndAddr = 0x1100;
const uint64_t Size = EndAddr - StartAddr;
const uint32_t NameOffset = 30;
FunctionInfo FI(StartAddr, Size, NameOffset);
EXPECT_TRUE(FI.isValid());
EXPECT_FALSE(FI.hasRichInfo());
EXPECT_EQ(FI.startAddress(), StartAddr);
EXPECT_EQ(FI.endAddress(), EndAddr);
EXPECT_EQ(FI.size(), Size);
const uint32_t FileIdx = 1;
const uint32_t Line = 12;
FI.OptLineTable = LineTable();
FI.OptLineTable->push(LineEntry(StartAddr,FileIdx,Line));
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
EXPECT_TRUE(FI.hasRichInfo());
FI.clear();
EXPECT_FALSE(FI.isValid());
EXPECT_FALSE(FI.hasRichInfo());
FunctionInfo A1(0x1000, 0x100, NameOffset);
FunctionInfo A2(0x1000, 0x100, NameOffset);
FunctionInfo B;
// Check == operator
EXPECT_EQ(A1, A2);
// Make sure things are not equal if they only differ by start address.
B = A2;
B.setStartAddress(0x2000);
EXPECT_NE(B, A2);
// Make sure things are not equal if they only differ by size.
B = A2;
B.setSize(0x101);
EXPECT_NE(B, A2);
// Make sure things are not equal if they only differ by name.
B = A2;
B.Name = 60;
EXPECT_NE(B, A2);
// Check < operator.
// Check less than where address differs.
B = A2;
B.setStartAddress(A2.startAddress() + 0x1000);
EXPECT_LT(A1, B);
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
// We use the < operator to take a variety of different FunctionInfo
// structs from a variety of sources: symtab, debug info, runtime info
// and we sort them and want the sorting to allow us to quickly get the
// best version of a function info.
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
FunctionInfo FISymtab(StartAddr, Size, NameOffset);
FunctionInfo FIWithLines(StartAddr, Size, NameOffset);
FIWithLines.OptLineTable = LineTable();
FIWithLines.OptLineTable->push(LineEntry(StartAddr,FileIdx,Line));
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
// Test that a FunctionInfo with just a name and size is less than one
// that has name, size and any number of line table entries
EXPECT_LT(FISymtab, FIWithLines);
FunctionInfo FIWithLinesAndInline = FIWithLines;
FIWithLinesAndInline.Inline = InlineInfo();
FIWithLinesAndInline.Inline->Ranges.insert(
AddressRange(StartAddr, StartAddr + 0x10));
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
// Test that a FunctionInfo with name, size, and line entries is less than
// the same one with valid inline info
EXPECT_LT(FIWithLines, FIWithLinesAndInline);
// Test if we have an entry with lines and one with more lines for the same
// range, the ones with more lines is greater than the one with less.
FunctionInfo FIWithMoreLines = FIWithLines;
FIWithMoreLines.OptLineTable->push(LineEntry(StartAddr,FileIdx,Line+5));
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
EXPECT_LT(FIWithLines, FIWithMoreLines);
// Test that if we have the same number of lines we compare the line entries
// in the FunctionInfo.OptLineTable.Lines vector.
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
FunctionInfo FIWithLinesWithHigherAddress = FIWithLines;
FIWithLinesWithHigherAddress.OptLineTable->get(0).Addr += 0x10;
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
EXPECT_LT(FIWithLines, FIWithLinesWithHigherAddress);
}
static void TestFunctionInfoDecodeError(llvm::support::endianness ByteOrder,
std::string Bytes,
const uint64_t BaseAddr,
std::string ExpectedErrorMsg) {
uint8_t AddressSize = 4;
DataExtractor Data(Bytes, ByteOrder == llvm::support::little, AddressSize);
llvm::Expected<FunctionInfo> Decoded = FunctionInfo::decode(Data, BaseAddr);
// Make sure decoding fails.
ASSERT_FALSE((bool)Decoded);
// Make sure decoded object is the same as the one we encoded.
checkError(ExpectedErrorMsg, Decoded.takeError());
}
TEST(GSYMTest, TestFunctionInfoDecodeErrors) {
// Test decoding FunctionInfo objects that ensure we report an appropriate
// error message.
const llvm::support::endianness ByteOrder = llvm::support::little;
SmallString<512> Str;
raw_svector_ostream OutStrm(Str);
FileWriter FW(OutStrm, ByteOrder);
const uint64_t BaseAddr = 0x100;
TestFunctionInfoDecodeError(ByteOrder, OutStrm.str(), BaseAddr,
"0x00000000: missing FunctionInfo Size");
FW.writeU32(0x100); // Function size.
TestFunctionInfoDecodeError(ByteOrder, OutStrm.str(), BaseAddr,
"0x00000004: missing FunctionInfo Name");
// Write out an invalid Name string table offset of zero.
FW.writeU32(0);
TestFunctionInfoDecodeError(ByteOrder, OutStrm.str(), BaseAddr,
"0x00000004: invalid FunctionInfo Name value 0x00000000");
// Modify the Name to be 0x00000001, which is a valid value.
FW.fixup32(0x00000001, 4);
TestFunctionInfoDecodeError(ByteOrder, OutStrm.str(), BaseAddr,
"0x00000008: missing FunctionInfo InfoType value");
auto FixupOffset = FW.tell();
FW.writeU32(1); // InfoType::LineTableInfo.
TestFunctionInfoDecodeError(ByteOrder, OutStrm.str(), BaseAddr,
"0x0000000c: missing FunctionInfo InfoType length");
FW.fixup32(4, FixupOffset); // Write an invalid InfoType enumeration value
FW.writeU32(0); // LineTableInfo InfoType data length.
TestFunctionInfoDecodeError(ByteOrder, OutStrm.str(), BaseAddr,
"0x00000008: unsupported InfoType 4");
}
static void TestFunctionInfoEncodeError(llvm::support::endianness ByteOrder,
const FunctionInfo &FI,
std::string ExpectedErrorMsg) {
SmallString<512> Str;
raw_svector_ostream OutStrm(Str);
FileWriter FW(OutStrm, ByteOrder);
Expected<uint64_t> ExpectedOffset = FI.encode(FW);
ASSERT_FALSE(ExpectedOffset);
checkError(ExpectedErrorMsg, ExpectedOffset.takeError());
}
TEST(GSYMTest, TestFunctionInfoEncodeErrors) {
const uint64_t FuncAddr = 0x1000;
const uint64_t FuncSize = 0x100;
const uint32_t InvalidName = 0;
const uint32_t ValidName = 1;
FunctionInfo InvalidNameFI(FuncAddr, FuncSize, InvalidName);
TestFunctionInfoEncodeError(llvm::support::little, InvalidNameFI,
"attempted to encode invalid FunctionInfo object");
FunctionInfo InvalidLineTableFI(FuncAddr, FuncSize, ValidName);
// Empty line tables are not valid. Verify if the encoding of anything
// in our line table fails, that we see get the error propagated.
InvalidLineTableFI.OptLineTable = LineTable();
TestFunctionInfoEncodeError(llvm::support::little, InvalidLineTableFI,
"attempted to encode invalid LineTable object");
FunctionInfo InvalidInlineInfoFI(FuncAddr, FuncSize, ValidName);
// Empty line tables are not valid. Verify if the encoding of anything
// in our line table fails, that we see get the error propagated.
InvalidInlineInfoFI.Inline = InlineInfo();
TestFunctionInfoEncodeError(llvm::support::little, InvalidInlineInfoFI,
"attempted to encode invalid InlineInfo object");
}
static void TestFunctionInfoEncodeDecode(llvm::support::endianness ByteOrder,
const FunctionInfo &FI) {
// Test encoding and decoding FunctionInfo objects.
SmallString<512> Str;
raw_svector_ostream OutStrm(Str);
FileWriter FW(OutStrm, ByteOrder);
llvm::Expected<uint64_t> ExpectedOffset = FI.encode(FW);
ASSERT_TRUE(bool(ExpectedOffset));
// Verify we got the encoded offset back from the encode function.
ASSERT_EQ(ExpectedOffset.get(), 0ULL);
std::string Bytes(OutStrm.str());
uint8_t AddressSize = 4;
DataExtractor Data(Bytes, ByteOrder == llvm::support::little, AddressSize);
llvm::Expected<FunctionInfo> Decoded = FunctionInfo::decode(Data,
FI.Range.Start);
// Make sure decoding succeeded.
ASSERT_TRUE((bool)Decoded);
// Make sure decoded object is the same as the one we encoded.
EXPECT_EQ(FI, Decoded.get());
}
static void AddLines(uint64_t FuncAddr, uint32_t FileIdx, FunctionInfo &FI) {
FI.OptLineTable = LineTable();
LineEntry Line0(FuncAddr + 0x000, FileIdx, 10);
LineEntry Line1(FuncAddr + 0x010, FileIdx, 11);
LineEntry Line2(FuncAddr + 0x100, FileIdx, 1000);
FI.OptLineTable->push(Line0);
FI.OptLineTable->push(Line1);
FI.OptLineTable->push(Line2);
}
static void AddInline(uint64_t FuncAddr, uint64_t FuncSize, FunctionInfo &FI) {
FI.Inline = InlineInfo();
FI.Inline->Ranges.insert(AddressRange(FuncAddr, FuncAddr + FuncSize));
InlineInfo Inline1;
Inline1.Ranges.insert(AddressRange(FuncAddr + 0x10, FuncAddr + 0x30));
Inline1.Name = 1;
Inline1.CallFile = 1;
Inline1.CallLine = 11;
FI.Inline->Children.push_back(Inline1);
}
TEST(GSYMTest, TestFunctionInfoEncoding) {
constexpr uint64_t FuncAddr = 0x1000;
constexpr uint64_t FuncSize = 0x100;
constexpr uint32_t FuncName = 1;
constexpr uint32_t FileIdx = 1;
// Make sure that we can encode and decode a FunctionInfo with no line table
// or inline info.
FunctionInfo FI(FuncAddr, FuncSize, FuncName);
TestFunctionInfoEncodeDecode(llvm::support::little, FI);
TestFunctionInfoEncodeDecode(llvm::support::big, FI);
// Make sure that we can encode and decode a FunctionInfo with a line table
// and no inline info.
FunctionInfo FILines(FuncAddr, FuncSize, FuncName);
AddLines(FuncAddr, FileIdx, FILines);
TestFunctionInfoEncodeDecode(llvm::support::little, FILines);
TestFunctionInfoEncodeDecode(llvm::support::big, FILines);
// Make sure that we can encode and decode a FunctionInfo with no line table
// and with inline info.
FunctionInfo FIInline(FuncAddr, FuncSize, FuncName);
AddInline(FuncAddr, FuncSize, FIInline);
TestFunctionInfoEncodeDecode(llvm::support::little, FIInline);
TestFunctionInfoEncodeDecode(llvm::support::big, FIInline);
// Make sure that we can encode and decode a FunctionInfo with no line table
// and with inline info.
FunctionInfo FIBoth(FuncAddr, FuncSize, FuncName);
AddLines(FuncAddr, FileIdx, FIBoth);
AddInline(FuncAddr, FuncSize, FIBoth);
TestFunctionInfoEncodeDecode(llvm::support::little, FIBoth);
TestFunctionInfoEncodeDecode(llvm::support::big, FIBoth);
}
static void TestInlineInfoEncodeDecode(llvm::support::endianness ByteOrder,
const InlineInfo &Inline) {
// Test encoding and decoding InlineInfo objects
SmallString<512> Str;
raw_svector_ostream OutStrm(Str);
FileWriter FW(OutStrm, ByteOrder);
const uint64_t BaseAddr = Inline.Ranges[0].Start;
llvm::Error Err = Inline.encode(FW, BaseAddr);
ASSERT_FALSE(Err);
std::string Bytes(OutStrm.str());
uint8_t AddressSize = 4;
DataExtractor Data(Bytes, ByteOrder == llvm::support::little, AddressSize);
llvm::Expected<InlineInfo> Decoded = InlineInfo::decode(Data, BaseAddr);
// Make sure decoding succeeded.
ASSERT_TRUE((bool)Decoded);
// Make sure decoded object is the same as the one we encoded.
EXPECT_EQ(Inline, Decoded.get());
}
static void TestInlineInfoDecodeError(llvm::support::endianness ByteOrder,
std::string Bytes,
const uint64_t BaseAddr,
std::string ExpectedErrorMsg) {
uint8_t AddressSize = 4;
DataExtractor Data(Bytes, ByteOrder == llvm::support::little, AddressSize);
llvm::Expected<InlineInfo> Decoded = InlineInfo::decode(Data, BaseAddr);
// Make sure decoding fails.
ASSERT_FALSE((bool)Decoded);
// Make sure decoded object is the same as the one we encoded.
checkError(ExpectedErrorMsg, Decoded.takeError());
}
static void TestInlineInfoEncodeError(llvm::support::endianness ByteOrder,
const InlineInfo &Inline,
std::string ExpectedErrorMsg) {
SmallString<512> Str;
raw_svector_ostream OutStrm(Str);
FileWriter FW(OutStrm, ByteOrder);
const uint64_t BaseAddr = Inline.Ranges.empty() ? 0 : Inline.Ranges[0].Start;
llvm::Error Err = Inline.encode(FW, BaseAddr);
checkError(ExpectedErrorMsg, std::move(Err));
}
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
TEST(GSYMTest, TestInlineInfo) {
// Test InlineInfo structs.
InlineInfo II;
EXPECT_FALSE(II.isValid());
II.Ranges.insert(AddressRange(0x1000, 0x2000));
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
// Make sure InlineInfo in valid with just an address range since
// top level InlineInfo objects have ranges with no name, call file
// or call line
EXPECT_TRUE(II.isValid());
// Make sure InlineInfo isn't after being cleared.
II.clear();
EXPECT_FALSE(II.isValid());
// Create an InlineInfo that contains the following data. The
// indentation of the address range indicates the parent child
// relationships of the InlineInfo objects:
//
// Variable Range and values
// =========== ====================================================
// Root [0x100-0x200) (no name, file, or line)
// Inline1 [0x150-0x160) Name = 1, File = 1, Line = 11
// Inline1Sub1 [0x152-0x155) Name = 2, File = 2, Line = 22
// Inline1Sub2 [0x157-0x158) Name = 3, File = 3, Line = 33
InlineInfo Root;
Root.Ranges.insert(AddressRange(0x100, 0x200));
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
InlineInfo Inline1;
Inline1.Ranges.insert(AddressRange(0x150, 0x160));
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
Inline1.Name = 1;
Inline1.CallFile = 1;
Inline1.CallLine = 11;
InlineInfo Inline1Sub1;
Inline1Sub1.Ranges.insert(AddressRange(0x152, 0x155));
Inline1Sub1.Name = 2;
Inline1Sub1.CallFile = 2;
Inline1Sub1.CallLine = 22;
InlineInfo Inline1Sub2;
Inline1Sub2.Ranges.insert(AddressRange(0x157, 0x158));
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
Inline1Sub2.Name = 3;
Inline1Sub2.CallFile = 3;
Inline1Sub2.CallLine = 33;
Inline1.Children.push_back(Inline1Sub1);
Inline1.Children.push_back(Inline1Sub2);
Root.Children.push_back(Inline1);
// Make sure an address that is out of range won't match
EXPECT_FALSE(Root.getInlineStack(0x50));
// Verify that we get no inline stacks for addresses out of [0x100-0x200)
EXPECT_FALSE(Root.getInlineStack(Root.Ranges[0].Start - 1));
EXPECT_FALSE(Root.getInlineStack(Root.Ranges[0].End));
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
// Verify we get no inline stack entries for addresses that are in
// [0x100-0x200) but not in [0x150-0x160)
EXPECT_FALSE(Root.getInlineStack(Inline1.Ranges[0].Start - 1));
EXPECT_FALSE(Root.getInlineStack(Inline1.Ranges[0].End));
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
// Verify we get one inline stack entry for addresses that are in
// [[0x150-0x160)) but not in [0x152-0x155) or [0x157-0x158)
auto InlineInfos = Root.getInlineStack(Inline1.Ranges[0].Start);
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
ASSERT_TRUE(InlineInfos);
ASSERT_EQ(InlineInfos->size(), 1u);
ASSERT_EQ(*InlineInfos->at(0), Inline1);
InlineInfos = Root.getInlineStack(Inline1.Ranges[0].End - 1);
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
EXPECT_TRUE(InlineInfos);
ASSERT_EQ(InlineInfos->size(), 1u);
ASSERT_EQ(*InlineInfos->at(0), Inline1);
// Verify we get two inline stack entries for addresses that are in
// [0x152-0x155)
InlineInfos = Root.getInlineStack(Inline1Sub1.Ranges[0].Start);
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
EXPECT_TRUE(InlineInfos);
ASSERT_EQ(InlineInfos->size(), 2u);
ASSERT_EQ(*InlineInfos->at(0), Inline1Sub1);
ASSERT_EQ(*InlineInfos->at(1), Inline1);
InlineInfos = Root.getInlineStack(Inline1Sub1.Ranges[0].End - 1);
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
EXPECT_TRUE(InlineInfos);
ASSERT_EQ(InlineInfos->size(), 2u);
ASSERT_EQ(*InlineInfos->at(0), Inline1Sub1);
ASSERT_EQ(*InlineInfos->at(1), Inline1);
// Verify we get two inline stack entries for addresses that are in
// [0x157-0x158)
InlineInfos = Root.getInlineStack(Inline1Sub2.Ranges[0].Start);
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
EXPECT_TRUE(InlineInfos);
ASSERT_EQ(InlineInfos->size(), 2u);
ASSERT_EQ(*InlineInfos->at(0), Inline1Sub2);
ASSERT_EQ(*InlineInfos->at(1), Inline1);
InlineInfos = Root.getInlineStack(Inline1Sub2.Ranges[0].End - 1);
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
EXPECT_TRUE(InlineInfos);
ASSERT_EQ(InlineInfos->size(), 2u);
ASSERT_EQ(*InlineInfos->at(0), Inline1Sub2);
ASSERT_EQ(*InlineInfos->at(1), Inline1);
// Test encoding and decoding InlineInfo objects
TestInlineInfoEncodeDecode(llvm::support::little, Root);
TestInlineInfoEncodeDecode(llvm::support::big, Root);
}
TEST(GSYMTest, TestInlineInfoEncodeErrors) {
// Test InlineInfo encoding errors.
// Test that we get an error when trying to encode an InlineInfo object
// that has no ranges.
InlineInfo Empty;
std::string EmptyErr("attempted to encode invalid InlineInfo object");
TestInlineInfoEncodeError(llvm::support::little, Empty, EmptyErr);
TestInlineInfoEncodeError(llvm::support::big, Empty, EmptyErr);
// Verify that we get an error trying to encode an InlineInfo object that has
// a child InlineInfo that has no ranges.
InlineInfo ContainsEmpty;
ContainsEmpty.Ranges.insert({0x100,200});
ContainsEmpty.Children.push_back(Empty);
TestInlineInfoEncodeError(llvm::support::little, ContainsEmpty, EmptyErr);
TestInlineInfoEncodeError(llvm::support::big, ContainsEmpty, EmptyErr);
// Verify that we get an error trying to encode an InlineInfo object that has
// a child whose address range is not contained in the parent address range.
InlineInfo ChildNotContained;
std::string ChildNotContainedErr("child range not contained in parent");
ChildNotContained.Ranges.insert({0x100,200});
InlineInfo ChildNotContainedChild;
ChildNotContainedChild.Ranges.insert({0x200,300});
ChildNotContained.Children.push_back(ChildNotContainedChild);
TestInlineInfoEncodeError(llvm::support::little, ChildNotContained,
ChildNotContainedErr);
TestInlineInfoEncodeError(llvm::support::big, ChildNotContained,
ChildNotContainedErr);
}
TEST(GSYMTest, TestInlineInfoDecodeErrors) {
// Test decoding InlineInfo objects that ensure we report an appropriate
// error message.
const llvm::support::endianness ByteOrder = llvm::support::little;
SmallString<512> Str;
raw_svector_ostream OutStrm(Str);
FileWriter FW(OutStrm, ByteOrder);
const uint64_t BaseAddr = 0x100;
TestInlineInfoDecodeError(ByteOrder, OutStrm.str(), BaseAddr,
"0x00000000: missing InlineInfo address ranges data");
AddressRanges Ranges;
Ranges.insert({BaseAddr, BaseAddr+0x100});
Ranges.encode(FW, BaseAddr);
TestInlineInfoDecodeError(ByteOrder, OutStrm.str(), BaseAddr,
"0x00000004: missing InlineInfo uint8_t indicating children");
FW.writeU8(0);
TestInlineInfoDecodeError(ByteOrder, OutStrm.str(), BaseAddr,
"0x00000005: missing InlineInfo uint32_t for name");
FW.writeU32(0);
TestInlineInfoDecodeError(ByteOrder, OutStrm.str(), BaseAddr,
"0x00000009: missing ULEB128 for InlineInfo call file");
FW.writeU8(0);
TestInlineInfoDecodeError(ByteOrder, OutStrm.str(), BaseAddr,
"0x0000000a: missing ULEB128 for InlineInfo call line");
}
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
TEST(GSYMTest, TestLineEntry) {
// test llvm::gsym::LineEntry structs.
const uint64_t ValidAddr = 0x1000;
const uint64_t InvalidFileIdx = 0;
const uint32_t ValidFileIdx = 1;
const uint32_t ValidLine = 5;
LineEntry Invalid;
EXPECT_FALSE(Invalid.isValid());
// Make sure that an entry is invalid if it has a bad file index.
LineEntry BadFile(ValidAddr, InvalidFileIdx, ValidLine);
EXPECT_FALSE(BadFile.isValid());
// Test operators
LineEntry E1(ValidAddr, ValidFileIdx, ValidLine);
LineEntry E2(ValidAddr, ValidFileIdx, ValidLine);
LineEntry DifferentAddr(ValidAddr + 1, ValidFileIdx, ValidLine);
LineEntry DifferentFile(ValidAddr, ValidFileIdx + 1, ValidLine);
LineEntry DifferentLine(ValidAddr, ValidFileIdx, ValidLine + 1);
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
EXPECT_TRUE(E1.isValid());
EXPECT_EQ(E1, E2);
EXPECT_NE(E1, DifferentAddr);
EXPECT_NE(E1, DifferentFile);
EXPECT_NE(E1, DifferentLine);
EXPECT_LT(E1, DifferentAddr);
}
TEST(GSYMTest, TestRanges) {
// test llvm::gsym::AddressRange.
const uint64_t StartAddr = 0x1000;
const uint64_t EndAddr = 0x2000;
// Verify constructor and API to ensure it takes start and end address.
const AddressRange Range(StartAddr, EndAddr);
EXPECT_EQ(Range.size(), EndAddr - StartAddr);
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
// Verify llvm::gsym::AddressRange::contains().
EXPECT_FALSE(Range.contains(0));
EXPECT_FALSE(Range.contains(StartAddr - 1));
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
EXPECT_TRUE(Range.contains(StartAddr));
EXPECT_TRUE(Range.contains(EndAddr - 1));
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
EXPECT_FALSE(Range.contains(EndAddr));
EXPECT_FALSE(Range.contains(UINT64_MAX));
const AddressRange RangeSame(StartAddr, EndAddr);
const AddressRange RangeDifferentStart(StartAddr + 1, EndAddr);
const AddressRange RangeDifferentEnd(StartAddr, EndAddr + 1);
const AddressRange RangeDifferentStartEnd(StartAddr + 1, EndAddr + 1);
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
// Test == and != with values that are the same
EXPECT_EQ(Range, RangeSame);
EXPECT_FALSE(Range != RangeSame);
// Test == and != with values that are the different
EXPECT_NE(Range, RangeDifferentStart);
EXPECT_NE(Range, RangeDifferentEnd);
EXPECT_NE(Range, RangeDifferentStartEnd);
EXPECT_FALSE(Range == RangeDifferentStart);
EXPECT_FALSE(Range == RangeDifferentEnd);
EXPECT_FALSE(Range == RangeDifferentStartEnd);
// Test "bool operator<(const AddressRange &, const AddressRange &)".
EXPECT_FALSE(Range < RangeSame);
EXPECT_FALSE(RangeSame < Range);
EXPECT_LT(Range, RangeDifferentStart);
EXPECT_LT(Range, RangeDifferentEnd);
EXPECT_LT(Range, RangeDifferentStartEnd);
// Test "bool operator<(const AddressRange &, uint64_t)"
EXPECT_LT(Range.Start, StartAddr + 1);
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
// Test "bool operator<(uint64_t, const AddressRange &)"
EXPECT_LT(StartAddr - 1, Range.Start);
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
// Verify llvm::gsym::AddressRange::isContiguousWith() and
// llvm::gsym::AddressRange::intersects().
const AddressRange EndsBeforeRangeStart(0, StartAddr - 1);
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
const AddressRange EndsAtRangeStart(0, StartAddr);
const AddressRange OverlapsRangeStart(StartAddr - 1, StartAddr + 1);
const AddressRange InsideRange(StartAddr + 1, EndAddr - 1);
const AddressRange OverlapsRangeEnd(EndAddr - 1, EndAddr + 1);
const AddressRange StartsAtRangeEnd(EndAddr, EndAddr + 0x100);
const AddressRange StartsAfterRangeEnd(EndAddr + 1, EndAddr + 0x100);
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
EXPECT_FALSE(Range.intersects(EndsBeforeRangeStart));
EXPECT_FALSE(Range.intersects(EndsAtRangeStart));
EXPECT_TRUE(Range.intersects(OverlapsRangeStart));
EXPECT_TRUE(Range.intersects(InsideRange));
EXPECT_TRUE(Range.intersects(OverlapsRangeEnd));
EXPECT_FALSE(Range.intersects(StartsAtRangeEnd));
EXPECT_FALSE(Range.intersects(StartsAfterRangeEnd));
// Test the functions that maintain GSYM address ranges:
// "bool AddressRange::contains(uint64_t Addr) const;"
// "void AddressRanges::insert(const AddressRange &R);"
AddressRanges Ranges;
Ranges.insert(AddressRange(0x1000, 0x2000));
Ranges.insert(AddressRange(0x2000, 0x3000));
Ranges.insert(AddressRange(0x4000, 0x5000));
EXPECT_FALSE(Ranges.contains(0));
EXPECT_FALSE(Ranges.contains(0x1000 - 1));
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
EXPECT_TRUE(Ranges.contains(0x1000));
EXPECT_TRUE(Ranges.contains(0x2000));
EXPECT_TRUE(Ranges.contains(0x4000));
EXPECT_TRUE(Ranges.contains(0x2000 - 1));
EXPECT_TRUE(Ranges.contains(0x3000 - 1));
EXPECT_FALSE(Ranges.contains(0x3000 + 1));
EXPECT_TRUE(Ranges.contains(0x5000 - 1));
EXPECT_FALSE(Ranges.contains(0x5000 + 1));
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
EXPECT_FALSE(Ranges.contains(UINT64_MAX));
EXPECT_FALSE(Ranges.contains(AddressRange()));
EXPECT_FALSE(Ranges.contains(AddressRange(0x1000-1, 0x1000)));
EXPECT_FALSE(Ranges.contains(AddressRange(0x1000, 0x1000)));
EXPECT_TRUE(Ranges.contains(AddressRange(0x1000, 0x1000+1)));
EXPECT_TRUE(Ranges.contains(AddressRange(0x1000, 0x2000)));
EXPECT_FALSE(Ranges.contains(AddressRange(0x1000, 0x2001)));
EXPECT_TRUE(Ranges.contains(AddressRange(0x2000, 0x3000)));
EXPECT_FALSE(Ranges.contains(AddressRange(0x2000, 0x3001)));
EXPECT_FALSE(Ranges.contains(AddressRange(0x3000, 0x3001)));
EXPECT_FALSE(Ranges.contains(AddressRange(0x1500, 0x4500)));
EXPECT_FALSE(Ranges.contains(AddressRange(0x5000, 0x5001)));
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
// Verify that intersecting ranges get combined
Ranges.clear();
Ranges.insert(AddressRange(0x1100, 0x1F00));
// Verify a wholy contained range that is added doesn't do anything.
Ranges.insert(AddressRange(0x1500, 0x1F00));
EXPECT_EQ(Ranges.size(), 1u);
EXPECT_EQ(Ranges[0], AddressRange(0x1100, 0x1F00));
// Verify a range that starts before and intersects gets combined.
Ranges.insert(AddressRange(0x1000, Ranges[0].Start + 1));
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
EXPECT_EQ(Ranges.size(), 1u);
EXPECT_EQ(Ranges[0], AddressRange(0x1000, 0x1F00));
// Verify a range that starts inside and extends ranges gets combined.
Ranges.insert(AddressRange(Ranges[0].End - 1, 0x2000));
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
EXPECT_EQ(Ranges.size(), 1u);
EXPECT_EQ(Ranges[0], AddressRange(0x1000, 0x2000));
// Verify that adjacent ranges don't get combined
Ranges.insert(AddressRange(0x2000, 0x3000));
EXPECT_EQ(Ranges.size(), 2u);
EXPECT_EQ(Ranges[0], AddressRange(0x1000, 0x2000));
EXPECT_EQ(Ranges[1], AddressRange(0x2000, 0x3000));
// Verify if we add an address range that intersects two ranges
// that they get combined
Ranges.insert(AddressRange(Ranges[0].End - 1, Ranges[1].Start + 1));
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
EXPECT_EQ(Ranges.size(), 1u);
EXPECT_EQ(Ranges[0], AddressRange(0x1000, 0x3000));
Ranges.insert(AddressRange(0x3000, 0x4000));
Ranges.insert(AddressRange(0x4000, 0x5000));
Ranges.insert(AddressRange(0x2000, 0x4500));
EXPECT_EQ(Ranges.size(), 1u);
EXPECT_EQ(Ranges[0], AddressRange(0x1000, 0x5000));
Add GSYM utility files along with unit tests. The full GSYM patch started with: https://reviews.llvm.org/D53379 In that patch we wanted to split up getting GSYM into the LLVM code base so we are not committing too much code at once. This is a first in a series of patches where I only add the foundation classes along with complete unit tests. They provide the foundation for encoding and decoding a GSYM file. File entries are defined in llvm::gsym::FileEntry. This class splits the file up into a directory and filename represented by uniqued string table offsets. This allows all files that are referred to in a GSYM file to be encoded as 1 based indexes into a global file table in the GSYM file. Function information in stored in llvm::gsym::FunctionInfo. This object represents a contiguous address range that has a name and range with an optional line table and inline call stack information. Line table entries are defined in llvm::gsym::LineEntry. They store only address, file and line information to keep the line tables simple and allows the information to be efficiently encoded in a subsequent patch. Inline information is defined in llvm::gsym::InlineInfo. These structs store the name of the inline function, along with one or more address ranges, and the file and line that called this function. They also contain any child inline information. There are also utility classes for address ranges in llvm::gsym::AddressRange, and string table support in llvm::gsym::StringTable which are simple classes. The unit tests test all the APIs on these simple classes so they will be ready for the next patches where we will create GSYM files and parse GSYM files. Differential Revision: https://reviews.llvm.org/D63104 llvm-svn: 364427
2019-06-26 22:09:09 +08:00
}
TEST(GSYMTest, TestStringTable) {
StringTable StrTab(StringRef("\0Hello\0World\0", 13));
// Test extracting strings from a string table.
EXPECT_EQ(StrTab.getString(0), "");
EXPECT_EQ(StrTab.getString(1), "Hello");
EXPECT_EQ(StrTab.getString(7), "World");
EXPECT_EQ(StrTab.getString(8), "orld");
// Test pointing to last NULL terminator gets empty string.
EXPECT_EQ(StrTab.getString(12), "");
// Test pointing to past end gets empty string.
EXPECT_EQ(StrTab.getString(13), "");
}
static void TestFileWriterHelper(llvm::support::endianness ByteOrder) {
SmallString<512> Str;
raw_svector_ostream OutStrm(Str);
FileWriter FW(OutStrm, ByteOrder);
const int64_t MinSLEB = INT64_MIN;
const int64_t MaxSLEB = INT64_MAX;
const uint64_t MinULEB = 0;
const uint64_t MaxULEB = UINT64_MAX;
const uint8_t U8 = 0x10;
const uint16_t U16 = 0x1122;
const uint32_t U32 = 0x12345678;
const uint64_t U64 = 0x33445566778899aa;
const char *Hello = "hello";
FW.writeU8(U8);
FW.writeU16(U16);
FW.writeU32(U32);
FW.writeU64(U64);
FW.alignTo(16);
const off_t FixupOffset = FW.tell();
FW.writeU32(0);
FW.writeSLEB(MinSLEB);
FW.writeSLEB(MaxSLEB);
FW.writeULEB(MinULEB);
FW.writeULEB(MaxULEB);
FW.writeNullTerminated(Hello);
// Test Seek, Tell using Fixup32.
FW.fixup32(U32, FixupOffset);
std::string Bytes(OutStrm.str());
uint8_t AddressSize = 4;
DataExtractor Data(Bytes, ByteOrder == llvm::support::little, AddressSize);
uint64_t Offset = 0;
EXPECT_EQ(Data.getU8(&Offset), U8);
EXPECT_EQ(Data.getU16(&Offset), U16);
EXPECT_EQ(Data.getU32(&Offset), U32);
EXPECT_EQ(Data.getU64(&Offset), U64);
Offset = alignTo(Offset, 16);
EXPECT_EQ(Data.getU32(&Offset), U32);
EXPECT_EQ(Data.getSLEB128(&Offset), MinSLEB);
EXPECT_EQ(Data.getSLEB128(&Offset), MaxSLEB);
EXPECT_EQ(Data.getULEB128(&Offset), MinULEB);
EXPECT_EQ(Data.getULEB128(&Offset), MaxULEB);
EXPECT_EQ(Data.getCStrRef(&Offset), StringRef(Hello));
}
TEST(GSYMTest, TestFileWriter) {
TestFileWriterHelper(llvm::support::little);
TestFileWriterHelper(llvm::support::big);
}
TEST(GSYMTest, TestAddressRangeEncodeDecode) {
// Test encoding and decoding AddressRange objects. AddressRange objects
// are always stored as offsets from the a base address. The base address
// is the FunctionInfo's base address for function level ranges, and is
// the base address of the parent range for subranges.
SmallString<512> Str;
raw_svector_ostream OutStrm(Str);
const auto ByteOrder = llvm::support::endian::system_endianness();
FileWriter FW(OutStrm, ByteOrder);
const uint64_t BaseAddr = 0x1000;
const AddressRange Range1(0x1000, 0x1010);
const AddressRange Range2(0x1020, 0x1030);
Range1.encode(FW, BaseAddr);
Range2.encode(FW, BaseAddr);
std::string Bytes(OutStrm.str());
uint8_t AddressSize = 4;
DataExtractor Data(Bytes, ByteOrder == llvm::support::little, AddressSize);
AddressRange DecodedRange1, DecodedRange2;
uint64_t Offset = 0;
DecodedRange1.decode(Data, BaseAddr, Offset);
DecodedRange2.decode(Data, BaseAddr, Offset);
EXPECT_EQ(Range1, DecodedRange1);
EXPECT_EQ(Range2, DecodedRange2);
}
static void TestAddressRangeEncodeDecodeHelper(const AddressRanges &Ranges,
const uint64_t BaseAddr) {
SmallString<512> Str;
raw_svector_ostream OutStrm(Str);
const auto ByteOrder = llvm::support::endian::system_endianness();
FileWriter FW(OutStrm, ByteOrder);
Ranges.encode(FW, BaseAddr);
std::string Bytes(OutStrm.str());
uint8_t AddressSize = 4;
DataExtractor Data(Bytes, ByteOrder == llvm::support::little, AddressSize);
AddressRanges DecodedRanges;
uint64_t Offset = 0;
DecodedRanges.decode(Data, BaseAddr, Offset);
EXPECT_EQ(Ranges, DecodedRanges);
}
TEST(GSYMTest, TestAddressRangesEncodeDecode) {
// Test encoding and decoding AddressRanges. AddressRanges objects contain
// ranges that are stored as offsets from the a base address. The base address
// is the FunctionInfo's base address for function level ranges, and is the
// base address of the parent range for subranges.
const uint64_t BaseAddr = 0x1000;
// Test encoding and decoding with no ranges.
AddressRanges Ranges;
TestAddressRangeEncodeDecodeHelper(Ranges, BaseAddr);
// Test encoding and decoding with 1 range.
Ranges.insert(AddressRange(0x1000, 0x1010));
TestAddressRangeEncodeDecodeHelper(Ranges, BaseAddr);
// Test encoding and decoding with multiple ranges.
Ranges.insert(AddressRange(0x1020, 0x1030));
Ranges.insert(AddressRange(0x1050, 0x1070));
TestAddressRangeEncodeDecodeHelper(Ranges, BaseAddr);
}
static void TestLineTableHelper(llvm::support::endianness ByteOrder,
const LineTable &LT) {
SmallString<512> Str;
raw_svector_ostream OutStrm(Str);
FileWriter FW(OutStrm, ByteOrder);
const uint64_t BaseAddr = LT[0].Addr;
llvm::Error Err = LT.encode(FW, BaseAddr);
ASSERT_FALSE(Err);
std::string Bytes(OutStrm.str());
uint8_t AddressSize = 4;
DataExtractor Data(Bytes, ByteOrder == llvm::support::little, AddressSize);
llvm::Expected<LineTable> Decoded = LineTable::decode(Data, BaseAddr);
// Make sure decoding succeeded.
ASSERT_TRUE((bool)Decoded);
// Make sure decoded object is the same as the one we encoded.
EXPECT_EQ(LT, Decoded.get());
}
TEST(GSYMTest, TestLineTable) {
const uint64_t StartAddr = 0x1000;
const uint32_t FileIdx = 1;
LineTable LT;
LineEntry Line0(StartAddr+0x000, FileIdx, 10);
LineEntry Line1(StartAddr+0x010, FileIdx, 11);
LineEntry Line2(StartAddr+0x100, FileIdx, 1000);
ASSERT_TRUE(LT.empty());
ASSERT_EQ(LT.size(), (size_t)0);
LT.push(Line0);
ASSERT_EQ(LT.size(), (size_t)1);
LT.push(Line1);
LT.push(Line2);
LT.push(LineEntry(StartAddr+0x120, FileIdx, 900));
LT.push(LineEntry(StartAddr+0x120, FileIdx, 2000));
LT.push(LineEntry(StartAddr+0x121, FileIdx, 2001));
LT.push(LineEntry(StartAddr+0x122, FileIdx, 2002));
LT.push(LineEntry(StartAddr+0x123, FileIdx, 2003));
ASSERT_FALSE(LT.empty());
ASSERT_EQ(LT.size(), (size_t)8);
// Test operator[].
ASSERT_EQ(LT[0], Line0);
ASSERT_EQ(LT[1], Line1);
ASSERT_EQ(LT[2], Line2);
// Test encoding and decoding line tables.
TestLineTableHelper(llvm::support::little, LT);
TestLineTableHelper(llvm::support::big, LT);
// Verify the clear method works as expected.
LT.clear();
ASSERT_TRUE(LT.empty());
ASSERT_EQ(LT.size(), (size_t)0);
LineTable LT1;
LineTable LT2;
// Test that two empty line tables are equal and neither are less than
// each other.
ASSERT_EQ(LT1, LT2);
ASSERT_FALSE(LT1 < LT2);
ASSERT_FALSE(LT2 < LT2);
// Test that a line table with less number of line entries is less than a
// line table with more line entries and that they are not equal.
LT2.push(Line0);
ASSERT_LT(LT1, LT2);
ASSERT_NE(LT1, LT2);
// Test that two line tables with the same entries are equal.
LT1.push(Line0);
ASSERT_EQ(LT1, LT2);
ASSERT_FALSE(LT1 < LT2);
ASSERT_FALSE(LT2 < LT2);
}
static void TestLineTableDecodeError(llvm::support::endianness ByteOrder,
std::string Bytes,
const uint64_t BaseAddr,
std::string ExpectedErrorMsg) {
uint8_t AddressSize = 4;
DataExtractor Data(Bytes, ByteOrder == llvm::support::little, AddressSize);
llvm::Expected<LineTable> Decoded = LineTable::decode(Data, BaseAddr);
// Make sure decoding fails.
ASSERT_FALSE((bool)Decoded);
// Make sure decoded object is the same as the one we encoded.
checkError(ExpectedErrorMsg, Decoded.takeError());
}
TEST(GSYMTest, TestLineTableDecodeErrors) {
// Test decoding InlineInfo objects that ensure we report an appropriate
// error message.
const llvm::support::endianness ByteOrder = llvm::support::little;
SmallString<512> Str;
raw_svector_ostream OutStrm(Str);
FileWriter FW(OutStrm, ByteOrder);
const uint64_t BaseAddr = 0x100;
TestLineTableDecodeError(ByteOrder, OutStrm.str(), BaseAddr,
"0x00000000: missing LineTable MinDelta");
FW.writeU8(1); // MinDelta (ULEB)
TestLineTableDecodeError(ByteOrder, OutStrm.str(), BaseAddr,
"0x00000001: missing LineTable MaxDelta");
FW.writeU8(10); // MaxDelta (ULEB)
TestLineTableDecodeError(ByteOrder, OutStrm.str(), BaseAddr,
"0x00000002: missing LineTable FirstLine");
FW.writeU8(20); // FirstLine (ULEB)
TestLineTableDecodeError(ByteOrder, OutStrm.str(), BaseAddr,
"0x00000003: EOF found before EndSequence");
// Test a SetFile with the argument missing from the stream
FW.writeU8(1); // SetFile opcode (uint8_t)
TestLineTableDecodeError(ByteOrder, OutStrm.str(), BaseAddr,
"0x00000004: EOF found before SetFile value");
FW.writeU8(5); // SetFile value as index (ULEB)
// Test a AdvancePC with the argument missing from the stream
FW.writeU8(2); // AdvancePC opcode (uint8_t)
TestLineTableDecodeError(ByteOrder, OutStrm.str(), BaseAddr,
"0x00000006: EOF found before AdvancePC value");
FW.writeU8(20); // AdvancePC value as offset (ULEB)
// Test a AdvancePC with the argument missing from the stream
FW.writeU8(3); // AdvanceLine opcode (uint8_t)
TestLineTableDecodeError(ByteOrder, OutStrm.str(), BaseAddr,
"0x00000008: EOF found before AdvanceLine value");
FW.writeU8(20); // AdvanceLine value as offset (LLEB)
}
TEST(GSYMTest, TestLineTableEncodeErrors) {
const uint64_t BaseAddr = 0x1000;
const uint32_t FileIdx = 1;
const llvm::support::endianness ByteOrder = llvm::support::little;
SmallString<512> Str;
raw_svector_ostream OutStrm(Str);
FileWriter FW(OutStrm, ByteOrder);
LineTable LT;
checkError("attempted to encode invalid LineTable object",
LT.encode(FW, BaseAddr));
// Try to encode a line table where a line entry has an address that is less
// than BaseAddr and verify we get an appropriate error.
LineEntry Line0(BaseAddr+0x000, FileIdx, 10);
LineEntry Line1(BaseAddr+0x010, FileIdx, 11);
LT.push(Line0);
LT.push(Line1);
checkError("LineEntry has address 0x1000 which is less than the function "
"start address 0x1010", LT.encode(FW, BaseAddr+0x10));
LT.clear();
// Try to encode a line table where a line entries has an address that is less
// than BaseAddr and verify we get an appropriate error.
LT.push(Line1);
LT.push(Line0);
checkError("LineEntry in LineTable not in ascending order",
LT.encode(FW, BaseAddr));
LT.clear();
}
static void TestHeaderEncodeError(const Header &H,
std::string ExpectedErrorMsg) {
const support::endianness ByteOrder = llvm::support::little;
SmallString<512> Str;
raw_svector_ostream OutStrm(Str);
FileWriter FW(OutStrm, ByteOrder);
llvm::Error Err = H.encode(FW);
checkError(ExpectedErrorMsg, std::move(Err));
}
static void TestHeaderDecodeError(std::string Bytes,
std::string ExpectedErrorMsg) {
const support::endianness ByteOrder = llvm::support::little;
uint8_t AddressSize = 4;
DataExtractor Data(Bytes, ByteOrder == llvm::support::little, AddressSize);
llvm::Expected<Header> Decoded = Header::decode(Data);
// Make sure decoding fails.
ASSERT_FALSE((bool)Decoded);
// Make sure decoded object is the same as the one we encoded.
checkError(ExpectedErrorMsg, Decoded.takeError());
}
// Populate a GSYM header with valid values.
static void InitHeader(Header &H) {
H.Magic = GSYM_MAGIC;
H.Version = GSYM_VERSION;
H.AddrOffSize = 4;
H.UUIDSize = 16;
H.BaseAddress = 0x1000;
H.NumAddresses = 1;
H.StrtabOffset= 0x2000;
H.StrtabSize = 0x1000;
for (size_t i=0; i<GSYM_MAX_UUID_SIZE; ++i) {
if (i < H.UUIDSize)
H.UUID[i] = i;
else
H.UUID[i] = 0;
}
}
TEST(GSYMTest, TestHeaderEncodeErrors) {
Header H;
InitHeader(H);
H.Magic = 12;
TestHeaderEncodeError(H, "invalid GSYM magic 0x0000000c");
InitHeader(H);
H.Version = 12;
TestHeaderEncodeError(H, "unsupported GSYM version 12");
InitHeader(H);
H.AddrOffSize = 12;
TestHeaderEncodeError(H, "invalid address offset size 12");
InitHeader(H);
H.UUIDSize = 128;
TestHeaderEncodeError(H, "invalid UUID size 128");
}
TEST(GSYMTest, TestHeaderDecodeErrors) {
const llvm::support::endianness ByteOrder = llvm::support::little;
SmallString<512> Str;
raw_svector_ostream OutStrm(Str);
FileWriter FW(OutStrm, ByteOrder);
Header H;
InitHeader(H);
llvm::Error Err = H.encode(FW);
ASSERT_FALSE(Err);
FW.fixup32(12, offsetof(Header, Magic));
TestHeaderDecodeError(OutStrm.str(), "invalid GSYM magic 0x0000000c");
FW.fixup32(GSYM_MAGIC, offsetof(Header, Magic));
FW.fixup32(12, offsetof(Header, Version));
TestHeaderDecodeError(OutStrm.str(), "unsupported GSYM version 12");
FW.fixup32(GSYM_VERSION, offsetof(Header, Version));
FW.fixup32(12, offsetof(Header, AddrOffSize));
TestHeaderDecodeError(OutStrm.str(), "invalid address offset size 12");
FW.fixup32(4, offsetof(Header, AddrOffSize));
FW.fixup32(128, offsetof(Header, UUIDSize));
TestHeaderDecodeError(OutStrm.str(), "invalid UUID size 128");
}
static void TestHeaderEncodeDecode(const Header &H,
support::endianness ByteOrder) {
uint8_t AddressSize = 4;
SmallString<512> Str;
raw_svector_ostream OutStrm(Str);
FileWriter FW(OutStrm, ByteOrder);
llvm::Error Err = H.encode(FW);
ASSERT_FALSE(Err);
std::string Bytes(OutStrm.str());
DataExtractor Data(Bytes, ByteOrder == llvm::support::little, AddressSize);
llvm::Expected<Header> Decoded = Header::decode(Data);
// Make sure decoding succeeded.
ASSERT_TRUE((bool)Decoded);
EXPECT_EQ(H, Decoded.get());
}
TEST(GSYMTest, TestHeaderEncodeDecode) {
Header H;
InitHeader(H);
TestHeaderEncodeDecode(H, llvm::support::little);
TestHeaderEncodeDecode(H, llvm::support::big);
}
static void TestGsymCreatorEncodeError(llvm::support::endianness ByteOrder,
const GsymCreator &GC,
std::string ExpectedErrorMsg) {
SmallString<512> Str;
raw_svector_ostream OutStrm(Str);
FileWriter FW(OutStrm, ByteOrder);
llvm::Error Err = GC.encode(FW);
ASSERT_TRUE(bool(Err));
checkError(ExpectedErrorMsg, std::move(Err));
}
TEST(GSYMTest, TestGsymCreatorEncodeErrors) {
const uint8_t ValidUUID[] = {1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13,
14, 15, 16};
const uint8_t InvalidUUID[] = {1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13,
14, 15, 16, 17, 18, 19, 20, 21};
// Verify we get an error when trying to encode an GsymCreator with no
// function infos. We shouldn't be saving a GSYM file in this case since
// there is nothing inside of it.
GsymCreator GC;
TestGsymCreatorEncodeError(llvm::support::little, GC,
"no functions to encode");
const uint64_t FuncAddr = 0x1000;
const uint64_t FuncSize = 0x100;
const uint32_t FuncName = GC.insertString("foo");
// Verify we get an error trying to encode a GsymCreator that isn't
// finalized.
GC.addFunctionInfo(FunctionInfo(FuncAddr, FuncSize, FuncName));
TestGsymCreatorEncodeError(llvm::support::little, GC,
"GsymCreator wasn't finalized prior to encoding");
std::string finalizeIssues;
raw_string_ostream OS(finalizeIssues);
llvm::Error finalizeErr = GC.finalize(OS);
ASSERT_FALSE(bool(finalizeErr));
finalizeErr = GC.finalize(OS);
ASSERT_TRUE(bool(finalizeErr));
checkError("already finalized", std::move(finalizeErr));
// Verify we get an error trying to encode a GsymCreator with a UUID that is
// too long.
GC.setUUID(InvalidUUID);
TestGsymCreatorEncodeError(llvm::support::little, GC,
"invalid UUID size 21");
GC.setUUID(ValidUUID);
// Verify errors are propagated when we try to encoding an invalid line
// table.
GC.forEachFunctionInfo([](FunctionInfo &FI) -> bool {
FI.OptLineTable = LineTable(); // Invalid line table.
return false; // Stop iterating
});
TestGsymCreatorEncodeError(llvm::support::little, GC,
"attempted to encode invalid LineTable object");
// Verify errors are propagated when we try to encoding an invalid inline
// info.
GC.forEachFunctionInfo([](FunctionInfo &FI) -> bool {
FI.OptLineTable = llvm::None;
FI.Inline = InlineInfo(); // Invalid InlineInfo.
return false; // Stop iterating
});
TestGsymCreatorEncodeError(llvm::support::little, GC,
"attempted to encode invalid InlineInfo object");
}
static void Compare(const GsymCreator &GC, const GsymReader &GR) {
// Verify that all of the data in a GsymCreator is correctly decoded from
// a GsymReader. To do this, we iterator over
GC.forEachFunctionInfo([&](const FunctionInfo &FI) -> bool {
auto DecodedFI = GR.getFunctionInfo(FI.Range.Start);
EXPECT_TRUE(bool(DecodedFI));
EXPECT_EQ(FI, *DecodedFI);
return true; // Keep iterating over all FunctionInfo objects.
});
}
static void TestEncodeDecode(const GsymCreator &GC,
support::endianness ByteOrder, uint16_t Version,
uint8_t AddrOffSize, uint64_t BaseAddress,
uint32_t NumAddresses, ArrayRef<uint8_t> UUID) {
SmallString<512> Str;
raw_svector_ostream OutStrm(Str);
FileWriter FW(OutStrm, ByteOrder);
llvm::Error Err = GC.encode(FW);
ASSERT_FALSE((bool)Err);
Expected<GsymReader> GR = GsymReader::copyBuffer(OutStrm.str());
ASSERT_TRUE(bool(GR));
const Header &Hdr = GR->getHeader();
EXPECT_EQ(Hdr.Version, Version);
EXPECT_EQ(Hdr.AddrOffSize, AddrOffSize);
EXPECT_EQ(Hdr.UUIDSize, UUID.size());
EXPECT_EQ(Hdr.BaseAddress, BaseAddress);
EXPECT_EQ(Hdr.NumAddresses, NumAddresses);
EXPECT_EQ(ArrayRef<uint8_t>(Hdr.UUID, Hdr.UUIDSize), UUID);
Compare(GC, GR.get());
}
TEST(GSYMTest, TestGsymCreator1ByteAddrOffsets) {
uint8_t UUID[] = {1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16};
GsymCreator GC;
GC.setUUID(UUID);
constexpr uint64_t BaseAddr = 0x1000;
constexpr uint8_t AddrOffSize = 1;
const uint32_t Func1Name = GC.insertString("foo");
const uint32_t Func2Name = GC.insertString("bar");
GC.addFunctionInfo(FunctionInfo(BaseAddr+0x00, 0x10, Func1Name));
GC.addFunctionInfo(FunctionInfo(BaseAddr+0x20, 0x10, Func2Name));
Error Err = GC.finalize(llvm::nulls());
ASSERT_FALSE(Err);
TestEncodeDecode(GC, llvm::support::little,
GSYM_VERSION,
AddrOffSize,
BaseAddr,
2, // NumAddresses
ArrayRef<uint8_t>(UUID));
TestEncodeDecode(GC, llvm::support::big,
GSYM_VERSION,
AddrOffSize,
BaseAddr,
2, // NumAddresses
ArrayRef<uint8_t>(UUID));
}
TEST(GSYMTest, TestGsymCreator2ByteAddrOffsets) {
uint8_t UUID[] = {1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16};
GsymCreator GC;
GC.setUUID(UUID);
constexpr uint64_t BaseAddr = 0x1000;
constexpr uint8_t AddrOffSize = 2;
const uint32_t Func1Name = GC.insertString("foo");
const uint32_t Func2Name = GC.insertString("bar");
GC.addFunctionInfo(FunctionInfo(BaseAddr+0x000, 0x100, Func1Name));
GC.addFunctionInfo(FunctionInfo(BaseAddr+0x200, 0x100, Func2Name));
Error Err = GC.finalize(llvm::nulls());
ASSERT_FALSE(Err);
TestEncodeDecode(GC, llvm::support::little,
GSYM_VERSION,
AddrOffSize,
BaseAddr,
2, // NumAddresses
ArrayRef<uint8_t>(UUID));
TestEncodeDecode(GC, llvm::support::big,
GSYM_VERSION,
AddrOffSize,
BaseAddr,
2, // NumAddresses
ArrayRef<uint8_t>(UUID));
}
TEST(GSYMTest, TestGsymCreator4ByteAddrOffsets) {
uint8_t UUID[] = {1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16};
GsymCreator GC;
GC.setUUID(UUID);
constexpr uint64_t BaseAddr = 0x1000;
constexpr uint8_t AddrOffSize = 4;
const uint32_t Func1Name = GC.insertString("foo");
const uint32_t Func2Name = GC.insertString("bar");
GC.addFunctionInfo(FunctionInfo(BaseAddr+0x000, 0x100, Func1Name));
GC.addFunctionInfo(FunctionInfo(BaseAddr+0x20000, 0x100, Func2Name));
Error Err = GC.finalize(llvm::nulls());
ASSERT_FALSE(Err);
TestEncodeDecode(GC, llvm::support::little,
GSYM_VERSION,
AddrOffSize,
BaseAddr,
2, // NumAddresses
ArrayRef<uint8_t>(UUID));
TestEncodeDecode(GC, llvm::support::big,
GSYM_VERSION,
AddrOffSize,
BaseAddr,
2, // NumAddresses
ArrayRef<uint8_t>(UUID));
}
TEST(GSYMTest, TestGsymCreator8ByteAddrOffsets) {
uint8_t UUID[] = {1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16};
GsymCreator GC;
GC.setUUID(UUID);
constexpr uint64_t BaseAddr = 0x1000;
constexpr uint8_t AddrOffSize = 8;
const uint32_t Func1Name = GC.insertString("foo");
const uint32_t Func2Name = GC.insertString("bar");
GC.addFunctionInfo(FunctionInfo(BaseAddr+0x000, 0x100, Func1Name));
GC.addFunctionInfo(FunctionInfo(BaseAddr+0x100000000, 0x100, Func2Name));
Error Err = GC.finalize(llvm::nulls());
ASSERT_FALSE(Err);
TestEncodeDecode(GC, llvm::support::little,
GSYM_VERSION,
AddrOffSize,
BaseAddr,
2, // NumAddresses
ArrayRef<uint8_t>(UUID));
TestEncodeDecode(GC, llvm::support::big,
GSYM_VERSION,
AddrOffSize,
BaseAddr,
2, // NumAddresses
ArrayRef<uint8_t>(UUID));
}
static void VerifyFunctionInfo(const GsymReader &GR, uint64_t Addr,
const FunctionInfo &FI) {
auto ExpFI = GR.getFunctionInfo(Addr);
ASSERT_TRUE(bool(ExpFI));
ASSERT_EQ(FI, ExpFI.get());
}
static void VerifyFunctionInfoError(const GsymReader &GR, uint64_t Addr,
std::string ErrMessage) {
auto ExpFI = GR.getFunctionInfo(Addr);
ASSERT_FALSE(bool(ExpFI));
checkError(ErrMessage, ExpFI.takeError());
}
TEST(GSYMTest, TestGsymReader) {
uint8_t UUID[] = {1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16};
GsymCreator GC;
GC.setUUID(UUID);
constexpr uint64_t BaseAddr = 0x1000;
constexpr uint64_t Func1Addr = BaseAddr;
constexpr uint64_t Func2Addr = BaseAddr+0x20;
constexpr uint64_t FuncSize = 0x10;
const uint32_t Func1Name = GC.insertString("foo");
const uint32_t Func2Name = GC.insertString("bar");
const auto ByteOrder = support::endian::system_endianness();
GC.addFunctionInfo(FunctionInfo(Func1Addr, FuncSize, Func1Name));
GC.addFunctionInfo(FunctionInfo(Func2Addr, FuncSize, Func2Name));
Error FinalizeErr = GC.finalize(llvm::nulls());
ASSERT_FALSE(FinalizeErr);
SmallString<512> Str;
raw_svector_ostream OutStrm(Str);
FileWriter FW(OutStrm, ByteOrder);
llvm::Error Err = GC.encode(FW);
ASSERT_FALSE((bool)Err);
if (auto ExpectedGR = GsymReader::copyBuffer(OutStrm.str())) {
const GsymReader &GR = ExpectedGR.get();
VerifyFunctionInfoError(GR, Func1Addr-1, "address 0xfff not in GSYM");
FunctionInfo Func1(Func1Addr, FuncSize, Func1Name);
VerifyFunctionInfo(GR, Func1Addr, Func1);
VerifyFunctionInfo(GR, Func1Addr+1, Func1);
VerifyFunctionInfo(GR, Func1Addr+FuncSize-1, Func1);
VerifyFunctionInfoError(GR, Func1Addr+FuncSize,
"address 0x1010 not in GSYM");
VerifyFunctionInfoError(GR, Func2Addr-1, "address 0x101f not in GSYM");
FunctionInfo Func2(Func2Addr, FuncSize, Func2Name);
VerifyFunctionInfo(GR, Func2Addr, Func2);
VerifyFunctionInfo(GR, Func2Addr+1, Func2);
VerifyFunctionInfo(GR, Func2Addr+FuncSize-1, Func2);
VerifyFunctionInfoError(GR, Func2Addr+FuncSize,
"address 0x1030 not in GSYM");
}
}