public unsafe static void ToXml(TextWriter xmlWriter, Stream pdbStream, Stream peStream, PdbToXmlOptions options = PdbToXmlOptions.Default, string methodName = null)
{
IEnumerable<MethodHandle> methodHandles;
var headers = new PEHeaders(peStream);
byte[] metadata = new byte[headers.MetadataSize];
peStream.Seek(headers.MetadataStartOffset, SeekOrigin.Begin);
peStream.Read(metadata, 0, headers.MetadataSize);
fixed (byte* metadataPtr = metadata)
{
var metadataReader = new MetadataReader((IntPtr)metadataPtr, metadata.Length);
if (string.IsNullOrEmpty(methodName))
{
methodHandles = metadataReader.MethodDefinitions;
}
else
{
methodHandles = metadataReader.MethodDefinitions.
Where(methodHandle => GetQualifiedMethodName(metadataReader, methodHandle) == methodName);
}
ToXml(xmlWriter, pdbStream, metadataReader, options, methodHandles);
}
}
internal static unsafe MetadataReader GetMetadataReader(byte[] peImage, out int metadataStartOffset, bool isModule = false, MetadataReaderOptions options = MetadataReaderOptions.Default, MetadataStringDecoder decoder = null)
{
GCHandle pinned = GetPinnedPEImage(peImage);
var headers = new PEHeaders(new MemoryStream(peImage));
metadataStartOffset = headers.MetadataStartOffset;
return new MetadataReader((byte*)pinned.AddrOfPinnedObject() + headers.MetadataStartOffset, headers.MetadataSize, options, decoder);
}
public unsafe void CreateFromMetadata_Module()
{
var netModule = TestResources.MetadataTests.NetModule01.ModuleCS00;
PEHeaders h = new PEHeaders(new MemoryStream(netModule));
fixed (byte* ptr = &netModule[h.MetadataStartOffset])
{
ModuleMetadata.CreateFromMetadata((IntPtr)ptr, h.MetadataSize);
}
}
internal static unsafe MetadataReader GetMetadataReader(byte[] peImage, out int metadataStartOffset, bool isModule = false, MetadataStringDecoder decoder = null)
{
GCHandle pinned;
if (!peImages.TryGetValue(peImage, out pinned))
{
peImages.Add(peImage, pinned = GCHandle.Alloc(peImage, GCHandleType.Pinned));
}
var headers = new PEHeaders(new MemoryStream(peImage));
metadataStartOffset = headers.MetadataStartOffset;
return new MetadataReader((byte*)pinned.AddrOfPinnedObject() + headers.MetadataStartOffset, headers.MetadataSize, MetadataReaderOptions.Default, decoder);
}
public unsafe void CreateFromMetadata_Assembly()
{
var assembly = TestResources.MetadataTests.Basic.Members;
PEHeaders h = new PEHeaders(new MemoryStream(assembly));
fixed (byte* ptr = &assembly[h.MetadataStartOffset])
{
var metadata = ModuleMetadata.CreateFromMetadata((IntPtr)ptr, h.MetadataSize);
Assert.Equal(new AssemblyIdentity("Members"), metadata.Module.ReadAssemblyIdentityOrThrow());
}
}
public unsafe static void ToXml(TextWriter xmlWriter, Stream pdbStream, Stream peStream, PdbToXmlOptions options = PdbToXmlOptions.Default, string methodName = null)
{
IEnumerable<MethodHandle> methodHandles;
var headers = new PEHeaders(peStream);
byte[] metadata = new byte[headers.MetadataSize];
peStream.Seek(headers.MetadataStartOffset, SeekOrigin.Begin);
peStream.Read(metadata, 0, headers.MetadataSize);
fixed (byte* metadataPtr = metadata)
{
var metadataReader = new MetadataReader((IntPtr)metadataPtr, metadata.Length);
if (string.IsNullOrEmpty(methodName))
{
methodHandles = metadataReader.MethodDefinitions;
}
else
{
var matching = metadataReader.MethodDefinitions.
Where(methodHandle => GetQualifiedMethodName(metadataReader, methodHandle) == methodName).ToArray();
if (matching.Length == 0)
{
xmlWriter.WriteLine("<error>");
xmlWriter.WriteLine(string.Format("<message>No method '{0}' found in metadata.</message>", methodName));
xmlWriter.WriteLine("<available-methods>");
foreach (var methodHandle in metadataReader.MethodDefinitions)
{
xmlWriter.Write("<method><![CDATA[");
xmlWriter.Write(GetQualifiedMethodName(metadataReader, methodHandle));
xmlWriter.Write("]]></method>");
xmlWriter.WriteLine();
}
xmlWriter.WriteLine("</available-methods>");
xmlWriter.WriteLine("</error>");
return;
}
methodHandles = matching;
}
ToXml(xmlWriter, pdbStream, metadataReader, options, methodHandles);
}
}
public void CheckCOFFAndPEOptionalHeadersARM()
{
string source = @"
class C
{
public static void Main()
{
}
}";
var compilation = CreateCompilationWithMscorlib(source,
compOptions: new CSharpCompilationOptions(OutputKind.DynamicallyLinkedLibrary).WithPlatform(Platform.Arm));
var peHeaders = new PEHeaders(compilation.EmitToStream());
//interesting COFF bits
Assert.False(peHeaders.Requires64Bits());
Assert.True(peHeaders.IsDll);
Assert.False(peHeaders.IsExe);
//interesting Optional PE header bits
//We will use a range beginning with 0x30 to identify the Roslyn compiler family.
Assert.Equal(0x30, peHeaders.PEHeader.MajorLinkerVersion);
Assert.Equal(0, peHeaders.PEHeader.MinorLinkerVersion);
// the default value is the same as the 32 bit default value
Assert.Equal(0x10000000u, peHeaders.PEHeader.ImageBase);
Assert.Equal(0x200, peHeaders.PEHeader.FileAlignment);
Assert.Equal(0x8540u, (ushort)peHeaders.PEHeader.DllCharacteristics); //DYNAMIC_BASE | NX_COMPAT | NO_SEH | TERMINAL_SERVER_AWARE
Assert.Equal(0x01c4, (ushort)peHeaders.CoffHeader.Machine);
Assert.Equal(6, peHeaders.PEHeader.MajorSubsystemVersion); //Arm targets only run on 6.2 and above
Assert.Equal(2, peHeaders.PEHeader.MinorSubsystemVersion);
//The following ensure that the runtime startup stub was not emitted. It is not needed on modern operating systems.
Assert.Equal(0, peHeaders.PEHeader.ImportAddressTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeaders.PEHeader.ImportAddressTableDirectory.Size);
Assert.Equal(0, peHeaders.PEHeader.ImportTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeaders.PEHeader.ImportTableDirectory.Size);
Assert.Equal(0, peHeaders.PEHeader.BaseRelocationTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeaders.PEHeader.BaseRelocationTableDirectory.Size);
}
public void CheckCOFFAndPEOptionalHeaders64()
{
string source = @"
class C
{
public static void Main()
{
}
}";
var compilation = CreateCompilationWithMscorlib(source,
compOptions: new CSharpCompilationOptions(OutputKind.DynamicallyLinkedLibrary).WithPlatform(Platform.X64));
var peHeaders = new PEHeaders(compilation.EmitToStream());
//interesting COFF bits
Assert.True(peHeaders.Requires64Bits());
Assert.True(peHeaders.IsDll);
Assert.False(peHeaders.IsExe);
//interesting Optional PE header bits
//We will use a range beginning with 0x30 to identify the Roslyn compiler family.
Assert.Equal(0x30, peHeaders.PEHeader.MajorLinkerVersion);
Assert.Equal(0, peHeaders.PEHeader.MinorLinkerVersion);
// the default value is the same as the 32 bit default value
Assert.Equal(0x0000000180000000u, peHeaders.PEHeader.ImageBase);
Assert.Equal(0x00000200, peHeaders.PEHeader.FileAlignment); //doesn't change based on architecture.
Assert.Equal(0x8540u, (ushort)peHeaders.PEHeader.DllCharacteristics); //DYNAMIC_BASE | NX_COMPAT | NO_SEH | TERMINAL_SERVER_AWARE
//Verify additional items
Assert.Equal(0x00400000u, peHeaders.PEHeader.SizeOfStackReserve);
Assert.Equal(0x4000u, peHeaders.PEHeader.SizeOfStackCommit);
Assert.Equal(0x00100000u, peHeaders.PEHeader.SizeOfHeapReserve);
Assert.Equal(0x2000u, peHeaders.PEHeader.SizeOfHeapCommit);
Assert.Equal(0x8664, (ushort)peHeaders.CoffHeader.Machine); //AMD64 (K8)
//default for non-arm, non-appcontainer outputs. EDMAURER: This is an intentional change from Dev11.
//Should we find that it is too disruptive. We will consider rolling back.
//It turns out to be too disruptive. Rolling back to 4.0
Assert.Equal(4, peHeaders.PEHeader.MajorSubsystemVersion);
Assert.Equal(0, peHeaders.PEHeader.MinorSubsystemVersion);
//The following ensure that the runtime startup stub was not emitted. It is not needed on modern operating systems.
Assert.Equal(0, peHeaders.PEHeader.ImportAddressTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeaders.PEHeader.ImportAddressTableDirectory.Size);
Assert.Equal(0, peHeaders.PEHeader.ImportTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeaders.PEHeader.ImportTableDirectory.Size);
Assert.Equal(0, peHeaders.PEHeader.BaseRelocationTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeaders.PEHeader.BaseRelocationTableDirectory.Size);
}
public void CheckCOFFAndPEOptionalHeaders32()
{
string source = @"
class C
{
public static void Main()
{
}
}";
var compilation = CreateCompilationWithMscorlib(source,
compOptions: new CSharpCompilationOptions(OutputKind.DynamicallyLinkedLibrary));
var peHeaders = new PEHeaders(compilation.EmitToStream());
//interesting COFF bits
Assert.False(peHeaders.Requires64Bits());
Assert.True(peHeaders.IsDll);
Assert.False(peHeaders.IsExe);
//interesting Optional PE header bits
//We will use a range beginning with 0x30 to identify the Roslyn compiler family.
Assert.Equal(0x30, peHeaders.PEHeader.MajorLinkerVersion);
Assert.Equal(0, peHeaders.PEHeader.MinorLinkerVersion);
Assert.Equal(0x10000000u, peHeaders.PEHeader.ImageBase);
Assert.Equal(0x200, peHeaders.PEHeader.FileAlignment);
Assert.Equal(0x8540u, (ushort)peHeaders.PEHeader.DllCharacteristics); //DYNAMIC_BASE | NX_COMPAT | NO_SEH | TERMINAL_SERVER_AWARE
//Verify additional items
Assert.Equal(0x00100000u, peHeaders.PEHeader.SizeOfStackReserve);
Assert.Equal(0x1000u, peHeaders.PEHeader.SizeOfStackCommit);
Assert.Equal(0x00100000u, peHeaders.PEHeader.SizeOfHeapReserve);
Assert.Equal(0x1000u, peHeaders.PEHeader.SizeOfHeapCommit);
}
public void CheckCorflags()
{
string source = @"
class C
{
public static void Main()
{
}
}";
PEHeaders peHeaders;
var compilation = CreateCompilationWithMscorlib(source, compOptions: TestOptions.Exe.WithPlatform(Platform.AnyCpu));
peHeaders = new PEHeaders(compilation.EmitToStream());
Assert.Equal(CorFlags.ILOnly, peHeaders.CorHeader.Flags);
compilation = CreateCompilationWithMscorlib(source, compOptions: TestOptions.Exe.WithPlatform(Platform.X86));
peHeaders = new PEHeaders(compilation.EmitToStream());
Assert.Equal(CorFlags.ILOnly | CorFlags.Requires32Bit, peHeaders.CorHeader.Flags);
compilation = CreateCompilationWithMscorlib(source, compOptions: TestOptions.Exe.WithPlatform(Platform.X64));
peHeaders = new PEHeaders(compilation.EmitToStream());
Assert.Equal(CorFlags.ILOnly, peHeaders.CorHeader.Flags);
Assert.True(peHeaders.Requires64Bits());
Assert.True(peHeaders.RequiresAmdInstructionSet());
compilation = CreateCompilationWithMscorlib(source, compOptions: TestOptions.Exe.WithPlatform(Platform.AnyCpu32BitPreferred));
peHeaders = new PEHeaders(compilation.EmitToStream());
Assert.False(peHeaders.Requires64Bits());
Assert.False(peHeaders.RequiresAmdInstructionSet());
Assert.Equal(CorFlags.ILOnly | CorFlags.Requires32Bit | CorFlags.Prefers32Bit, peHeaders.CorHeader.Flags);
compilation = CreateCompilationWithMscorlib(source, compOptions: TestOptions.Exe.WithPlatform(Platform.Arm));
peHeaders = new PEHeaders(compilation.EmitToStream());
Assert.False(peHeaders.Requires64Bits());
Assert.False(peHeaders.RequiresAmdInstructionSet());
Assert.Equal(CorFlags.ILOnly, peHeaders.CorHeader.Flags);
}
static internal Microsoft.Cci.ResourceSection ReadWin32ResourcesFromCOFF(Stream stream)
{
var peHeaders = new PEHeaders(stream);
var rsrc1 = new SectionHeader();
var rsrc2 = new SectionHeader();
int foundCount = 0;
foreach (var sectionHeader in peHeaders.SectionHeaders)
{
if (sectionHeader.Name == ".rsrc$01")
{
rsrc1 = sectionHeader;
foundCount++;
}
else if (sectionHeader.Name == ".rsrc$02")
{
rsrc2 = sectionHeader;
foundCount++;
}
}
if (foundCount != 2)
throw new ResourceException(CodeAnalysisResources.CoffResourceMissingSection);
ConfirmSectionValues(rsrc1, stream.Length);
ConfirmSectionValues(rsrc2, stream.Length);
//This will be the final resource section bytes without a header. It contains the concatenation
//of .rsrc$02 on to the end of .rsrc$01.
var imageResourceSectionBytes = new byte[checked(rsrc1.SizeOfRawData + rsrc2.SizeOfRawData)];
stream.Seek(rsrc1.PointerToRawData, SeekOrigin.Begin);
stream.Read(imageResourceSectionBytes, 0, rsrc1.SizeOfRawData);
stream.Seek(rsrc2.PointerToRawData, SeekOrigin.Begin);
stream.Read(imageResourceSectionBytes, rsrc1.SizeOfRawData, rsrc2.SizeOfRawData);
const int SizeOfRelocationEntry = 10;
try
{
var relocLastAddress = checked(rsrc1.PointerToRelocations + (rsrc1.NumberOfRelocations * SizeOfRelocationEntry));
if (relocLastAddress > stream.Length)
throw new ResourceException(CodeAnalysisResources.CoffResourceInvalidRelocation);
}
catch (OverflowException)
{
throw new ResourceException(CodeAnalysisResources.CoffResourceInvalidRelocation);
}
//.rsrc$01 contains the directory tree. .rsrc$02 contains the raw resource data.
//.rsrc$01 has references to spots in .rsrc$02. Those spots are expressed as relocations.
//These will need to be fixed up when the RVA of the .rsrc section in the final image is known.
var relocationOffsets = new uint[rsrc1.NumberOfRelocations]; //offsets into .rsrc$01
var relocationSymbolIndices = new uint[rsrc1.NumberOfRelocations];
var reader = new BinaryReader(stream, Encoding.Unicode);
stream.Position = rsrc1.PointerToRelocations;
for (int i = 0; i < rsrc1.NumberOfRelocations; i++)
{
relocationOffsets[i] = reader.ReadUInt32();
//What is being read and stored is the reloc's "Value"
//This is the symbol's index.
relocationSymbolIndices[i] = reader.ReadUInt32();
reader.ReadUInt16(); //we do nothing with the "Type"
}
//now that symbol indices are gathered, begin indexing the symbols
stream.Position = peHeaders.CoffHeader.PointerToSymbolTable;
const uint ImageSizeOfSymbol = 18;
try
{
var lastSymAddress = checked(peHeaders.CoffHeader.PointerToSymbolTable + peHeaders.CoffHeader.NumberOfSymbols * ImageSizeOfSymbol);
if (lastSymAddress > stream.Length)
throw new ResourceException(CodeAnalysisResources.CoffResourceInvalidSymbol);
}
catch (OverflowException)
{
throw new ResourceException(CodeAnalysisResources.CoffResourceInvalidSymbol);
}
var outputStream = new MemoryStream(imageResourceSectionBytes);
var writer = new BinaryWriter(outputStream); //encoding shouldn't matter. There are no strings being written.
for (int i = 0; i < relocationSymbolIndices.Length; i++)
{
if (relocationSymbolIndices[i] > peHeaders.CoffHeader.NumberOfSymbols)
throw new ResourceException(CodeAnalysisResources.CoffResourceInvalidRelocation);
var offsetOfSymbol = peHeaders.CoffHeader.PointerToSymbolTable + relocationSymbolIndices[i] * ImageSizeOfSymbol;
stream.Position = offsetOfSymbol;
stream.Position += 8; //skip over symbol name
var symValue = reader.ReadUInt32();
var symSection = reader.ReadInt16();
var symType = reader.ReadUInt16();
//ignore the rest of the fields.
const ushort IMAGE_SYM_TYPE_NULL = 0x0000;
if (symType != IMAGE_SYM_TYPE_NULL ||
symSection != 3) //3rd section is .rsrc$02
throw new ResourceException(CodeAnalysisResources.CoffResourceInvalidSymbol);
//perform relocation. We are concatenating the contents of .rsrc$02 (the raw resource data)
//on to the end of .rsrc$01 (the directory tree) to yield the final resource section for the image.
//The directory tree has references into the raw resource data. These references are expressed
//in the final image as file positions, not positions relative to the beginning of the section.
//First make the resources be relative to the beginning of the section by adding the size
//of .rsrc$01 to them. They will ultimately need the RVA of the final image resource section added
//to them. We don't know that yet. That is why the array of offsets is preserved.
outputStream.Position = relocationOffsets[i];
writer.Write((uint)(symValue + rsrc1.SizeOfRawData));
}
return new Cci.ResourceSection(imageResourceSectionBytes, relocationOffsets);
}
public void CheckBaseAddress()
{
string source = @"
class C
{
public static void Main()
{
}
}";
// last four hex digits get zero'ed
var compilation = CreateCompilationWithMscorlib(source, compOptions: TestOptions.Exe.WithBaseAddress(0x0000000010111111));
var peHeaders = new PEHeaders(compilation.EmitToStream());
Assert.Equal(0x10110000ul, peHeaders.PEHeader.ImageBase);
// test rounding up of values
compilation = CreateCompilationWithMscorlib(source, compOptions: TestOptions.Exe.WithBaseAddress(0x8000));
peHeaders = new PEHeaders(compilation.EmitToStream());
Assert.Equal(0x10000ul, peHeaders.PEHeader.ImageBase);
// values less than 0x8000 get default baseaddress
compilation = CreateCompilationWithMscorlib(source, compOptions: TestOptions.Exe.WithBaseAddress(0x7fff));
peHeaders = new PEHeaders(compilation.EmitToStream());
Assert.Equal(0x00400000u, peHeaders.PEHeader.ImageBase);
// default for 32bit
compilation = CreateCompilationWithMscorlib(source, compOptions: TestOptions.Exe.WithPlatform(Platform.X86));
peHeaders = new PEHeaders(compilation.EmitToStream());
Assert.Equal(0x00400000u, peHeaders.PEHeader.ImageBase);
// max for 32bit
compilation = CreateCompilationWithMscorlib(source, compOptions: TestOptions.Exe.WithPlatform(Platform.X86).WithBaseAddress(0xffff7fff));
peHeaders = new PEHeaders(compilation.EmitToStream());
Assert.Equal(0xffff0000ul, peHeaders.PEHeader.ImageBase);
// max+1 for 32bit
compilation = CreateCompilationWithMscorlib(source, compOptions: TestOptions.Exe.WithPlatform(Platform.X86).WithBaseAddress(0xffff8000));
peHeaders = new PEHeaders(compilation.EmitToStream());
Assert.Equal(0x00400000u, peHeaders.PEHeader.ImageBase);
compilation = CreateCompilationWithMscorlib(source, compOptions: TestOptions.Exe.WithPlatform(Platform.X64));
peHeaders = new PEHeaders(compilation.EmitToStream());
Assert.Equal(0x0000000140000000u, peHeaders.PEHeader.ImageBase);
// max for 64bit
compilation = CreateCompilationWithMscorlib(source, compOptions: TestOptions.Exe.WithPlatform(Platform.X64).WithBaseAddress(0xffffffffffff7fff));
peHeaders = new PEHeaders(compilation.EmitToStream());
Assert.Equal(0xffffffffffff0000ul, peHeaders.PEHeader.ImageBase);
// max+1 for 64bit
compilation = CreateCompilationWithMscorlib(source, compOptions: TestOptions.Exe.WithPlatform(Platform.X64).WithBaseAddress(0xffffffffffff8000));
peHeaders = new PEHeaders(compilation.EmitToStream());
Assert.Equal(0x0000000140000000u, peHeaders.PEHeader.ImageBase);
}
public void CheckDllCharacteristicsHighEntropyVA()
{
string source = @"
class C
{
public static void Main()
{
}
}";
var compilation = CreateCompilationWithMscorlib(source, compOptions: TestOptions.Exe.WithHighEntropyVirtualAddressSpace(true));
var peHeaders = new PEHeaders(compilation.EmitToStream());
//interesting COFF bits
Assert.Equal(0x8560u, (ushort)peHeaders.PEHeader.DllCharacteristics); //DYNAMIC_BASE | NX_COMPAT | NO_SEH | TERMINAL_SERVER_AWARE | HIGH_ENTROPY_VA (0x20)
}
private unsafe PEReader(Stream peStream, PEStreamOptions options, int?sizeOpt)
{
if (peStream == null)
{
throw new ArgumentNullException("peStream");
}
if (!peStream.CanRead || !peStream.CanSeek)
{
throw new ArgumentException(MetadataResources.StreamMustSupportReadAndSeek, "peStream");
}
if (!options.IsValid())
{
throw new ArgumentOutOfRangeException("options");
}
long start = peStream.Position;
int size = PEBinaryReader.GetAndValidateSize(peStream, sizeOpt);
bool closeStream = true;
try
{
bool isFileStream = FileStreamReadLightUp.IsFileStream(peStream);
if ((options & (PEStreamOptions.PrefetchMetadata | PEStreamOptions.PrefetchEntireImage)) == 0)
{
this.peImage = new StreamMemoryBlockProvider(peStream, start, size, isFileStream, (options & PEStreamOptions.LeaveOpen) != 0);
closeStream = false;
}
else
{
// Read in the entire image or metadata blob:
if ((options & PEStreamOptions.PrefetchEntireImage) != 0)
{
var imageBlock = StreamMemoryBlockProvider.ReadMemoryBlockNoLock(peStream, isFileStream, 0, (int)Math.Min(peStream.Length, int.MaxValue));
this.lazyImageBlock = imageBlock;
this.peImage = new ExternalMemoryBlockProvider(imageBlock.Pointer, imageBlock.Size);
// if the caller asked for metadata initialize the PE headers (calculates metadata offset):
if ((options & PEStreamOptions.PrefetchMetadata) != 0)
{
InitializePEHeaders();
}
}
else
{
// The peImage is left null, but the lazyMetadataBlock is initialized up front.
this.lazyPEHeaders = new PEHeaders(peStream);
this.lazyMetadataBlock = StreamMemoryBlockProvider.ReadMemoryBlockNoLock(peStream, isFileStream, lazyPEHeaders.MetadataStartOffset, lazyPEHeaders.MetadataSize);
}
// We read all we need, the stream is going to be closed.
}
}
finally
{
if (closeStream && (options & PEStreamOptions.LeaveOpen) == 0)
{
peStream.Dispose();
}
}
}
public unsafe void PointerAndLength()
{
GCHandle pinned = GetPinnedPEImage(NetModule.AppCS);
var headers = new PEHeaders(new MemoryStream(NetModule.AppCS));
byte* ptr = (byte*)pinned.AddrOfPinnedObject() + headers.MetadataStartOffset;
var reader = new MetadataReader(ptr, headers.MetadataSize);
Assert.True(ptr == reader.MetadataPointer);
Assert.Equal(headers.MetadataSize, reader.MetadataLength);
}
private void GetStorageInfoFromTemporaryStorage(FileKey moduleFileKey, out ITemporaryStreamStorage storage, out Stream stream, out IntPtr pImage)
{
int size;
using (var copyStream = SerializableBytes.CreateWritableStream())
{
// open a file and let it go as soon as possible
using (var fileStream = FileUtilities.OpenRead(moduleFileKey.FullPath))
{
var headers = new PEHeaders(fileStream);
var offset = headers.MetadataStartOffset;
size = headers.MetadataSize;
// given metadata contains no metadata info.
// throw bad image format exception so that we can show right diagnostic to user.
if (size <= 0)
{
throw new BadImageFormatException();
}
StreamCopy(fileStream, copyStream, offset, size);
}
// copy over the data to temp storage and let pooled stream go
storage = _temporaryStorageService.CreateTemporaryStreamStorage(CancellationToken.None);
copyStream.Position = 0;
storage.WriteStream(copyStream);
}
// get stream that owns direct access memory
stream = storage.ReadStream(CancellationToken.None);
// stream size must be same as what metadata reader said the size should be.
Contract.ThrowIfFalse(stream.Length == size);
// under VS host, direct access should be supported
var directAccess = (ISupportDirectMemoryAccess)stream;
pImage = directAccess.GetPointer();
}
public void EmittedSubsystemVersion()
{
var compilation = CSharpCompilation.Create("a.dll", options: TestOptions.Dll.WithSubsystemVersion(SubsystemVersion.Create(5, 1)));
var peHeaders = new PEHeaders(compilation.EmitToStream());
Assert.Equal(5, peHeaders.PEHeader.MajorSubsystemVersion);
Assert.Equal(1, peHeaders.PEHeader.MinorSubsystemVersion);
}
public void PEHeaders2()
{
var options = EmitOptions.Default.
WithFileAlignment(512).
WithBaseAddress(0x123456789ABCDEF).
WithHighEntropyVirtualAddressSpace(true).
WithSubsystemVersion(SubsystemVersion.WindowsXP);
var syntax = SyntaxFactory.ParseSyntaxTree(@"class C { static void Main() { } }", TestOptions.Regular);
var peStream = CreateCompilationWithMscorlib(
syntax,
options: TestOptions.DebugExe.WithPlatform(Platform.X64).WithDeterministic(true),
assemblyName: "B37A4FCD-ED76-4924-A2AD-298836056E00").EmitToStream(options);
peStream.Position = 0;
var peHeaders = new PEHeaders(peStream);
var peHeader = peHeaders.PEHeader;
var coffHeader = peHeaders.CoffHeader;
var corHeader = peHeaders.CorHeader;
Assert.Equal(PEMagic.PE32Plus, peHeader.Magic);
Assert.Equal(0x00000000, peHeader.AddressOfEntryPoint);
Assert.Equal(0x00002000, peHeader.BaseOfCode);
Assert.Equal(0x00000000, peHeader.BaseOfData);
Assert.Equal(0x00000200, peHeader.SizeOfHeaders);
Assert.Equal(0x00000400, peHeader.SizeOfCode);
Assert.Equal(0x00002000u, peHeader.SizeOfHeapCommit);
Assert.Equal(0x00100000u, peHeader.SizeOfHeapReserve);
Assert.Equal(0x00004000, peHeader.SizeOfImage);
Assert.Equal(0x00000000, peHeader.SizeOfInitializedData);
Assert.Equal(0x00004000u, peHeader.SizeOfStackCommit);
Assert.Equal(0x0400000u, peHeader.SizeOfStackReserve);
Assert.Equal(0, peHeader.SizeOfUninitializedData);
Assert.Equal(Subsystem.WindowsCui, peHeader.Subsystem);
Assert.Equal(0u, peHeader.CheckSum);
Assert.Equal(0x200, peHeader.FileAlignment);
Assert.Equal(0x0123456789ac0000u, peHeader.ImageBase);
Assert.Equal(0x2000, peHeader.SectionAlignment);
Assert.Equal(0, peHeader.MajorImageVersion);
Assert.Equal(0, peHeader.MinorImageVersion);
Assert.Equal(0x30, peHeader.MajorLinkerVersion);
Assert.Equal(0, peHeader.MinorLinkerVersion);
Assert.Equal(4, peHeader.MajorOperatingSystemVersion);
Assert.Equal(0, peHeader.MinorOperatingSystemVersion);
Assert.Equal(5, peHeader.MajorSubsystemVersion);
Assert.Equal(1, peHeader.MinorSubsystemVersion);
Assert.Equal(16, peHeader.NumberOfRvaAndSizes);
Assert.Equal(0x200, peHeader.SizeOfHeaders);
Assert.Equal(0, peHeader.BaseRelocationTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeader.BaseRelocationTableDirectory.Size);
Assert.Equal(0, peHeader.BoundImportTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeader.BoundImportTableDirectory.Size);
Assert.Equal(0, peHeader.CertificateTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeader.CertificateTableDirectory.Size);
Assert.Equal(0, peHeader.CopyrightTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeader.CopyrightTableDirectory.Size);
Assert.Equal(0x2000, peHeader.CorHeaderTableDirectory.RelativeVirtualAddress);
Assert.Equal(0x48, peHeader.CorHeaderTableDirectory.Size);
Assert.Equal(0x2324, peHeader.DebugTableDirectory.RelativeVirtualAddress);
Assert.Equal(0x1C, peHeader.DebugTableDirectory.Size);
Assert.Equal(0, peHeader.ExceptionTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeader.ExceptionTableDirectory.Size);
Assert.Equal(0, peHeader.ExportTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeader.ExportTableDirectory.Size);
Assert.Equal(0, peHeader.ImportAddressTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeader.ImportAddressTableDirectory.Size);
Assert.Equal(0, peHeader.ImportTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeader.ImportTableDirectory.Size);
Assert.Equal(0, peHeader.LoadConfigTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeader.LoadConfigTableDirectory.Size);
Assert.Equal(0, peHeader.ResourceTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeader.ResourceTableDirectory.Size);
Assert.Equal(0, peHeader.ThreadLocalStorageTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeader.ThreadLocalStorageTableDirectory.Size);
Assert.Equal(Characteristics.LargeAddressAware | Characteristics.ExecutableImage, coffHeader.Characteristics);
Assert.Equal(Machine.Amd64, coffHeader.Machine);
Assert.Equal(1, coffHeader.NumberOfSections);
Assert.Equal(0, coffHeader.NumberOfSymbols);
Assert.Equal(0, coffHeader.PointerToSymbolTable);
Assert.Equal(240, coffHeader.SizeOfOptionalHeader);
Assert.Equal(-862605524, coffHeader.TimeDateStamp);
Assert.Equal(0x06000001, corHeader.EntryPointTokenOrRelativeVirtualAddress);
Assert.Equal(CorFlags.ILOnly, corHeader.Flags);
Assert.Equal(2, corHeader.MajorRuntimeVersion);
Assert.Equal(5, corHeader.MinorRuntimeVersion);
Assert.Equal(0, corHeader.CodeManagerTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, corHeader.CodeManagerTableDirectory.Size);
Assert.Equal(0, corHeader.ExportAddressTableJumpsDirectory.RelativeVirtualAddress);
Assert.Equal(0, corHeader.ExportAddressTableJumpsDirectory.Size);
Assert.Equal(0, corHeader.ManagedNativeHeaderDirectory.RelativeVirtualAddress);
Assert.Equal(0, corHeader.ManagedNativeHeaderDirectory.Size);
Assert.Equal(0x2054, corHeader.MetadataDirectory.RelativeVirtualAddress);
Assert.Equal(0x02d0, corHeader.MetadataDirectory.Size);
Assert.Equal(0, corHeader.ResourcesDirectory.RelativeVirtualAddress);
Assert.Equal(0, corHeader.ResourcesDirectory.Size);
Assert.Equal(0, corHeader.StrongNameSignatureDirectory.RelativeVirtualAddress);
Assert.Equal(0, corHeader.StrongNameSignatureDirectory.Size);
Assert.Equal(0, corHeader.VtableFixupsDirectory.RelativeVirtualAddress);
Assert.Equal(0, corHeader.VtableFixupsDirectory.Size);
var sections = peHeaders.SectionHeaders;
Assert.Equal(1, sections.Length);
Assert.Equal(".text", sections[0].Name);
Assert.Equal(0, sections[0].NumberOfLineNumbers);
Assert.Equal(0, sections[0].NumberOfRelocations);
Assert.Equal(0, sections[0].PointerToLineNumbers);
Assert.Equal(0x200, sections[0].PointerToRawData);
Assert.Equal(0, sections[0].PointerToRelocations);
Assert.Equal(SectionCharacteristics.ContainsCode | SectionCharacteristics.MemExecute | SectionCharacteristics.MemRead, sections[0].SectionCharacteristics);
Assert.Equal(0x400, sections[0].SizeOfRawData);
Assert.Equal(0x2000, sections[0].VirtualAddress);
Assert.Equal(832, sections[0].VirtualSize);
}
public void CheckCOFFAndPEOptionalHeaders32Exe()
{
string source = @"
class C
{
public static void Main()
{
}
}";
var compilation = CreateCompilationWithMscorlib(source,
compOptions: TestOptions.Exe.WithPlatform(Platform.AnyCpu));
var peHeaders = new PEHeaders(compilation.EmitToStream());
//interesting COFF bits
Assert.False(peHeaders.Requires64Bits());
Assert.True(peHeaders.IsExe);
Assert.False(peHeaders.IsDll);
//interesting Optional PE header bits
//We will use a range beginning with 0x30 to identify the Roslyn compiler family.
Assert.Equal(0x30, peHeaders.PEHeader.MajorLinkerVersion);
Assert.Equal(0, peHeaders.PEHeader.MinorLinkerVersion);
Assert.Equal(0x00400000ul, peHeaders.PEHeader.ImageBase);
Assert.Equal(0x00000200, peHeaders.PEHeader.FileAlignment);
Assert.True(peHeaders.IsConsoleApplication); //should change if this is a windows app.
Assert.Equal(0x8540u, (ushort)peHeaders.PEHeader.DllCharacteristics); //DYNAMIC_BASE | NX_COMPAT | NO_SEH | TERMINAL_SERVER_AWARE
Assert.Equal(0x00100000u, peHeaders.PEHeader.SizeOfStackReserve);
Assert.Equal(0x1000u, peHeaders.PEHeader.SizeOfStackCommit);
Assert.Equal(0x00100000u, peHeaders.PEHeader.SizeOfHeapReserve);
Assert.Equal(0x1000u, peHeaders.PEHeader.SizeOfHeapCommit);
//The following ensure that the runtime startup stub was emitted. It is not needed on modern operating systems.
Assert.NotEqual(0, peHeaders.PEHeader.ImportAddressTableDirectory.RelativeVirtualAddress);
Assert.NotEqual(0, peHeaders.PEHeader.ImportAddressTableDirectory.Size);
Assert.NotEqual(0, peHeaders.PEHeader.ImportTableDirectory.RelativeVirtualAddress);
Assert.NotEqual(0, peHeaders.PEHeader.ImportTableDirectory.Size);
Assert.NotEqual(0, peHeaders.PEHeader.BaseRelocationTableDirectory.RelativeVirtualAddress);
Assert.NotEqual(0, peHeaders.PEHeader.BaseRelocationTableDirectory.Size);
}
public void CheckCOFFAndPEOptionalHeaders64Exe()
{
string source = @"
class C
{
public static void Main()
{
}
}";
var compilation = CreateCompilationWithMscorlib(source, compOptions: TestOptions.Exe.WithPlatform(Platform.X64));
var peHeaders = new PEHeaders(compilation.EmitToStream());
//interesting COFF bits
Assert.True(peHeaders.Requires64Bits());
Assert.True(peHeaders.IsExe);
Assert.False(peHeaders.IsDll);
//interesting Optional PE header bits
//We will use a range beginning with 0x30 to identify the Roslyn compiler family.
Assert.Equal(0x30, peHeaders.PEHeader.MajorLinkerVersion);
Assert.Equal(0, peHeaders.PEHeader.MinorLinkerVersion);
Assert.Equal(0x0000000140000000ul, peHeaders.PEHeader.ImageBase);
Assert.Equal(0x200, peHeaders.PEHeader.FileAlignment); //doesn't change based on architecture
Assert.True(peHeaders.IsConsoleApplication); //should change if this is a windows app.
Assert.Equal(0x8540u, (ushort)peHeaders.PEHeader.DllCharacteristics); //DYNAMIC_BASE | NX_COMPAT | NO_SEH | TERMINAL_SERVER_AWARE
Assert.Equal(0x00400000u, peHeaders.PEHeader.SizeOfStackReserve);
Assert.Equal(0x4000u, peHeaders.PEHeader.SizeOfStackCommit);
Assert.Equal(0x00100000u, peHeaders.PEHeader.SizeOfHeapReserve); //no sure why we don't bump this up relative to 32bit as well.
Assert.Equal(0x2000u, peHeaders.PEHeader.SizeOfHeapCommit);
}
public unsafe void LinkedNetmoduleMetadataMustProvideFullPEImage()
{
var netModule = TestResources.MetadataTests.NetModule01.ModuleCS00;
PEHeaders h = new PEHeaders(new MemoryStream(netModule));
fixed (byte* ptr = &netModule[h.MetadataStartOffset])
{
using (var mdModule = ModuleMetadata.CreateFromMetadata((IntPtr)ptr, h.MetadataSize))
{
var c = CSharpCompilation.Create("Foo", references: new[] { MscorlibRef, mdModule.GetReference(display: "ModuleCS00") }, options: TestOptions.ReleaseDll);
c.VerifyDiagnostics(
// error CS7098: Linked netmodule metadata must provide a full PE image: 'ModuleCS00'.
Diagnostic(ErrorCode.ERR_LinkedNetmoduleMetadataMustProvideFullPEImage).WithArguments("ModuleCS00").WithLocation(1, 1));
}
}
}
public void CheckDllCharacteristicsWinRtApp()
{
string source = @"
class C
{
public static void Main()
{
}
}";
var compilation = CreateCompilationWithMscorlib(source, compOptions: TestOptions.WinRtExe);
var peHeaders = new PEHeaders(compilation.EmitToStream());
//interesting COFF bits
Assert.Equal(0x9540u, (ushort)peHeaders.PEHeader.DllCharacteristics); //DYNAMIC_BASE | NX_COMPAT | NO_SEH | TERMINAL_SERVER_AWARE | IMAGE_DLLCHARACTERISTICS_APPCONTAINER (0x1000)
}
private static void AssertFileIsSigned(TempFile file)
{
//TODO should check to see that the output was actually signed
using (var metadata = new FileStream(file.Path, FileMode.Open))
{
var flags = new PEHeaders(metadata).CorHeader.Flags;
Assert.Equal(CorFlags.StrongNameSigned, flags & CorFlags.StrongNameSigned);
}
}
public void CheckFileAlignment()
{
string source = @"
class C
{
public static void Main()
{
}
}";
var compilation = CreateCompilationWithMscorlib(source, compOptions: TestOptions.Exe.WithFileAlignment(1024));
var peHeaders = new PEHeaders(compilation.EmitToStream());
Assert.Equal(1024, peHeaders.PEHeader.FileAlignment);
}
public byte[] ReadMetadata(string fileName)
{
using (var stream = File.OpenRead(fileName))
{
var peHeader = new PEHeaders(stream);
var metadata = new byte[peHeader.MetadataSize];
stream.Position = peHeader.MetadataStartOffset;
stream.Read(metadata, 0, peHeader.MetadataSize);
return metadata;
}
}
public void EmittedSubsystemVersion()
{
var compilation = CSharpCompilation.Create("a.dll", references: new[] { MscorlibRef }, options: TestOptions.ReleaseDll);
var peHeaders = new PEHeaders(compilation.EmitToStream(options: new EmitOptions(subsystemVersion: SubsystemVersion.Create(5, 1))));
Assert.Equal(5, peHeaders.PEHeader.MajorSubsystemVersion);
Assert.Equal(1, peHeaders.PEHeader.MinorSubsystemVersion);
}
/// <summary>
/// Creates a Portable Executable reader over a PE image of the given size beginning at the stream's current position.
/// </summary>
/// <param name="peStream">PE image stream.</param>
/// <param name="size">PE image size.</param>
/// <param name="options">
/// Options specifying how sections of the PE image are read from the stream.
///
/// Unless <see cref="PEStreamOptions.LeaveOpen"/> is specified, ownership of the stream is transferred to the <see cref="PEReader"/>
/// upon successful argument validation. It will be disposed by the <see cref="PEReader"/> and the caller must not manipulate it.
///
/// Unless <see cref="PEStreamOptions.PrefetchMetadata"/> or <see cref="PEStreamOptions.PrefetchEntireImage"/> is specified no data
/// is read from the stream during the construction of the <see cref="PEReader"/>. Furthermore, the stream must not be manipulated
/// by caller while the <see cref="PEReader"/> is alive and undisposed.
///
/// If <see cref="PEStreamOptions.PrefetchMetadata"/> or <see cref="PEStreamOptions.PrefetchEntireImage"/>, the <see cref="PEReader"/>
/// will have read all of the data requested during construction. As such, if <see cref="PEStreamOptions.LeaveOpen"/> is also
/// specified, the caller retains full ownership of the stream and is assured that it will not be manipulated by the <see cref="PEReader"/>
/// after construction.
/// </param>
/// <exception cref="ArgumentOutOfRangeException">Size is negative or extends past the end of the stream.</exception>
/// <exception cref="IOException">Error reading from the stream (only when prefetching data).</exception>
public unsafe PEReader(Stream peStream, PEStreamOptions options, int size)
{
if (peStream == null)
{
throw new ArgumentNullException(nameof(peStream));
}
if (!peStream.CanRead || !peStream.CanSeek)
{
throw new ArgumentException(SR.StreamMustSupportReadAndSeek, nameof(peStream));
}
if (!options.IsValid())
{
throw new ArgumentOutOfRangeException(nameof(options));
}
long start = peStream.Position;
int actualSize = StreamExtensions.GetAndValidateSize(peStream, size, nameof(peStream));
bool closeStream = true;
try
{
bool isFileStream = FileStreamReadLightUp.IsFileStream(peStream);
if ((options & (PEStreamOptions.PrefetchMetadata | PEStreamOptions.PrefetchEntireImage)) == 0)
{
_peImage = new StreamMemoryBlockProvider(peStream, start, actualSize, isFileStream, (options & PEStreamOptions.LeaveOpen) != 0);
closeStream = false;
}
else
{
// Read in the entire image or metadata blob:
if ((options & PEStreamOptions.PrefetchEntireImage) != 0)
{
var imageBlock = StreamMemoryBlockProvider.ReadMemoryBlockNoLock(peStream, isFileStream, start, actualSize);
_lazyImageBlock = imageBlock;
_peImage = new ExternalMemoryBlockProvider(imageBlock.Pointer, imageBlock.Size);
// if the caller asked for metadata initialize the PE headers (calculates metadata offset):
if ((options & PEStreamOptions.PrefetchMetadata) != 0)
{
InitializePEHeaders();
}
}
else
{
// The peImage is left null, but the lazyMetadataBlock is initialized up front.
_lazyPEHeaders = new PEHeaders(peStream);
_lazyMetadataBlock = StreamMemoryBlockProvider.ReadMemoryBlockNoLock(peStream, isFileStream, _lazyPEHeaders.MetadataStartOffset, _lazyPEHeaders.MetadataSize);
}
// We read all we need, the stream is going to be closed.
}
}
finally
{
if (closeStream && (options & PEStreamOptions.LeaveOpen) == 0)
{
peStream.Dispose();
}
}
}
/// <summary>
/// Creates a Portable Executable reader over a PE image of the given size beginning at the stream's current position.
/// </summary>
/// <param name="peStream">PE image stream.</param>
/// <param name="size">PE image size.</param>
/// <param name="options">
/// Options specifying how sections of the PE image are read from the stream.
///
/// Unless <see cref="PEStreamOptions.LeaveOpen"/> is specified, ownership of the stream is transferred to the <see cref="PEReader"/>
/// upon successful argument validation. It will be disposed by the <see cref="PEReader"/> and the caller must not manipulate it.
///
/// Unless <see cref="PEStreamOptions.PrefetchMetadata"/> or <see cref="PEStreamOptions.PrefetchEntireImage"/> is specified no data
/// is read from the stream during the construction of the <see cref="PEReader"/>. Furthermore, the stream must not be manipulated
/// by caller while the <see cref="PEReader"/> is alive and undisposed.
///
/// If <see cref="PEStreamOptions.PrefetchMetadata"/> or <see cref="PEStreamOptions.PrefetchEntireImage"/>, the <see cref="PEReader"/>
/// will have read all of the data requested during construction. As such, if <see cref="PEStreamOptions.LeaveOpen"/> is also
/// specified, the caller retains full ownership of the stream and is assured that it will not be manipulated by the <see cref="PEReader"/>
/// after construction.
/// </param>
/// <exception cref="ArgumentOutOfRangeException">Size is negative or extends past the end of the stream.</exception>
/// <exception cref="IOException">Error reading from the stream (only when prefetching data).</exception>
/// <exception cref="BadImageFormatException"><see cref="PEStreamOptions.PrefetchMetadata"/> is specified and the PE headers of the image are invalid.</exception>
public unsafe PEReader(Stream peStream, PEStreamOptions options, int size)
{
if (peStream == null)
{
throw new ArgumentNullException(nameof(peStream));
}
if (!peStream.CanRead || !peStream.CanSeek)
{
throw new ArgumentException(SR.StreamMustSupportReadAndSeek, nameof(peStream));
}
if (!options.IsValid())
{
throw new ArgumentOutOfRangeException(nameof(options));
}
IsLoadedImage = (options & PEStreamOptions.IsLoadedImage) != 0;
long start = peStream.Position;
int actualSize = StreamExtensions.GetAndValidateSize(peStream, size, nameof(peStream));
bool closeStream = true;
try
{
bool isFileStream = FileStreamReadLightUp.IsFileStream(peStream);
if ((options & (PEStreamOptions.PrefetchMetadata | PEStreamOptions.PrefetchEntireImage)) == 0)
{
_peImage = new StreamMemoryBlockProvider(peStream, start, actualSize, isFileStream, (options & PEStreamOptions.LeaveOpen) != 0);
closeStream = false;
}
else
{
// Read in the entire image or metadata blob:
if ((options & PEStreamOptions.PrefetchEntireImage) != 0)
{
var imageBlock = StreamMemoryBlockProvider.ReadMemoryBlockNoLock(peStream, isFileStream, start, actualSize);
_lazyImageBlock = imageBlock;
_peImage = new ExternalMemoryBlockProvider(imageBlock.Pointer, imageBlock.Size);
// if the caller asked for metadata initialize the PE headers (calculates metadata offset):
if ((options & PEStreamOptions.PrefetchMetadata) != 0)
{
InitializePEHeaders();
}
}
else
{
// The peImage is left null, but the lazyMetadataBlock is initialized up front.
_lazyPEHeaders = new PEHeaders(peStream);
_lazyMetadataBlock = StreamMemoryBlockProvider.ReadMemoryBlockNoLock(peStream, isFileStream, _lazyPEHeaders.MetadataStartOffset, _lazyPEHeaders.MetadataSize);
}
// We read all we need, the stream is going to be closed.
}
}
finally
{
if (closeStream && (options & PEStreamOptions.LeaveOpen) == 0)
{
peStream.Dispose();
}
}
}
public void PEHeaders1()
{
var options = EmitOptions.Default.WithFileAlignment(8192);
var syntax = SyntaxFactory.ParseSyntaxTree(@"class C {}", TestOptions.Regular.WithDeterministicFeature());
var peStream = CreateCompilationWithMscorlib(syntax, assemblyName: "46B9C2B2-B7A0-45C5-9EF9-28DDF739FD9E").EmitToStream(options);
peStream.Position = 0;
var peHeaders = new PEHeaders(peStream);
var peHeader = peHeaders.PEHeader;
var coffHeader = peHeaders.CoffHeader;
var corHeader = peHeaders.CorHeader;
Assert.Equal(PEMagic.PE32, peHeader.Magic);
Assert.Equal(0x00002362, peHeader.AddressOfEntryPoint);
Assert.Equal(0x00002000, peHeader.BaseOfCode);
Assert.Equal(0x00004000, peHeader.BaseOfData);
Assert.Equal(0x00002000, peHeader.SizeOfHeaders);
Assert.Equal(0x00002000, peHeader.SizeOfCode);
Assert.Equal(0x00001000u, peHeader.SizeOfHeapCommit);
Assert.Equal(0x00100000u, peHeader.SizeOfHeapReserve);
Assert.Equal(0x00006000, peHeader.SizeOfImage);
Assert.Equal(0x00002000, peHeader.SizeOfInitializedData);
Assert.Equal(0x00001000u, peHeader.SizeOfStackCommit);
Assert.Equal(0x00100000u, peHeader.SizeOfStackReserve);
Assert.Equal(0, peHeader.SizeOfUninitializedData);
Assert.Equal(Subsystem.WindowsCui, peHeader.Subsystem);
Assert.Equal(0u, peHeader.CheckSum);
Assert.Equal(0x2000, peHeader.FileAlignment);
Assert.Equal(0x10000000u, peHeader.ImageBase);
Assert.Equal(0x2000, peHeader.SectionAlignment);
Assert.Equal(0, peHeader.MajorImageVersion);
Assert.Equal(0, peHeader.MinorImageVersion);
Assert.Equal(0x30, peHeader.MajorLinkerVersion);
Assert.Equal(0, peHeader.MinorLinkerVersion);
Assert.Equal(4, peHeader.MajorOperatingSystemVersion);
Assert.Equal(0, peHeader.MinorOperatingSystemVersion);
Assert.Equal(4, peHeader.MajorSubsystemVersion);
Assert.Equal(0, peHeader.MinorSubsystemVersion);
Assert.Equal(16, peHeader.NumberOfRvaAndSizes);
Assert.Equal(0x2000, peHeader.SizeOfHeaders);
Assert.Equal(0x4000, peHeader.BaseRelocationTableDirectory.RelativeVirtualAddress);
Assert.Equal(0xc, peHeader.BaseRelocationTableDirectory.Size);
Assert.Equal(0, peHeader.BoundImportTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeader.BoundImportTableDirectory.Size);
Assert.Equal(0, peHeader.CertificateTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeader.CertificateTableDirectory.Size);
Assert.Equal(0, peHeader.CopyrightTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeader.CopyrightTableDirectory.Size);
Assert.Equal(0x2008, peHeader.CorHeaderTableDirectory.RelativeVirtualAddress);
Assert.Equal(0x48, peHeader.CorHeaderTableDirectory.Size);
Assert.Equal(0, peHeader.DebugTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeader.DebugTableDirectory.Size);
Assert.Equal(0, peHeader.ExceptionTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeader.ExceptionTableDirectory.Size);
Assert.Equal(0, peHeader.ExportTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeader.ExportTableDirectory.Size);
Assert.Equal(0x2000, peHeader.ImportAddressTableDirectory.RelativeVirtualAddress);
Assert.Equal(0x8, peHeader.ImportAddressTableDirectory.Size);
Assert.Equal(0x2310, peHeader.ImportTableDirectory.RelativeVirtualAddress);
Assert.Equal(0x4f, peHeader.ImportTableDirectory.Size);
Assert.Equal(0, peHeader.LoadConfigTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeader.LoadConfigTableDirectory.Size);
Assert.Equal(0, peHeader.ResourceTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeader.ResourceTableDirectory.Size);
Assert.Equal(0, peHeader.ThreadLocalStorageTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, peHeader.ThreadLocalStorageTableDirectory.Size);
Assert.Equal(Characteristics.Dll | Characteristics.LargeAddressAware | Characteristics.ExecutableImage, coffHeader.Characteristics);
Assert.Equal(Machine.I386, coffHeader.Machine);
Assert.Equal(2, coffHeader.NumberOfSections);
Assert.Equal(0, coffHeader.NumberOfSymbols);
Assert.Equal(0, coffHeader.PointerToSymbolTable);
Assert.Equal(0xe0, coffHeader.SizeOfOptionalHeader);
Assert.Equal(-1017800620, coffHeader.TimeDateStamp);
Assert.Equal(0, corHeader.EntryPointTokenOrRelativeVirtualAddress);
Assert.Equal(CorFlags.ILOnly, corHeader.Flags);
Assert.Equal(2, corHeader.MajorRuntimeVersion);
Assert.Equal(5, corHeader.MinorRuntimeVersion);
Assert.Equal(0, corHeader.CodeManagerTableDirectory.RelativeVirtualAddress);
Assert.Equal(0, corHeader.CodeManagerTableDirectory.Size);
Assert.Equal(0, corHeader.ExportAddressTableJumpsDirectory.RelativeVirtualAddress);
Assert.Equal(0, corHeader.ExportAddressTableJumpsDirectory.Size);
Assert.Equal(0, corHeader.ManagedNativeHeaderDirectory.RelativeVirtualAddress);
Assert.Equal(0, corHeader.ManagedNativeHeaderDirectory.Size);
Assert.Equal(0x2058, corHeader.MetadataDirectory.RelativeVirtualAddress);
Assert.Equal(0x02b8, corHeader.MetadataDirectory.Size);
Assert.Equal(0, corHeader.ResourcesDirectory.RelativeVirtualAddress);
Assert.Equal(0, corHeader.ResourcesDirectory.Size);
Assert.Equal(0, corHeader.StrongNameSignatureDirectory.RelativeVirtualAddress);
Assert.Equal(0, corHeader.StrongNameSignatureDirectory.Size);
Assert.Equal(0, corHeader.VtableFixupsDirectory.RelativeVirtualAddress);
Assert.Equal(0, corHeader.VtableFixupsDirectory.Size);
var sections = peHeaders.SectionHeaders;
Assert.Equal(2, sections.Length);
// TODO: bug in the reader, should return ".text". Fixed in vNext. https://github.com/dotnet/corefx/issues/1805
Assert.Equal(".text\0\0\0", sections[0].Name);
Assert.Equal(0, sections[0].NumberOfLineNumbers);
Assert.Equal(0, sections[0].NumberOfRelocations);
Assert.Equal(0, sections[0].PointerToLineNumbers);
Assert.Equal(0x2000, sections[0].PointerToRawData);
Assert.Equal(0, sections[0].PointerToRelocations);
Assert.Equal(SectionCharacteristics.ContainsCode | SectionCharacteristics.MemExecute | SectionCharacteristics.MemRead, sections[0].SectionCharacteristics);
Assert.Equal(0x2000, sections[0].SizeOfRawData);
Assert.Equal(0x2000, sections[0].VirtualAddress);
Assert.Equal(872, sections[0].VirtualSize);
// TODO: bug in the reader, should return ".reloc". Fixed in vNext. https://github.com/dotnet/corefx/issues/1805
Assert.Equal(".reloc\0\0", sections[1].Name);
Assert.Equal(0, sections[1].NumberOfLineNumbers);
Assert.Equal(0, sections[1].NumberOfRelocations);
Assert.Equal(0, sections[1].PointerToLineNumbers);
Assert.Equal(0x4000, sections[1].PointerToRawData);
Assert.Equal(0, sections[1].PointerToRelocations);
Assert.Equal(SectionCharacteristics.ContainsInitializedData | SectionCharacteristics.MemDiscardable | SectionCharacteristics.MemRead, sections[1].SectionCharacteristics);
Assert.Equal(0x2000, sections[1].SizeOfRawData);
Assert.Equal(0x4000, sections[1].VirtualAddress);
Assert.Equal(12, sections[1].VirtualSize);
}