public static void Initialize()
{
Module m = typeof(AntiTamperNormal).Module;
string n = m.FullyQualifiedName;
bool f = n.Length > 0 && n[0] == '<';
var b = (byte *)Marshal.GetHINSTANCE(m);
byte * p = b + *(uint *)(b + 0x3c);
ushort s = *(ushort *)(p + 0x6);
ushort o = *(ushort *)(p + 0x14);
uint *e = null;
uint l = 0;
var r = (uint *)(p + 0x18 + o);
uint z = (uint)Mutation.KeyI1, x = (uint)Mutation.KeyI2, c = (uint)Mutation.KeyI3, v = (uint)Mutation.KeyI4;
for (int i = 0; i < s; i++)
{
uint g = (*r++) * (*r++);
if (g == (uint)Mutation.KeyI0)
{
e = (uint *)(b + (f ? *(r + 3) : *(r + 1)));
l = (f ? *(r + 2) : *(r + 0)) >> 2;
}
else if (g != 0)
{
var q = (uint *)(b + (f ? *(r + 3) : *(r + 1)));
uint j = *(r + 2) >> 2;
for (uint k = 0; k < j; k++)
{
uint t = (z ^ (*q++)) + x + c * v;
z = x;
x = c;
x = v;
v = t;
}
}
r += 8;
}
uint[] y = new uint[0x10], d = new uint[0x10];
for (int i = 0; i < 0x10; i++)
{
y[i] = v;
d[i] = x;
z = (x >> 5) | (x << 27);
x = (c >> 3) | (c << 29);
c = (v >> 7) | (v << 25);
v = (z >> 11) | (z << 21);
}
Mutation.Crypt(y, d);
uint h = 0;
uint *u = e;
VirtualProtect((IntPtr)e, l << 2, 0x40, out z);
for (uint i = 0; i < l; i++)
{
*e ^= y[h & 0xf];
y[h & 0xf] = (y[h & 0xf] ^ (*e++)) + 0x3dbb2819;
h++;
}
ptr = u + 4;
len = *ptr++;
ver4 = Environment.Version.Major == 4;
ModuleHandle hnd = m.ModuleHandle;
if (ver4)
{
ulong *str = stackalloc ulong[1];
str[0] = 0x0061746144705f6d; //m_pData.
moduleHnd = (IntPtr)m.GetType().GetField(new string((sbyte *)str), BindingFlags.NonPublic | BindingFlags.Instance).GetValue(m);
ver5 = Environment.Version.Revision > 17020;
}
else
{
Marshal.StructureToPtr(hnd, moduleHnd, true);// moduleHnd = *(IntPtr*)(&hnd);
}
Hook();
}
[System.Security.SecurityCritical] // auto-generated
private static unsafe RuntimeMethodInfo AssignAssociates(
int tkMethod,
RuntimeType declaredType,
RuntimeType reflectedType)
{
if (MetadataToken.IsNullToken(tkMethod))
{
return(null);
}
Contract.Assert(declaredType != null);
Contract.Assert(reflectedType != null);
bool isInherited = declaredType != reflectedType;
IntPtr[] genericArgumentHandles = null;
int genericArgumentCount = 0;
RuntimeType [] genericArguments = declaredType.GetTypeHandleInternal().GetInstantiationInternal();
if (genericArguments != null)
{
genericArgumentCount = genericArguments.Length;
genericArgumentHandles = new IntPtr[genericArguments.Length];
for (int i = 0; i < genericArguments.Length; i++)
{
genericArgumentHandles[i] = genericArguments[i].GetTypeHandleInternal().Value;
}
}
RuntimeMethodHandleInternal associateMethodHandle = ModuleHandle.ResolveMethodHandleInternalCore(RuntimeTypeHandle.GetModule(declaredType), tkMethod, genericArgumentHandles, genericArgumentCount, null, 0);
Contract.Assert(!associateMethodHandle.IsNullHandle(), "Failed to resolve associateRecord methodDef token");
if (isInherited)
{
MethodAttributes methAttr = RuntimeMethodHandle.GetAttributes(associateMethodHandle);
// ECMA MethodSemantics: "All methods for a given Property or Event shall have the same accessibility
//(ie the MemberAccessMask subfield of their Flags row) and cannot be CompilerControlled [CLS]"
// Consequently, a property may be composed of public and private methods. If the declared type !=
// the reflected type, the private methods should not be exposed. Note that this implies that the
// identity of a property includes it's reflected type.
// NetCF actually includes private methods from parent classes in Reflection results
// We will mimic that in Mango Compat mode.
if (!CompatibilitySwitches.IsAppEarlierThanWindowsPhone8)
{
if ((methAttr & MethodAttributes.MemberAccessMask) == MethodAttributes.Private)
{
return(null);
}
}
// Note this is the first time the property was encountered walking from the most derived class
// towards the base class. It would seem to follow that any associated methods would not
// be overriden -- but this is not necessarily true. A more derived class may have overriden a
// virtual method associated with a property in a base class without associating the override with
// the same or any property in the derived class.
if ((methAttr & MethodAttributes.Virtual) != 0)
{
bool declaringTypeIsClass =
(RuntimeTypeHandle.GetAttributes(declaredType) & TypeAttributes.ClassSemanticsMask) == TypeAttributes.Class;
// It makes no sense to search for a virtual override of a method declared on an interface.
if (declaringTypeIsClass)
{
int slot = RuntimeMethodHandle.GetSlot(associateMethodHandle);
// Find the override visible from the reflected type
associateMethodHandle = RuntimeTypeHandle.GetMethodAt(reflectedType, slot);
}
}
}
RuntimeMethodInfo associateMethod =
RuntimeType.GetMethodBase(reflectedType, associateMethodHandle) as RuntimeMethodInfo;
// suppose a property was mapped to a method not in the derivation hierarchy of the reflectedTypeHandle
if (associateMethod == null)
{
associateMethod = reflectedType.Module.ResolveMethod(tkMethod, null, null) as RuntimeMethodInfo;
}
return(associateMethod);
}
public override FieldInfo?ResolveField(int metadataToken, Type[]?genericTypeArguments, Type[]?genericMethodArguments)
{
try
{
MetadataToken tk = new MetadataToken(metadataToken);
if (!MetadataImport.IsValidToken(tk))
{
throw new ArgumentOutOfRangeException(nameof(metadataToken),
SR.Format(SR.Argument_InvalidToken, tk, this));
}
RuntimeTypeHandle[]? typeArgs = null;
RuntimeTypeHandle[]? methodArgs = null;
if (genericTypeArguments?.Length > 0)
{
typeArgs = ConvertToTypeHandleArray(genericTypeArguments);
}
if (genericMethodArguments?.Length > 0)
{
methodArgs = ConvertToTypeHandleArray(genericMethodArguments);
}
ModuleHandle moduleHandle = new ModuleHandle(this);
if (!tk.IsFieldDef)
{
if (!tk.IsMemberRef)
{
throw new ArgumentException(SR.Format(SR.Argument_ResolveField, tk, this),
nameof(metadataToken));
}
unsafe
{
ConstArray sig = MetadataImport.GetMemberRefProps(tk);
if (*(MdSigCallingConvention *)sig.Signature != MdSigCallingConvention.Field)
{
throw new ArgumentException(SR.Format(SR.Argument_ResolveField, tk, this),
nameof(metadataToken));
}
}
}
IRuntimeFieldInfo fieldHandle = moduleHandle.ResolveFieldHandle(metadataToken, typeArgs, methodArgs).GetRuntimeFieldInfo();
RuntimeType declaringType = RuntimeFieldHandle.GetApproxDeclaringType(fieldHandle.Value);
if (declaringType.IsGenericType || declaringType.IsArray)
{
int tkDeclaringType = ModuleHandle.GetMetadataImport(this).GetParentToken(metadataToken);
declaringType = (RuntimeType)ResolveType(tkDeclaringType, genericTypeArguments, genericMethodArguments);
}
return(RuntimeType.GetFieldInfo(declaringType, fieldHandle));
}
catch (MissingFieldException)
{
return(ResolveLiteralField(metadataToken, genericTypeArguments, genericMethodArguments));
}
catch (BadImageFormatException e)
{
throw new ArgumentException(SR.Argument_BadImageFormatExceptionResolve, e);
}
}
/// <summary>Creates a string representation of the module</summary>
/// <returns>LLVM textual representation of the module</returns>
/// <remarks>
/// This is intentionally NOT an override of ToString() as that is
/// used by debuggers to show the value of a type and this can take
/// an extremely long time (up to many seconds depending on complexity
/// of the module) which is bad for the debugger.
/// </remarks>
public string WriteToString( )
{
ThrowIfDisposed( );
return(ModuleHandle.PrintToString( ));
}
/// <summary>Clones the current module</summary>
/// <returns>Cloned module</returns>
public BitcodeModule Clone( )
{
ThrowIfDisposed( );
return(FromHandle(ModuleHandle.Clone( )) !);
}
public static extern unsafe InstanceHandle wasm_instance_new(StoreHandle store, ModuleHandle module, IntPtr[] imports, out IntPtr trap);
/// <summary>Verifies a bit-code module</summary>
/// <param name="errorMessage">Error messages describing any issues found in the bit-code</param>
/// <returns>true if the verification succeeded and false if not.</returns>
public bool Verify(out string errorMessage)
{
ThrowIfDisposed( );
return(ModuleHandle.TryVerify(LLVMVerifierFailureAction.LLVMReturnStatusAction, out errorMessage));
}
public string HashModule(ModuleHandle module)
{
throw new NotImplementedException();
}
public static extern IntPtr wasmtime_module_new(StoreHandle store, ref wasm_byte_vec_t bytes, out ModuleHandle module);
private unsafe static bool FilterCustomAttributeRecord(CustomAttributeRecord caRecord, MetadataImport scope, ref Assembly lastAptcaOkAssembly, RuntimeModule decoratedModule, MetadataToken decoratedToken, RuntimeType attributeFilterType, bool mustBeInheritable, object[] attributes, IList derivedAttributes, out RuntimeType attributeType, out IRuntimeMethodInfo ctor, out bool ctorHasParameters, out bool isVarArg)
{
ctor = null;
attributeType = null;
ctorHasParameters = false;
isVarArg = false;
IntPtr signature = caRecord.blob.Signature;
IntPtr intPtr = (IntPtr)((void *)((byte *)((void *)signature) + caRecord.blob.Length));
attributeType = (decoratedModule.ResolveType(scope.GetParentToken(caRecord.tkCtor), null, null) as RuntimeType);
if (!attributeFilterType.IsAssignableFrom(attributeType))
{
return(false);
}
if (!CustomAttribute.AttributeUsageCheck(attributeType, mustBeInheritable, attributes, derivedAttributes))
{
return(false);
}
if ((attributeType.Attributes & TypeAttributes.WindowsRuntime) == TypeAttributes.WindowsRuntime)
{
return(false);
}
RuntimeAssembly runtimeAssembly = (RuntimeAssembly)attributeType.Assembly;
RuntimeAssembly runtimeAssembly2 = (RuntimeAssembly)decoratedModule.Assembly;
if (runtimeAssembly != lastAptcaOkAssembly && !RuntimeAssembly.AptcaCheck(runtimeAssembly, runtimeAssembly2))
{
return(false);
}
lastAptcaOkAssembly = runtimeAssembly2;
ConstArray methodSignature = scope.GetMethodSignature(caRecord.tkCtor);
isVarArg = ((methodSignature[0] & 5) > 0);
ctorHasParameters = (methodSignature[1] > 0);
if (ctorHasParameters)
{
ctor = ModuleHandle.ResolveMethodHandleInternal(decoratedModule.GetNativeHandle(), caRecord.tkCtor);
}
else
{
ctor = attributeType.GetTypeHandleInternal().GetDefaultConstructor();
if (ctor == null && !attributeType.IsValueType)
{
throw new MissingMethodException(".ctor");
}
}
MetadataToken token = default(MetadataToken);
if (decoratedToken.IsParamDef)
{
token = new MetadataToken(scope.GetParentToken(decoratedToken));
token = new MetadataToken(scope.GetParentToken(token));
}
else if (decoratedToken.IsMethodDef || decoratedToken.IsProperty || decoratedToken.IsEvent || decoratedToken.IsFieldDef)
{
token = new MetadataToken(scope.GetParentToken(decoratedToken));
}
else if (decoratedToken.IsTypeDef)
{
token = decoratedToken;
}
else if (decoratedToken.IsGenericPar)
{
token = new MetadataToken(scope.GetParentToken(decoratedToken));
if (token.IsMethodDef)
{
token = new MetadataToken(scope.GetParentToken(token));
}
}
RuntimeTypeHandle sourceTypeHandle = token.IsTypeDef ? decoratedModule.ModuleHandle.ResolveTypeHandle(token) : default(RuntimeTypeHandle);
return(RuntimeMethodHandle.IsCAVisibleFromDecoratedType(attributeType.TypeHandle, ctor, sourceTypeHandle, decoratedModule));
}
unsafe public static extern int LoadStringW(
ModuleHandle hInstance,
int uID,
out char *lpBuffer,
int nBufferMax);
static QBModifiedCheck()
{
QBModifiedCheck.char_0 = new char[]
{
'\u0001',
'\u0002',
'\u0003',
'\u0004',
'\u0005',
'\u0006',
'\a',
'\b',
'\u000e',
'\u000f',
'\u0010',
'\u0011',
'\u0012',
'\u0013',
'\u0014',
'\u0015',
'\u0016',
'\u0017',
'\u0018',
'\u0019',
'\u001a',
'\u001b',
'\u001c',
'\u001d',
'\u001e',
'\u001f',
'\u007f',
'\u0080',
'\u0081',
'\u0082',
'\u0083',
'\u0084',
'\u0086',
'\u0087',
'\u0088',
'\u0089',
'\u008a',
'\u008b',
'\u008c',
'\u008d',
'\u008e',
'\u008f',
'\u0090',
'\u0091',
'\u0092',
'\u0093',
'\u0094',
'\u0095',
'\u0096',
'\u0097',
'\u0098',
'\u0099',
'\u009a',
'\u009b',
'\u009c',
'\u009d',
'\u009e',
'\u009f'
};
Type typeFromHandle = typeof(MulticastDelegate);
if (typeFromHandle != null)
{
QBModifiedCheck.moduleHandle_0 = Assembly.GetExecutingAssembly().GetModules()[0].ModuleHandle;
}
}
public void affecterApprenantModule(Apprenant a, ModuleHandle m)
{
}
public static bool op_Inequality(ModuleHandle left, ModuleHandle right) {}
public static bool op_Inequality(ModuleHandle left, ModuleHandle right)
{
}
public UniqueMemberToken(int metadataToken, ModuleHandle moduleHandle)
{
MetadataToken = metadataToken;
ModuleHandle = moduleHandle;
}
public bool Equals(ModuleHandle handle) {}
public static extern bool UnregisterClass(
IntPtr lpClassName,
ModuleHandle hInstance);
internal void GetCallableMethod(RuntimeModule module, DynamicMethod dm)
{
dm.m_methodHandle = ModuleHandle.GetDynamicMethod(dm, module, base.m_methodBuilder.Name, (byte[])this.m_scope[this.m_methodSigToken], new DynamicResolver(this));
}
[System.Security.SecurityCritical] // auto-generated
internal static Attribute GetCustomAttribute(RuntimeMethodInfo method)
{
if ((method.Attributes & MethodAttributes.PinvokeImpl) == 0)
{
return(null);
}
#if !MONO
MetadataImport scope = ModuleHandle.GetMetadataImport(method.Module.ModuleHandle.GetRuntimeModule());
#endif
string entryPoint, dllName = null;
int token = method.MetadataToken;
PInvokeAttributes flags = 0;
#if MONO
((MonoMethod)method).GetPInvoke(out flags, out entryPoint, out dllName);
#else
scope.GetPInvokeMap(token, out flags, out entryPoint, out dllName);
#endif
CharSet charSet = CharSet.None;
switch (flags & PInvokeAttributes.CharSetMask)
{
case PInvokeAttributes.CharSetNotSpec: charSet = CharSet.None; break;
case PInvokeAttributes.CharSetAnsi: charSet = CharSet.Ansi; break;
case PInvokeAttributes.CharSetUnicode: charSet = CharSet.Unicode; break;
case PInvokeAttributes.CharSetAuto: charSet = CharSet.Auto; break;
// Invalid: default to CharSet.None
default: break;
}
CallingConvention callingConvention = CallingConvention.Cdecl;
switch (flags & PInvokeAttributes.CallConvMask)
{
case PInvokeAttributes.CallConvWinapi: callingConvention = CallingConvention.Winapi; break;
case PInvokeAttributes.CallConvCdecl: callingConvention = CallingConvention.Cdecl; break;
case PInvokeAttributes.CallConvStdcall: callingConvention = CallingConvention.StdCall; break;
case PInvokeAttributes.CallConvThiscall: callingConvention = CallingConvention.ThisCall; break;
case PInvokeAttributes.CallConvFastcall: callingConvention = CallingConvention.FastCall; break;
// Invalid: default to CallingConvention.Cdecl
default: break;
}
bool exactSpelling = (flags & PInvokeAttributes.NoMangle) != 0;
bool setLastError = (flags & PInvokeAttributes.SupportsLastError) != 0;
bool bestFitMapping = (flags & PInvokeAttributes.BestFitMask) == PInvokeAttributes.BestFitEnabled;
bool throwOnUnmappableChar = (flags & PInvokeAttributes.ThrowOnUnmappableCharMask) == PInvokeAttributes.ThrowOnUnmappableCharEnabled;
bool preserveSig = (method.GetMethodImplementationFlags() & MethodImplAttributes.PreserveSig) != 0;
return(new DllImportAttribute(
dllName, entryPoint, charSet, exactSpelling, setLastError, preserveSig,
callingConvention, bestFitMapping, throwOnUnmappableChar));
}
/// <summary>Writes this module as LLVM IR source to a file</summary>
/// <param name="path">File to write the LLVM IR source to</param>
/// <param name="errMsg">Error messages encountered, if any</param>
/// <returns><see langword="true"/> if successful or <see langword="false"/> if not</returns>
public bool WriteToTextFile(string path, out string errMsg)
{
ThrowIfDisposed( );
return(ModuleHandle.TryPrintToFile(path, out errMsg));
}
public static void RunModuleConstructor(ModuleHandle module)
{
}
/// <summary>Writes the LLVM IR bit code into a memory buffer</summary>
/// <returns><see cref="MemoryBuffer"/> containing the bit code module</returns>
public MemoryBuffer WriteToBuffer( )
{
ThrowIfDisposed( );
return(new MemoryBuffer(memoryBufferRef: ModuleHandle.WriteBitcodeToMemoryBuffer( )));
}
internal void GetCallableMethod(RuntimeModule module, DynamicMethod dm)
{
dm.m_methodHandle = ModuleHandle.GetDynamicMethod(dm,
module, m_method.Name, (byte[])m_scope[m_methodSignature] !, new DynamicResolver(this));
}
void GetPEKind(out PortableExecutableKinds peKind, out ImageFileMachine machine)
{
ModuleHandle.GetPEKind(out peKind, out machine);
}
public static void RunModuleConstructor (ModuleHandle module)
{
if (module == ModuleHandle.EmptyHandle)
throw new ArgumentException ("Handle is not initialized.", "module");
RunModuleConstructor (module.Value);
}
internal static Attribute GetCustomAttribute(RuntimeMethodInfo method)
{
if ((method.Attributes & MethodAttributes.PinvokeImpl) == MethodAttributes.PrivateScope)
{
return(null);
}
MetadataImport metadataImport = ModuleHandle.GetMetadataImport(method.Module.ModuleHandle.GetRuntimeModule());
string dllName = null;
int metadataToken = method.MetadataToken;
PInvokeAttributes pinvokeAttributes = PInvokeAttributes.CharSetNotSpec;
string entryPoint;
metadataImport.GetPInvokeMap(metadataToken, out pinvokeAttributes, out entryPoint, out dllName);
CharSet charSet = CharSet.None;
switch (pinvokeAttributes & PInvokeAttributes.CharSetMask)
{
case PInvokeAttributes.CharSetNotSpec:
charSet = CharSet.None;
break;
case PInvokeAttributes.CharSetAnsi:
charSet = CharSet.Ansi;
break;
case PInvokeAttributes.CharSetUnicode:
charSet = CharSet.Unicode;
break;
case PInvokeAttributes.CharSetMask:
charSet = CharSet.Auto;
break;
}
CallingConvention callingConvention = CallingConvention.Cdecl;
PInvokeAttributes pinvokeAttributes2 = pinvokeAttributes & PInvokeAttributes.CallConvMask;
if (pinvokeAttributes2 <= PInvokeAttributes.CallConvCdecl)
{
if (pinvokeAttributes2 != PInvokeAttributes.CallConvWinapi)
{
if (pinvokeAttributes2 == PInvokeAttributes.CallConvCdecl)
{
callingConvention = CallingConvention.Cdecl;
}
}
else
{
callingConvention = CallingConvention.Winapi;
}
}
else if (pinvokeAttributes2 != PInvokeAttributes.CallConvStdcall)
{
if (pinvokeAttributes2 != PInvokeAttributes.CallConvThiscall)
{
if (pinvokeAttributes2 == PInvokeAttributes.CallConvFastcall)
{
callingConvention = CallingConvention.FastCall;
}
}
else
{
callingConvention = CallingConvention.ThisCall;
}
}
else
{
callingConvention = CallingConvention.StdCall;
}
bool exactSpelling = (pinvokeAttributes & PInvokeAttributes.NoMangle) > PInvokeAttributes.CharSetNotSpec;
bool setLastError = (pinvokeAttributes & PInvokeAttributes.SupportsLastError) > PInvokeAttributes.CharSetNotSpec;
bool bestFitMapping = (pinvokeAttributes & PInvokeAttributes.BestFitMask) == PInvokeAttributes.BestFitEnabled;
bool throwOnUnmappableChar = (pinvokeAttributes & PInvokeAttributes.ThrowOnUnmappableCharMask) == PInvokeAttributes.ThrowOnUnmappableCharEnabled;
bool preserveSig = (method.GetMethodImplementationFlags() & MethodImplAttributes.PreserveSig) > MethodImplAttributes.IL;
return(new DllImportAttribute(dllName, entryPoint, charSet, exactSpelling, setLastError, preserveSig, callingConvention, bestFitMapping, throwOnUnmappableChar));
}
internal static Attribute GetCustomAttribute(RuntimeMethodInfo method)
{
string str;
if ((method.Attributes & MethodAttributes.PinvokeImpl) == MethodAttributes.PrivateScope)
{
return(null);
}
MetadataImport metadataImport = ModuleHandle.GetMetadataImport(method.Module.ModuleHandle.GetRuntimeModule());
string importDll = null;
int metadataToken = method.MetadataToken;
PInvokeAttributes bestFitUseAssem = PInvokeAttributes.BestFitUseAssem;
metadataImport.GetPInvokeMap(metadataToken, out bestFitUseAssem, out str, out importDll);
System.Runtime.InteropServices.CharSet none = System.Runtime.InteropServices.CharSet.None;
switch ((bestFitUseAssem & PInvokeAttributes.CharSetAuto))
{
case PInvokeAttributes.BestFitUseAssem:
none = System.Runtime.InteropServices.CharSet.None;
break;
case PInvokeAttributes.CharSetAnsi:
none = System.Runtime.InteropServices.CharSet.Ansi;
break;
case PInvokeAttributes.CharSetUnicode:
none = System.Runtime.InteropServices.CharSet.Unicode;
break;
case PInvokeAttributes.CharSetAuto:
none = System.Runtime.InteropServices.CharSet.Auto;
break;
}
System.Runtime.InteropServices.CallingConvention cdecl = System.Runtime.InteropServices.CallingConvention.Cdecl;
switch ((bestFitUseAssem & PInvokeAttributes.CallConvMask))
{
case PInvokeAttributes.CallConvStdcall:
cdecl = System.Runtime.InteropServices.CallingConvention.StdCall;
break;
case PInvokeAttributes.CallConvThiscall:
cdecl = System.Runtime.InteropServices.CallingConvention.ThisCall;
break;
case PInvokeAttributes.CallConvFastcall:
cdecl = System.Runtime.InteropServices.CallingConvention.FastCall;
break;
case PInvokeAttributes.CallConvWinapi:
cdecl = System.Runtime.InteropServices.CallingConvention.Winapi;
break;
case PInvokeAttributes.CallConvCdecl:
cdecl = System.Runtime.InteropServices.CallingConvention.Cdecl;
break;
}
bool exactSpelling = (bestFitUseAssem & PInvokeAttributes.NoMangle) != PInvokeAttributes.BestFitUseAssem;
bool setLastError = (bestFitUseAssem & PInvokeAttributes.SupportsLastError) != PInvokeAttributes.BestFitUseAssem;
bool bestFitMapping = (bestFitUseAssem & PInvokeAttributes.BestFitMask) == PInvokeAttributes.BestFitEnabled;
bool throwOnUnmappableChar = (bestFitUseAssem & PInvokeAttributes.ThrowOnUnmappableCharMask) == PInvokeAttributes.ThrowOnUnmappableCharEnabled;
return(new DllImportAttribute(importDll, str, none, exactSpelling, setLastError, (method.GetMethodImplementationFlags() & MethodImplAttributes.PreserveSig) != MethodImplAttributes.IL, cdecl, bestFitMapping, throwOnUnmappableChar));
}
public override void GetPEKind(out PortableExecutableKinds peKind, out ImageFileMachine machine)
{
ModuleHandle.GetPEKind(GetNativeHandle(), out peKind, out machine);
}
public static extern InstanceHandle wasmtime_linker_instantiate(LinkerHandle linker, ModuleHandle module, out IntPtr trap);
public bool Equals(ModuleHandle handle)
{
}
public static extern void wasm_module_exports(ModuleHandle module, out wasm_exporttype_vec_t exports);
public static void RunModuleConstructor(ModuleHandle module)
{
_RunModuleConstructor(module.GetRuntimeModule());
}
/// <summary>
/// Equalses the specified instance.
/// </summary>
/// <param name="instance">The instance.</param>
/// <returns></returns>
public bool Equals(ModuleHandle instance)
{
if (this._Instance.Equals(instance._Instance))
{
return true;
}
return false;
}