private static void EmitSynchronization(EmitterContext context)
{
long countOffs = NativeContext.GetCounterOffset();
Operand countAddr = context.Add(context.LoadArgument(OperandType.I64, 0), Const(countOffs));
Operand count = context.Load(OperandType.I32, countAddr);
Operand lblNonZero = Label();
Operand lblExit = Label();
context.BranchIfTrue(lblNonZero, count);
Operand running = context.Call(new _Bool(NativeInterface.CheckSynchronization));
context.BranchIfTrue(lblExit, running);
context.Return(Const(0L));
context.Branch(lblExit);
context.MarkLabel(lblNonZero);
count = context.Subtract(count, Const(1));
context.Store(countAddr, count);
context.MarkLabel(lblExit);
}
private static void LoadLocals(BasicBlock block, long inputs, RegisterType baseType)
{
Operand arg0 = Local(OperandType.I64);
for (int bit = 63; bit >= 0; bit--)
{
long mask = 1L << bit;
if ((inputs & mask) == 0)
{
continue;
}
Operand dest = GetRegFromBit(bit, baseType);
long offset = NativeContext.GetRegisterOffset(dest.GetRegister());
Operand addr = Local(OperandType.I64);
Operation loadOp = new Operation(Instruction.Load, dest, addr);
block.Operations.AddFirst(loadOp);
Operation calcOffsOp = new Operation(Instruction.Add, addr, arg0, Const(offset));
block.Operations.AddFirst(calcOffsOp);
}
Operation loadArg0 = new Operation(Instruction.LoadArgument, arg0, Const(0));
block.Operations.AddFirst(loadArg0);
}
private static void StoreLocals(BasicBlock block, long outputs, RegisterType baseType, ExecutionMode mode)
{
Operand arg0 = Local(OperandType.I64);
Operation loadArg0 = Operation(Instruction.LoadArgument, arg0, Const(0));
block.Append(loadArg0);
for (int bit = 0; bit < 64; bit++)
{
long mask = 1L << bit;
if ((outputs & mask) == 0)
{
continue;
}
Operand source = GetRegFromBit(bit, baseType, mode);
long offset = NativeContext.GetRegisterOffset(source.GetRegister());
Operand addr = Local(OperandType.I64);
Operation calcOffsOp = Operation(Instruction.Add, addr, arg0, Const(offset));
block.Append(calcOffsOp);
Operation storeOp = Operation(Instruction.Store, null, addr, source);
block.Append(storeOp);
}
}
internal static void EmitSynchronization(EmitterContext context)
{
long countOffs = NativeContext.GetCounterOffset();
Operand countAddr = context.Add(context.LoadArgument(OperandType.I64, 0), Const(countOffs));
Operand count = context.Load(OperandType.I32, countAddr);
Operand lblNonZero = Label();
Operand lblExit = Label();
context.BranchIfTrue(lblNonZero, count, BasicBlockFrequency.Cold);
Operand running = context.Call(typeof(NativeInterface).GetMethod(nameof(NativeInterface.CheckSynchronization)));
context.BranchIfTrue(lblExit, running, BasicBlockFrequency.Cold);
context.Return(Const(0L));
context.MarkLabel(lblNonZero);
count = context.Subtract(count, Const(1));
context.Store(countAddr, count);
context.MarkLabel(lblExit);
}
private static void EmitNativeCallWithGuestAddress(ArmEmitterContext context, Operand funcAddr, Operand guestAddress, bool isJump)
{
Operand nativeContextPtr = context.LoadArgument(OperandType.I64, 0);
context.Store(context.Add(nativeContextPtr, Const((long)NativeContext.GetCallAddressOffset())), guestAddress);
EmitNativeCall(context, nativeContextPtr, funcAddr, isJump);
}
public static Operand EmitLoadExclusive(ArmEmitterContext context, Operand address, bool exclusive, int size)
{
if (exclusive)
{
Operand value;
if (size == 4)
{
Operand isUnalignedAddr = InstEmitMemoryHelper.EmitAddressCheck(context, address, size);
Operand lblFastPath = Label();
context.BranchIfFalse(lblFastPath, isUnalignedAddr);
// The call is not expected to return (it should throw).
context.Call(typeof(NativeInterface).GetMethod(nameof(NativeInterface.ThrowInvalidMemoryAccess)), address);
context.MarkLabel(lblFastPath);
// Only 128-bit CAS is guaranteed to have a atomic load.
Operand physAddr = InstEmitMemoryHelper.EmitPtPointerLoad(context, address, null, write: false);
Operand zero = context.VectorZero();
value = context.CompareAndSwap(physAddr, zero, zero);
}
else
{
value = InstEmitMemoryHelper.EmitReadIntAligned(context, address, size);
}
Operand arg0 = context.LoadArgument(OperandType.I64, 0);
Operand exAddrPtr = context.Add(arg0, Const((long)NativeContext.GetExclusiveAddressOffset()));
Operand exValuePtr = context.Add(arg0, Const((long)NativeContext.GetExclusiveValueOffset()));
context.Store(exAddrPtr, context.BitwiseAnd(address, Const(address.Type, GetExclusiveAddressMask())));
// Make sure the unused higher bits of the value are cleared.
if (size < 3)
{
context.Store(exValuePtr, Const(0UL));
}
if (size < 4)
{
context.Store(context.Add(exValuePtr, Const(exValuePtr.Type, 8L)), Const(0UL));
}
// Store the new exclusive value.
context.Store(exValuePtr, value);
return(value);
}
else
{
return(InstEmitMemoryHelper.EmitReadIntAligned(context, address, size));
}
}
public static void EmitClearExclusive(ArmEmitterContext context)
{
Operand arg0 = context.LoadArgument(OperandType.I64, 0);
Operand exAddrPtr = context.Add(arg0, Const((long)NativeContext.GetExclusiveAddressOffset()));
// We store ULONG max to force any exclusive address checks to fail,
// since this value is not aligned to the ERG mask.
context.Store(exAddrPtr, Const(ulong.MaxValue));
}
void iContent.render()
{
try
{
render();
}
catch (Exception ex)
{
NativeContext.cacheException(ex);
throw;
}
}
public static Operand EmitLoadExclusive(ArmEmitterContext context, Operand address, bool exclusive, int size)
{
if (exclusive)
{
Operand value;
if (size == 4)
{
// Only 128-bit CAS is guaranteed to have a atomic load.
Operand physAddr = InstEmitMemoryHelper.EmitPtPointerLoad(context, address, null, write: false, 4);
Operand zero = context.VectorZero();
value = context.CompareAndSwap(physAddr, zero, zero);
}
else
{
value = InstEmitMemoryHelper.EmitReadIntAligned(context, address, size);
}
Operand arg0 = context.LoadArgument(OperandType.I64, 0);
Operand exAddrPtr = context.Add(arg0, Const((long)NativeContext.GetExclusiveAddressOffset()));
Operand exValuePtr = context.Add(arg0, Const((long)NativeContext.GetExclusiveValueOffset()));
context.Store(exAddrPtr, context.BitwiseAnd(address, Const(address.Type, GetExclusiveAddressMask())));
// Make sure the unused higher bits of the value are cleared.
if (size < 3)
{
context.Store(exValuePtr, Const(0UL));
}
if (size < 4)
{
context.Store(context.Add(exValuePtr, Const(exValuePtr.Type, 8L)), Const(0UL));
}
// Store the new exclusive value.
context.Store(exValuePtr, value);
return(value);
}
else
{
return(InstEmitMemoryHelper.EmitReadIntAligned(context, address, size));
}
}
private static void StoreLocals(BasicBlock block, long outputs, RegisterType baseType, bool isCompleteFunction)
{
if (Optimizations.AssumeStrictAbiCompliance && isCompleteFunction)
{
if (baseType == RegisterType.Integer || baseType == RegisterType.Flag)
{
outputs = ClearCallerSavedIntRegs(outputs);
}
else /* if (baseType == RegisterType.Vector) */
{
outputs = ClearCallerSavedVecRegs(outputs);
}
}
Operand arg0 = Local(OperandType.I64);
Operation loadArg0 = new Operation(Instruction.LoadArgument, arg0, Const(0));
block.Append(loadArg0);
for (int bit = 0; bit < 64; bit++)
{
long mask = 1L << bit;
if ((outputs & mask) == 0)
{
continue;
}
Operand source = GetRegFromBit(bit, baseType);
long offset = NativeContext.GetRegisterOffset(source.GetRegister());
Operand addr = Local(OperandType.I64);
Operation calcOffsOp = new Operation(Instruction.Add, addr, arg0, Const(offset));
block.Append(calcOffsOp);
Operation storeOp = new Operation(Instruction.Store, null, addr, source);
block.Append(storeOp);
}
}
void iContent.releaseCachedResources(eReleaseResources what)
{
try
{
if (null == timersHardPause)
{
timersHardPause = animation.timers.hardPause();
}
foreach (var rr in releaseResources)
{
rr(what);
}
ComUtils.clear(ref cachedRtv);
ComUtils.clear(ref cachedDsv);
context?.SetRenderTargets(0, null, null, ResourceStateTransitionMode.None);
if (what == eReleaseResources.Buffers)
{
return;
}
context?.Dispose();
context = null;
if (what == eReleaseResources.Context)
{
return;
}
swapChain?.Dispose();
swapChain = null;
}
catch (Exception ex)
{
NativeContext.cacheException(ex);
throw;
}
}
void iContent.swapChainRecreated(iDiligentWindow window)
{
try
{
swapChain = window.swapChain;
context = window.context;
timersHardPause?.Dispose();
timersHardPause = null;
var scDesc = swapChain.GetDesc();
swapChainSize = new CSize(scDesc.Width, scDesc.Height);
byte samples = swapChainFormats.sampleCount;
swapChainFormats = new SwapChainFormats(scDesc.ColorBufferFormat, scDesc.DepthBufferFormat, samples);
swapChainBuffersCount = scDesc.BufferCount;
}
catch (Exception ex)
{
NativeContext.cacheException(ex);
throw;
}
}
/// <summary>
/// Generates the native executable.
/// </summary>
/// <param name = "directory">The directory.</param>
/// <returns></returns>
public String Generate(String directory)
{
NativeContext nativeContext = new NativeContext(this.TargetOSVersion, this.TargetArchitecture);
if (this.NativeCompiler == null)
{
this.NativeCompiler = nativeContext.Compiler;
}
// We embed:
// - the assemblies (with their configuration)
// - the machine configuration
//
// For every embedded assembly, we store:
// - the name of the assembly
// - the pretty name of the assembly (for inclusion in source code)
// - the path to the static library that embed the assembly
// - the path to the static library that embed the assembly configuration file
List <Dictionary <String, String> > assemblies = new List <Dictionary <string, string> >();
List <Dictionary <String, String> > configurations = new List <Dictionary <string, string> >();
// Create an instance of creator
DataLibraryCreator creator = new DataLibraryCreator();
creator.Logger = this.Logger;
creator.ArchitectureFlags = nativeContext.ArchitectureFlags;
creator.OutputDirectory = directory;
this.Logger.LogInfo("Creating static libraries...");
// For each assembly and its config, generate a native library);
foreach (String assembly in this.Assemblies)
{
String name = Path.GetFileName(assembly);
this.Logger.LogInfo("Processing static library " + name);
Dictionary <string, string> bundle = CreateBundle(creator, assembly, false);
assemblies.Add(bundle);
String config = assembly + ".config";
if (File.Exists(config))
{
this.Logger.LogInfo("Processing configuration for " + name);
bundle = CreateBundle(creator, config, true);
bundle[KEY_ASSEMBLY] = name;
configurations.Add(bundle);
}
}
// Store the main image
String mainImage = assemblies[0][KEY_NAME];
// Sort all the symbols
assemblies.Sort((D1, D2) => D1[KEY_SYMBOL].CompareTo(D2[KEY_SYMBOL]));
configurations.Sort((D1, D2) => D1[KEY_SYMBOL].CompareTo(D2[KEY_SYMBOL]));
// Generate a native library for the machine configuration
Dictionary <String, String> machineConfig = null;
if (this.MachineConfiguration != null)
{
machineConfig = CreateBundle(creator, this.MachineConfiguration, true);
}
this.Logger.LogInfo("Creating source file...");
// Generate the main source file
String mainSource = Path.Combine(directory, "main.c");
this.GenerateMainSource(mainSource, mainImage, assemblies, configurations, machineConfig);
// Dump the header file
nativeContext.WriteHeader(directory);
// Dump the library file
nativeContext.WriteLibrary(directory);
// Stage 1: Preparation of common properties
String mainObject = Path.Combine(directory, "main.o");
String executableFile = Path.Combine(directory, Path.GetFileNameWithoutExtension(mainImage));
String nativeOptions = String.Format(" {0} {1} ", nativeContext.ArchitectureFlags, nativeContext.SDKFlags);
// Stage 2: Compilation
this.Compile(directory, mainSource, mainObject, nativeOptions);
// Stage 3: Linkage
this.Link(directory, mainObject, executableFile, nativeOptions, assemblies, configurations, machineConfig);
this.Logger.LogInfo("Embedding done");
return(executableFile);
}
void iContent.resized(ref sWindowPosition position)
{
// ConsoleLogger.logDebug( "{0}", position );
try
{
// No need to waste resources rendering frames while the window is minimized.
if (position.show == eShowWindow.Minimized)
{
if (null == timersHardPause)
{
animation.timers.pause();
}
Dispatcher.currentDispatcher.nativeDispatcher.runPolicy = eDispatcherRunPolicy.EnvironmentFriendly;
}
else
{
if (null == timersHardPause && animation.any)
{
animation.timers.resume();
Dispatcher.currentDispatcher.nativeDispatcher.runPolicy = eDispatcherRunPolicy.GameStyle;
}
}
ComUtils.clear(ref cachedRtv);
ComUtils.clear(ref cachedDsv);
context?.SetRenderTargets(0, null, null, ResourceStateTransitionMode.None);
windowState = position.show;
if (dpiScalingFactor != position.dpiScaling)
{
dpiScalingFactor = position.dpiScaling;
var evt = m_dpiChanged;
if (null != evt)
{
foreach (var sub in evt)
{
sub(dpiScalingFactor);
}
}
}
if (position.show != eShowWindow.Minimized)
{
foreach (var rr in releaseResources)
{
rr(eReleaseResources.Buffers);
}
swapChain?.Resize(position.size.cx, position.size.cy);
swapChainSize = position.size;
foreach (var sub in swapChainResized)
{
sub(position.size, position.dpiScaling);
}
}
}
catch (Exception ex)
{
// This is to marshal that exception across C++ code on the stack. C++ can't deliver .NET exceptions, it only knows about HRESULT codes.
// cacheException call makes it so the complete .NET exception is delivered to the caller, not just the HRESULT code of it.
NativeContext.cacheException(ex);
throw;
}
}
/// <summary>
/// Generates a stub that is used to find function addresses. Used for direct calls when their jump table does not have the host address yet.
/// Takes a NativeContext like a translated guest function, and extracts the target address from the NativeContext.
/// When the target function is compiled in highCq, all table entries are updated to point to that function instead of this stub by the translator.
/// </summary>
private static GuestFunction GenerateDirectCallStub(bool tailCall)
{
EmitterContext context = new EmitterContext();
Operand nativeContextPtr = context.LoadArgument(OperandType.I64, 0);
Operand address = context.Load(OperandType.I64, context.Add(nativeContextPtr, Const((long)NativeContext.GetCallAddressOffset())));
Operand functionAddr = context.Call(typeof(NativeInterface).GetMethod(nameof(NativeInterface.GetFunctionAddress)), address);
EmitCall(context, functionAddr, tailCall);
ControlFlowGraph cfg = context.GetControlFlowGraph();
OperandType[] argTypes = new OperandType[] { OperandType.I64 };
return(Compiler.Compile <GuestFunction>(cfg, argTypes, OperandType.I64, CompilerOptions.HighCq));
}
/// <summary>
/// Generates a stub that is used to find function addresses and add them to an indirect table.
/// Used for indirect calls entries (already claimed) when their jump table does not have the host address yet.
/// Takes a NativeContext like a translated guest function, and extracts the target indirect table entry from the NativeContext.
/// If the function we find is highCq, the entry in the table is updated to point to that function rather than this stub.
/// </summary>
private static GuestFunction GenerateIndirectCallStub(bool tailCall)
{
EmitterContext context = new EmitterContext();
Operand nativeContextPtr = context.LoadArgument(OperandType.I64, 0);
Operand entryAddress = context.Load(OperandType.I64, context.Add(nativeContextPtr, Const((long)NativeContext.GetCallAddressOffset())));
Operand address = context.Load(OperandType.I64, entryAddress);
// We need to find the missing function. If the function is HighCq, then it replaces this stub in the indirect table.
// Either way, we call it afterwards.
Operand functionAddr = context.Call(typeof(NativeInterface).GetMethod(nameof(NativeInterface.GetIndirectFunctionAddress)), address, entryAddress);
// Call and save the function.
EmitCall(context, functionAddr, tailCall);
ControlFlowGraph cfg = context.GetControlFlowGraph();
OperandType[] argTypes = new OperandType[] { OperandType.I64 };
return(Compiler.Compile <GuestFunction>(cfg, argTypes, OperandType.I64, CompilerOptions.HighCq));
}
private static void EmitTableBranch(ArmEmitterContext context, Operand guestAddress, bool isJump)
{
context.StoreToContext();
if (guestAddress.Type == OperandType.I32)
{
guestAddress = context.ZeroExtend32(OperandType.I64, guestAddress);
}
// Store the target guest address into the native context. The stubs uses this address to dispatch into the
// next translation.
Operand nativeContext = context.LoadArgument(OperandType.I64, 0);
Operand dispAddressAddr = context.Add(nativeContext, Const((ulong)NativeContext.GetDispatchAddressOffset()));
context.Store(dispAddressAddr, guestAddress);
Operand hostAddress;
// If address is mapped onto the function table, we can skip the table walk. Otherwise we fallback
// onto the dispatch stub.
if (guestAddress.Kind == OperandKind.Constant && context.FunctionTable.IsValid(guestAddress.Value))
{
Operand hostAddressAddr = !context.HasPtc ?
Const(ref context.FunctionTable.GetValue(guestAddress.Value)) :
Const(ref context.FunctionTable.GetValue(guestAddress.Value), new Symbol(SymbolType.FunctionTable, guestAddress.Value));
hostAddress = context.Load(OperandType.I64, hostAddressAddr);
}
else
{
hostAddress = !context.HasPtc ?
Const((long)context.Stubs.DispatchStub) :
Const((long)context.Stubs.DispatchStub, Ptc.DispatchStubSymbol);
}
if (isJump)
{
context.Tailcall(hostAddress, nativeContext);
}
else
{
OpCode op = context.CurrOp;
Operand returnAddress = context.Call(hostAddress, OperandType.I64, nativeContext);
context.LoadFromContext();
// Note: The return value of a translated function is always an Int64 with the address execution has
// returned to. We expect this address to be immediately after the current instruction, if it isn't we
// keep returning until we reach the dispatcher.
Operand nextAddr = Const((long)op.Address + op.OpCodeSizeInBytes);
// Try to continue within this block.
// If the return address isn't to our next instruction, we need to return so the JIT can figure out
// what to do.
Operand lblContinue = context.GetLabel(nextAddr.Value);
context.BranchIf(lblContinue, returnAddress, nextAddr, Comparison.Equal, BasicBlockFrequency.Cold);
context.Return(returnAddress);
}
}
public static void EmitStoreExclusive(
ArmEmitterContext context,
Operand address,
Operand value,
bool exclusive,
int size,
int rs,
bool a32)
{
if (size < 3)
{
value = context.ConvertI64ToI32(value);
}
if (exclusive)
{
void SetRs(Operand value)
{
if (a32)
{
SetIntA32(context, rs, value);
}
else
{
SetIntOrZR(context, rs, value);
}
}
Operand arg0 = context.LoadArgument(OperandType.I64, 0);
Operand exAddrPtr = context.Add(arg0, Const((long)NativeContext.GetExclusiveAddressOffset()));
Operand exAddr = context.Load(address.Type, exAddrPtr);
// STEP 1: Check if we have exclusive access to this memory region. If not, fail and skip store.
Operand maskedAddress = context.BitwiseAnd(address, Const(address.Type, GetExclusiveAddressMask()));
Operand exFailed = context.ICompareNotEqual(exAddr, maskedAddress);
Operand lblExit = Label();
SetRs(exFailed);
context.BranchIfTrue(lblExit, exFailed);
// STEP 2: We have exclusive access, make sure that the address is valid.
Operand isUnalignedAddr = InstEmitMemoryHelper.EmitAddressCheck(context, address, size);
Operand lblFastPath = Label();
context.BranchIfFalse(lblFastPath, isUnalignedAddr);
// The call is not expected to return (it should throw).
context.Call(typeof(NativeInterface).GetMethod(nameof(NativeInterface.ThrowInvalidMemoryAccess)), address);
// STEP 3: We have exclusive access and the address is valid, attempt the store using CAS.
context.MarkLabel(lblFastPath);
Operand physAddr = InstEmitMemoryHelper.EmitPtPointerLoad(context, address, null, write: true);
Operand exValuePtr = context.Add(arg0, Const((long)NativeContext.GetExclusiveValueOffset()));
Operand exValue = size switch
{
0 => context.Load8(exValuePtr),
1 => context.Load16(exValuePtr),
2 => context.Load(OperandType.I32, exValuePtr),
3 => context.Load(OperandType.I64, exValuePtr),
_ => context.Load(OperandType.V128, exValuePtr)
};
Operand currValue = size switch
{
0 => context.CompareAndSwap8(physAddr, exValue, value),
1 => context.CompareAndSwap16(physAddr, exValue, value),
_ => context.CompareAndSwap(physAddr, exValue, value)
};
// STEP 4: Check if we succeeded by comparing expected and in-memory values.
Operand storeFailed;
if (size == 4)
{
Operand currValueLow = context.VectorExtract(OperandType.I64, currValue, 0);
Operand currValueHigh = context.VectorExtract(OperandType.I64, currValue, 1);
Operand exValueLow = context.VectorExtract(OperandType.I64, exValue, 0);
Operand exValueHigh = context.VectorExtract(OperandType.I64, exValue, 1);
storeFailed = context.BitwiseOr(
context.ICompareNotEqual(currValueLow, exValueLow),
context.ICompareNotEqual(currValueHigh, exValueHigh));
}
else
{
storeFailed = context.ICompareNotEqual(currValue, exValue);
}
SetRs(storeFailed);
context.MarkLabel(lblExit);
}
else
{
InstEmitMemoryHelper.EmitWriteIntAligned(context, address, value, size);
}
}
public static void EmitStoreExclusive(
ArmEmitterContext context,
Operand address,
Operand value,
bool exclusive,
int size,
int rs,
bool a32)
{
if (size < 3)
{
value = context.ConvertI64ToI32(value);
}
if (exclusive)
{
// We overwrite one of the register (Rs),
// keep a copy of the values to ensure we are working with the correct values.
address = context.Copy(address);
value = context.Copy(value);
void SetRs(Operand value)
{
if (a32)
{
SetIntA32(context, rs, value);
}
else
{
SetIntOrZR(context, rs, value);
}
}
Operand arg0 = context.LoadArgument(OperandType.I64, 0);
Operand exAddrPtr = context.Add(arg0, Const((long)NativeContext.GetExclusiveAddressOffset()));
Operand exAddr = context.Load(address.Type, exAddrPtr);
// STEP 1: Check if we have exclusive access to this memory region. If not, fail and skip store.
Operand maskedAddress = context.BitwiseAnd(address, Const(address.Type, GetExclusiveAddressMask()));
Operand exFailed = context.ICompareNotEqual(exAddr, maskedAddress);
Operand lblExit = Label();
SetRs(Const(1));
context.BranchIfTrue(lblExit, exFailed);
// STEP 2: We have exclusive access and the address is valid, attempt the store using CAS.
Operand physAddr = InstEmitMemoryHelper.EmitPtPointerLoad(context, address, null, write: true, size);
Operand exValuePtr = context.Add(arg0, Const((long)NativeContext.GetExclusiveValueOffset()));
Operand exValue = size switch
{
0 => context.Load8(exValuePtr),
1 => context.Load16(exValuePtr),
2 => context.Load(OperandType.I32, exValuePtr),
3 => context.Load(OperandType.I64, exValuePtr),
_ => context.Load(OperandType.V128, exValuePtr)
};
Operand currValue = size switch
{
0 => context.CompareAndSwap8(physAddr, exValue, value),
1 => context.CompareAndSwap16(physAddr, exValue, value),
_ => context.CompareAndSwap(physAddr, exValue, value)
};
// STEP 3: Check if we succeeded by comparing expected and in-memory values.
Operand storeFailed;
if (size == 4)
{
Operand currValueLow = context.VectorExtract(OperandType.I64, currValue, 0);
Operand currValueHigh = context.VectorExtract(OperandType.I64, currValue, 1);
Operand exValueLow = context.VectorExtract(OperandType.I64, exValue, 0);
Operand exValueHigh = context.VectorExtract(OperandType.I64, exValue, 1);
storeFailed = context.BitwiseOr(
context.ICompareNotEqual(currValueLow, exValueLow),
context.ICompareNotEqual(currValueHigh, exValueHigh));
}
else
{
storeFailed = context.ICompareNotEqual(currValue, exValue);
}
SetRs(storeFailed);
context.MarkLabel(lblExit);
}
else
{
InstEmitMemoryHelper.EmitWriteIntAligned(context, address, value, size);
}
}
