public CpuEmiter(MipsMethodEmiter MipsMethodEmiter, InstructionReader InstructionReader, Stream MemoryStream, CpuProcessor CpuProcessor)
{
this.MipsMethodEmiter = MipsMethodEmiter;
this.InstructionReader = InstructionReader;
this.MemoryStream = MemoryStream;
this.CpuProcessor = CpuProcessor;
}
public override void InitializeComponent()
{
this.Callbacks = new HleUidPool <HleCallback>();
this.ScheduledCallbacks = new Queue <HleCallback>();
this.CpuProcessor = PspEmulatorContext.GetInstance <CpuProcessor>();
this.HleInterop = PspEmulatorContext.GetInstance <HleInterop>();
}
public CpuEmiter(MipsMethodEmiter MipsMethodEmiter, InstructionReader InstructionReader, Stream MemoryStream, CpuProcessor CpuProcessor)
{
this.MipsMethodEmiter = MipsMethodEmiter;
this.InstructionReader = InstructionReader;
this.MemoryStream = MemoryStream;
this.CpuProcessor = CpuProcessor;
}
public override void InitializeComponent()
{
this.IsRunning = true;
this.CpuProcessor = PspEmulatorContext.GetInstance <CpuProcessor>();
this.GpuProcessor = PspEmulatorContext.GetInstance <GpuProcessor>();
this.PspAudio = PspEmulatorContext.GetInstance <PspAudio>();
this.PspConfig = PspEmulatorContext.PspConfig;
this.PspRtc = PspEmulatorContext.GetInstance <PspRtc>();
this.PspDisplay = PspEmulatorContext.GetInstance <PspDisplay>();
this.PspController = PspEmulatorContext.GetInstance <PspController>();
this.MipsEmiter = new MipsEmiter();
this.Kirk = new Kirk();
this.Kirk.kirk_init();
this.HleOutputHandler = PspEmulatorContext.GetInstance <HleOutputHandler>();
// @TODO FIX! New Instances!?
this.ThreadManager = PspEmulatorContext.GetInstance <HleThreadManager>();
this.SemaphoreManager = PspEmulatorContext.GetInstance <HleSemaphoreManager>();
this.EventFlagManager = PspEmulatorContext.GetInstance <HleEventFlagManager>();
this.MemoryManager = new HleMemoryManager(this.CpuProcessor.Memory);
this.ModuleManager = PspEmulatorContext.GetInstance <HleModuleManager>();
this.CallbackManager = PspEmulatorContext.GetInstance <HleCallbackManager>();
this.HleIoManager = PspEmulatorContext.GetInstance <HleIoManager>();
this.HleRegistryManager = PspEmulatorContext.GetInstance <HleRegistryManager>();
this.HleInterruptManager = PspEmulatorContext.GetInstance <HleInterruptManager>();
}
public LlePspCpu(string name, InjectContext injectContext, CpuProcessor cpuProcessor,
uint entryPoint = 0x1fc00000)
{
_name = name;
//this.CachedGetMethodCache = PspEmulatorContext.GetInstance<CachedGetMethodCache>();
CpuThreadState = new CpuThreadState(cpuProcessor);
EntryPoint = entryPoint;
}
public static AstNodeStm GlobalOptimize(CpuProcessor processor, AstNodeStm astNodeStm)
{
if (processor == null || processor.CpuConfig.EnableAstOptimizations)
{
return((AstNodeStm)(new AstOptimizerPsp(processor?.Memory)).Optimize(
ast.Statements(astNodeStm, ast.Return())));
}
return(astNodeStm);
}
public static AstNodeStm GlobalOptimize(CpuProcessor Processor, AstNodeStm AstNodeStm)
{
if (Processor == null || Processor.CpuConfig.EnableAstOptimizations)
{
return (AstNodeStm)(new AstOptimizerPsp(Processor != null ? Processor.Memory : null)).Optimize(ast.Statements(AstNodeStm, ast.Return()));
} else {
return AstNodeStm;
}
}
public static AstNodeStm GlobalOptimize(CpuProcessor Processor, AstNodeStm AstNodeStm)
{
if (Processor.PspConfig.StoredConfig.EnableAstOptimizations)
{
return (AstNodeStm)(new AstOptimizerPsp(Processor)).Optimize(ast.Statements(AstNodeStm, ast.Return()));
} else {
return AstNodeStm;
}
}
public void SetUp()
{
PspConfig = new PspConfig();
PspEmulatorContext = new PspEmulatorContext(PspConfig);
PspEmulatorContext.SetInstanceType <PspMemory, LazyPspMemory>();
Processor = PspEmulatorContext.GetInstance <CpuProcessor>();
MipsAssembler = new MipsAssembler(new PspMemoryStream(PspEmulatorContext.GetInstance <PspMemory>()));
}
public override void InitializeComponent()
{
CpuProcessor = PspEmulatorContext.GetInstance <CpuProcessor>();
PspRtc = PspEmulatorContext.GetInstance <PspRtc>();
ThreadManager = PspEmulatorContext.GetInstance <HleThreadManager>();
HleState = PspEmulatorContext.GetInstance <HleState>();
PspMemory = PspEmulatorContext.GetInstance <PspMemory>();
RegisterDevices();
}
public void TestMethod2()
{
var processor = new CpuProcessor();
var state = new CpuThreadState(processor);
var interpreter = new CpuInterpreter(state);
state.Gpr2 = 3;
state.Gpr3 = 7;
interpreter.Interpret(MipsAssembler.StaticAssembleInstructions(@"add r1, r2, r3").Instructions[0]);
Assert.Equal(3 + 7, (int)state.Gpr1);
}
public MipsMethodEmitter(CpuProcessor Processor, uint PC, bool DoDebug = false, bool DoLog = false)
{
this.Processor = Processor;
DynamicMethod = new DynamicMethod(
String.Format("DynamicMethod_0x{0:X}", PC),
typeof(void),
new Type[] { typeof(CpuThreadState) },
Assembly.GetExecutingAssembly().ManifestModule
);
}
public MethodCompilerThread(CpuProcessor cpuProcessor, MethodCache methodCache)
{
_cpuProcessor = cpuProcessor;
_methodCache = methodCache;
var thread = new Thread(Main)
{
Name = "MethodCompilerThread",
IsBackground = true
};
thread.Start();
}
internal InternalFunctionCompiler(CpuProcessor CpuProcessor, MipsMethodEmitter MipsMethodEmiter, DynarecFunctionCompiler DynarecFunctionCompiler, IInstructionReader InstructionReader, Action<uint> _ExploreNewPcCallback, uint EntryPC, bool DoLog)
{
this._ExploreNewPcCallback = _ExploreNewPcCallback;
this.CpuEmitter = new CpuEmitter(MipsMethodEmiter, InstructionReader, CpuProcessor);
this.MipsMethodEmitter = MipsMethodEmiter;
this.GlobalInstructionStats = CpuProcessor.GlobalInstructionStats;
this.InstructionStats = MipsMethodEmiter.InstructionStats;
this.NewInstruction = new Dictionary<string, bool>();
this.DoLog = DoLog;
this.CpuProcessor = CpuProcessor;
this.DynarecFunctionCompiler = DynarecFunctionCompiler;
this.InstructionReader = InstructionReader;
this.EntryPC = EntryPC;
}
public override void InitializeComponent()
{
this.HleCallbackManager = PspEmulatorContext.GetInstance <HleCallbackManager>();
this.CpuProcessor = PspEmulatorContext.GetInstance <CpuProcessor>();
this.HleInterop = PspEmulatorContext.GetInstance <HleInterop>();
//uint MaxHandlers = Enum.GetValues(typeof(PspInterrupts)).OfType<uint>().Max() + 1;
InterruptHandlers = new HleInterruptHandler[(int)PspInterrupts._MAX];
for (int n = 0; n < InterruptHandlers.Length; n++)
{
InterruptHandlers[n] = new HleInterruptHandler(
this,
(PspInterrupts)n,
HleCallbackManager
);
}
}
static public Action <CpuThreadState> CreateDelegateForPC(CpuProcessor CpuProcessor, Stream MemoryStream, uint EntryPC)
{
DateTime Start, End;
int InstructionsProcessed = 0;
Start = DateTime.Now;
try
{
return(_CreateDelegateForPC(CpuProcessor, MemoryStream, EntryPC, out InstructionsProcessed));
}
finally
{
End = DateTime.Now;
//Console.WriteLine("Generated 0x{0:X} {1} ({2})", EntryPC, End - Start, InstructionsProcessed);
}
}
public AstNodeExprCallDelegate MethodCacheInfoCallStaticPc(CpuProcessor cpuProcessor, uint pc)
{
if (DynarecConfig.FunctionCallWithStaticReferences)
{
var methodCacheInfo = cpuProcessor.MethodCache.GetForPc(pc);
return(Ast.CallDelegate(Ast.StaticFieldAccess(methodCacheInfo.StaticField.FieldInfo),
Ast.CpuThreadStateExpr));
}
else
{
return(Ast.CallDelegate(
Ast.CallInstance(Ast.CpuThreadStateExpr,
(Func <uint, Action <CpuThreadState> >)CpuThreadStateMethods.GetFuncAtPc, pc),
Ast.CpuThreadStateExpr));
}
}
public MipsMethodEmiter(MipsEmiter MipsEmiter, CpuProcessor Processor)
{
this.Processor = Processor;
if (!InitializedOnce)
{
Field_GPRList = new FieldInfo[32];
Field_FPRList = new FieldInfo[32];
for (int n = 0; n < 32; n++)
{
Field_GPRList[n] = typeof(CpuThreadState).GetField("GPR" + n);
Field_FPRList[n] = typeof(CpuThreadState).GetField("FPR" + n);
}
InitializedOnce = true;
}
UniqueCounter++;
#if USE_DYNAMIC_METHOD
DynamicMethod = new DynamicMethod(
"",
typeof(void),
new Type[] { typeof(CpuThreadState) },
Assembly.GetExecutingAssembly().ManifestModule
);
ILGenerator = DynamicMethod.GetILGenerator();
#else
TypeBuilder = MipsEmiter.ModuleBuilder.DefineType("type" + UniqueCounter, TypeAttributes.Sealed | TypeAttributes.Public);
MethodBuilder = TypeBuilder.DefineMethod(
name: MethodName = "method" + UniqueCounter,
attributes: MethodAttributes.Static | MethodAttributes.Public | MethodAttributes.UnmanagedExport | MethodAttributes.Final,
returnType: typeof(void),
parameterTypes: new Type[] { typeof(CpuThreadState) }
);
ILGenerator = MethodBuilder.GetILGenerator();
#endif
}
public MipsMethodEmiter(MipsEmiter MipsEmiter, CpuProcessor Processor)
{
this.Processor = Processor;
if (!InitializedOnce)
{
Field_GPRList = new FieldInfo[32];
Field_FPRList = new FieldInfo[32];
for (int n = 0; n < 32; n++)
{
Field_GPRList[n] = typeof(CpuThreadState).GetField("GPR" + n);
Field_FPRList[n] = typeof(CpuThreadState).GetField("FPR" + n);
}
InitializedOnce = true;
}
UniqueCounter++;
#if USE_DYNAMIC_METHOD
DynamicMethod = new DynamicMethod(
"",
typeof(void),
new Type[] { typeof(CpuThreadState) },
Assembly.GetExecutingAssembly().ManifestModule
);
ILGenerator = DynamicMethod.GetILGenerator();
#else
TypeBuilder = MipsEmiter.ModuleBuilder.DefineType("type" + UniqueCounter, TypeAttributes.Sealed | TypeAttributes.Public);
MethodBuilder = TypeBuilder.DefineMethod(
name: MethodName = "method" + UniqueCounter,
attributes: MethodAttributes.Static | MethodAttributes.Public | MethodAttributes.UnmanagedExport | MethodAttributes.Final,
returnType: typeof(void),
parameterTypes: new Type[] { typeof(CpuThreadState) }
);
ILGenerator = MethodBuilder.GetILGenerator();
#endif
}
public override void InitializeComponent()
{
this.Processor = PspEmulatorContext.GetInstance <CpuProcessor>();
this.HleCallbackManager = PspEmulatorContext.GetInstance <HleCallbackManager>();
this.HleInterruptManager = PspEmulatorContext.GetInstance <HleInterruptManager>();
}
private AstOptimizerPsp(CpuProcessor Processor)
{
this.Processor = Processor;
}
public static AstNodeStm Optimize(this AstNodeStm astNodeStm, CpuProcessor cpuProcessor) => AstOptimizerPsp.GlobalOptimize(cpuProcessor, astNodeStm);
static private Action <CpuThreadState> _CreateDelegateForPC(CpuProcessor CpuProcessor, Stream MemoryStream, uint EntryPC, out int InstructionsProcessed)
{
InstructionsProcessed = 0;
if (EntryPC == 0)
{
if (MemoryStream is PspMemoryStream)
{
throw (new InvalidOperationException("EntryPC can't be NULL"));
}
}
if (CpuProcessor.PspConfig.TraceJIT)
{
Console.WriteLine("Emiting EntryPC=0x{0:X}", EntryPC);
}
MemoryStream.Position = EntryPC;
if ((MemoryStream.Length >= 8) && new BinaryReader(MemoryStream).ReadUInt64() == 0x0000000003E00008)
{
Console.WriteLine("NullSub detected at 0x{0:X}!", EntryPC);
}
var InstructionReader = new InstructionReader(MemoryStream);
var MipsMethodEmiter = new MipsMethodEmiter(MipsEmiter, CpuProcessor);
var ILGenerator = MipsMethodEmiter.ILGenerator;
var CpuEmiter = new CpuEmiter(MipsMethodEmiter, InstructionReader, MemoryStream, CpuProcessor);
uint PC;
uint EndPC = (uint)MemoryStream.Length;
uint MinPC = uint.MaxValue, MaxPC = uint.MinValue;
var Labels = new SortedDictionary <uint, Label>();
var BranchesToAnalyze = new Queue <uint>();
var AnalyzedPC = new HashSet <uint>();
Labels[EntryPC] = ILGenerator.DefineLabel();
BranchesToAnalyze.Enqueue(EntryPC);
// PASS1: Analyze and find labels.
PC = EntryPC;
//Debug.WriteLine("PASS1: (PC={0:X}, EndPC={1:X})", PC, EndPC);
var GlobalInstructionStats = CpuProcessor.GlobalInstructionStats;
var InstructionStats = new Dictionary <string, uint>();
var NewInstruction = new Dictionary <string, bool>();
int MaxNumberOfInstructions = 8 * 1024;
//int MaxNumberOfInstructions = 60;
while (BranchesToAnalyze.Count > 0)
{
bool EndOfBranchFound = false;
for (PC = BranchesToAnalyze.Dequeue(); PC < EndPC; PC += 4)
{
// If already analyzed, stop scanning this branch.
if (AnalyzedPC.Contains(PC))
{
break;
}
AnalyzedPC.Add(PC);
//Console.WriteLine("%08X".Sprintf(PC));
if (AnalyzedPC.Count > MaxNumberOfInstructions)
{
throw (new InvalidDataException("Code sequence too long: >= " + MaxNumberOfInstructions + ""));
}
MinPC = Math.Min(MinPC, PC);
MaxPC = Math.Max(MaxPC, PC);
//Console.WriteLine(" PC:{0:X}", PC);
CpuEmiter.LoadAT(PC);
var BranchInfo = GetBranchInfo(CpuEmiter.Instruction.Value);
if (CpuProcessor.PspConfig.LogInstructionStats)
{
var InstructionName = GetInstructionName(CpuEmiter.Instruction.Value, null);
if (!InstructionStats.ContainsKey(InstructionName))
{
InstructionStats[InstructionName] = 0;
}
InstructionStats[InstructionName]++;
if (!GlobalInstructionStats.ContainsKey(InstructionName))
{
NewInstruction[InstructionName] = true;
GlobalInstructionStats[InstructionName] = 0;
}
GlobalInstructionStats[InstructionName]++;
//var GlobalInstructionStats = CpuProcessor.GlobalInstructionStats;
//var InstructionStats = new Dictionary<string, uint>();
//var NewInstruction = new Dictionary<string, bool>();
}
// Branch instruction.
if ((BranchInfo & CpuBranchAnalyzer.Flags.JumpInstruction) != 0)
{
//Console.WriteLine("Instruction");
EndOfBranchFound = true;
continue;
}
else if ((BranchInfo & CpuBranchAnalyzer.Flags.BranchOrJumpInstruction) != 0)
{
var BranchAddress = CpuEmiter.Instruction.GetBranchAddress(PC);
Labels[BranchAddress] = ILGenerator.DefineLabel();
BranchesToAnalyze.Enqueue(BranchAddress);
// Jump Always performed.
/*
* if ((BranchInfo & CpuBranchAnalyzer.Flags.JumpAlways) != 0)
* {
* EndOfBranchFound = true;
* continue;
* }
*/
}
else if ((BranchInfo & CpuBranchAnalyzer.Flags.SyscallInstruction) != 0)
{
// On this special Syscall
if (CpuEmiter.Instruction.CODE == FunctionGenerator.NativeCallSyscallCode)
{
//PC += 4;
break;
}
}
// A Jump Always found. And we have also processed the delayed branch slot. End the branch.
if (EndOfBranchFound)
{
EndOfBranchFound = false;
break;
}
}
}
// PASS2: Generate code and put labels;
Action <uint> _EmitCpuInstructionAT = (_PC) =>
{
if (CpuProcessor.PspConfig.TraceJIT)
{
ILGenerator.Emit(OpCodes.Ldarg_0);
ILGenerator.Emit(OpCodes.Ldc_I4, _PC);
ILGenerator.Emit(OpCodes.Call, typeof(CpuThreadState).GetMethod("Trace"));
Console.WriteLine(" PC=0x{0:X}", _PC);
}
CpuEmiter.LoadAT(_PC);
CpuEmiterInstruction(CpuEmiter.Instruction.Value, CpuEmiter);
};
uint InstructionsEmitedSinceLastWaypoint = 0;
Action StorePC = () =>
{
MipsMethodEmiter.SavePC(PC);
};
Action <bool> EmitInstructionCountIncrement = (bool CheckForYield) =>
{
if (!CpuProcessor.PspConfig.CountInstructionsAndYield)
{
return;
}
//Console.WriteLine("EmiteInstructionCountIncrement: {0},{1}", InstructionsEmitedSinceLastWaypoint, CheckForYield);
if (InstructionsEmitedSinceLastWaypoint > 0)
{
MipsMethodEmiter.SaveStepInstructionCount(() =>
{
MipsMethodEmiter.LoadStepInstructionCount();
ILGenerator.Emit(OpCodes.Ldc_I4, InstructionsEmitedSinceLastWaypoint);
//ILGenerator.Emit(OpCodes.Add);
ILGenerator.Emit(OpCodes.Sub);
});
//ILGenerator.Emit(OpCodes.Ldc_I4, 100);
//ILGenerator.EmitCall(OpCodes.Call, typeof(Console).GetMethod("WriteLine"), new Type[] { typeof(int) });
InstructionsEmitedSinceLastWaypoint = 0;
}
if (CheckForYield)
{
if (!CpuProcessor.PspConfig.BreakInstructionThreadSwitchingForSpeed)
{
var NoYieldLabel = ILGenerator.DefineLabel();
MipsMethodEmiter.LoadStepInstructionCount();
ILGenerator.Emit(OpCodes.Ldc_I4_0);
ILGenerator.Emit(OpCodes.Bgt, NoYieldLabel);
//ILGenerator.Emit(OpCodes.Ldc_I4, 1000000);
//ILGenerator.Emit(OpCodes.Blt, NoYieldLabel);
MipsMethodEmiter.SaveStepInstructionCount(() =>
{
ILGenerator.Emit(OpCodes.Ldc_I4_0);
});
StorePC();
ILGenerator.Emit(OpCodes.Ldarg_0);
ILGenerator.Emit(OpCodes.Call, typeof(CpuThreadState).GetMethod("Yield"));
//ILGenerator.Emit(OpCodes.Call, typeof(GreenThread).GetMethod("Yield"));
ILGenerator.MarkLabel(NoYieldLabel);
}
}
};
Action EmitCpuInstruction = () =>
{
if (CpuProcessor.NativeBreakpoints.Contains(PC))
{
ILGenerator.Emit(OpCodes.Call, typeof(DebugUtils).GetMethod("IsDebuggerPresentDebugBreak"));
}
// Marks label.
if (Labels.ContainsKey(PC))
{
EmitInstructionCountIncrement(false);
ILGenerator.MarkLabel(Labels[PC]);
}
_EmitCpuInstructionAT(PC);
PC += 4;
InstructionsEmitedSinceLastWaypoint++;
};
//Debug.WriteLine("PASS2: MinPC:{0:X}, MaxPC:{1:X}", MinPC, MaxPC);
// Jumps to the entry point.
ILGenerator.Emit(OpCodes.Br, Labels[EntryPC]);
for (PC = MinPC; PC <= MaxPC;)
{
uint CurrentInstructionPC = PC;
Instruction CurrentInstruction = InstructionReader[PC];
InstructionsProcessed++;
/*
* if (!AnalyzedPC.Contains(CurrentInstructionPC))
* {
* // Marks label.
* if (Labels.ContainsKey(PC))
* {
* ILGenerator.MarkLabel(Labels[PC]);
* }
*
*
* PC += 4;
* continue;
* }
*/
var BranchInfo = GetBranchInfo(CurrentInstruction.Value);
// Delayed branch instruction.
if ((BranchInfo & CpuBranchAnalyzer.Flags.BranchOrJumpInstruction) != 0)
{
InstructionsEmitedSinceLastWaypoint += 2;
EmitInstructionCountIncrement(true);
var BranchAddress = CurrentInstruction.GetBranchAddress(PC);
if ((BranchInfo & CpuBranchAnalyzer.Flags.JumpInstruction) != 0)
{
// Marks label.
if (Labels.ContainsKey(PC))
{
ILGenerator.MarkLabel(Labels[PC]);
}
_EmitCpuInstructionAT(PC + 4);
_EmitCpuInstructionAT(PC + 0);
PC += 8;
}
else
{
// Branch instruction.
EmitCpuInstruction();
//if ((BranchInfo & CpuBranchAnalyzer.Flags.Likely) != 0)
if (BranchInfo.HasFlag(CpuBranchAnalyzer.Flags.Likely))
{
//Console.WriteLine("Likely");
// Delayed instruction.
CpuEmiter._branch_likely(() =>
{
EmitCpuInstruction();
});
}
else
{
//Console.WriteLine("Not Likely");
// Delayed instruction.
EmitCpuInstruction();
}
if (CurrentInstructionPC + 4 != BranchAddress)
{
if (Labels.ContainsKey(BranchAddress))
{
CpuEmiter._branch_post(Labels[BranchAddress]);
}
// Code not reached.
else
{
}
}
}
}
// Normal instruction.
else
{
// Syscall instruction.
if ((BranchInfo & CpuBranchAnalyzer.Flags.SyscallInstruction) != 0)
{
StorePC();
}
EmitCpuInstruction();
if ((BranchInfo & CpuBranchAnalyzer.Flags.SyscallInstruction) != 0)
{
// On this special Syscall
if (CurrentInstruction.CODE == FunctionGenerator.NativeCallSyscallCode)
{
//PC += 4;
break;
}
}
}
}
if (CpuProcessor.PspConfig.ShowInstructionStats)
{
Console.Error.WriteLine("-------------------------- {0:X}-{1:X} ", MinPC, MaxPC);
foreach (var Pair in InstructionStats.OrderByDescending(Item => Item.Value))
{
Console.Error.Write("{0} : {1}", Pair.Key, Pair.Value);
if (NewInstruction.ContainsKey(Pair.Key))
{
Console.Error.Write(" <-- NEW!");
}
Console.Error.WriteLine("");
}
}
//if (BreakPoint) IsDebuggerPresentDebugBreak();
Action <CpuThreadState> Delegate = MipsMethodEmiter.CreateDelegate();
return(Delegate);
}
public MethodCompilerThread(CpuProcessor CpuProcessor, MethodCache MethodCache)
{
this.CpuProcessor = CpuProcessor;
this.MethodCache = MethodCache;
this.Thread = new Thread(Main)
{
IsBackground = true
};
this.Thread.Start();
}
//public readonly Dictionary<string, uint> InstructionStats = new Dictionary<string, uint>();
public MipsMethodEmitter(CpuProcessor Processor, uint PC, bool DoDebug = false, bool DoLog = false)
{
this.Processor = Processor;
this.PC = PC;
}
static public AstNodeExprCallDelegate MethodCacheInfoCallStaticPC(CpuProcessor CpuProcessor, uint PC)
{
var MethodCacheInfo = CpuProcessor.MethodCache.GetForPC(PC);
return ast.CallDelegate(ast.StaticFieldAccess(MethodCacheInfo.StaticField.FieldInfo), CpuThreadStateArgument());
}
public void SetUp()
{
Processor = PspEmulatorContext.GetInstance <CpuProcessor>();
CpuThreadState = new CpuThreadState(Processor);
}
//public readonly Dictionary<string, uint> InstructionStats = new Dictionary<string, uint>();
public MipsMethodEmitter(CpuProcessor processor, uint pc, bool doDebug = false, bool doLog = false)
{
_processor = processor;
_pc = pc;
}
public CpuEmiter(MipsMethodEmiter MipsMethodEmiter, IInstructionReader InstructionReader, CpuProcessor CpuProcessor)
{
this.MipsMethodEmiter = MipsMethodEmiter;
this.InstructionReader = InstructionReader;
this.CpuProcessor = CpuProcessor;
}