public void Rebuild(CPU _CPU)
{
blocks.Clear();
AddBlock(0, 0, _CPU);
Stack<Block> todo = new Stack<Block>();
todo.Push(_CPU);
Block b;
while (todo.Count > 0)
{
b = todo.Pop();
if (b == null) break;
foreach (Edge e in b.Edges)
{
for (int bidx = 0; bidx < 2; bidx++)
{
if (!blocks.ContainsValue(e.Blocks[1]))
{
Vector3 pos = _CPU.transform.InverseTransformPoint(e.Blocks[bidx].transform.position);
AddBlock((int)(pos.x + 0.5f), (int)(pos.y + 0.5f), e.Blocks[bidx]);
todo.Push(e.Blocks[bidx]);
}
}
}
}
}
protected Instruction(int code, string[] args, ref CPU cpu, ref Function parent_function)
{
this.code = code;
this.args = args;
this.cpu_ref = cpu;
this.fun = parent_function;
}
static void Main(string[] args)
{
Console.Title = "Test";
Instruction[] Unused;
byte[] ProgMem = Assembler.Assemble(File.ReadAllText("Test.e64"), out Unused);
Dump(ProgMem);
//Console.WriteLine("Unused:");
//Console.WriteLine(string.Join(", ", Unused));
CPU Elisa = new CPU(ProgMem);
Elisa.Ports.Add(0, (Data, IsRead) => {
Console.Write((char)Data);
return 0;
});
try {
while (!Elisa.Halted)
Elisa.Step();
} catch (Exception E) {
Console.WriteLine(E.Message);
throw;
}
Console.ReadLine();
}
public static CPU GetParsedCpu(string filename)
{
lib8081.CPU cpu = new CPU();
var fundict = GetParsedFunctions(filename, ref cpu, false);
cpu.SetFunctions(fundict);
return cpu;
}
public InstructionsEncoder(CPU cpu)
{
if (cpu == null)
throw new ArgumentNullException("cpu");
this.cpu = cpu;
}
static void Main(string[] args)
{
PC pc = new PC();
GPU gpu = new GPU();
gpu.Name = "Titan X";
gpu.Memory = "12";
List<GPU> gpus = new List<GPU>();
gpus.Add(gpu);
gpus.Add(gpu);
RAM ram = new RAM();
RAM ram2 = new RAM();
List<RAM> rams = new List<RAM>();
ram.Memory = 8;
ram2.Memory = 4;
rams.Add(ram);
rams.Add(ram);
rams.Add(ram2);
rams.Add(ram2);
CPU cpu = new CPU();
cpu.Cores = 4;
cpu.Speed = 3.5;
pc.CPU = cpu;
pc.GPU = gpus;
pc.RAM = rams;
pc.PrintData();
}
public Debugger(CPU cpu)
{
InitializeComponent();
_cpu = cpu;
InitDebugger();
UpdateDebugger();
}
public Computer(string hostName, string description, CPU cpu, RAM ram, HDD hdd)
{
HostName = hostName;
Description = description;
this.Cpu =cpu;
this.Ram = ram;
this.Hdd = hdd;
}
public InstructionsDecoder(CPU cpu)
{
if (cpu == null)
throw new ArgumentNullException("cpu");
this.cpu = cpu;
knownInstructions = cpu.DecodeTable.KnownInstructions;
}
public override Server MakeServer()
{
var cpu = new CPU(2, 128);
var ram = new RAM(8);
var hardDrives = new List<HardDrive>() { new HardDrive(500, true, 2), new HardDrive(500, true, 2) };
var videoCard = new VideoCard(true);
var motherboard = new Motherboard();
var server = new Server(AbstractComputer.ComputerType.PC, cpu, ram, hardDrives, videoCard, null, motherboard);
return server;
}
public override PC MakePC()
{
var cpu = new CPU(2, 64);
var ram = new RAM(4);
var hardDrives = new List<HardDrive>() { new HardDrive(2000, false, 0) };
var videoCard = new VideoCard(true);
var motherboard = new Motherboard();
var pc = new PC(AbstractComputer.ComputerType.PC, cpu, ram, hardDrives, videoCard, null, motherboard);
return pc;
}
public override Laptop MakeLaptop()
{
var cpu = new CPU(2, 64);
var ram = new RAM(16);
var hardDrives = new List<HardDrive>() { new HardDrive(1000, false, 0) };
var videoCard = new VideoCard(false);
var motherboard = new Motherboard();
var battery = new Battery();
var laptop = new Laptop(AbstractComputer.ComputerType.PC, cpu, ram, hardDrives, videoCard, battery, motherboard);
return laptop;
}
public IPersonalComputer GetPersonalComputer()
{
var cpu = new CPU(PcCpuCores, LaptopCpuBits);
var ram = new RAM(PcRam);
var hardDrive = new HardDrive(PcHardDriveCapacity, false);
var videoCard = new VideoCard(false);
var hardDrives = new List<HardDrive>();
hardDrives.Add(hardDrive);
return new PersonalComputer(cpu, ram, hardDrives, videoCard);
}
public void Execute(CPU cpu)
{
if (KernelModeOnly && !cpu.KernelMode)
{
throw new Exception("Attemp to execute privileged instruction from user mode");
}
cpu.MemoryAccessSize = _memoryAccessSize;
ExecuteImpl(cpu);
}
private void Initialize()
{
_cpu = new CPU();
listView1.Items.Clear();
listView2.Items.Clear();
listView4.Items.Clear();;
for (int i = 0; i < 16; i++)
{
listView1.Items.Add(new CustomListItem(i, 0, "$"));
listView2.Items.Add(new CustomListItem(i, 0));
}
toolStripStatusLabel2.Text = "0";
toolStripStatusLabel4.Text = "0";
stepToolStripMenuItem.Enabled = false;
runToolStripMenuItem.Enabled = false;
listView1.Enabled = true;
listView2.Enabled = true;
if (_fileLines.Length > 0)
{
Dictionary<int, string> errors = _cpu.ParseCode(_fileLines);
if (errors.Count > 0)
{
string errorMessage = errors.Aggregate("", (current, error) => current + ("Line " + error.Key + ": " + error.Value + Environment.NewLine));
MessageBox.Show(errorMessage.Trim(), "Parsing Error", MessageBoxButtons.OK, MessageBoxIcon.Error);
}
else
{
stepToolStripMenuItem.Enabled = true;
runToolStripMenuItem.Enabled = true;
listView4.Items.Clear();
foreach(string instruction in _fileLines)
{
listView4.Items.Add(instruction.Trim());
}
}
}
tableLayoutPanel1.RowStyles.Clear();
tableLayoutPanel1.ColumnStyles.Clear();
tableLayoutPanel1.Controls.Clear();
tableLayoutPanel1.RowCount = 0;
tableLayoutPanel1.ColumnCount = 0;
}
public ILaptop GetLaptop()
{
var cpu = new CPU(LaptopCpuCores, LaptopCpuBits);
var ram = new RAM(LaptopRam);
var hardDrive = new HardDrive(LaptopHardDriveCapacity, false);
var videoCard = new VideoCard(false);
var battery = new LaptopBattery();
var hardDrives = new List<HardDrive>();
hardDrives.Add(hardDrive);
return new Laptop(cpu, ram, hardDrives, videoCard, battery);
}
public IServer GetServer()
{
var cpu = new CPU(ServerCpuCores, ServerCpuBits);
var ram = new RAM(ServerRam);
var hardDrive = new HardDrive(ServerHardDriveCapacity, true);
var videoCard = new VideoCard(true);
var hardDrives = new List<HardDrive>();
for (int i = 0; i < ServerNumberOfHardDrives; i++)
{
hardDrives.Add(hardDrive);
}
return new Server(cpu, ram, hardDrives, videoCard);
}
private static void PreprocInclude(ref CPU cpu, ref Dictionary<string, Function> funcs, String[] args)
{
// Switch on device.
if (args.Length >= 2)
{
switch (args[1])
{
// MORE ungodly case statements.
case "trm":
case "terminal":
cpu.AddDevice("trm", new Terminal());
break;
}
}
}
public AbstractComputer(ComputerType type, CPU cpu, RAM ram, IEnumerable<HardDrive> hardDrives, VideoCard videoCard, IBattery battery, IMotherboard motherBoard)
{
this.MachineType = type;
this.Cpu = cpu;
this.Ram = ram;
this.HardDrives = hardDrives;
//// TODO: BUG was here
////if (type != ComputerType.LAPTOP && type != ComputerType.PC)
////{
//// VideoCard.IsMonochrome = true;
////}
this.VideoCard = videoCard;
this.Battery = battery;
this.Motherboard = motherBoard;
}
public static Instruction GetNewInstruction(String name, String[] args, ref CPU cpu, ref Function fun)
{
// Ungodly case statement.
switch (name)
{
case "nop":
return new lib8081.instructions.p8081.InstructionNOP(0, args, ref cpu, ref fun);
case "add":
return new lib8081.instructions.p8081.InstructionAdd(1, args, ref cpu, ref fun);
case "inc":
return new lib8081.instructions.p8081.InstructionInc(2, args, ref cpu, ref fun);
case "put":
return new lib8081.instructions.p8081.InstructionAdd(3, args, ref cpu, ref fun);
}
throw new Exception(String.Format("No valid instruction with name {0}", name));
}
public IHttpActionResult Get()
{
SystemInfo systemInfo = new SystemInfo();
CPU cpu=new CPU();
string cpuNO = "当前CPU核心数：" + systemInfo.ProcessorCount.ToString() + "个";
cpu.NO= systemInfo.ProcessorCount.ToString();
string cpuUser = "******" + systemInfo.CpuLoad.ToString("0.0") + "%";
//cpu.Load = systemInfo.CpuLoad.ToString("0.0");
cpu.Load = (systemInfo.CpuLoad).ToString("0.00");
var memoryFree = systemInfo.MemoryAvailable / systemInfo.PhysicalMemory * 100;
string mem = "可用内存使用率：" + memoryFree.ToString("0.000") + "%";
cpu.MemoryFree = memoryFree.ToString("0.000");
cpu.MemoryWorking = systemInfo.MemoryWorking.ToString(CultureInfo.InvariantCulture);
cpu.NowTime = DateTime.Now.ToString("yyyy-MM-dd HH:mm:ss");
return Ok(cpu);
}
static void Main(string[] args)
{
if (args.Length != 2 || args.Length != 3)
printHelp();
switch(args[0])
{
case "--run":
break;
case "--assemble":
break;
default:
printHelp();
}
CPU c = new CPU("test.bin");
while (!c.IsHalt)
c.ExecuteOpcode();
Console.WriteLine("CPU Halt!");
}
//void renderInfoPane(float left, float top, float width, float height
Motherboard fabricateDebugRig()
{
Motherboard returnMobo = new Motherboard();
returnMobo.name = "Mother of All Boards";
CPU debugCPU = new CPU ("Hammond DebugHammer 750XL", Company.COMPUTECH, 125.0f, DEBUG_INTERFACE, 30, 0, 1, 6, 32);
GPU debugGPU = new GPU ("Zhu Industries Mothra 8800", Company.COMPUTECH, 125.0f, DEBUG_INTERFACE, 20, 0, 3, 1);
HDD debugHDD = new HDD ("DataPlatter Stack 5", Company.COMPUTECH, 125.0f, DEBUG_INTERFACE, 2, 0, 10, 8);
RAM debugRAM = new RAM ("RYAM Interceptor 1 MB", Company.COMPUTECH, 125.0f, DEBUG_INTERFACE, 1, 0, 1, 10, 1);
PowerSupply debugPower = new PowerSupply ("ArEmEs 200W Power Supply", Company.COMPUTECH, 125.0f, DEBUG_INTERFACE, 0, 0, 200);
CompInput debugInput = new CompInput ("Cobra Katana", Company.COMPUTECH, 125.0f, DEBUG_INTERFACE, 0, 0, 50, 60, false);
CompOutput debugOutput = new CompOutput ("AudiVisual AV2350", Company.COMPUTECH, 125.0f, DEBUG_INTERFACE, 0, 0, 320, 30, 5);
CompNetwork debugNet = new CompNetwork ("Digiline Dial-up Package", Company.COMPUTECH, 125.0f, DEBUG_INTERFACE, 0, 0, NetworkType.DIALUP, 40, 4);
Chassis debugChassis = new Chassis ("CompuTech Tower of Power", Company.COMPUTECH, 125.0f, DEBUG_INTERFACE, 0, 0, 10);
GPU badGPU = new GPU ("Bad GPU", Company.COMPUTECH, 125.0f, "Pudding Cup Interface", 20, 0, 3, 1);
returnMobo.CPUInterface = DEBUG_INTERFACE;
returnMobo.GPUInterface = DEBUG_INTERFACE;
returnMobo.HDDInterface = DEBUG_INTERFACE;
returnMobo.RAMInterface = DEBUG_INTERFACE;
returnMobo.powerInterface = DEBUG_INTERFACE;
returnMobo.compInputInterface = DEBUG_INTERFACE;
returnMobo.compOutputInterface = DEBUG_INTERFACE;
returnMobo.networkInterface = DEBUG_INTERFACE;
returnMobo.formFactor = DEBUG_INTERFACE;
returnMobo.plugIn(debugCPU);
returnMobo.plugIn(debugGPU);
returnMobo.plugIn(debugHDD);
returnMobo.plugIn(debugRAM);
returnMobo.plugIn(debugInput);
returnMobo.plugIn(debugOutput);
returnMobo.plugIn(debugNet);
returnMobo.plugIn(debugPower);
returnMobo.plugIn(debugChassis);
return returnMobo;
}
public static void Halt(CPU aThis)
{
}
public ConsoleSystem(int mapper, byte[] prgRom, byte[] chrRom, byte[] prgRam)
{
Memory = new CPUMemoryMap(mapper, prgRom, chrRom, prgRam);
CPU = new CPU(Memory);
PPU = new PPU();
}
public static void Store(IntPtr address, sbyte value)
{
CPU.Write8((ulong)address.ToInt64(), (byte)value);
}
public static void Store16(IntPtr address, uint offset, ushort value)
{
CPU.Write16((ulong)(address.ToInt64() + offset), value);
}
public static ushort Load16(IntPtr address)
{
return(CPU.Read16((ulong)address.ToInt64()));
}
public static void Store(IntPtr address, uint value)
{
CPU.Write32((ulong)address.ToInt64(), value);
}
public static ushort Load16(IntPtr address, int offset)
{
return(CPU.Read16((ulong)(address.ToInt64() + offset)));
}
public static void Store(IntPtr address, uint offset, long value)
{
CPU.Write64((ulong)(address.ToInt64() + offset), (ulong)value);
}
public Laptop(CPU cpu, RAM ram, IEnumerable<HardDrive> hardDrives, VideoCard videoCard, LaptopBattery battery)
: base(cpu, ram, hardDrives, videoCard)
{
this.Battery = battery;
}
public static uint Load32(IntPtr address)
{
return(CPU.Read32((ulong)address.ToInt64()));
}
public static uint Load32(IntPtr address, uint offset)
{
return(CPU.Read32((ulong)(address.ToInt64() + offset)));
}
public override InstructionBase.Microcode GetExecutableMicrocode(CPU cpu)
{
return(new Microcode(this, cpu));
}
public Microcode(InstructionBase instruction, CPU processor) : base(instruction, processor)
{
}
public static void UpdateIDT(CPU aThis, bool aEnableInterruptsImmediately)
{
}
public LDA_IndirectY(CPU cpu) : base(cpu)
{
}
public static void Store(IntPtr address, int offset, int value)
{
CPU.Write32((ulong)(address.ToInt64() + offset), (uint)value);
}
public LDA_Immediate(CPU cpu) : base(cpu)
{
}
public static void Store(IntPtr address, long value)
{
CPU.Write64((ulong)address.ToInt64(), (ulong)value);
}
public LDA_ZeroPageX(CPU cpu) : base(cpu)
{
}
public static void Store(IntPtr address, short value)
{
CPU.Write16((ulong)address.ToInt64(), (ushort)value);
}
public LDA_AbsoluteX(CPU cpu) : base(cpu)
{
}
public static byte Load8(IntPtr address, int offset)
{
return(CPU.Read8((ulong)(address.ToInt64() + offset)));
}
public static void InitFloat(CPU aThis)
{
}
public static byte Load8(IntPtr address)
{
return(CPU.Read8((ulong)address.ToInt64()));
}
public static void InitSSE(CPU aThis)
{
}
private byte GetDataToDrawOnRow(CPU cpu, int row)
{
return(cpu.Memory.GetByte(cpu.VIRegister + row));
}
public static ulong Load64(IntPtr address)
{
return(CPU.Read64((ulong)address.ToInt64()));
}
public SpecialValueTester(CPU cpu)
{
this.cpu = cpu;
}
private int GetXCoordinate(InstructionDTO instructionData, CPU cpu)
{
return(cpu.Registers[instructionData.X] % Display.horizontalSize);
}
public InstructionSBC(CPU cpu, AddressingModes addressingMode)
: base(cpu, OpCodes.SBC, addressingMode)
{
}
public Server(CPU cpu, RAM ram, HardDriver hardDriver, IDrawable videoCard)
: base(cpu, ram, hardDriver, videoCard)
{
}
private int GetYCoordinate(InstructionDTO instructionData, CPU cpu)
{
return(cpu.Registers[instructionData.Y] % Display.verticalSize);
}
public bool plugIn(Part part)
{
bool returnValue = false;
if (part.GetType() == typeof(CPU))
{
if (part.partInterface == CPUInterface)
{
this.cpu = (CPU) part;
returnValue = true;
}
}
if (part.GetType() == typeof(GPU))
{
if (part.partInterface == GPUInterface)
{
this.gpu = (GPU)part;
returnValue = true;
}
}
if (part.GetType() == typeof(HDD))
{
if (part.partInterface == HDDInterface)
{
this.hdd = (HDD)part;
returnValue = true;
}
}
if (part.GetType() == typeof(RAM))
{
if (part.partInterface == RAMInterface)
{
this.ram = (RAM)part;
returnValue = true;
}
}
if (part.GetType() == typeof(CompInput))
{
if (part.partInterface == compInputInterface)
{
this.input = (CompInput)part;
returnValue = true;
}
}
if (part.GetType() == typeof(CompOutput))
{
if (part.partInterface == compOutputInterface)
{
this.output = (CompOutput)part;
returnValue = true;
}
}
if (part.GetType() == typeof(CompNetwork))
{
if (part.partInterface == networkInterface)
{
this.network = (CompNetwork) part;
returnValue = true;
}
}
if (part.GetType() == typeof(PowerSupply))
{
if (part.partInterface == powerInterface)
{
this.pSupply = (PowerSupply)part;
returnValue = true;
}
}
if (part.GetType() == typeof(Chassis))
{
if (part.partInterface == formFactor)
{
this.chassis = (Chassis)part;
returnValue = true;
}
}
return returnValue;
}
public Motherboard(string name, float price, float defectiveChance, string CPUI, string GPUI, string HDDI, string RAMI,
string powerI, string compInputI, string compOutputI, string networkI, string formFactor,
CPU cpu, GPU gpu, HDD hdd, RAM ram, CompInput input, CompOutput output, CompNetwork network,
PowerSupply pSupply, Chassis chassis)
{
this.name = name;
this.price = price;
this.defectiveChance = defectiveChance;
this.CPUInterface = CPUI;
this.GPUInterface = GPUI;
this.HDDInterface = HDDI;
this.RAMInterface = RAMI;
this.powerInterface = powerI;
this.compInputInterface = compInputI;
this.compOutputInterface = compOutputI;
this.networkInterface = networkI;
this.formFactor = formFactor;
this.cpu = cpu;
this.gpu = gpu;
this.hdd = hdd;
this.ram = ram;
this.input = input;
this.output = output;
this.network = network;
this.pSupply = pSupply;
this.chassis = chassis;
}
public Computer()
{
this.processor = new CPU();
this.ram = new Memory();
this.hd = new HardDrive();
}
/// <summary>
/// Runs an normal opcode instruction
/// </summary>
/// <param name="opcode">The opcode to run</param>
/// <param name="n">The argument (if any) of the opcode</param>
/// <returns>Whether a breakpoint was found</returns>
internal static BreakpointKinds Check(CPU cpu, byte opcode, ushort n, bool ignoreBreakpoints)
{
switch (opcode)
{
// NOP: No Operation
case 0x00: { break; }
// LD BC,nn: Load 16-bit immediate into BC
case 0x01: { break; }
// LD (BC),A: Save A to address pointed by BC
case 0x02:
{
if (!ignoreBreakpoints && cpu.WriteBreakpoints.Contains(cpu.Registers.BC))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.BC;
return BreakpointKinds.WRITE;
}
break;
}
// INC BC: Increment 16-bit BC
case 0x03: { break; }
// INC B: Increment B
case 0x04: { break; }
// DEC B: Decrement B
case 0x05: { break; }
// LD B,n: Load 8-bit immediate into B
case 0x06: { break; }
// RLC A: Rotate A left with carry
case 0x07: { break; }
// LD (nn),SP: Save SP to given address
case 0x08:
{
if (!ignoreBreakpoints && cpu.WriteBreakpoints.Contains(n))
{
cpu.CurrentBreakpoint.Target = n;
return BreakpointKinds.WRITE;
}
break;
}
// ADD HL,BC: Add 16-bit BC to HL
case 0x09: { break; }
// LD A,(BC): Load A from address pointed to by BC
case 0x0A:
{
if (!ignoreBreakpoints && cpu.ReadBreakpoints.Contains(cpu.Registers.BC))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.BC;
return BreakpointKinds.READ;
}
break;
}
// DEC BC: Decrement 16-bit BC
case 0x0B: { break; }
// INC C: Increment C
case 0x0C: { break; }
// DEC C: Decrement C
case 0x0D: { break; }
// LD C,n: Load 8-bit immediate into C
case 0x0E: { break; }
// RRC A: Rotate A right with carry
case 0x0F: { break; }
// STOP: Stop processor
case 0x10: { break; }
// LD DE,nn: Load 16-bit immediate into DE
case 0x11: { break; }
// LD (DE),A: Save A to address pointed by DE
case 0x12:
{
if (!ignoreBreakpoints && cpu.WriteBreakpoints.Contains(cpu.Registers.DE))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.DE;
return BreakpointKinds.WRITE;
}
break;
}
// INC DE: Increment 16-bit DE
case 0x13: { break; }
// INC D: Increment D
case 0x14: { break; }
// DEC D: Decrement D
case 0x15: { break; }
// LD D,n: Load 8-bit immediate into D
case 0x16: { break; }
// RL A: Rotate A left
case 0x17: { break; }
// JR n: Relative jump by signed immediate
case 0x18:
{
// We cast down the input, ignoring the overflows
short sn = 0;
unchecked { sn = (sbyte)n; }
ushort target = (ushort)(cpu.NextPC + sn);
if (!ignoreBreakpoints && cpu.JumpBreakpoints.Contains(target))
{
cpu.CurrentBreakpoint.Target = target;
return BreakpointKinds.JUMP;
}
break;
}
// ADD HL,DE: Add 16-bit DE to HL
case 0x19: { break; }
// LD A,(DE): Load A from address pointed to by DE
case 0x1A:
{
if (!ignoreBreakpoints && cpu.ReadBreakpoints.Contains(cpu.Registers.DE))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.DE;
return BreakpointKinds.READ;
}
break;
}
// DEC DE: Decrement 16-bit DE
case 0x1B: { break; }
// INC E: Increment E
case 0x1C: { break; }
// DEC E: Decrement E
case 0x1D: { break; }
// LD E,n: Load 8-bit immediate into E
case 0x1E: { break; }
// RR A: Rotate A right
case 0x1F: { break; }
// JR NZ,n: Relative jump by signed immediate if last result was not zero
case 0x20:
{
if (cpu.Registers.FZ != 0) { return BreakpointKinds.NONE; }
// We cast down the input, ignoring the overflows
short sn = 0;
unchecked { sn = (sbyte)n; }
ushort target = (ushort)(cpu.NextPC + sn);
if (!ignoreBreakpoints && cpu.JumpBreakpoints.Contains(target))
{
cpu.CurrentBreakpoint.Target = target;
return BreakpointKinds.JUMP;
}
break;
}
// LD HL,nn: Load 16-bit immediate into HL
case 0x21: { break; }
// LDI (HL),A: Save A to address pointed by HL, and increment HL
case 0x22:
{
if (!ignoreBreakpoints && cpu.WriteBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.WRITE;
}
break;
}
// INC HL: Increment 16-bit HL
case 0x23: { break; }
// INC H: Increment H
case 0x24: { break; }
// DEC H: Decrement H
case 0x25: { break; }
// LD H,n: Load 8-bit immediate into H
case 0x26: { break; }
// DAA: Adjust A for BCD addition
case 0x27: { break; }
// JR Z,n: Relative jump by signed immediate if last result was zero
case 0x28:
{
// We cast down the input, ignoring the overflows
short sn = 0;
unchecked { sn = (sbyte)n; }
ushort target = (ushort)(cpu.NextPC + sn);
if (!ignoreBreakpoints && cpu.JumpBreakpoints.Contains(target))
{
cpu.CurrentBreakpoint.Target = target;
return BreakpointKinds.JUMP;
}
break;
}
// ADD HL,HL: Add 16-bit HL to HL
case 0x29: { break; }
// LDI A,(HL): Load A from address pointed to by HL, and increment HL
case 0x2A:
{
if (!ignoreBreakpoints && cpu.ReadBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.READ;
}
break;
}
// DEC HL: Decrement 16-bit HL
case 0x2B: { break; }
// INC L: Increment L
case 0x2C: { break; }
// DEC L: Decrement L
case 0x2D: { break; }
// LD L,n: Load 8-bit immediate into L
case 0x2E: { break; }
// CPL: Complement (logical NOT) on A
case 0x2F: { break; }
// JR NC,n: Relative jump by signed immediate if last result caused no carry
case 0x30:
{
// We cast down the input, ignoring the overflows
short sn = 0;
unchecked { sn = (sbyte)n; }
ushort target = (ushort)(cpu.NextPC + sn);
if (!ignoreBreakpoints && cpu.JumpBreakpoints.Contains(target))
{
cpu.CurrentBreakpoint.Target = target;
return BreakpointKinds.JUMP;
}
break;
}
// LD SP,nn: Load 16-bit immediate into SP
case 0x31: { break; }
// LDD (HL),A: Save A to address pointed by HL, and decrement HL
case 0x32:
{
if (!ignoreBreakpoints && cpu.WriteBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.WRITE;
}
break;
}
// INC SP: Increment 16-bit HL
case 0x33: { break; }
// INC (HL): Increment value pointed by HL
case 0x34:
{
if (!ignoreBreakpoints && cpu.WriteBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.WRITE;
}
break;
}
// DEC (HL): Decrement value pointed by HL
case 0x35:
{
if (!ignoreBreakpoints && cpu.WriteBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.WRITE;
}
break;
}
// LD (HL),n: Load 8-bit immediate into address pointed by HL
case 0x36:
{
if (!ignoreBreakpoints && cpu.WriteBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.WRITE;
}
break;
}
// SCF: Set carry flag
case 0x37: { break; }
// JR C,n: Relative jump by signed immediate if last result caused carry
case 0x38:
{
// We cast down the input, ignoring the overflows
short sn = 0;
unchecked { sn = (sbyte)n; }
ushort target = (ushort)(cpu.NextPC + sn);
if (!ignoreBreakpoints && cpu.JumpBreakpoints.Contains(target))
{
cpu.CurrentBreakpoint.Target = target;
return BreakpointKinds.JUMP;
}
break;
}
// ADD HL,SP: Add 16-bit SP to HL
case 0x39: { break; }
// LDD A,(HL): Load A from address pointed to by HL, and decrement HL
case 0x3A:
{
if (!ignoreBreakpoints && cpu.ReadBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.READ;
}
break;
}
// DEC SP: Decrement 16-bit SP
case 0x3B: { break; }
// INC A: Increment A
case 0x3C: { break; }
// DEC A: Decrement A
case 0x3D: { break; }
// LD A,n: Load 8-bit immediate into A
case 0x3E: { break; }
// CCF: Complement Carry Flag
case 0x3F: { break; }
// LD B,B: Copy B to B
case 0x40: { break; }
// LD B,C: Copy C to B
case 0x41: { break; }
// LD B,D: Copy D to B
case 0x42: { break; }
// LD B,E: Copy E to B
case 0x43: { break; }
// LD B,H: Copy H to B
case 0x44: { break; }
// LD B,L: Copy L to B
case 0x45: { break; }
// LD B,(HL): Copy value pointed by HL to B
case 0x46:
{
if (!ignoreBreakpoints && cpu.ReadBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.READ;
}
break;
}
// LD B,A: Copy A to B
case 0x47: { break; }
// LD C,B: Copy B to C
case 0x48: { break; }
// LD C,C: Copy C to C
case 0x49: { break; }
// LD C,D: Copy D to C
case 0x4A: { break; }
// LD C,E: Copy E to C
case 0x4B: { break; }
// LD C,H: Copy H to C
case 0x4C: { break; }
// LD C,L: Copy L to C
case 0x4D: { break; }
// LD C,(HL): Copy value pointed by HL to C
case 0x4E:
{
if (!ignoreBreakpoints && cpu.ReadBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.READ;
}
break;
}
// LD C,A: Copy A to C
case 0x4F: { break; }
// LD D,B: Copy B to D
case 0x50: { break; }
// LD D,C: Copy C to D
case 0x51: { break; }
// LD D,D: Copy D to D
case 0x52: { break; }
// LD D,E: Copy E to D
case 0x53: { break; }
// LD D,H: Copy H to D
case 0x54: { break; }
// LD D,L: Copy L to D
case 0x55: { break; }
// LD D,(HL): Copy value pointed by HL to D
case 0x56:
{
if (!ignoreBreakpoints && cpu.ReadBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.READ;
}
break;
}
// LD D,A: Copy A to D
case 0x57: { break; }
// LD E,B: Copy B to E
case 0x58: { break; }
// LD E,C: Copy C to E
case 0x59: { break; }
// LD E,D: Copy D to E
case 0x5A: { break; }
// LD E,E: Copy E to E
case 0x5B: { break; }
// LD E,H: Copy H to E
case 0x5C: { break; }
// LD E,L: Copy L to E
case 0x5D: { break; }
// LD E,(HL): Copy value pointed by HL to E
case 0x5E:
{
if (!ignoreBreakpoints && cpu.ReadBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.READ;
}
break;
}
// LD E,A: Copy A to E
case 0x5F: { break; }
// LD H,B: Copy B to H
case 0x60: { break; }
// LD H,C: Copy C to H
case 0x61: { break; }
// LD H,D: Copy D to H
case 0x62: { break; }
// LD H,E: Copy E to H
case 0x63: { break; }
// LD H,H: Copy H to H
case 0x64: { break; }
// LD H,L: Copy L to H
case 0x65: { break; }
// LD H,(HL): Copy value pointed by HL to H
case 0x66:
{
if (!ignoreBreakpoints && cpu.ReadBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.READ;
}
break;
}
// LD H,A: Copy A to H
case 0x67: { break; }
// LD L,B: Copy B to L
case 0x68: { break; }
// LD L,C: Copy C to L
case 0x69: { break; }
// LD L,D: Copy D to L
case 0x6A: { break; }
// LD L,E: Copy E to L
case 0x6B: { break; }
// LD L,H: Copy H to L
case 0x6C: { break; }
// LD L,L: Copy L to L
case 0x6D: { break; }
// LD L,(HL): Copy value pointed by HL to L
case 0x6E:
{
if (!ignoreBreakpoints && cpu.ReadBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.READ;
}
break;
}
// LD L,A: Copy A to L
case 0x6F: { break; }
// LD (HL),B: Copy B to address pointed by HL
case 0x70:
{
if (!ignoreBreakpoints && cpu.WriteBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.WRITE;
}
break;
}
// LD (HL),C: Copy C to address pointed by HL
case 0x71:
{
if (!ignoreBreakpoints && cpu.WriteBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.WRITE;
}
break;
}
// LD (HL),D: Copy D to address pointed by HL
case 0x72:
{
if (!ignoreBreakpoints && cpu.WriteBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.WRITE;
}
break;
}
// LD (HL),E: Copy E to address pointed by HL
case 0x73:
{
if (!ignoreBreakpoints && cpu.WriteBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.WRITE;
}
break;
}
// LD (HL),H: Copy H to address pointed by HL
case 0x74:
{
if (!ignoreBreakpoints && cpu.WriteBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.WRITE;
}
break;
}
// LD (HL),L: Copy L to address pointed by HL
case 0x75:
{
if (!ignoreBreakpoints && cpu.WriteBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.WRITE;
}
break;
}
// HALT: Halt processor
case 0x76: { break; }
// LD (HL),A: Copy A to address pointed by HL
case 0x77:
{
if (!ignoreBreakpoints && cpu.WriteBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.WRITE;
}
break;
}
// LD A,B: Copy B to A
case 0x78: { break; }
// LD A,C: Copy C to A
case 0x79: { break; }
// LD A,D: Copy D to A
case 0x7A: { break; }
// LD A,E: Copy E to A
case 0x7B: { break; }
// LD A,H: Copy H to A
case 0x7C: { break; }
// LD A,L: Copy L to A
case 0x7D: { break; }
// LD A,(HL): Copy value pointed by HL to A
case 0x7E:
{
if (!ignoreBreakpoints && cpu.ReadBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.READ;
}
break;
}
// LD A,A: Copy A to A
case 0x7F: { break; }
// ADD A,B: Add B to A
case 0x80: { break; }
// ADD A,C: Add C to A
case 0x81: { break; }
// ADD A,D: Add D to A
case 0x82: { break; }
// ADD A,E: Add E to A
case 0x83: { break; }
// ADD A,H: Add H to A
case 0x84: { break; }
// ADD A,L: Add L to A
case 0x85: { break; }
// ADD A,(HL): Add value pointed by HL to A
case 0x86: { break; }
// ADD A,A: Add A to A
case 0x87: { break; }
// ADC A,B: Add B and carry flag to A
case 0x88: { break; }
// ADC A,C: Add C and carry flag to A
case 0x89: { break; }
// ADC A,D: Add D and carry flag to A
case 0x8A: { break; }
// ADC A,E: Add E and carry flag to A
case 0x8B: { break; }
// ADC A,H: Add H and carry flag to A
case 0x8C: { break; }
// ADC A,L: Add and carry flag L to A
case 0x8D: { break; }
// ADC A,(HL): Add value pointed by HL and carry flag to A
case 0x8E: { break; }
// ADC A,A: Add A and carry flag to A
case 0x8F: { break; }
// SUB A,B: Subtract B from A
case 0x90: { break; }
// SUB A,C: Subtract C from A
case 0x91: { break; }
// SUB A,D: Subtract D from A
case 0x92: { break; }
// SUB A,E: Subtract E from A
case 0x93: { break; }
// SUB A,H: Subtract H from A
case 0x94: { break; }
// SUB A,L: Subtract L from A
case 0x95: { break; }
// SUB A,(HL): Subtract value pointed by HL from A
case 0x96: { break; }
// SUB A,A: Subtract A from A
case 0x97: { break; }
// SBC A,B: Subtract B and carry flag from A
case 0x98: { break; }
// SBC A,C: Subtract C and carry flag from A
case 0x99: { break; }
// SBC A,D: Subtract D and carry flag from A
case 0x9A: { break; }
// SBC A,E: Subtract E and carry flag from A
case 0x9B: { break; }
// SBC A,H: Subtract H and carry flag from A
case 0x9C: { break; }
// SBC A,L: Subtract and carry flag L from A
case 0x9D: { break; }
// SBC A,(HL): Subtract value pointed by HL and carry flag from A
case 0x9E: { break; }
// SBC A,A: Subtract A and carry flag from A
case 0x9F: { break; }
// AND B: Logical AND B against A
case 0xA0: { break; }
// AND C: Logical AND C against A
case 0xA1: { break; }
// AND D: Logical AND D against A
case 0xA2: { break; }
// AND E: Logical AND E against A
case 0xA3: { break; }
// AND H: Logical AND H against A
case 0xA4: { break; }
// AND L: Logical AND L against A
case 0xA5: { break; }
// AND (HL): Logical AND value pointed by HL against A
case 0xA6: { break; }
// AND A: Logical AND A against A
case 0xA7: { break; }
// XOR B: Logical XOR B against A
case 0xA8: { break; }
// XOR C: Logical XOR C against A
case 0xA9: { break; }
// XOR D: Logical XOR D against A
case 0xAA: { break; }
// XOR E: Logical XOR E against A
case 0xAB: { break; }
// XOR H: Logical XOR H against A
case 0xAC: { break; }
// XOR L: Logical XOR L against A
case 0xAD: { break; }
// XOR (HL): Logical XOR value pointed by HL against A
case 0xAE: { break; }
// XOR A: Logical XOR A against A
case 0xAF: { break; }
// OR B: Logical OR B against A
case 0xB0: { break; }
// OR C: Logical OR C against A
case 0xB1: { break; }
// OR D: Logical OR D against A
case 0xB2: { break; }
// OR E: Logical OR E against A
case 0xB3: { break; }
// OR H: Logical OR H against A
case 0xB4: { break; }
// OR L: Logical OR L against A
case 0xB5: { break; }
// OR (HL): Logical OR value pointed by HL against A
case 0xB6: { break; }
// OR A: Logical OR A against A
case 0xB7: { break; }
// CP B: Compare B against A
case 0xB8: { break; }
// CP C: Compare C against A
case 0xB9: { break; }
// CP D: Compare D against A
case 0xBA: { break; }
// CP E: Compare E against A
case 0xBB: { break; }
// CP H: Compare H against A
case 0xBC: { break; }
// CP L: Compare L against A
case 0xBD: { break; }
// CP (HL): Compare value pointed by HL against A
case 0xBE:
{
if (!ignoreBreakpoints && cpu.ReadBreakpoints.Contains(cpu.Registers.HL))
{
cpu.CurrentBreakpoint.Target = cpu.Registers.HL;
return BreakpointKinds.READ;
}
break;
}
// CP A: Compare A against A
case 0xBF: { break; }
// RET NZ: Return if last result was not zero
case 0xC0: { break; }
// POP BC: Pop 16-bit value from stack into BC
case 0xC1: { break; }
// JP NZ,nn: Absolute jump to 16-bit location if last result was not zero
case 0xC2:
{
ushort target = n;
if (!ignoreBreakpoints && cpu.JumpBreakpoints.Contains(target))
{
cpu.CurrentBreakpoint.Target = target;
return BreakpointKinds.JUMP;
}
break;
}
// JP nn: Absolute jump to 16-bit location
case 0xC3:
{
ushort target = n;
if (!ignoreBreakpoints && cpu.JumpBreakpoints.Contains(target))
{
cpu.CurrentBreakpoint.Target = target;
return BreakpointKinds.JUMP;
}
break;
}
// CALL NZ,nn: Call routine at 16-bit location if last result was not zero
case 0xC4:
{
ushort target = n;
if (!ignoreBreakpoints && cpu.JumpBreakpoints.Contains(target))
{
cpu.CurrentBreakpoint.Target = target;
return BreakpointKinds.JUMP;
}
break;
}
// PUSH BC: Push 16-bit BC onto stack
case 0xC5: { break; }
// ADD A,n: Add 8-bit immediate to A
case 0xC6: { break; }
// RST 0: Call routine at address 0000h
case 0xC7:
{
return Check(cpu, 0xCD, 0, ignoreBreakpoints);
}
// RET Z: Return if last result was zero
case 0xC8: { break; }
// RET: Return to calling routine
case 0xC9: { break; }
// JP Z,nn: Absolute jump to 16-bit location if last result was zero
case 0xCA:
{
ushort target = n;
if (!ignoreBreakpoints && cpu.JumpBreakpoints.Contains(target))
{
cpu.CurrentBreakpoint.Target = target;
return BreakpointKinds.JUMP;
}
break;
}
// Ext ops: Extended operations (two-byte instruction code)
case 0xCB:
{
throw new InvalidInstructionException("Ext ops (0xCB)");
}
// CALL Z,nn: Call routine at 16-bit location if last result was zero
case 0xCC:
{
ushort target = n;
if (!ignoreBreakpoints && cpu.JumpBreakpoints.Contains(target))
{
cpu.CurrentBreakpoint.Target = target;
return BreakpointKinds.JUMP;
}
break;
}
// CALL nn: Call routine at 16-bit location
case 0xCD:
{
ushort target = n;
if (!ignoreBreakpoints && cpu.JumpBreakpoints.Contains(target))
{
cpu.CurrentBreakpoint.Target = target;
return BreakpointKinds.JUMP;
}
break;
}
// ADC A,n: Add 8-bit immediate and carry to A
case 0xCE: { break; }
// RST 8: Call routine at address 0008h
case 0xCF:
{
return Check(cpu, 0xCD, 0x08, ignoreBreakpoints);
}
// RET NC: Return if last result caused no carry
case 0xD0: { break; }
// POP DE: Pop 16-bit value from stack into DE
case 0xD1: { break; }
// JP NC,nn: Absolute jump to 16-bit location if last result caused no carry
case 0xD2:
{
ushort target = n;
if (!ignoreBreakpoints && cpu.JumpBreakpoints.Contains(target))
{
cpu.CurrentBreakpoint.Target = target;
return BreakpointKinds.JUMP;
}
break;
}
// XX: Operation removed in this CPU
case 0xD3:
{
throw new InvalidInstructionException("XX (0xD3)");
}
// CALL NC,nn: Call routine at 16-bit location if last result caused no carry
case 0xD4:
{
ushort target = n;
if (!ignoreBreakpoints && cpu.JumpBreakpoints.Contains(target))
{
cpu.CurrentBreakpoint.Target = target;
return BreakpointKinds.JUMP;
}
break;
}
// PUSH DE: Push 16-bit DE onto stack
case 0xD5: { break; }
// SUB A,n: Subtract 8-bit immediate from A
case 0xD6: { break; }
// RST 10: Call routine at address 0010h
case 0xD7:
{
return Check(cpu, 0xCD, 0x10, ignoreBreakpoints);
}
// RET C: Return if last result caused carry
case 0xD8: { break; }
// RETI: Enable interrupts and return to calling routine
case 0xD9: { break; }
// JP C,nn: Absolute jump to 16-bit location if last result caused carry
case 0xDA:
{
ushort target = n;
if (!ignoreBreakpoints && cpu.JumpBreakpoints.Contains(target))
{
cpu.CurrentBreakpoint.Target = target;
return BreakpointKinds.JUMP;
}
break;
}
// XX: Operation removed in this CPU
case 0xDB:
{
throw new InvalidInstructionException("XX (0xDB)");
}
// CALL C,nn: Call routine at 16-bit location if last result caused carry
case 0xDC:
{
ushort target = n;
if (!ignoreBreakpoints && cpu.JumpBreakpoints.Contains(target))
{
cpu.CurrentBreakpoint.Target = target;
return BreakpointKinds.JUMP;
}
break;
}
// XX: Operation removed in this CPU
case 0xDD:
{
throw new InvalidInstructionException("XX (0xDD)");
}
// SBC A,n: Subtract 8-bit immediate and carry from A
case 0xDE: { break; }
// RST 18: Call routine at address 0018h
case 0xDF:
{
return Check(cpu, 0xCD, 0x18, ignoreBreakpoints);
}
// LDH (n),A: Save A at address pointed to by (FF00h + 8-bit immediate)
case 0xE0:
{
ushort address = (ushort)(0xFF00 | (byte)n);
if (!ignoreBreakpoints && cpu.WriteBreakpoints.Contains(address))
{
cpu.CurrentBreakpoint.Target = address;
return BreakpointKinds.WRITE;
}
break;
}
// POP HL: Pop 16-bit value from stack into HL
case 0xE1: { break; }
// LDH (C),A: Save A at address pointed to by (FF00h + C)
case 0xE2:
{
ushort address = (ushort)(0xFF00 | cpu.Registers.C);
if (!ignoreBreakpoints && cpu.WriteBreakpoints.Contains(address))
{
cpu.CurrentBreakpoint.Target = address;
return BreakpointKinds.WRITE;
}
break;
}
// XX: Operation removed in this CPU
case 0xE3:
{
throw new InvalidInstructionException("XX (0xE3)");
}
// XX: Operation removed in this CPU
case 0xE4:
{
throw new InvalidInstructionException("XX (0xE4)");
}
// PUSH HL: Push 16-bit HL onto stack
case 0xE5: { break; }
// AND n: Logical AND 8-bit immediate against A
case 0xE6: { break; }
// RST 20: Call routine at address 0020h
case 0xE7:
{
return Check(cpu, 0xCD, 0x20, ignoreBreakpoints);
}
// ADD SP,d: Add signed 8-bit immediate to SP
case 0xE8: { break; }
// JP (HL): Jump to 16-bit value pointed by HL
case 0xE9:
{
ushort target = cpu.Registers.HL;
if (!ignoreBreakpoints && cpu.JumpBreakpoints.Contains(target))
{
cpu.CurrentBreakpoint.Target = target;
return BreakpointKinds.JUMP;
}
break;
}
// LD (nn),A: Save A at given 16-bit address
case 0xEA:
{
if (!ignoreBreakpoints && cpu.WriteBreakpoints.Contains(n))
{
cpu.CurrentBreakpoint.Target = n;
return BreakpointKinds.WRITE;
}
break;
}
// XX: Operation removed in this CPU
case 0xEB:
{
throw new InvalidInstructionException("XX (0xEB)");
}
// XX: Operation removed in this CPU
case 0xEC:
{
throw new InvalidInstructionException("XX (0xEC)");
}
// XX: Operation removed in this CPU
case 0xED:
{
throw new InvalidInstructionException("XX (0xED)");
}
// XOR n: Logical XOR 8-bit immediate against A
case 0xEE: { break; }
// RST 28: Call routine at address 0028h
case 0xEF:
{
return Check(cpu, 0xCD, 0x28, ignoreBreakpoints);
}
// LDH A,(n): Load A from address pointed to by (FF00h + 8-bit immediate)
case 0xF0:
{
ushort address = (ushort)(0xFF00 | (byte)n);
if (!ignoreBreakpoints && cpu.ReadBreakpoints.Contains(address))
{
cpu.CurrentBreakpoint.Target = address;
return BreakpointKinds.READ;
}
break;
}
// POP AF: Pop 16-bit value from stack into AF
case 0xF1: { break; }
// LDH A, (C): Operation removed in this CPU? (Or Load into A memory from FF00 + C?)
case 0xF2:
{
ushort address = (ushort)(0xFF00 | cpu.Registers.C);
if (!ignoreBreakpoints && cpu.ReadBreakpoints.Contains(address))
{
cpu.CurrentBreakpoint.Target = address;
return BreakpointKinds.READ;
}
break;
}
// DI: DIsable interrupts
case 0xF3: { break; }
// XX: Operation removed in this CPU
case 0xF4:
{
throw new InvalidInstructionException("XX (0xF4)");
}
// PUSH AF: Push 16-bit AF onto stack
case 0xF5: { break; }
// OR n: Logical OR 8-bit immediate against A
case 0xF6: { break; }
// RST 30: Call routine at address 0030h
case 0xF7:
{
return Check(cpu, 0xCD, 0x30, ignoreBreakpoints);
}
// LDHL SP,d: Add signed 8-bit immediate to SP and save result in HL
case 0xF8: { break; }
// LD SP,HL: Copy HL to SP
case 0xF9: { break; }
// LD A,(nn): Load A from given 16-bit address
case 0xFA:
{
if (!ignoreBreakpoints && cpu.ReadBreakpoints.Contains(n))
{
cpu.CurrentBreakpoint.Target = n;
return BreakpointKinds.READ;
}
break;
}
// EI: Enable interrupts
case 0xFB: { break; }
// XX: Operation removed in this CPU
case 0xFC:
{
throw new InvalidInstructionException("XX (0xFC)");
}
// XX: Operation removed in this CPU
case 0xFD:
{
throw new InvalidInstructionException("XX (0xFD)");
}
// CP n: Compare 8-bit immediate against A
case 0xFE: { break; }
// RST 38: Call routine at address 0038h
case 0xFF:
{
return Check(cpu, 0xCD, 0x38, ignoreBreakpoints);
}
}
// No breakpoints found
return BreakpointKinds.NONE;
}
protected LDA(CPU cpu) : base(cpu)
{
}
