protected override void InternalExecute(CpuState cpuState, IMemory memory, byte arg, Action<byte> write, ref int cycles)
{
var res = (byte)((cpuState.X - 1) & 0xFF);
cpuState.X = res;
cpuState.SetNegativeFlag(res);
cpuState.SetZeroFlag(res);
}
public CPU()
{
mem = new MemoryBasic();
mem.Init(Config.MEM_SIZE);
registerSet = new RegisterSet();
}
public int Execute(CpuState cpuState, IMemory memory)
{
// Addresses are relative to the beginning of the next instruction not
// the beginning of this one, so we'll need to advance the program counter.
cpuState.Pc += 2;
if (ShouldBranch(cpuState, memory))
{
var offset = memory[cpuState.Pc - 1];
ushort newPc;
if ((offset & 0x80) != 0)
{
newPc = (ushort) (cpuState.Pc - (0x100 - offset));
}
else
{
newPc = (ushort)(cpuState.Pc + offset);
}
int cycles = 3;
if ((newPc & 0xFF00) != (cpuState.Pc & 0xFF00))
{
// Extra cycle if the relative branch occurs to cross a page boundary
++cycles;
}
cpuState.Pc = newPc;
return cycles;
}
return 2;
}
public Patch(IMemory memory, IntPtr targetAddress, byte[] replaceWith)
{
_protector = new MemoryPageProtector(new Win32Implementation(), targetAddress, (IntPtr)replaceWith.Length);
_memory = memory;
TargetAddress = targetAddress;
_replaceWith = replaceWith;
}
public DBExit(IAOF _AOF, IMemory _Memory)
{
AOF = _AOF;
Memory = _Memory;
exit();
}
protected override void InternalExecute(CpuState cpuState, IMemory memory, byte arg, Action<byte> write, ref int cycles)
{
bool carry = cpuState.IsFlagSet(CpuState.Flags.Carry);
cpuState.SetFlag(CpuState.Flags.Carry, arg & 0x80);
arg <<= 1;
if (carry)
{
arg |= 1;
}
write(arg);
cpuState.SetNegativeFlag(arg);
cpuState.SetZeroFlag(arg);
switch (Variants[memory[cpuState.Pc]])
{
case AddressingMode.Accumulator:
cycles = 2;
break;
case AddressingMode.ZeroPage:
cycles = 5;
break;
case AddressingMode.ZeroPageXIndexed:
cycles = 6;
break;
case AddressingMode.Absolute:
cycles = 6;
break;
case AddressingMode.AbsoluteX:
cycles = 7;
break;
}
}
public unsafe Int3Hook(IMemory memory, IntPtr targetAddress, IntPtr hookAddress)
: base(memory, targetAddress, new[] { (byte)OpCode.Int3 })
{
_hookAddress = hookAddress;
_notToBeGCed = VectoredHandler;
_handler = AddVectoredExceptionHandler(0, _notToBeGCed);
}
public PpuMap(IMemory ram, IMemory chr, VRAMLayout layout)
{
m_ram = ram;
m_chr = chr;
m_palette = new Ram(0xFF);
m_layout = layout;
}
public static string DumpAsText(IMemory memory)
{
var dumpStringBuilder = new StringBuilder(299320);
dumpStringBuilder.AppendLine(" 00 01 02 03 04 05 06 07 08 09 0A 0B 0C 0D 0E 0F 0123456789ABCDEF");
var ip = 0;
while (ip < memory.Size)
{
int rowStartPointer = ip;
dumpStringBuilder.Append(ip.ToString("X4"));
dumpStringBuilder.Append(" ");
for (int columnIndex = 0; columnIndex < 0x10; columnIndex++)
{
dumpStringBuilder.Append(memory.Raw[rowStartPointer].ToString("X2"));
dumpStringBuilder.Append(' ');
rowStartPointer++;
}
dumpStringBuilder.Append(' ');
rowStartPointer = ip;
for (int columnIndex = 0; columnIndex < 0x10; columnIndex++)
{
dumpStringBuilder.Append(_codePageMap[memory.Raw[rowStartPointer]]);
rowStartPointer++;
}
ip += 0x10;
dumpStringBuilder.AppendLine();
}
return dumpStringBuilder.ToString();
}
public int Execute(CpuState cpuState, IMemory memory)
{
throw new Exception("die");
cpuState.Interrupt(0xFFFE, memory);
return 7;
}
protected override void InternalExecute(CpuState cpuState, IMemory memory, byte arg, Action<byte> write, ref int cycles)
{
cpuState.A = cpuState.PopStack(memory);
cpuState.SetNegativeFlag(cpuState.A);
cpuState.SetZeroFlag(cpuState.A);
cycles = 4;
}
protected override void InternalExecute(CpuState cpuState, IMemory memory, byte arg, Action<byte> write, ref int cycles)
{
ushort result = arg;
result <<= 1;
var byteResult = (byte) (result & 0xFF);
write(byteResult);
cpuState.SetNegativeFlag(byteResult);
cpuState.SetZeroFlag(byteResult);
cpuState.SetFlag(CpuState.Flags.Carry, result & 0xFF00);
switch (Variants[memory[cpuState.Pc]])
{
case AddressingMode.Accumulator:
cycles = 2;
break;
case AddressingMode.ZeroPage:
cycles = 5;
break;
case AddressingMode.ZeroPageXIndexed:
cycles = 6;
break;
case AddressingMode.Absolute:
cycles = 6;
break;
case AddressingMode.AbsoluteX:
cycles = 7;
break;
}
}
protected override void InternalExecute(CpuState cpuState, IMemory memory, byte arg, ref int cycles)
{
cpuState.X = arg;
cpuState.SetNegativeFlag(arg);
cpuState.SetZeroFlag(arg);
}
public Cpu(IMemory memory, IInput input, IOutput output)
{
_memory = memory;
In = input;
Out = output;
Registers = new byte[16];
Commands = new Dictionary<byte, Command>
{
{0x01, new IncCommand(this)},
{0x02, new DecCommand(this)},
{0x03, new MovCommand(this)},
{0x04, new MovcCommand(this)},
{0x05, new LslCommand(this)},
{0x06, new LsrCommand(this)},
{0x07, new JmpCommand(this)},
{0x0A, new JfeCommand(this)},
{0x0B, new RetCommand(this)},
{0x0C, new AddCommand(this)},
{0x0D, new SubCommand(this)},
{0x0E, new XorCommand(this)},
{0x0F, new OrCommand(this)},
{0x10, new InCommand(this)},
{0x11, new OutCommand(this)}
};
}
public Alu(IMemory memory, IRegisterFile registerFile, ICpuStack cpuStack, ILookupTables lookupTables)
{
_memory = memory;
_lookupTables = lookupTables;
_registerFile = registerFile;
_cpuStack = cpuStack;
}
public int Execute(CpuState cpuState, IMemory memory)
{
var ret = cpuState.Pc + 2;
cpuState.PushStack((byte)((ret & 0xFF00) >> 8), memory);
cpuState.PushStack((byte) (ret & 0xFF), memory);
cpuState.Pc = memory.ReadShort(cpuState.Pc + 1);
return 6;
}
public Module( Kernel kernel )
{
Debug.Assert( kernel != null );
_kernel = kernel;
_memory = _kernel.Memory;
_memorySystem = _kernel.MemorySystem;
}
void before_each()
{
buffer = Marshal.AllocHGlobal(4);
replaceWith = new byte[] { 0x37, 0x13, 0, 0 };
Marshal.WriteInt32(buffer, 0);
memory = new InProcessMemory();
patch = new Patch(memory, buffer, replaceWith);
}
protected override void InternalExecute(CpuState cpuState, IMemory memory, byte arg, Action<byte> write, ref int cycles)
{
var breakSet = cpuState.IsFlagSet(CpuState.Flags.Break);
cpuState.StatusRegister = cpuState.PopStack(memory);
cpuState.StatusRegister |= 1 << 5;
cpuState.SetFlag(CpuState.Flags.Break, breakSet);
cycles = 4;
}
public void Interrupt(int interruptAddress, IMemory mem)
{
PushStack((byte)(Pc >> 8), mem);
PushStack((byte)(Pc & 0xFF), mem);
PushStack(StatusRegister, mem);
SetFlag(Flags.InterruptDisable, true);
Pc = mem.ReadShort(interruptAddress);
}
public void Setup()
{
_memory = Substitute.For<IMemory>();
_input = Substitute.For<IInput>();
_output = Substitute.For<IOutput>();
_cpu = new Cpu(_memory, _input, _output);
}
/// <summary>
/// Initializes a new instance of the <see cref="FrameBuffer32bpp"/> class.
/// </summary>
/// <param name="memory">The memory.</param>
/// <param name="width">The width.</param>
/// <param name="height">The height.</param>
/// <param name="offset">The offset.</param>
/// <param name="depth">The depth.</param>
public FrameBuffer32bpp(IMemory memory, uint width, uint height, uint offset, uint depth)
{
this.memory = memory;
this.width = width;
this.height = height;
this.offset = offset;
this.depth = depth;
}
/// <summary>
/// Initializes a new instance of the <see cref="FrameBuffer8bpp"/> class.
/// </summary>
/// <param name="memory">The memory.</param>
/// <param name="width">The width.</param>
/// <param name="height">The height.</param>
/// <param name="offset">The offset.</param>
/// <param name="bytesPerLine">The bytes per line.</param>
public FrameBuffer8bpp(IMemory memory, uint width, uint height, uint offset, uint bytesPerLine)
{
this.memory = memory;
this.width = width;
this.height = height;
this.offset = offset;
this.bytesPerLine = bytesPerLine;
}
public int Execute(CpuState cpuState, IMemory memory)
{
var low = cpuState.PopStack(memory);
var high = cpuState.PopStack(memory);
cpuState.Pc = (ushort)((high << 8) | low);
++cpuState.Pc;
return 6;
}
protected override void InternalExecute(CpuState cpuState, IMemory memory, byte arg, Action<byte> write, ref int cycles)
{
var comparer = cpuState.A;
var cmp = comparer - arg;
cpuState.SetFlag(CpuState.Flags.Carry, cmp >= 0);
cpuState.SetNegativeFlag((byte) (cmp & 0xFF));
cpuState.SetZeroFlag((byte) (cmp & 0xFF));
}
/// <summary>
/// Create new system based on Z80
/// </summary>
/// <param name="memory">System memory</param>
/// <param name="io">IO</param>
/// <param name="cpuStack"></param>
/// <param name="lookupTables"></param>
/// <param name="executionUnit"></param>
/// <param name="registerFile"></param>
public ZilogZ80Cpu(IMemory memory, IInputOutputDevice io, ICpuStack cpuStack, ILookupTables lookupTables, IExecutionUnit executionUnit, IRegisterFile registerFile)
{
_memory = memory;
_io = io;
_executionUnit = executionUnit;
_registerFile = registerFile;
_cpuStack = cpuStack;
lookupTables.Init();
Reset();
}
public ExecutionUnit(IMemory memory, IRegisterFile registerFile, ICpuStack cpuStack, IAlu alu,
IInputOutputDevice outputDevice, ILookupTables lookupTables)
{
_memory = memory;
_registerFile = registerFile;
_cpuStack = cpuStack;
_alu = alu;
_inputOutputDevice = outputDevice;
_lookupTables = lookupTables;
}
public BasicCpu(IMemory memory, ICpuInstructionExecutor instructionExector)
{
SetupRegisters();
_memory = memory;
_instructionExector = instructionExector;
_instructionExector.Cpu = this;
_interruptTable = new Dictionary<byte, Action>();
}
public void OpenFile(string path, IMemory memory)
{
try
{
ValidationAndParsing(path).FillMemory(memory);
}
catch(Exception ex)
{
throw ex;
}
}
public HexFileViewModel(IMemory memory, string path, HexFileManagerViewModel hexFileManagerViewModel)
{
this.hexFileManagerViewModel = hexFileManagerViewModel;
memoryViewModel = new MemoryViewModel(memory);
this.memory = memory;
this.path = path;
fileName = System.IO.Path.GetFileName(path);
isDirty = false;
SaveCommand = new DelegateCommand<object>(OnSave, CanSave);
CloseCommand = new DelegateCommand<object>(OnClose, CanClose);
Debug.WriteLine(string.Format("Open File: {0}", path));
}
public PageManager(IMemory memory) => m_Memory = memory;
/// <summary>
/// Initializes a new instance of the <see cref="CustomizedMemory"/> class.
/// </summary>
/// <param name="globalMemory">Global memory.</param>
/// <param name="localMemory">Local memory.</param>
public CustomizedMemory(IMemory globalMemory, IMemory localMemory = null)
{
this.GlobalMemory = globalMemory;
this.LocalMemory = localMemory;
}
public StringPointer(IMemory memory, MemoryAddress value)
: this(memory, value, 512)
{
}
public void SetValue <T>(IMemoryOffset <T> offset, T value)
{
using IMemory <T> mem = this.GetMemory(offset);
mem.Value = value;
}
public ACreepBase(string id, IJsInterop js) : base(id, js)
{
store = new Store($"Game.creeps.{name}.store", js);
memory = new Memory($"Memory.creeps.{name}", js);
}
public AtlasRegions(IMemory mem, Func <long> address) : base(mem, address)
{
}
/// <summary>
/// Initializes a new instance of the <see cref="PatchManager" /> class.
/// </summary>
/// <param name="processMemory">The process memory.</param>
public PatchManager(IMemory processMemory)
{
MemoryBase = processMemory;
}
protected abstract IHook CreateHook(IMemory memory, IntPtr targetAddress, IntPtr hookAddress);
public OpCode32Id04(IMemory memory, IRegister register, ISystemNotifier environment) : base(memory, register)
{
this.environment = environment;
// memry and register are stored in the base class
}
private static (object value, string error) Evaluator(Expression expression, IMemory state, Options options)
{
TimexProperty parsed = null;
string result = null;
string error = null;
var(validYear, validMonth, validDay) = (0, 0, 0);
var currentUtcTime = DateTime.UtcNow;
var convertedDateTime = currentUtcTime;
IReadOnlyList <object> args;
(args, error) = FunctionUtils.EvaluateChildren(expression, state, options);
if (error == null)
{
(parsed, error) = FunctionUtils.ParseTimexProperty(args[0]);
}
if (error == null)
{
if (parsed.Year != null || parsed.Month == null || parsed.DayOfMonth == null)
{
error = $"{args[0]} must be a timex string which only contains month and day-of-month, for example: 'XXXX-10-31'.";
}
}
if (error == null)
{
if (args.Count == 2 && args[1] is string timezone)
{
object convertedTimeZone = null;
(convertedTimeZone, error) = FunctionUtils.ConvertTimeZoneFormat(timezone);
if (error == null)
{
convertedDateTime = TimeZoneInfo.ConvertTimeFromUtc(currentUtcTime, (TimeZoneInfo)convertedTimeZone);
}
}
else
{
convertedDateTime = currentUtcTime.ToLocalTime();
}
}
if (error == null)
{
var(year, month, day) = (convertedDateTime.Year, convertedDateTime.Month, convertedDateTime.Day);
if (parsed.Month > month || (parsed.Month == month && parsed.DayOfMonth >= day))
{
validYear = year;
}
else
{
validYear = year + 1;
}
validMonth = parsed.Month ?? 0;
validDay = parsed.DayOfMonth ?? 0;
if (validMonth == 2 && validDay == 29)
{
while (!DateTime.IsLeapYear(validYear))
{
validYear += 1;
}
}
result = TimexProperty.FromDate(new DateTime(validYear, validMonth, validDay)).TimexValue;
}
return(result, error);
}
public Saver()
{
this.memory = new Memory <T>();
}
public void AssignMemory(IMemory memory)
{
this.memory = memory;
}
public MemoryParameter(IMemory memory, int stackSize)
{
Memory = memory;
StackSize = stackSize;
}
/// <summary>
/// Starts the device.
/// </summary>
/// <param name="deviceDriver">The device driver.</param>
static public void StartDevice(Mosa.DeviceSystem.DeviceDriver deviceDriver)
{
var driverAtttribute = deviceDriver.Attribute as ISADeviceDriverAttribute;
// Don't load the VGAText and PIC drivers
if (driverAtttribute.BasePort == 0x03B0 || driverAtttribute.BasePort == 0x20)
{
return;
}
if (driverAtttribute.AutoLoad)
{
var hardwareDevice = System.Activator.CreateInstance(deviceDriver.DriverType) as IHardwareDevice;
var ioPortRegions = new LinkedList <IIOPortRegion>();
var memoryRegions = new LinkedList <IMemoryRegion>();
ioPortRegions.AddLast(new IOPortRegion(driverAtttribute.BasePort, driverAtttribute.PortRange));
if (driverAtttribute.AltBasePort != 0x00)
{
ioPortRegions.AddLast(new IOPortRegion(driverAtttribute.AltBasePort, driverAtttribute.AltPortRange));
}
if (driverAtttribute.BaseAddress != 0x00)
{
memoryRegions.AddLast(new MemoryRegion(driverAtttribute.BaseAddress, driverAtttribute.AddressRange));
}
foreach (var memoryAttribute in deviceDriver.MemoryAttributes)
{
if (memoryAttribute.MemorySize > 0)
{
IMemory memory = Mosa.DeviceSystem.HAL.AllocateMemory(memoryAttribute.MemorySize, memoryAttribute.MemoryAlignment);
memoryRegions.AddLast(new MemoryRegion(memory.Address, memory.Size));
}
}
var hardwareResources = new HardwareResources(resourceManager, ioPortRegions.ToArray(), memoryRegions.ToArray(), new InterruptHandler(resourceManager.InterruptManager, driverAtttribute.IRQ, hardwareDevice));
hardwareDevice.Setup(hardwareResources);
Boot.Console.Write("Adding device ");
Boot.InBrackets(hardwareDevice.Name, Mosa.Kernel.x86.Colors.White, Mosa.Kernel.x86.Colors.LightGreen);
Boot.Console.WriteLine();
if (resourceManager.ClaimResources(hardwareResources))
{
hardwareResources.EnableIRQ();
if (hardwareDevice.Start() == DeviceDriverStartStatus.Started)
{
deviceManager.Add(hardwareDevice);
}
else
{
hardwareResources.DisableIRQ();
resourceManager.ReleaseResources(hardwareResources);
}
}
}
}
static Fix()
{
sProc = Process.GetCurrentProcess();
sBaseAddr = sProc.MainModule.BaseAddress;
sMem = new Memory();
}
private static void FillMemory(IMemory memory) => memory.SetString("hello");
public void SetupContext()
{
provider = new WebAPIProvider("Test2", "123", "http://localhost:58339");
}
// more fields can be added (see in visualGGPK)
public ModRecord(IMemory m, StatsDat sDat, TagsDat tagsDat, long addr)
{
Address = addr;
var ModsRecord = m.Read <ModsRecordOffsets>(addr);
Key = RemoteMemoryObject.Cache.StringCache.Read($"{nameof(ModsDat)}{ModsRecord.Key.buf}",
() => ModsRecord
.Key.ToString(
m)); // ModsRecord.Key.ToString(m);// m.ReadStringU(m.Read<long>(addr + 0));
Unknown8 = ModsRecord.Unknown8; // m.Read<long>(addr + 0x8);
MinLevel = ModsRecord.MinLevel; // m.Read<int>(addr + 0x1C);
// TypeName = m.ReadStringU(m.Read<long>(ModsRecord.TypeName /*m.Read<long>(addr + 0x14*/, 0),255);
var read = m.Read <long>(ModsRecord.TypeName);
TypeName = RemoteMemoryObject.Cache.StringCache.Read($"{nameof(ModsDat)}{read}", () => m.ReadStringU(read, 255));
var s1 = ModsRecord.StatNames1 == 0 ? 0 : m.Read <long>(ModsRecord.StatNames1);
var s2 = ModsRecord.StatNames2 == 0 ? 0 : m.Read <long>(ModsRecord.StatNames2);
var s3 = ModsRecord.StatNames3 == 0 ? 0 : m.Read <long>(ModsRecord.StatNames3);
var s4 = ModsRecord.StatName4 == 0 ? 0 : m.Read <long>(ModsRecord.StatName4);
StatNames = new[]
{
ModsRecord.StatNames1 == 0
? null
: sDat.records[RemoteMemoryObject.Cache.StringCache.Read($"{nameof(ModsDat)}{s1}", () => m.ReadStringU(s1))],
ModsRecord.StatNames2 == 0
? null
: sDat.records[RemoteMemoryObject.Cache.StringCache.Read($"{nameof(ModsDat)}{s2}", () => m.ReadStringU(s2))],
ModsRecord.StatNames3 == 0
? null
: sDat.records[RemoteMemoryObject.Cache.StringCache.Read($"{nameof(ModsDat)}{s3}", () => m.ReadStringU(s3))],
ModsRecord.StatName4 == 0
? null
: sDat.records[RemoteMemoryObject.Cache.StringCache.Read($"{nameof(ModsDat)}{s4}", () => m.ReadStringU(s4))]
};
Domain = (ModDomain)ModsRecord.Domain; //m.Read<int>(addr + 0x60);
UserFriendlyName = RemoteMemoryObject.Cache.StringCache.Read($"{nameof(ModsDat)}{ModsRecord.UserFriendlyName}",
() => m.ReadStringU(
ModsRecord
.UserFriendlyName)); //m.ReadStringU(ModsRecord.UserFriendlyName/*m.Read<long>(addr + 0x64)*/);
AffixType = (ModType)ModsRecord.AffixType; //m.Read<int>(addr + 0x6C);
Group = RemoteMemoryObject.Cache.StringCache.Read($"{nameof(ModsDat)}{ModsRecord.Group}",
() => m.ReadStringU(ModsRecord.Group /*m.Read<long>(addr + 0x70)*/));
StatRange = new[]
{
/*new IntRange(m.Read<int>(addr + 0x78), m.Read<int>(addr + 0x7C)),
* new IntRange(m.Read<int>(addr + 0x80), m.Read<int>(addr + 0x84)),
* new IntRange(m.Read<int>(addr + 0x88), m.Read<int>(addr + 0x8C)),
* new IntRange(m.Read<int>(addr + 0x90), m.Read<int>(addr + 0x94))*/
new IntRange(ModsRecord.StatRange1, ModsRecord.StatRange2), new IntRange(ModsRecord.StatRange3, ModsRecord.StatRange4),
new IntRange(ModsRecord.StatRange5, ModsRecord.StatRange6), new IntRange(ModsRecord.StatRange7, ModsRecord.StatRange8)
};
//Tags = new TagsDat.TagRecord[m.Read<long>(addr + 0x98)];
Tags = new TagsDat.TagRecord[ModsRecord.Tags];
var ta = ModsRecord.ta; // m.Read<long>(addr + 0xA0);
for (var i = 0; i < Tags.Length; i++)
{
var ii = ta + 0x8 + 0x10 * i;
var l = m.Read <long>(ii, 0);
Tags[i] = tagsDat.Records[
RemoteMemoryObject.Cache.StringCache.Read($"{nameof(ModsDat)}{l}", () => m.ReadStringU(l, 255))];
}
// TagChances = new Dictionary<string,int>(m.Read<int>(addr + 0xA8));
TagChances = new Dictionary <string, int>(ModsRecord.TagChances);
var tc = ModsRecord.tc; //m.Read<long>(addr + 0xB0);
for (var i = 0; i < Tags.Length; i++)
{
TagChances[Tags[i].Key] = m.Read <int>(tc + 4 * i);
}
IsEssence = ModsRecord.IsEssence == 0x01; // m.Read<byte>(addr + 0x1AC) == 0x01;
// Tier = m.ReadStringU(m.Read<long>(addr + 0x1C5));
Tier = RemoteMemoryObject.Cache.StringCache.Read($"{nameof(ModsDat)}{ModsRecord.Tier}",
() => m.ReadStringU(ModsRecord.Tier)); // m.ReadStringU(ModsRecord.Tier);
}
public Engine(IMemory memory)
: this(memory, EngineOptions.Default)
{
}
protected FileInMemory(IMemory m, Func <long> address)
{
M = m;
Address = address();
fAddress = address;
}
public T GetValue <T>(IMemoryOffset <T> offset)
{
using IMemory <T> mem = this.GetMemory(offset);
return(mem.Value);
}
internal protected MemoryObject Initialize(IMemory memory, MemoryAddress address)
{
Memory = memory;
Address = address;
return(this);
}
public StringPointer(IMemory memory, MemoryAddress value, int maxLength)
: this(memory, value, maxLength, Encoding.UTF8)
{
}
private static (object value, string error) Evaluator(Expression expression, IMemory state, Options options)
{
object result = null;
string error;
object instance;
(instance, error) = expression.Children[0].TryEvaluate(state, options);
if (error == null)
{
var isInstanceList = false;
IList list = null;
if (FunctionUtils.TryParseList(instance, out IList ilist))
{
isInstanceList = true;
list = ilist;
}
else if (instance is JObject jobj)
{
list = FunctionUtils.Object2KVPairList(jobj);
}
else if (FunctionUtils.ConvertToJToken(instance) is JObject jobject)
{
list = FunctionUtils.Object2KVPairList(jobject);
}
else
{
error = $"{expression.Children[0]} is not a collection or structure object to run foreach";
}
if (error == null)
{
var iteratorName = (string)(expression.Children[1].Children[0] as Constant).Value;
var stackedMemory = StackedMemory.Wrap(state);
result = new List <object>();
for (var idx = 0; idx < list.Count; idx++)
{
var local = new Dictionary <string, object>
{
{ iteratorName, FunctionUtils.AccessIndex(list, idx).value },
};
// the local iterator is pushed as one memory layer in the memory stack
stackedMemory.Push(new SimpleObjectMemory(local));
var(r, e) = expression.Children[2].TryEvaluate(stackedMemory, new Options(options)
{
NullSubstitution = null
});
stackedMemory.Pop();
if (FunctionUtils.IsLogicTrue(r) && e == null)
{
// add if only if it evaluates to true
((List <object>)result).Add(local[iteratorName]);
}
}
if (!isInstanceList)
{
// re-construct object
var jobjResult = new JObject();
foreach (var item in (List <object>)result)
{
FunctionUtils.TryAccessProperty(item, "key", out var keyVal);
FunctionUtils.TryAccessProperty(item, "value", out var val);
jobjResult.Add(keyVal as string, FunctionUtils.ConvertToJToken(val));
}
result = jobjResult;
}
}
}
return(result, error);
}
public ModsDat(IMemory m, Func <long> address, StatsDat sDat, TagsDat tagsDat) : base(m, address)
{
loadItems(sDat, tagsDat);
}
private static (object value, string error) Evaluator(Expression expression, IMemory state, Options options)
{
TimexProperty parsed = null;
string result = null;
string error = null;
var(validHour, validMinute, validSecond) = (0, 0, 0);
IReadOnlyList <object> args;
var formatRegex = new Regex("TXX:[0-5][0-9]:[0-5][0-9]");
var currentUtcTime = DateTime.UtcNow;
var convertedDateTime = currentUtcTime;
(args, error) = FunctionUtils.EvaluateChildren(expression, state, options);
if (error == null)
{
if (!formatRegex.IsMatch(args[0] as string))
{
error = $"{args[0]} must be a timex string which only contains minutes and seconds, for example: 'TXX:15:28'";
}
}
if (error == null)
{
if (args.Count == 2 && args[1] is string timezone)
{
object convertedTimeZone = null;
(convertedTimeZone, error) = FunctionUtils.ConvertTimeZoneFormat(timezone);
if (error == null)
{
convertedDateTime = TimeZoneInfo.ConvertTimeFromUtc(currentUtcTime, (TimeZoneInfo)convertedTimeZone);
}
}
else
{
convertedDateTime = currentUtcTime.ToLocalTime();
}
}
if (error == null)
{
(parsed, error) = FunctionUtils.ParseTimexProperty((args[0] as string).Replace("XX", "00"));
}
if (error == null)
{
var(hour, minute, second) = (convertedDateTime.Hour, convertedDateTime.Minute, convertedDateTime.Second);
if (parsed.Minute < minute || (parsed.Minute == minute && parsed.Second < second))
{
validHour = hour;
}
else
{
validHour = hour - 1;
}
validMinute = parsed.Minute ?? 0;
validSecond = parsed.Second ?? 0;
result = TimexProperty.FromTime(new Time(validHour, validMinute, validSecond)).TimexValue;
}
return(result, error);
}
public void UpdateFromMemoryWrite(IMemory oam, int oamAddress)
{
var updatedSpriteNumber = oamAddress / Sprite.SizeInBytes;
UpdateSpriteFromOam(updatedSpriteNumber, oam);
}
public OpCode64Id18(IMemory memory, IRegister register, Stack<ulong> ras) : base(memory,register)
{
this.ras = ras;
}
/// <summary>
/// Gets the physical address.
/// </summary>
/// <param name="memory">The memory.</param>
/// <returns></returns>
public static uint GetPhysicalAddress(IMemory memory)
{
return(hardwareAbstraction.GetPhysicalAddress(memory));
}
public WashProgramSelectedSignalHandler(IMemory memory)
{
_memory = memory;
}