static ThreadContext GetContext(ConcurrentDictionary<int, ThreadContext> nodes) {
return nodes.GetOrAdd(Thread.CurrentThread.ManagedThreadId, _ => {
var tc = new ThreadContext();
tc.Root = tc.Clock = tc.Chain = tc.Focus = new Node(tc);
return tc;
});
}
public static void IDIV(ThreadContext ThreadContext)
{
var Numerator = ThreadContext.EDX_EAX;
var Denominator = ThreadContext.ECX;
ThreadContext.EAX = (uint)(Numerator / Denominator);
ThreadContext.EDX = (uint)(Numerator % Denominator);
}
async Task Start(ThreadContext<IGame> startupContext = null)
{
MessageBrokerFactory.Instance.Publish(new GameMessage("Starting game."));
if (!this.IsEnabled)
{
await this.Initialize();
}
MessageBrokerFactory.Instance.Publish(new GameMessage("Configuring game configuration components."));
foreach (IAdapter adapter in this.configuredAdapters)
{
MessageBrokerFactory.Instance.Publish(new GameMessage($"Initializing {adapter.Name} component."));
await adapter.Start(this);
MessageBrokerFactory.Instance.Publish(new GameMessage($"{adapter.Name} initialization completed."));
}
this.IsRunning = true;
MessageBrokerFactory.Instance.Publish(new GameMessage("Game started."));
if (startupContext != null)
{
startupContext.Invoke(this);
return;
}
// Start the game loop.
await Task.Run(() =>
{
while (this.IsRunning)
{
Task.Delay(1).Wait();
}
});
}
/// <summary>
/// In the x86 assembly language, the TEST instruction performs a bitwise AND on two operands.
/// The flags SF, ZF, PF, CF, OF and AF are modified while the result of the AND is discarded.
/// There are 9 different opcodes for the TEST instruction depending on the type and size of the operands.
/// It can compare 8-bit, 16-bit, 32-bit or 64-bit values. It can also compare registers, immediate values and register indirect values.[1]
/// </summary>
/// <param name="ThreadContext"></param>
/// <param name="Left"></param>
/// <param name="Right"></param>
/// <see cref="http://en.wikipedia.org/wiki/TEST_(x86_instruction)"/>
public static void TEST_DWORD(ThreadContext ThreadContext, int Left, int Right)
{
var Result = (Left & Right);
ThreadContext.Flags.ZF = (Result == 0);
// @TODO
//SF, ZF, PF, CF, OF and AF
//throw new NotImplementedException();
}
public static void StartThread(Action action)
{
Thread t = new Thread(new ThreadStart(
() =>
{
if (ThreadContext.activeContext == null)
{
ThreadContext c = new ThreadContext(Program.env);
}
action();
}));
t.Start();
}
/// <summary>
/// Dies from an unhandled exception.
/// </summary>
/// <param name="Exception"></param>
public static void DieFromUnhandledException(ThreadContext TC, RakudoObject Exception)
{
// Try to stringify the exception object.
try
{
var StrMeth = Exception.STable.FindMethod(TC, Exception, "Str", Hints.NO_HINT);
var Stringified = StrMeth.STable.Invoke(TC, StrMeth, CaptureHelper.FormWith(new RakudoObject[] { Exception }));
Console.WriteLine(Ops.unbox_str(TC, Stringified));
}
catch
{
Console.Error.WriteLine("Died from an exception, and died trying to stringify it too.");
}
// Exit with an error code.
Environment.Exit(1);
}
private void CreateContexts()
{
ReminderWindow.ResetIsClosing();
Screen[] screens = Screen.AllScreens;
foreach (var screen in screens)
{
var context = new ThreadContext
{
Thread = new Thread(RunWindow),
IsReady = new ManualResetEvent(false),
Screen = screen
};
context.Thread.SetApartmentState(ApartmentState.STA);
context.Thread.Start(context);
_contexts.Add(context);
}
}
/*
static public void CALL_INDEX(ThreadContext ThreadContext, int Index)
{
ThreadContext.NextFunction = ThreadContext.CpuContext.MethodCache[Index];
//ThreadContext.CpuContext.MethodCache[Index](ThreadContext);
}
static public void RETURN(ThreadContext ThreadContext)
{
ThreadContext.NextFunction = ThreadContext.CpuContext.MethodCache[Index];
//ThreadContext.CpuContext.MethodCache[Index](ThreadContext);
}
*/
public static void INTERRUPT(ThreadContext ThreadContext, uint nPC, uint Code)
{
switch (Code)
{
case 1:
var NativeMethod = ThreadContext.CpuContext.NativeMethodInfoList[ThreadContext.CpuContext.Memory.Read4(nPC)];
NativeMethod.Method(NativeMethod, ThreadContext);
//Console.WriteLine(NativeMethod.);
//Console.WriteLine("INTERRUPT: {0}", Code);
//Console.ReadKey(); Environment.Exit(0);
RETURN(ThreadContext);
break;
default:
throw(new NotImplementedException("Interrupt : " + Code));
}
//throw new NotImplementedException();
}
//
// MUST NOT BE CALLED DIRECTLY
// A protected method that does callback job and it is guaranteed to be called exactly once.
// A derived overriding method must call the base class somewhere or the completion is lost.
//
protected virtual void Complete(IntPtr userToken)
{
bool offloaded = false;
ThreadContext threadContext = CurrentThreadContext;
try
{
++threadContext.m_NestedIOCount;
if (_asyncCallback != null)
{
GlobalLog.Print("LazyAsyncResult#" + Logging.HashString(this) + "::Complete() invoking callback");
if (threadContext.m_NestedIOCount >= c_ForceAsyncCount)
{
GlobalLog.Print("LazyAsyncResult::Complete *** OFFLOADED the user callback ***");
Task.Factory.StartNew(
s => WorkerThreadComplete(s),
null,
CancellationToken.None,
TaskCreationOptions.DenyChildAttach,
TaskScheduler.Default);
offloaded = true;
}
else
{
_asyncCallback(this);
}
}
else
{
GlobalLog.Print("LazyAsyncResult#" + Logging.HashString(this) + "::Complete() no callback to invoke");
}
}
finally
{
--threadContext.m_NestedIOCount;
// Never call this method unless interlocked m_IntCompleted check has succeeded (like in this case)
if (!offloaded)
{
Cleanup();
}
}
}
private static void CleanerThread(ThreadContext tc)
{
while (!tc.IsToStop)
{
try
{
ZipXml("Live");
ZipXml("Virtual");
}
catch (Exception e)
{
m_logger.Excp(e, e.Message);
}
Thread.Sleep(60000);
}
}
public override object Visit(MetaDataThreadEvent metaDataEvent)
{
TimeBase += metaDataEvent.TimeDiff;
ThreadContext ctx;
long threadId = currentBuffer.Header.PtrBase * metaDataEvent.Pointer;
if (!threadDictionary.TryGetValue(threadId, out ctx))
{
threadDictionary [threadId] = ctx = new ThreadContext()
{
ThreadId = threadId
};
}
ctx.Name = metaDataEvent.Name;
return(null);
}
static void Main(string[] args)
{
ThreadContext thread = new ThreadContext();
ThreadMonitor monitor = new ThreadMonitor();
thread.Register(monitor);
thread.Start();
thread.Start();
thread.Sleep();
thread.Start();
thread.Abort();
thread.Start();
thread.Abort();
thread.Abort();
Console.ReadKey();
}
public ObservableCollection <Ita> LoadItas(Category category)
{
using (var db = new ThreadContext())
{
var itas = from ita in db.Itas
where ita.CategoryId == category.CategoryId
select ita;
var returnItas = new ObservableCollection <Ita>();
foreach (var ita in itas)
{
ita.Category = category;
ita.CategoryId = category.CategoryId;
returnItas.Add(ita);
}
return(returnItas);
}
}
private void ResumeTasks(bool waitUntilDone, bool onCallerThread)
{
#if DBG
Debug.Trace("Async", "TaskManager.ResumeTasks: onCallerThread=" + onCallerThread +
", _tasksCompleted=" + _tasksCompleted + ", _tasksStarted=" + _tasksStarted);
if (waitUntilDone)
{
// must be on caller thread to wait
Debug.Assert(onCallerThread);
}
#endif
// artifically increment the task count by one
// to make sure _tasksCompleted doesn't become equal to _tasksStarted during this method
Interlocked.Increment(ref _tasksStarted);
try {
if (onCallerThread)
{
ResumeTasksPossiblyUnderLock(waitUntilDone);
}
else
{
using (_app.Context.SyncContext.AcquireThreadLock()) {
ThreadContext threadContext = null;
try {
threadContext = _app.OnThreadEnter();
ResumeTasksPossiblyUnderLock(waitUntilDone);
}
finally {
if (threadContext != null)
{
threadContext.DisassociateFromCurrentThread();
}
}
}
}
}
finally {
// complete the bogus task introduced with incrementing _tasksStarted at the beginning
TaskCompleted(onCallerThread);
}
}
private static void SetThreadHook(HookItem item, bool remove)
{
var ctx = new ThreadContext();
ctx.ContextFlags = 65559;
foreach (IntPtr openThreadHandle in OpenThreadHandles)
{
SuspendThread(openThreadHandle);
GetThreadContext(openThreadHandle, ref ctx);
SetDebugRegisters(item.Register, item.Location, ref ctx, remove);
item.Hooked = !remove;
SetThreadContext(openThreadHandle, ref ctx);
ResumeThread(openThreadHandle);
}
}
public RawInputDevice(HidDevice device, ReportDescriptor reportDescriptor, DeviceItem deviceItem, HidStream hidStream, string uniqueId)
{
this.device = device;
inputReportBuffer = new byte[device.GetMaxInputReportLength()];
inputReceiver = reportDescriptor.CreateHidDeviceInputReceiver();
inputParser = deviceItem.CreateDeviceItemInputParser();
inputReceiver.Start(hidStream);
DisplayName = device.GetProductName();
UniqueId = uniqueId;
InterfacePath = device.DevicePath;
HardwareID = IdHelper.GetHardwareId(InterfacePath);
inputChangedEventArgs = new DeviceInputChangedEventArgs(this);
sources = reportDescriptor.InputReports.SelectMany(ir => ir.DataItems)
.SelectMany(di => di.Usages.GetAllValues())
.Select(u => (Usage)u)
.SelectMany(u => RawInputSource.FromUsage(this, u))
.ToArray();
readThreadContext = ThreadCreator.CreateLoop($"{DisplayName} RawInput reader", ReadLoop, 1).Start();
}
public ScriptBot(string scriptPath)
{
this.scriptPath = scriptPath;
var sp = scriptPath.Split('\\');
jsName = sp[sp.Length - 1];
threadContext = new ThreadContext(scriptPath);
//threadContext.ctx.Debugging = true;
threadContext.ctx.Debugging = Configurations.Debugging;
threadContext.debuggerLength = Configurations.DebuggerLength;
threadContext.ctx.DefineConstructor(typeof(Vector2));
threadContext.ctx.DefineVariable("log").Assign(JSValue.Marshal(new Action <string>(DebugMessage)));
threadContext.ctx.DefineVariable("info");
scriptStr = File.OpenText(scriptPath).ReadToEnd();
var lineList = new List <int>();
lineList.Add(-1);
for (int i = 0; i < scriptStr.Length; i++)
{
if (scriptStr[i] == '\n')
{
lineList.Add(i);
}
}
linePositions = lineList.ToArray();
try
{
threadContext.TimedEval(scriptStr, 2000);
}
catch (Exception ex)
{
if (ex is JSException)
{
HandleJSError(ex as JSException);
}
else
{
HandleError(ex);
}
}
}
public override void SetUp()
{
base.SetUp();
root = CreateOneItem <RegularPage>(1, "root", null);
about = CreateOneItem <AboutUsSectionPage>(2, "about", root);
executives = CreateOneItem <ExecutiveTeamPage>(3, "executives", about);
search = CreateOneItem <SearchPage>(4, "search", root);
var typeFinder = new FakeTypeFinder2();
typeFinder.typeMap[typeof(ContentItem)] = this.NearbyTypes()
.BelowNamespace("N2.Extensions.Tests.Mvc.Models").AssignableTo <ContentItem>().Union(typeof(ContentItem)).ToArray();
typeFinder.typeMap[typeof(IController)] = this.NearbyTypes()
.BelowNamespace("N2.Extensions.Tests.Mvc.Controllers").AssignableTo <IController>().Except(typeof(AnotherRegularController))
.ToArray();
var changer = new StateChanger();
var definitions = new DefinitionManager(new[] { new DefinitionProvider(new DefinitionBuilder(new DefinitionMap(), typeFinder, new EngineSection())) }, new ITemplateProvider[0], new ContentActivator(changer, null, new EmptyProxyFactory()), changer);
var webContext = new ThreadContext();
var host = new Host(webContext, root.ID, root.ID);
var parser = new UrlParser(persister, webContext, host, new HostSection());
controllerMapper = new ControllerMapper(typeFinder, definitions);
Url.DefaultExtension = "";
engine = mocks.DynamicMock <IEngine>();
SetupResult.For(engine.Resolve <ITypeFinder>()).Return(typeFinder);
SetupResult.For(engine.Definitions).Return(definitions);
SetupResult.For(engine.UrlParser).Return(parser);
SetupResult.For(engine.Persister).Return(persister);
var editUrlManager = new FakeEditUrlManager();
SetupResult.For(engine.ManagementPaths).Return(editUrlManager);
engine.Replay();
route = new ContentRoute(engine, new MvcRouteHandler(), controllerMapper, null);
httpContext = new FakeHttpContext();
routes = new RouteCollection {
route
};
}
private void CloseAccept(ThreadContext threadContext, Dictionary <int, TSocket> sockets)
{
var acceptSockets = threadContext.AcceptSockets;
lock (sockets)
{
for (int i = 0; i < acceptSockets.Count; i++)
{
threadContext.RemoveSocket(acceptSockets[i].Fd);
}
}
for (int i = 0; i < acceptSockets.Count; i++)
{
// close causes remove from epoll (CLOEXEC)
acceptSockets[i].Socket.Dispose(); // will close (no concurrent users)
}
acceptSockets.Clear();
CompleteStateChange(State.AcceptClosed);
}
public Task InvokeAsync(DispatcherPriority priority, Delegate callback, params object[] arguments)
{
if (Thread == Thread.CurrentThread)
{
callback.DynamicInvoke(arguments);
return(Task.CompletedTask);
}
switch (Type)
{
case GuiContextType.None:
{
return(Task.Run(() => { callback.DynamicInvoke(arguments); }));
}
case GuiContextType.WPF:
{
return(GuiDispatcher.InvokeAsync(() => { callback.DynamicInvoke(arguments); }, priority).Task);
}
case GuiContextType.WinForms:
{
var doneEvent = WaitEventFactory.Create(isCompleted: false, useSlim: true);
ThreadContext.Post((args) =>
{
try
{
callback.DynamicInvoke(args as object[]);
}
catch { throw; }
finally { doneEvent.Complete(); }
}, arguments);
return(Task.Run(() =>
{
doneEvent.Wait();
doneEvent.Dispose();
}));
}
}
return(Task.CompletedTask);
}
public void Start()
{
if (!Running)
{
InputConfiguration.Sources.ForEach(s => {
var source = FindSource(s.Offset);
if (source != null)
{
source.Update(s);
}
});
readThreadContext = ThreadCreator.CreateLoop($"{DisplayName} RawInput reader", ReadLoop, 1).Start();
if (!InputConfiguration.Autostart)
{
InputConfiguration.Autostart = true;
inputConfigManager.SaveConfig(this);
}
}
}
private void Run(ThreadContext tc)
{
while (!tc.IsToStop)
{
var result = StationRepository.Refresh();
if (StationRepository.SyncInterval > 0)
{
_syncInterval = StationRepository.SyncInterval * 1000;
}
if (result)
{
Thread.Sleep(_syncInterval);
}
else
{
Thread.Sleep(3000);
}
}
}
protected string GetClientClass(string className)
{
string clientClass = null;
string mappingClassName = ORBConstants.CLIENT_MAPPING + className;
IDictionary props = ThreadContext.getProperties();
if (props.Contains(mappingClassName))
{
clientClass = (string)props[mappingClassName];
}
if (clientClass == null)
{
return(Types.Types.getClientClassForServerType(className));
}
else
{
return(clientClass);
}
}
/// <summary>
/// 単一アプリケーション オブジェクトを初期化します。これは、実行される作成したコードの
///最初の行であるため、main() または WinMain() と論理的に等価です。
/// </summary>
public App()
{
Microsoft.ApplicationInsights.WindowsAppInitializer.InitializeAsync(
Microsoft.ApplicationInsights.WindowsCollectors.Metadata |
Microsoft.ApplicationInsights.WindowsCollectors.Session);
this.InitializeComponent();
this.Suspending += OnSuspending;
using (var db = new ThreadContext())
{
try
{
db.Database.Migrate();
}
catch (Exception ex)
{
var message = ex.Message;
}
}
}
private void DevicesServiceRefresh(ThreadContext tc)
{
while (!tc.IsToStop)
{
if (!StationRepository.CheckDevicesChange())
{
StationRepository.Refresh();
}
if (StationRepository.SyncInterval > 0)
{
_syncInterval = StationRepository.SyncInterval * 1000 * 3;
Thread.Sleep(_syncInterval);
}
else
{
Thread.Sleep(3000);
}
}
}
public static ThreadContext GetThreadContext(HttpContextBase httpcontext)
{
ThreadContext tc = new ThreadContext();
tc.Domain = httpcontext.Request.Url.Host;
tc.Ip = GetClientIP(httpcontext);
tc.UserAgent = httpcontext.Request.UserAgent;
tc.Url = httpcontext.Request.Url;
if (httpcontext.Session != null)
{
tc.SessionID = httpcontext.Session.SessionID;
}
if (httpcontext.Request.UrlReferrer != null)
{
tc.Referrer = httpcontext.Request.UrlReferrer.ToString();
}
return(tc);
}
private void RunRegistrationFormRefresh(ThreadContext tc)
{
while (!tc.IsToStop)
{
var result = StationRepository.GetRegistrationForm();
if (StationRepository.SyncInterval > 0)
{
_syncInterval = StationRepository.SyncInterval * 1000 * 3;
}
if (result != null)
{
Thread.Sleep(_syncInterval);
}
else
{
Thread.Sleep(3000);
}
}
}
public AckMessage(string correlationId, object clientId, object obj, IDictionary headers)
{
this.correlationId = correlationId;
this.clientId = clientId == null?Guid.NewGuid().ToString().ToUpper() : clientId;
this.messageId = Guid.NewGuid().ToString().ToUpper(); // "12DB8FBF-1700-DC12-C88A-B0BA6C88C7ED";
if (headers != null)
{
this.headers = headers;
}
else
{
#if (FULL_BUILD)
Hashtable responseMetadata = null;
if (ThreadContext.getProperties().Contains(ORBConstants.RESPONSE_METADATA))
{
responseMetadata = (Hashtable)ThreadContext.getProperties()[ORBConstants.RESPONSE_METADATA];
}
if (responseMetadata != null)
{
this.headers = responseMetadata;
}
else
{
this.headers = new Hashtable();
}
#else
this.headers = new Dictionary <object, object>();
#endif
}
DateTime startTime = new DateTime(1970, 1, 1);
long t = DateTime.Now.Ticks - startTime.Ticks;
this.timestamp = (long)TimeSpan.FromTicks(t).TotalMilliseconds;
this.body = new BodyHolder();
this.body.body = obj;
this.timeToLive = 0;
}
/// <summary>
/// Retrieves the context of the specified thread.
/// </summary>
/// <param name="threadHandle">A handle to the thread whose context is to be retrieved.</param>
/// <param name="contextFlags">Determines which registers are returned or set.</param>
/// <returns>A <see cref="ThreadContext"/> structure that receives the appropriate context of the specified thread.</returns>
public static ThreadContext GetThreadContext(SafeMemoryHandle threadHandle, ThreadContextFlags contextFlags = ThreadContextFlags.Full)
{
// Check if the handle is valid
HandleManipulator.ValidateAsArgument(threadHandle, "threadHandle");
// Allocate a thread context structure
var context = new ThreadContext {
ContextFlags = contextFlags
};
// Set the context flag
// Get the thread context
if (NativeMethods.GetThreadContext(threadHandle, ref context))
{
return(context);
}
// Else couldn't get the thread context, throws an exception
throw new Win32Exception("Couldn't get the thread context.");
}
private static void InvokeMeshPass(EffectMesh mesh, ThreadContext context, bool skipEffectPass = false)
{
var effectPass = mesh.EffectPass;
// Execute EffectPass - StartPass
if (!skipEffectPass)
{
effectPass.StartPass.Invoke(context);
}
// Execute MeshPass - StartPass - EndPass
context.EffectMesh = mesh;
mesh.Render.Invoke(context);
context.EffectMesh = null;
// Execute EffectPass - EndPass
if (!skipEffectPass)
{
effectPass.EndPass.Invoke(context);
}
}
public CommandMessage(String operation, Object body)
{
this.messageId = Guid.NewGuid().ToString().ToUpper();
Hashtable responseMetadata = (Hashtable)ThreadContext.getProperties()[ORBConstants.RESPONSE_METADATA];
if (responseMetadata != null)
{
this.headers = responseMetadata;
}
else
{
this.headers = new Hashtable();
}
this.timestamp = ORBUtil.currentTimeMillis();
this.body = new BodyHolder();
this.body.body = body;
this.timeToLive = 0;
this.operation = operation;
}
public AD7StackFrame(AD7Engine engine, AD7Thread thread, ThreadContext threadContext)
{
Debug.Assert(threadContext != null, "ThreadContext is null");
Engine = engine;
Thread = thread;
ThreadContext = threadContext;
_textPosition = threadContext.TextPosition;
_functionName = threadContext.Function;
if (_textPosition != null)
{
_documentCxt = new AD7DocumentContext(_textPosition, _codeCxt);
if (_codeCxt != null)
{
_codeCxt.SetDocumentContext(_documentCxt);
}
}
}
protected MessageHandler(CloseFunction closeFunction, SenderFunction senderFunction)
{
this.closeFunction = closeFunction;
this.senderFunction = senderFunction;
pingThreadContext = ThreadCreator.CreateLoop("Ping loop", () => {
try
{
var r = new PingRequest {
Timestamp = DateTimeOffset.UtcNow.ToUnixTimeMilliseconds(),
};
senderFunction(new PingRequest {
Timestamp = DateTimeOffset.UtcNow.ToUnixTimeMilliseconds(),
});
}
catch (Exception ex)
{
logger.Warn(ex, "Ping failed, closing connection");
closeFunction();
}
}, 5000).Start();
}
/// <summary>
/// 尝试把任务排到线程池上
/// </summary>
/// <param name="action">任务</param>
/// <returns>是否排队成功</returns>
public bool TryQueueUserWork(Action action)
{
if (_threadNum < MaxThreadNum)
{
var context = new ThreadContext(action);
context.OnExited = () =>
{
Interlocked.Decrement(ref _threadNum);
};
if (ThreadPool.QueueUserWorkItem(threadContext =>
{
var runable = (Runable)threadContext;
runable.Run();
}, context))
{
Interlocked.Increment(ref _threadNum);
return(true);
}
}
return(false);
}
public override HostExecutionContext Capture()
{
ThreadContext currentContext = ThreadContext.Current;
if (currentContext != null)
{
// We need to capture a reference to the current HttpContext's ThreadContextId
// so that we can properly restore this instance on the call to SetHostExecutionContext.
// See comment on HttpContext.ThreadContextId for more information.
return(new AspNetHostExecutionContext(
baseContext: base.Capture(),
httpContextThreadContextId: currentContext.HttpContext.ThreadContextId));
}
else
{
// There is no ThreadContext associated with this thread, hence there is no special
// setup we need to do to restore things like HttpContext.Current. We can just
// delegate to the base implementation.
return(base.Capture());
}
}
protected string GetClientClass(IDictionary dictionary)
{
Type type = dictionary.GetType();
string className = type.IsGenericType && type.FullName != null
? type.FullName.Substring(0, type.FullName.IndexOf("`"))
: type.FullName;
#if (FULL_BUILD)
string clientClass = null;
string mappingClassName = ORBConstants.CLIENT_MAPPING + className;
IDictionary props = ThreadContext.getProperties();
if (props.Contains(className))
{
clientClass = (string)props[mappingClassName];
}
#else
string clientClass = null;
#endif
if (clientClass == null)
{
clientClass = Types.Types.getClientClassForServerType(className);
if (clientClass == null && type.IsGenericType)
{
Type keyType = type.GetGenericArguments()[0];
if (!keyType.IsPrimitive && !StringUtil.IsStringType(keyType))
{
clientClass = "flash.utils.Dictionary";
}
}
return(clientClass);
}
else
{
return(clientClass);
}
}
void WriteThreadBody(object obj)
{
ThreadContext ctx = (ThreadContext)obj;
try
{
UpdateProgress("Erasing partition table...", 0, 0);
using (var dev = new DiskDevice(ctx.DeviceNumber.PhysicalDrive))
{
if (dev.QueryLength().Length != (ulong)ctx.VolumeSize)
{
throw new Exception("Mismatching volume length");
}
}
RunDiskpart($"SELECT DISK {ctx.DeviceNumber.DeviceNumber}\r\nCLEAN\r\nRESCAN\r\nEXIT", $"Diskpart failed to reset disk #{ctx.DeviceNumber}");
using (var dev = new DiskDevice(ctx.DeviceNumber.PhysicalDrive))
{
for (; ;)
{
if (AttemptWrite(ctx, dev))
{
break;
}
}
ReportCompletion(null);
}
}
catch (System.Exception ex)
{
ReportCompletion(ex);
}
finally
{
ctx.fs?.Dispose();
}
}
private ThreadContext OnSystemTick(SystemIRQ irq, ThreadContext context)
{
TickCount++;
// Unblock delayed threads
while (true)
{
var first = _delayedThreads.First;
if (first != null && TickCount >= first.Value.AwakeTick)
{
_delayedThreads.Remove(first);
_readyThreads.AddLast(first);
first.Value.Thread.State = ThreadState.Ready;
}
else
{
break;
}
}
return(YieldThread());
}
public MainWindow()
{
runningThread = new ThreadContext
{
WorkerThread = new Thread(Transformator),
UIThread = Dispatcher,
Queue = inputText,
Running = true
};
DataContext = runningThread;
InitializeComponent();
runningThread.Output = output;
runningThread.Errors = errors;
runningThread.WorkerThread.Start(runningThread);
input.SyntaxHighlighting = HighlightingLoader.Load(
new XmlTextReader("Python.xshd"), HighlightingManager.Instance
);
output.SyntaxHighlighting = HighlightingManager.Instance.GetDefinition("JavaScript");
}
/// <summary>
///
/// </summary>
/// <param name="ThreadContext"></param>
/// <param name="Left"></param>
/// <param name="Right"></param>
public static void CMP_DWORD(ThreadContext ThreadContext, int Left, int Right)
{
int Result;
Result = Left - Right;
//Console.WriteLine("######## CMP: 0x{1:X} - 0x{2:X} = 0x{0:X}", Result, Left, Right);
ThreadContext.Flags.OF = false;
ThreadContext.Flags.ZF = (Result == 0);
ThreadContext.Flags.SF = (Result < 0);
//if (Right < Left) ThreadContext.Flags.OF = true;
try
{
Result = checked(Left - Right);
}
catch (OverflowException)
{
ThreadContext.Flags.OF = true;
}
}
/// <summary>
/// Invokes the specified exception handler with the given exception
/// object.
/// </summary>
/// <param name="Handler"></param>
/// <param name="ExceptionObject"></param>
/// <returns></returns>
public static RakudoObject CallHandler(ThreadContext TC, RakudoObject Handler, RakudoObject ExceptionObject)
{
// Invoke the handler. Note that in some cases we never return from it;
// for example, the return exception handler does .leave.
var Returned = Handler.STable.Invoke(TC, Handler, CaptureHelper.FormWith(new RakudoObject[] { ExceptionObject }));
// So, we returned. Let's see if it's resumable.
var ResumableMeth = Returned.STable.FindMethod(TC, Returned, "resumable", Hints.NO_HINT);
var Resumable = ResumableMeth.STable.Invoke(TC, ResumableMeth, CaptureHelper.FormWith(new RakudoObject[] { Returned }));
if (Ops.unbox_int(TC, Resumable) != 0)
{
// Resumable, so don't need to stack unwind. Simply return
// from here.
return Returned;
}
else
{
// Not resumable, so stack unwind out of the block containing
// the handler.
throw new LeaveStackUnwinderException(
(Handler as RakudoCodeRef.Instance).OuterBlock,
Returned);
}
}
public void ThreadContext_Get_Set_Guid_TEST()
{
var tc = new ThreadContext();
var guid = Guid.NewGuid();
tc.Set("b", guid);
Assert.AreEqual(guid, tc.Get<Guid>("b"));
}
/// <summary>
/// Computes a bitonic sort on the sort buffer.
/// </summary>
/// <param name="context">The context.</param>
/// <remarks>
/// The sort buffer is a structure containing:
/// struct SortData { uint ParticleIndex; float DepthValue; };
/// This methods reorders the sort buffer based on the depth value, from lowest to highest.
/// </remarks>
private void ComputeBitonicSort(ThreadContext context)
{
if (!EnableSorting || !isParticleRenderingEnabled)
return;
// TODO: handle progressive sorting when no dynamic emitter
int particleCount = updatersCount;
// Precalculates values from CapacityCount, MaximumDepthLevel and MaximumThreadPerGroup
var depthLevelCount = (int)Math.Log(particleCount, 2);
var optimLevelStart = (int)Math.Log(MaximumDepthLevel, 2);
int blockSize = 1;
int numberOfGroupForOptim = particleCount / MaximumThreadPerGroup;
int numberOfGroups = numberOfGroupForOptim / 2;
for (int i = 0; i < depthLevelCount; i++, blockSize *= 2)
{
// Create dispatch pass for bitonic step1
effectMeshSort1Pass1.Parameters.Set(ParticleBaseKeys.ParticleStartIndex, (uint)blockSize);
effectMeshSort1Pass1.Parameters.Set(ParticleBaseKeys.ParticleSortBuffer, sortBuffer);
effectMeshSort1Pass1.Parameters.Set(ComputeShaderPlugin.ThreadGroupCount, new Int3(numberOfGroups, 1, 1));
// Invoke Mesh Pass
InvokeMeshPass(effectMeshSort1Pass1, context);
// Setup multiple Pass2
var subOffset = blockSize;
for (int j = 0; j < i; j++, subOffset /= 2)
{
// Use optimized group version if possible
int k = optimLevelStart - i + j;
if (k >= 0 && k < effectMeshBitonicSort2.Length)
{
var subMesh = effectMeshBitonicSort2[k];
subMesh.Parameters.Set(ParticleBaseKeys.ParticleSortBuffer, sortBuffer);
subMesh.Parameters.Set(ComputeShaderPlugin.ThreadGroupCount, new Int3(numberOfGroupForOptim, 1, 1));
InvokeMeshPass(subMesh, context);
break;
}
// Else use standard version
effectMeshSort1Pass2.Parameters.Set(ParticleBaseKeys.ParticleStartIndex, (uint)(subOffset / 2));
effectMeshSort1Pass2.Parameters.Set(ParticleBaseKeys.ParticleSortBuffer, sortBuffer);
effectMeshSort1Pass2.Parameters.Set(ComputeShaderPlugin.ThreadGroupCount, new Int3(numberOfGroups, 1, 1));
// When j > 0, we can don't need to reapply the effect pass
InvokeMeshPass(effectMeshSort1Pass2, context, j > 0);
}
}
}
private static void Preparing(ThreadContext context, PreparingEventArgs preparing) {
context.Focus = context.Focus.Preparing(preparing);
context.Chain = context.Chain.Link(preparing, context.Focus);
context.Clock = MoveClock(context.Clock, context.Focus);
}
private static void Activating(ThreadContext context, ActivatingEventArgs<object> activating) {
context.Focus = context.Focus.Activating(activating);
}
/// <summary>
/// Resolves the symbol address.
/// </summary>
/// <param name="process">The process.</param>
/// <param name="symbol">The symbol.</param>
/// <param name="frameContext">The frame context.</param>
private static ulong ResolveAddress(Process process, IDiaSymbol symbol, ThreadContext frameContext)
{
ulong address;
switch ((LocationType)symbol.locationType)
{
case LocationType.RegRel:
switch ((CV_HREG_e)symbol.registerId)
{
case CV_HREG_e.CV_AMD64_ESP:
case CV_HREG_e.CV_AMD64_RSP:
address = frameContext.StackPointer;
break;
case CV_HREG_e.CV_AMD64_RIP: //case CV_HREG_e.CV_REG_EIP:
address = frameContext.InstructionPointer;
break;
case CV_HREG_e.CV_AMD64_RBP:
case CV_HREG_e.CV_AMD64_EBP:
address = frameContext.FramePointer;
break;
case CV_HREG_e.CV_ALLREG_VFRAME:
if (process.EffectiveProcessorType == ImageFileMachine.AMD64)
address = frameContext.StackPointer;
else
address = frameContext.FramePointer;
break;
default:
throw new Exception("Unknown register id" + (CV_HREG_e)symbol.registerId);
}
address += (ulong)symbol.offset;
return address;
case LocationType.Static:
return symbol.virtualAddress;
default:
throw new Exception("Unknown location type " + (LocationType)symbol.locationType);
}
}
private static void CheckContext()
{
var t = new ThreadContext();
var result = t.Get<string>("c");
if (!string.IsNullOrEmpty(result))
{
throw new InvalidDataException();
}
t.Set("c", "a");
if (t.Get<string>("c") != "a")
{
throw new InvalidDataException();
}
}
public void ThreadContext_Sharing_TEST()
{
var tc = new ThreadContext();
var k = "a";
var threadTimes = new Dictionary<int, DateTime>();
var action = new Action(
() =>
{
var tk = Thread.CurrentThread.ManagedThreadId;
DateTime? now = DateTime.Now;
Assert.IsFalse(tc.Get<DateTime?>(k).HasValue);
if (!tc.Get<DateTime?>(k).HasValue)
{
tc.Set(k, now);
if (!threadTimes.ContainsKey(tk))
{
threadTimes[tk] = now.Value;
}
}
Assert.AreEqual(now.Value.Ticks, tc.Get<DateTime?>(k).Value.Ticks);
});
var tasks = new List<Task>();
for (int i = 0; i < 100000; i++)
{
tasks.Add(Task.Factory.StartNew(action));
}
Task.WaitAll(tasks.ToArray());
Assert.IsTrue(true);
}
/// <summary>
/// Sets the context for the specified thread.
/// </summary>
/// <param name="threadHandle">A handle to the thread whose context is to be set.</param>
/// <param name="context">
/// A pointer to a <see cref="ThreadContext" /> structure that contains the context to be set in the
/// specified thread.
/// </param>
public static void SetThreadContext(SafeMemoryHandle threadHandle, ThreadContext context)
{
// Check if the handle is valid
HandleManipulationHelper.ValidateAsArgument(threadHandle, "threadHandle");
// Set the thread context
if (!NativeMethods.SetThreadContext(threadHandle, ref context))
throw new Win32Exception("Couldn't set the thread context.");
}
private static void Activated(ThreadContext context, ActivatedEventArgs<object> activated) {
context.Clock = MoveClock(context.Clock, context.Root);
context.Chain = context.Chain.Activated(activated);
}
public void LeakTest()
{
int workerThreads, portsThreads;
ThreadPool.GetMaxThreads(out workerThreads, out portsThreads);
ThreadPool.SetMaxThreads(5, 5);
for (var i = 0; i < 10000; i++)
{
var t = new Thread(CheckContext);
var c = new ThreadContext();
c.Set("c", "a");
t.Start();
t.Join();
}
ThreadPool.SetMaxThreads(workerThreads, portsThreads);
Assert.IsTrue(true);
}
/// <summary>
/// Finds the best candidate, if one exists, and returns it.
/// </summary>
/// <param name="Candidates"></param>
/// <param name="Capture"></param>
/// <returns></returns>
public static RakudoObject FindBestCandidate(ThreadContext TC, RakudoCodeRef.Instance DispatchRoutine, RakudoObject Capture)
{
// Extract the native capture.
// XXX Handle non-native captures too.
var NativeCapture = Capture as P6capture.Instance;
// First, try the dispatch cache.
if (DispatchRoutine.MultiDispatchCache != null && NativeCapture.Nameds == null)
{
var CacheResult = DispatchRoutine.MultiDispatchCache.Lookup(NativeCapture.Positionals);
if (CacheResult != null)
return CacheResult;
}
// Sort the candidates.
// XXX Cache this in the future.
var SortedCandidates = Sort(TC, DispatchRoutine.Dispatchees);
// Now go through the sorted candidates and find the first one that
// matches.
var PossiblesList = new List<RakudoCodeRef.Instance>();
foreach (RakudoCodeRef.Instance Candidate in SortedCandidates)
{
// If we hit a null, we're at the end of a group.
if (Candidate == null)
{
if (PossiblesList.Count == 1)
{
// We have an unambiguous first candidate. Cache if possible and
// return it.
if (NativeCapture.Nameds == null)
{
if (DispatchRoutine.MultiDispatchCache == null)
DispatchRoutine.MultiDispatchCache = new DispatchCache();
DispatchRoutine.MultiDispatchCache.Add(NativeCapture.Positionals, PossiblesList[0]);
}
return PossiblesList[0];
}
else if (PossiblesList.Count > 1)
{
// Here is where you'd handle constraints.
throw new Exception("Ambiguous dispatch: more than one candidate matches");
}
else
{
continue;
}
}
/* Check if it's admissible by arity. */
var NumArgs = NativeCapture.Positionals.Length;
if (NumArgs < Candidate.Sig.NumRequiredPositionals ||
NumArgs > Candidate.Sig.NumPositionals)
continue;
/* Check if it's admissible by types and definedness. */
var TypeCheckCount = Math.Min(NumArgs, Candidate.Sig.NumPositionals);
var TypeMismatch = false;
for (int i = 0; i < TypeCheckCount; i++) {
var Arg = NativeCapture.Positionals[i];
var Type = Candidate.Sig.Parameters[i].Type;
if (Type != null && Ops.unbox_int(TC, Type.STable.TypeCheck(TC, Arg.STable.WHAT, Type)) == 0)
{
TypeMismatch = true;
break;
}
var Definedness = Candidate.Sig.Parameters[i].Definedness;
if (Definedness != DefinednessConstraint.None)
{
var ArgDefined = Arg.STable.REPR.defined(null, Arg);
if (Definedness == DefinednessConstraint.DefinedOnly && !ArgDefined ||
Definedness == DefinednessConstraint.UndefinedOnly && ArgDefined)
{
TypeMismatch = true;
break;
}
}
}
if (TypeMismatch)
continue;
/* If we get here, it's an admissible candidate; add to list. */
PossiblesList.Add(Candidate);
}
// If we get here, no candidates matched.
throw new Exception("No candidates found to dispatch to");
}
/// <summary>
/// Sorts the candidates.
/// </summary>
/// <param name="Unsorted"></param>
/// <returns></returns>
private static RakudoCodeRef.Instance[] Sort(ThreadContext TC, RakudoObject[] Unsorted)
{
/* Allocate results array (just allocate it for worst case, which
* is no ties ever, so a null between all of them, and then space
* for the terminating null. */
var NumCandidates = Unsorted.Length;
var Result = new RakudoCodeRef.Instance[2 * NumCandidates + 1];
/* Create a node for each candidate in the graph. */
var Graph = new CandidateGraphNode[NumCandidates];
for (int i = 0; i < NumCandidates; i++)
{
Graph[i] = new CandidateGraphNode()
{
Candidate = (RakudoCodeRef.Instance)Unsorted[i],
Edges = new CandidateGraphNode[NumCandidates]
};
}
/* Now analyze type narrowness of the candidates relative to each other
* and create the edges. */
for (int i = 0; i < NumCandidates; i++) {
for (int j = 0; j < NumCandidates; j++) {
if (i == j)
continue;
if (IsNarrower(TC, Graph[i].Candidate, Graph[j].Candidate) != 0) {
Graph[i].Edges[Graph[i].EdgesOut] = Graph[j];
Graph[i].EdgesOut++;
Graph[j].EdgesIn++;
}
}
}
/* Perform the topological sort. */
int CandidatesToSort = NumCandidates;
int ResultPos = 0;
while (CandidatesToSort > 0)
{
int StartPoint = ResultPos;
/* Find any nodes that have no incoming edges and add them to
* results. */
for (int i = 0; i < NumCandidates; i++) {
if (Graph[i].EdgesIn == 0) {
/* Add to results. */
Result[ResultPos] = Graph[i].Candidate;
Graph[i].Candidate = null;
ResultPos++;
CandidatesToSort--;
Graph[i].EdgesIn = EDGE_REMOVAL_TODO;
}
}
if (StartPoint == ResultPos) {
throw new Exception("Circularity detected in multi sub types.");
}
/* Now we need to decrement edges in counts for things that had
* edges from candidates we added here. */
for (int i = 0; i < NumCandidates; i++) {
if (Graph[i].EdgesIn == EDGE_REMOVAL_TODO) {
for (int j = 0; j < Graph[i].EdgesOut; j++)
Graph[i].Edges[j].EdgesIn--;
Graph[i].EdgesIn = EDGE_REMOVED;
}
}
/* This is end of a tied group, so leave a gap. */
ResultPos++;
}
return Result;
}
/// <summary>
/// Checks if one signature is narrower than another.
/// </summary>
/// <param name="a"></param>
/// <param name="b"></param>
/// <returns></returns>
private static int IsNarrower(ThreadContext TC, RakudoCodeRef.Instance a, RakudoCodeRef.Instance b)
{
var Narrower = 0;
var Tied = 0;
int i, TypesToCheck;
/* Work out how many parameters to compare, factoring in slurpiness
* and optionals. */
if (a.Sig.NumPositionals == b.Sig.NumPositionals)
TypesToCheck = a.Sig.NumPositionals;
else if (a.Sig.NumRequiredPositionals == b.Sig.NumRequiredPositionals)
TypesToCheck = Math.Min(a.Sig.NumPositionals, b.Sig.NumPositionals);
else
return 0;
/* Analyse each parameter in the two candidates. */
for (i = 0; i < TypesToCheck; i++) {
var TypeObjA = a.Sig.Parameters[i].Type;
var TypeObjB = b.Sig.Parameters[i].Type;
if (TypeObjA == TypeObjB)
{
/* In a full Perl 6 multi dispatcher, you'd consider
* constraints here. */
Tied++;
}
else
{
if (IsNarrowerType(TC, TypeObjA, TypeObjB))
Narrower++;
else if (!IsNarrowerType(TC, TypeObjB, TypeObjA))
Tied++;
}
}
/* If one is narrower than the other from current analysis, we're done. */
if (Narrower >= 1 && Narrower + Tied == TypesToCheck)
return 1;
/* If they aren't tied, we're also done. */
else if (Tied != TypesToCheck)
return 0;
/* Otherwise, we see if one has a slurpy and the other not. A lack of
* slurpiness makes the candidate narrower. Otherwise, they're tied. */
return !a.Sig.HasSlurpyPositional() && b.Sig.HasSlurpyPositional() ? 1 : 0;
}
/// <summary>
/// Compares two types to see if the first is narrower than the second.
/// </summary>
/// <returns></returns>
public static bool IsNarrowerType(ThreadContext TC, RakudoObject A, RakudoObject B)
{
// If one of the types is null, then we know that's automatically
// wider than anything.
if (B == null && A != null)
return true;
else if (A == null || B == null)
return false;
// Otherwise, check with the type system.
return Ops.unbox_int(TC, Ops.type_check(TC, A, B)) != 0;
}
/// <summary>
/// Retrieves the context of the specified thread.
/// </summary>
/// <param name="threadHandle">A handle to the thread whose context is to be retrieved.</param>
/// <param name="contextFlags">Determines which registers are returned or set.</param>
/// <returns>A <see cref="ThreadContext" /> structure that receives the appropriate context of the specified thread.</returns>
public static ThreadContext GetThreadContext(SafeMemoryHandle threadHandle,
ThreadContextFlags contextFlags = ThreadContextFlags.Full)
{
// Check if the handle is valid
HandleManipulationHelper.ValidateAsArgument(threadHandle, "threadHandle");
// Allocate a thread context structure
var context = new ThreadContext {ContextFlags = contextFlags};
// Set the context flag
// Get the thread context
if (NativeMethods.GetThreadContext(threadHandle, ref context))
return context;
// Else couldn't get the thread context, throws an exception
throw new Win32Exception("Couldn't get the thread context.");
}
public void ThreadContext_Get_Set_TEST()
{
var tc = new ThreadContext();
tc.Set("a", 1);
Assert.AreEqual(1, tc.Get<int>("a"));
}
public Node(ThreadContext threadContext) {
_threadContext = threadContext;
_hot = true; // meta-nodes are hot to avoid any timing
}
public void UpdateShadowMaps(ThreadContext context)
{
guillotinePacker.Clear(ShadowMapDepth.Description.Width, ShadowMapDepth.Description.Height);
// Allocate shadow maps in the atlas and update texture coordinates.
foreach (var shadowMap in shadowMaps)
{
//int widthFactor = shadowMap.Level == CascadeShadowMapLevel.X1 ? 1 : 2;
//int heightFactor = shadowMap.Level == CascadeShadowMapLevel.X4 ? 2 : 1;
//var shadowMapWidth = shadowMap.ShadowMapSize * widthFactor;
//var shadowMapHeight = shadowMap.ShadowMapSize * heightFactor;
var cascadeTextureCoords = new Vector4[shadowMap.LevelCount];
var cascadeTextureCoordsBorder = new Vector4[shadowMap.LevelCount];
for (int i = 0; i < shadowMap.LevelCount; ++i)
{
var rect = guillotinePacker.Insert(shadowMap.ShadowMapSize, shadowMap.ShadowMapSize);
// Texture0 array support should help when this break (in complex scenes)
if (rect.Width == 0)
throw new InvalidOperationException("Could not allocate enough texture space for shadow map texture.");
Vector4 cascadeTextureCoord;
cascadeTextureCoord.X = (float)(rect.X) / guillotinePacker.Width;
cascadeTextureCoord.Y = (float)(rect.Y) / guillotinePacker.Height;
cascadeTextureCoord.Z = (float)(rect.X + rect.Width) / guillotinePacker.Width;
cascadeTextureCoord.W = (float)(rect.Y + rect.Height) / guillotinePacker.Height;
cascadeTextureCoords[i] = cascadeTextureCoord;
cascadeTextureCoord.X += 0.01f;
cascadeTextureCoord.Y += 0.01f;
cascadeTextureCoord.Z -= 0.01f;
cascadeTextureCoord.W -= 0.01f;
cascadeTextureCoordsBorder[i] = cascadeTextureCoord;
shadowMap.Plugins[i].Viewport = new Viewport(rect.X, rect.Y, shadowMap.ShadowMapSize, shadowMap.ShadowMapSize);
shadowMap.Plugins[i].DepthStencil = ShadowMapDepth;
}
shadowMap.Parameters.Set(CascadeTextureCoords, cascadeTextureCoords);
shadowMap.Parameters.Set(CascadeTextureCoordsBorder, cascadeTextureCoordsBorder);
shadowMap.CasterParameters.Set(EffectPlugin.RasterizerStateKey, casterRasterizerState);
shadowMap.CasterParameters.Set(EffectPlugin.DepthStencilStateKey, depthStencilStateZStandard);
shadowMap.TextureCoordsBorder = cascadeTextureCoordsBorder;
}
}
public Node(Node parent, IComponentRegistration component) {
_threadContext = parent._threadContext;
_parent = parent;
_component = component;
}