public void ChangeSize(int threadNum)
{
bool isNew = false;
lock (list)
{
int num = list.Count;
isNew = num > threadNum;
if (isNew)
{
for (int i = 0; i < num - threadNum; i++)
{
KThread t = list[0];
t.tStop = true;
t.Dispose();
list.Remove(t);
}
}
else
{
for (int i = 0; i < threadNum - num; i++)
{
KThread t = new KThread();
list.Add(t);
t.Start(job);
}
}
}
}
private void CallStopModule(KModule module, int args, int argp)
{
if (module.ModuleStop == 0)
{
return;
}
// Create a thread
KThread thread = new KThread(_kernel,
module,
_kernel.Partitions[2],
"module_stop_thread",
module.ModuleStop,
0,
KThreadAttributes.User,
0x4000);
_kernel.AddHandle(thread);
thread.Start(( uint )args, ( uint )argp);
// Setup handler so that we get the callback when the thread ends and we can kill it
_kernel.Cpu.SetContextSafetyCallback(thread.ContextID, new ContextSafetyDelegate(this.KmoduleStopThreadEnd), ( int )thread.UID);
Log.WriteLine(Verbosity.Verbose, Feature.Bios, "ModuleMgrForUser: starting module_stop thread with UID {0:X} for module {1}", thread.UID, module.Name);
// Schedule so that our thread runs
_kernel.Schedule();
}
//public static void CreateKeeperThread(string keeperThreadName, KeeperThreadHandler<null> handler, int milliumsecondSleepTime = 1000)
//{
//}
/// <summary>
/// 创建一个守护线程定时处理逻辑
/// </summary>
/// <param name="keeperThreadName">守护线程名称</param>
/// <param name="handler">处理方法</param>
/// <param name="o">相关对象</param>
/// <param name="milliumsecondSleepTime">方法执行完成的休息时间（毫秒），默认为1000毫秒</param>
public static void CreateKeeperThread(string keeperThreadName, KeeperThreadHandler <object> handler, object o, int milliumsecondSleepTime = 1000)
{
if (keeperThreadName == "" || handler == null)
{
throw new ArgumentException();
}
KeeperJob <object> j = new KeeperJob <object>();
j.handler = handler;
j.obj = o;
j.sleepTime = milliumsecondSleepTime;
KThread t = new KThread();
lock (dicThread)
{
if (dicThread.ContainsKey(keeperThreadName))
{
throw new ArgumentException("keeperThreadName exist");
}
dicThread.Add(keeperThreadName, t);
}
t.Start(j);
}
protected virtual void Dispose(bool disposing)
{
if (!_isDisposed && disposing)
{
_isDisposed = true;
KProcess terminationProcess = new KProcess(KernelContext);
KThread terminationThread = new KThread(KernelContext);
terminationThread.Initialize(0, 0, 0, 3, 0, terminationProcess, ThreadType.Kernel, () =>
{
// Force all threads to exit.
lock (KernelContext.Processes)
{
// Terminate application.
foreach (KProcess process in KernelContext.Processes.Values.Where(x => x.Flags.HasFlag(ProcessCreationFlags.IsApplication)))
{
process.Terminate();
}
// The application existed, now surface flinger can exit too.
SurfaceFlinger.Dispose();
// Terminate HLE services (must be done after the application is already terminated,
// otherwise the application will receive errors due to service termination.
foreach (KProcess process in KernelContext.Processes.Values.Where(x => !x.Flags.HasFlag(ProcessCreationFlags.IsApplication)))
{
process.Terminate();
}
}
// Exit ourself now!
KernelStatic.GetCurrentThread().Exit();
});
terminationThread.Start();
// Wait until the thread is actually started.
while (terminationThread.HostThread.ThreadState == ThreadState.Unstarted)
{
Thread.Sleep(10);
}
// Wait until the termination thread is done terminating all the other threads.
terminationThread.HostThread.Join();
// Destroy nvservices channels as KThread could be waiting on some user events.
// This is safe as KThread that are likely to call ioctls are going to be terminated by the post handler hook on the SVC facade.
INvDrvServices.Destroy();
AudioManager.Dispose();
AudioOutputManager.Dispose();
AudioInputManager.Dispose();
AudioRendererManager.Dispose();
KernelContext.Dispose();
}
}
private KernelResult StartThread(int handle)
{
KThread thread = _process.HandleTable.GetObject <KThread>(handle);
if (thread != null)
{
return(thread.Start());
}
else
{
return(KernelResult.InvalidHandle);
}
}
protected virtual void Dispose(bool disposing)
{
if (!_isDisposed && disposing)
{
ConfigurationState.Instance.System.EnableDockedMode.Event -= OnDockedModeChange;
_isDisposed = true;
SurfaceFlinger.Dispose();
KProcess terminationProcess = new KProcess(KernelContext);
KThread terminationThread = new KThread(KernelContext);
terminationThread.Initialize(0, 0, 0, 3, 0, terminationProcess, ThreadType.Kernel, () =>
{
// Force all threads to exit.
lock (KernelContext.Processes)
{
foreach (KProcess process in KernelContext.Processes.Values)
{
process.Terminate();
}
}
// Exit ourself now!
KernelContext.Scheduler.ExitThread(terminationThread);
KernelContext.Scheduler.GetCurrentThread().Exit();
KernelContext.Scheduler.RemoveThread(terminationThread);
});
terminationThread.Start();
// Wait until the thread is actually started.
while (terminationThread.HostThread.ThreadState == ThreadState.Unstarted)
{
Thread.Sleep(10);
}
// Wait until the termination thread is done terminating all the other threads.
terminationThread.HostThread.Join();
// Destroy nvservices channels as KThread could be waiting on some user events.
// This is safe as KThread that are likely to call ioctls are going to be terminated by the post handler hook on the SVC facade.
INvDrvServices.Destroy();
AudioRendererManager.Dispose();
KernelContext.Dispose();
}
}
protected virtual void Dispose(bool disposing)
{
if (!_isDisposed && disposing)
{
ConfigurationState.Instance.System.EnableDockedMode.Event -= OnDockedModeChange;
_isDisposed = true;
SurfaceFlinger.Dispose();
KProcess terminationProcess = new KProcess(KernelContext);
KThread terminationThread = new KThread(KernelContext);
terminationThread.Initialize(0, 0, 0, 3, 0, terminationProcess, ThreadType.Kernel, () =>
{
// Force all threads to exit.
lock (KernelContext.Processes)
{
foreach (KProcess process in KernelContext.Processes.Values)
{
process.Terminate();
}
}
// Exit ourself now!
KernelContext.Scheduler.ExitThread(terminationThread);
KernelContext.Scheduler.GetCurrentThread().Exit();
KernelContext.Scheduler.RemoveThread(terminationThread);
});
terminationThread.Start();
// Destroy nvservices channels as KThread could be waiting on some user events.
// This is safe as KThread that are likely to call ioctls are going to be terminated by the post handler hook on the SVC facade.
INvDrvServices.Destroy();
// This is needed as the IPC Dummy KThread is also counted in the ThreadCounter.
KernelContext.ThreadCounter.Signal();
// It's only safe to release resources once all threads
// have exited.
KernelContext.ThreadCounter.Signal();
KernelContext.ThreadCounter.Wait();
AudioRendererManager.Dispose();
KernelContext.Dispose();
}
}
// SDK location: /user/pspthreadman.h:188
// SDK declaration: int sceKernelStartThread(SceUID thid, SceSize arglen, void *argp);
public int sceKernelStartThread(int thid, int arglen, int argp)
{
KThread thread = _kernel.GetHandle <KThread>(thid);
if (thread == null)
{
return(-1);
}
Log.WriteLine(Verbosity.Normal, Feature.Bios, "sceKernelStartThread: starting thread {0:X} {1}", thread.UID, thread.Name);
thread.Start(( uint )arglen, ( uint )argp);
_kernel.Schedule();
return(0);
}
private KernelResult StartThread(int handle)
{
KThread thread = _process.HandleTable.GetKThread(handle);
if (thread != null)
{
thread.IncrementReferenceCount();
KernelResult result = thread.Start();
if (result == KernelResult.Success)
{
thread.IncrementReferenceCount();
}
thread.DecrementReferenceCount();
return(result);
}
else
{
return(KernelResult.InvalidHandle);
}
}
public KernelResult Start(int mainThreadPriority, ulong stackSize)
{
lock (_processLock)
{
if (State > ProcessState.CreatedAttached)
{
return(KernelResult.InvalidState);
}
if (ResourceLimit != null && !ResourceLimit.Reserve(LimitableResource.Thread, 1))
{
return(KernelResult.ResLimitExceeded);
}
KResourceLimit threadResourceLimit = ResourceLimit;
KResourceLimit memoryResourceLimit = null;
if (_mainThreadStackSize != 0)
{
throw new InvalidOperationException("Trying to start a process with a invalid state!");
}
ulong stackSizeRounded = BitUtils.AlignUp(stackSize, KMemoryManager.PageSize);
ulong neededSize = stackSizeRounded + _imageSize;
// Check if the needed size for the code and the stack will fit on the
// memory usage capacity of this Process. Also check for possible overflow
// on the above addition.
if (neededSize > _memoryUsageCapacity || neededSize < stackSizeRounded)
{
threadResourceLimit?.Release(LimitableResource.Thread, 1);
return(KernelResult.OutOfMemory);
}
if (stackSizeRounded != 0 && ResourceLimit != null)
{
memoryResourceLimit = ResourceLimit;
if (!memoryResourceLimit.Reserve(LimitableResource.Memory, stackSizeRounded))
{
threadResourceLimit?.Release(LimitableResource.Thread, 1);
return(KernelResult.ResLimitExceeded);
}
}
KernelResult result;
KThread mainThread = null;
ulong stackTop = 0;
void CleanUpForError()
{
HandleTable.Destroy();
mainThread?.DecrementReferenceCount();
if (_mainThreadStackSize != 0)
{
ulong stackBottom = stackTop - _mainThreadStackSize;
ulong stackPagesCount = _mainThreadStackSize / KMemoryManager.PageSize;
MemoryManager.UnmapForKernel(stackBottom, stackPagesCount, MemoryState.Stack);
_mainThreadStackSize = 0;
}
memoryResourceLimit?.Release(LimitableResource.Memory, stackSizeRounded);
threadResourceLimit?.Release(LimitableResource.Thread, 1);
}
if (stackSizeRounded != 0)
{
ulong stackPagesCount = stackSizeRounded / KMemoryManager.PageSize;
ulong regionStart = MemoryManager.StackRegionStart;
ulong regionSize = MemoryManager.StackRegionEnd - regionStart;
ulong regionPagesCount = regionSize / KMemoryManager.PageSize;
result = MemoryManager.AllocateOrMapPa(
stackPagesCount,
KMemoryManager.PageSize,
0,
false,
regionStart,
regionPagesCount,
MemoryState.Stack,
KMemoryPermission.ReadAndWrite,
out ulong stackBottom);
if (result != KernelResult.Success)
{
CleanUpForError();
return(result);
}
_mainThreadStackSize += stackSizeRounded;
stackTop = stackBottom + stackSizeRounded;
}
ulong heapCapacity = _memoryUsageCapacity - _mainThreadStackSize - _imageSize;
result = MemoryManager.SetHeapCapacity(heapCapacity);
if (result != KernelResult.Success)
{
CleanUpForError();
return(result);
}
HandleTable = new KHandleTable(KernelContext);
result = HandleTable.Initialize(Capabilities.HandleTableSize);
if (result != KernelResult.Success)
{
CleanUpForError();
return(result);
}
mainThread = new KThread(KernelContext);
result = mainThread.Initialize(
_entrypoint,
0,
stackTop,
mainThreadPriority,
DefaultCpuCore,
this,
ThreadType.User,
_customThreadStart);
if (result != KernelResult.Success)
{
CleanUpForError();
return(result);
}
result = HandleTable.GenerateHandle(mainThread, out int mainThreadHandle);
if (result != KernelResult.Success)
{
CleanUpForError();
return(result);
}
mainThread.SetEntryArguments(0, mainThreadHandle);
ProcessState oldState = State;
ProcessState newState = State != ProcessState.Created
? ProcessState.Attached
: ProcessState.Started;
SetState(newState);
result = mainThread.Start();
if (result != KernelResult.Success)
{
SetState(oldState);
CleanUpForError();
}
if (result == KernelResult.Success)
{
mainThread.IncrementReferenceCount();
}
mainThread.DecrementReferenceCount();
return(result);
}
}
protected virtual void Dispose(bool disposing)
{
if (!_isDisposed && disposing)
{
_isDisposed = true;
// "Soft" stops AudioRenderer and AudioManager to avoid some sound between resume and stop.
if (IsPaused)
{
AudioManager.StopUpdates();
TogglePauseEmulation(false);
AudioRendererManager.StopSendingCommands();
}
KProcess terminationProcess = new KProcess(KernelContext);
KThread terminationThread = new KThread(KernelContext);
terminationThread.Initialize(0, 0, 0, 3, 0, terminationProcess, ThreadType.Kernel, () =>
{
// Force all threads to exit.
lock (KernelContext.Processes)
{
// Terminate application.
foreach (KProcess process in KernelContext.Processes.Values.Where(x => x.Flags.HasFlag(ProcessCreationFlags.IsApplication)))
{
process.Terminate();
process.DecrementReferenceCount();
}
// The application existed, now surface flinger can exit too.
SurfaceFlinger.Dispose();
// Terminate HLE services (must be done after the application is already terminated,
// otherwise the application will receive errors due to service termination).
foreach (KProcess process in KernelContext.Processes.Values.Where(x => !x.Flags.HasFlag(ProcessCreationFlags.IsApplication)))
{
process.Terminate();
process.DecrementReferenceCount();
}
KernelContext.Processes.Clear();
}
// Exit ourself now!
KernelStatic.GetCurrentThread().Exit();
});
terminationThread.Start();
// Wait until the thread is actually started.
while (terminationThread.HostThread.ThreadState == ThreadState.Unstarted)
{
Thread.Sleep(10);
}
// Wait until the termination thread is done terminating all the other threads.
terminationThread.HostThread.Join();
// Destroy nvservices channels as KThread could be waiting on some user events.
// This is safe as KThread that are likely to call ioctls are going to be terminated by the post handler hook on the SVC facade.
INvDrvServices.Destroy();
AudioManager.Dispose();
AudioOutputManager.Dispose();
AudioInputManager.Dispose();
AudioRendererManager.Dispose();
LibHacHorizonManager.AmClient.Fs.UnregisterProgram(LibHacHorizonManager.ApplicationClient.Os.GetCurrentProcessId().Value);
KernelContext.Dispose();
}
}
private void CallStopModule( KModule module, int args, int argp )
{
if( module.ModuleStop == 0 )
return;
// Create a thread
KThread thread = new KThread( _kernel,
module,
_kernel.Partitions[ 2 ],
"module_stop_thread",
module.ModuleStop,
0,
KThreadAttributes.User,
0x4000 );
_kernel.AddHandle( thread );
thread.Start( ( uint )args, ( uint )argp );
// Setup handler so that we get the callback when the thread ends and we can kill it
_kernel.Cpu.SetContextSafetyCallback( thread.ContextID, new ContextSafetyDelegate( this.KmoduleStopThreadEnd ), ( int )thread.UID );
Log.WriteLine( Verbosity.Verbose, Feature.Bios, "ModuleMgrForUser: starting module_stop thread with UID {0:X} for module {1}", thread.UID, module.Name );
// Schedule so that our thread runs
_kernel.Schedule();
}