AuroraSupport/AuroraRuntime
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Code Issues 27 Pull Requests Releases Wiki Activity

[*] Fixed bug where schedular was using a read lock in a scope where items were erased from a vector

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[*] Refactor a 'Object' member field in a ParseObject struct
[+] Added an option to set a command dispatcher thread from an AsyncApp
[*] Fix various issues with AsyncApp, stablity improvements
[+] Added AddDelayTime
This commit is contained in:
Reece Wilson 2021-07-15 17:16:23 +01:00
parent 7c44d3a02c
commit 72a74eb7a4
16 changed files with 362 additions and 96 deletions
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3
Include/Aurora/Async/Async.hpp
View File

@ -84,6 +84,8 @@ namespace Aurora::Async
virtual AuSPtr<IWorkItem> WaitFor(const AuList<AuSPtr<IWorkItem>> &workItem) = 0;
virtual AuSPtr<IWorkItem> SetSchedTime(AuUInt32 ms) = 0;
virtual AuSPtr<IWorkItem> SetSchedTimeNs(AuUInt64 ns) = 0;
virtual AuSPtr<IWorkItem> AddDelayTime(AuUInt32 ms) = 0;
virtual AuSPtr<IWorkItem> AddDelayTimeNs(AuUInt64 ns) = 0;
virtual AuSPtr<IWorkItem> Then(const AuSPtr<IWorkItem> &next) = 0;
@ -331,6 +333,7 @@ namespace Aurora::Async
virtual void Main() = 0;
virtual void Shutdown() = 0;
virtual bool Exiting() = 0;
virtual void SetConsoleCommandDispatcher(WorkerId_t id) = 0;
// Spawning
virtual bool Spawn(WorkerId_t) = 0;

2
Include/Aurora/Parse/Parser.hpp
View File

@ -35,7 +35,7 @@ namespace Aurora::Parse
struct ParseValueEx : ParseValue
{
ParsedObject Object;
ParsedObject object;
};
struct ParseBit

7
Include/Aurora/Runtime.hpp
View File

@ -124,11 +124,18 @@ namespace Aurora
AuList<AuString> whitelistedCerts{};
};
struct AsyncConfig
{
AuUInt32 schedularFrequency {2}; // * 0.5 or 1 MS depending on the platform
AuUInt32 sysPumpFrequency {10}; // x amount of schedularFrequencys
};
struct RuntimeStartInfo
{
ConsoleConfig console;
CryptoConfig crypto;
TelemetryConfig telemetry;
AsyncConfig async;
};
AUKN_SYM void RuntimeStart(const RuntimeStartInfo &info);

2
Source/Async/Async.cpp
View File

@ -18,6 +18,6 @@ namespace Aurora::Async
void ShutdownAsync()
{
ShutdownSched();
DeinitSched();
}
}

251
Source/Async/AsyncApp.cpp
View File

@ -9,6 +9,8 @@
#include "Async.hpp"
#include "AsyncApp.hpp"
#include "WorkItem.hpp"
#include "Schedular.hpp"
#include <Console/Commands/Commands.hpp>
namespace Aurora::Async
{
@ -24,12 +26,14 @@ namespace Aurora::Async
{
if ((--gRunningTasks) == 0)
{
gAsyncApp.ShutdownOutOfTasks();
gAsyncApp.Shutdown();
}
}
//STATIC_TLS(WorkerId_t, tlsWorkerId);
static Threading::Threads::TLSVariable<WorkerId_t, true> tlsWorkerId;
using WorkEntry_t = std::pair<std::optional<ThreadId_t>, AuSPtr<IAsyncRunnable>>;
struct ThreadState
{
@ -47,6 +51,7 @@ namespace Aurora::Async
bool rejecting {};
bool exiting {};
bool shuttingdown {};
Threading::Primitives::EventUnique_t running;
//bool running;
@ -56,7 +61,7 @@ namespace Aurora::Async
return id.first == 0;
}
AuList<AuSPtr<IAsyncRunnable>> pendingWorkItems;
AuList<WorkEntry_t> pendingWorkItems;
};
struct GroupState
@ -66,7 +71,6 @@ namespace Aurora::Async
Threading::Primitives::ConditionMutexUnique_t cvWorkMutex;
Threading::Primitives::ConditionVariableUnique_t cvVariable;
using WorkEntry_t = std::pair<std::optional<ThreadId_t>, AuSPtr<IAsyncRunnable>>;
AuList<WorkEntry_t> workQueue;
AuBST<ThreadId_t, AuSPtr<ThreadState>> workers;
@ -122,6 +126,11 @@ namespace Aurora::Async
}
unsafeSemaphore->Unlock(1);
if (requireSignal)
{
state->running->Lock();
}
}));
#if 0
@ -138,7 +147,7 @@ namespace Aurora::Async
auto state = GetGroup(target.first);
SysAssert(static_cast<bool>(state), "couldn't dispatch a task to an offline group");
gRunningTasks++;
IncRunningTasks();
{
Threading::LockGuardPtr lol(state->cvWorkMutex);
@ -148,9 +157,11 @@ namespace Aurora::Async
if (target.second.has_value())
{
if (state->workers[*target.second]->rejecting)
auto itr = state->workers.find(*target.second);
if ((itr == state->workers.end()) || (itr->second->rejecting))
{
SysPushErrorGen("worker: {}:{} is offline", target.first, target.second.value_or(0));
DecRunningTasks();
throw "Requested job worker is offline";
}
}
@ -170,6 +181,7 @@ namespace Aurora::Async
if (!found)
{
DecRunningTasks();
throw "No workers available";
}
}
@ -201,6 +213,19 @@ namespace Aurora::Async
do
{
// Deque tasks the current thread runner could dipatch
// Noting that `multipopCount` determines how aggressive threads are in dequeuing work
// It's probable `multipopCount` will equal 1 for your use case
//
// Only increment when you know tasks within a group queue will not depend on one another
// *and* tasks require a small amount of execution time
//
// This could be potentially useful for an event dispatcher whereby you're dispatching
// hundreds of items per second, across a thread or two, knowing dequeuing one instead of all
// is a waste of CPU cycles.
//
// Remember, incrementing `multipopCount` is potentially dangerous the second you have local
// thread group waits
for (auto itr = group->workQueue.begin();
((itr != group->workQueue.end()) &&
(state->pendingWorkItems.size() < state->multipopCount));
@ -208,14 +233,14 @@ namespace Aurora::Async
{
if (!itr->first.has_value())
{
state->pendingWorkItems.push_back((*itr).second);
state->pendingWorkItems.push_back(*itr);
itr = group->workQueue.erase(itr);
continue;
}
if ((itr->first.has_value()) && (itr->first.value() == state->id.second))
{
state->pendingWorkItems.push_back((*itr).second);
state->pendingWorkItems.push_back(*itr);
itr = group->workQueue.erase(itr);
continue;
}
@ -223,16 +248,24 @@ namespace Aurora::Async
itr++;
}
// Consider blocking for more work
if (!blocking)
{
break;
}
// Block if no work items are present
if (state->pendingWorkItems.empty())
{
group->cvVariable->WaitForSignal();
}
// Post-wakeup thread terminating check
if (state->threadObject->Exiting() || state->shuttingdown)
{
break;
}
} while (state->pendingWorkItems.empty());
}
@ -245,21 +278,38 @@ namespace Aurora::Async
for (auto itr = state->pendingWorkItems.begin(); itr != state->pendingWorkItems.end(); )
{
// TODO: we should be able to implement a watchdog later down the line
if (state->threadObject->Exiting() || state->shuttingdown)
{
break;
}
// Set the last frame time for a watchdog later down the line
state->lastFrameTime = Time::CurrentClockMS();
(*itr)->RunAsync();
// Dispatch
itr->second->RunAsync();
// Remove from our local job queue
itr = state->pendingWorkItems.erase(itr);
// Atomically decrement global task counter
runningTasks = --gRunningTasks;
}
// Return popped work back to the groups work pool when our -pump loops were preempted
if (state->pendingWorkItems.size())
{
Threading::LockGuardPtr lol(group->cvWorkMutex);
group->workQueue.insert(group->workQueue.end(), state->pendingWorkItems.begin(), state->pendingWorkItems.end());
}
if (runningTasks == 0)
{
ShutdownOutOfTasks();
ShutdownZero();
}
return true;
}
bool AsyncApp::WaitFor(WorkerId_t worker, Threading::IWaitable *primitive, AuUInt32 timeoutMs)
{
@ -316,61 +366,98 @@ namespace Aurora::Async
void AsyncApp::Start()
{
SysAssert(Spawn({0, 0}));
StartSched();
}
void AsyncApp::Main()
{
Entrypoint({0, 0});
}
void AsyncApp::ShutdownZero()
{
Shutdown();
}
void AsyncApp::Shutdown()
{
// Set shutdown trigger
shuttingdown_ = true;
// Unpause all
for (auto &re : this->threads_)
// Nested shutdowns can happen a write lock
{
for (auto &[id, worker] : re.second->workers)
Threading::LockGuardPtr lock(rwlock_->AsReadable());
if (shuttingdown_)
{
auto &event = worker->running;
if (event)
{
event->Set();
}
return;
}
}
// Set shutdown flag
{
Threading::LockGuardPtr lock(rwlock_->AsWritable());
if (std::exchange(shuttingdown_, true))
{
return;
}
}
// Drop all tasks from this point onwards
for (auto &re : this->threads_)
// Noting
// 1) that StopSched may lockup under a writable lock
// -> we will terminate a thread that may be dispatching a sys pump event
// 2) that barrier doesn't need to be under a write lock
//
// Perform the following shutdown of the schedular and other available threads under a read lock
{
for (auto &[id, worker] : re.second->workers)
Threading::LockGuardPtr lock(rwlock_->AsReadable());
StopSched();
for (auto &[groupId, group] : this->threads_)
{
SysAssert(Barrier(worker->id, 0, true, true));
for (auto &[id, worker] : group->workers)
{
Barrier(worker->id, 0, false, true);
}
}
}
// TODO: abort all pending tests
// Signal the event loop to abort
ShutdownOutOfTasks();
}
void AsyncApp::ShutdownOutOfTasks()
{
for (auto& [id, group]: this->threads_)
// Finally set the shutdown flag on all of our thread contexts
// then release them from the runners/workers list
// then release all group contexts
AuList<Threading::Threads::ThreadShared_t> threads;
{
for (auto & [id, worker] : group->workers)
{
worker->threadObject->SendExitSignal();
}
Threading::LockGuardPtr lock(rwlock_->AsWritable());
if (group->cvVariable)
for (auto &[groupId, group] : this->threads_)
{
Threading::LockGuardPtr lol(group->cvWorkMutex);
group->cvVariable->Broadcast();
for (auto &[id, worker] : group->workers)
{
worker->shuttingdown = true;
if (groupId != 0)
{
worker->threadObject->SendExitSignal();
threads.push_back(worker->threadObject);
}
auto &event = worker->running;
if (event)
{
event->Set();
}
}
if (group->cvVariable)
{
Threading::LockGuardPtr lol(group->cvWorkMutex);
group->cvVariable->Broadcast();
}
}
}
// Sync to shutdown threads to prevent a race condition whereby the async subsystem shuts down before the threads
for (const auto &thread : threads)
{
thread->Exit();
}
}
bool AsyncApp::Exiting()
@ -421,7 +508,7 @@ namespace Aurora::Async
auto threadState = std::make_shared<ThreadState>();
threadState->parent = group;
threadState->running = Threading::Primitives::EventUnique(true, false, false);
threadState->running = Threading::Primitives::EventUnique(true, false, true);
threadState->syncSema = Threading::Primitives::SemaphoreUnique(0);
threadState->id = workerId;
@ -490,7 +577,6 @@ namespace Aurora::Async
bool AsyncApp::Sync(ThreadGroup_t groupId, bool requireSignal, AuUInt32 timeoutMs)
{
Threading::LockGuardPtr lock(rwlock_->AsReadable());
auto group = GetGroup(groupId);
for (auto &jobWorker : group->workers)
@ -555,6 +641,7 @@ namespace Aurora::Async
AuSPtr<ThreadState> AsyncApp::GetThreadState()
{
Threading::LockGuardPtr lock(rwlock_->AsReadable());
auto id = GetCurrentThread();
auto state = GetGroup(id.first);
return state->workers[id.second];
@ -567,21 +654,80 @@ namespace Aurora::Async
auto auThread = Threading::Threads::GetThread();
auto job = GetThreadState();
while (!auThread->Exiting())
while ((!auThread->Exiting()) && (!job->shuttingdown))
{
// Do work (blocking)
Poll(true);
// Synchronization after pause
job->running->Lock();
}
for (const auto &thread : job->features)
if (id != WorkerId_t {0, 0})
{
thread->Cleanup();
Threading::LockGuardPtr lock(rwlock_->AsReadable());
if (!shuttingdown_ && !job->rejecting)
{
// Pump and barrier + reject all after atomically
Barrier(id, 0, false, true);
}
}
job->features.clear();
ThisExiting();
if (id == WorkerId_t {0, 0})
{
Shutdown();
}
}
void AsyncApp::SetConsoleCommandDispatcher(WorkerId_t id)
{
commandDispatcher_ = id;
Console::Commands::UpdateDispatcher(commandDispatcher_);
}
void AsyncApp::ThisExiting()
{
auto id = GetCurrentThread();
auto state = GetGroup(id.first);
{
Threading::LockGuardPtr lock(rwlock_->AsWritable());
auto itr = state->workers.find(id.second);
auto &jobWorker = itr->second;
// This shouldn't be a problem; however, we're going to handle the one edge case where
// some angry sysadmin is spamming commands
if ((commandDispatcher_.has_value())
&& (commandDispatcher_.value() == id))
{
Console::Commands::UpdateDispatcher({});
}
// Abort scheduled tasks
TerminateSceduledTasks(id);
// Clean up thread features
// -> transferable TLS handles
// -> thread specific vms
// -> anything your brain wishes to imagination
for (const auto &thread : jobWorker->features)
{
try
{
thread->Cleanup();
}
catch (...)
{
LogWarn("Couldn't clean up thread feature!");
Debug::PrintError();
}
}
jobWorker->features.clear();
state->workers.erase(itr);
}
}
void AsyncApp::AddFeature(WorkerId_t id, AuSPtr<Threading::Threads::IThreadFeature> feature, bool async)
@ -592,8 +738,7 @@ namespace Aurora::Async
feature->Init();
}));
auto workItem = NewWorkItem(id, work, !async);
workItem->Dispatch();
auto workItem = NewWorkItem(id, work, !async)->Dispatch();
if (!async)
{

6
Source/Async/AsyncApp.hpp
View File

@ -27,6 +27,7 @@ namespace Aurora::Async
void Main() override;
void Shutdown() override;
bool Exiting() override;
void SetConsoleCommandDispatcher(WorkerId_t id) override;
// Spawning
bool Spawn(WorkerId_t) override;
@ -54,13 +55,13 @@ namespace Aurora::Async
void Run(DispatchTarget_t target, AuSPtr<IAsyncRunnable> runnable);
void ShutdownOutOfTasks();
bool Poll(bool block) override;
size_t GetThreadWorkersCount(ThreadGroup_t group);
private:
void ThisExiting();
void ShutdownZero();
// TODO: BarrierMultiple
bool Barrier(WorkerId_t, AuUInt32 ms, bool requireSignal, bool drop);
@ -77,5 +78,6 @@ namespace Aurora::Async
ThreadDb_t threads_;
bool shuttingdown_ {};
std::optional<WorkerId_t> commandDispatcher_;
};
}

71
Source/Async/Schedular.cpp
View File

@ -20,12 +20,12 @@ namespace Aurora::Async
};
static Threading::Threads::ThreadUnique_t gThread;
static Threading::Primitives::RWLockUnique_t gSchedLock;
static Threading::Primitives::MutexUnique_t gSchedLock;
static AuList<SchedEntry> gEntries;
static void GetDispatchableTasks(AuList<SchedEntry> &pending)
{
Threading::LockGuardPtr lock(gSchedLock->AsReadable());
Threading::LockGuardPtr lock(gSchedLock.get());
auto time = Time::CurrentClockNS();
@ -43,6 +43,7 @@ namespace Aurora::Async
}
}
static void SchedThread()
{
AuUInt32 counter {};
@ -52,30 +53,57 @@ namespace Aurora::Async
while (!thread->Exiting())
{
Threading::SleepNs(1000000 / 2);
{
Threading::SleepNs(1000000 / 2 * gRuntimeConfig.async.schedularFrequency);
}
AuList<SchedEntry> pending;
GetDispatchableTasks(pending);
for (auto &entry : pending)
{
static_cast<AsyncApp *>(GetAsyncApp())->Run(entry.target, entry.runnable);
DecRunningTasks();
try
{
static_cast<AsyncApp *>(GetAsyncApp())->Run(entry.target, entry.runnable);
DecRunningTasks();
}
catch (...)
{
LogWarn("Dropped scheduled task! Expect a leaky counter!");
LogWarn("Would you rather `Why u no exit?!` or `WHY DID U JUST CRASH REEEE` in production?");
Debug::PrintError();
}
}
counter++;
if ((counter % 4) == 0)
if ((gRuntimeConfig.async.schedularFrequency != 1) || ((gRuntimeConfig.async.sysPumpFrequency) && (counter % gRuntimeConfig.async.sysPumpFrequency) == 0))
{
// TODO: noting this should be called from main; however, we only pump console for.now
RuntimeSysPump();
try
{
NewWorkItem({0, 0}, std::make_shared<BasicWorkStdFunc>(RuntimeSysPump))->Dispatch();
}
catch (...)
{
LogWarn("Dropped SysRuntimePump");
Debug::PrintError();
}
}
}
}
void InitSched()
{
gSchedLock = Threading::Primitives::RWLockUnique();
gSchedLock = Threading::Primitives::MutexUnique();
}
void DeinitSched()
{
gThread.reset();
gSchedLock.reset();
}
void StartSched()
{
Threading::Threads::AbstractThreadVectors handler;
handler.DoRun = [=](const Threading::Threads::IAuroraThread *thread)
{
@ -85,16 +113,33 @@ namespace Aurora::Async
gThread->Run();
}
void ShutdownSched()
void StopSched()
{
gThread.reset();
gSchedLock.reset();
}
void Schedule(AuUInt64 ns, DispatchTarget_t target, AuSPtr<IAsyncRunnable> runnable)
{
Threading::LockGuardPtr lock(gSchedLock->AsWritable());
Threading::LockGuardPtr lock(gSchedLock.get());
IncRunningTasks();
gEntries.push_back({ns, target, runnable});
}
void TerminateSceduledTasks(DispatchTarget_t target)
{
Threading::LockGuardPtr lock(gSchedLock.get());
for (auto itr = gEntries.begin(); itr != gEntries.end(); )
{
if (itr->target <= target)
{
itr->runnable->CancelAsync();
itr = gEntries.erase(itr);
}
else
{
itr ++;
}
}
}
}

6
Source/Async/Schedular.hpp
View File

@ -10,8 +10,10 @@
namespace Aurora::Async
{
void InitSched();
void ShutdownSched();
void DeinitSched();
void StartSched();
void StopSched();
void Schedule(AuUInt64 ns, DispatchTarget_t target, AuSPtr<IAsyncRunnable> runnable);
void TerminateSceduledTasks(DispatchTarget_t target);
}

21
Source/Async/WorkItem.cpp
View File

@ -104,6 +104,18 @@ namespace Aurora::Async
dispatchTimeNs_ = Time::CurrentClockNS() + (AuUInt64(ms) * AuUInt64(1000000));
return AU_SHARED_FROM_THIS;
}
AuSPtr<IWorkItem> WorkItem::AddDelayTime(AuUInt32 ms)
{
delayTimeNs_ += AuUInt64(ms) * AuUInt64(1000000);
return AU_SHARED_FROM_THIS;
}
AuSPtr<IWorkItem> WorkItem::AddDelayTimeNs(AuUInt64 ns)
{
delayTimeNs_ += ns;
return AU_SHARED_FROM_THIS;
}
AuSPtr<IWorkItem> WorkItem::Dispatch()
{
@ -144,11 +156,18 @@ namespace Aurora::Async
itr = waitOn_.erase(itr);
}
if (Time::CurrentClockNS() < dispatchTimeNs_ )
if (Time::CurrentClockNS() < dispatchTimeNs_)
{
Schedule();
return;
}
if (auto delay = std::exchange(delayTimeNs_, {}))
{
dispatchTimeNs_ = delay;
Schedule();
return;
}
SendOff();
}

3
Source/Async/WorkItem.hpp
View File

@ -19,6 +19,8 @@ namespace Aurora::Async
AuSPtr<IWorkItem> WaitFor(const AuList<AuSPtr<IWorkItem>> &workItem) override;
AuSPtr<IWorkItem> SetSchedTime(AuUInt32 ms) override;
AuSPtr<IWorkItem> SetSchedTimeNs(AuUInt64 ns) override;
AuSPtr<IWorkItem> AddDelayTime(AuUInt32 ms) override;
AuSPtr<IWorkItem> AddDelayTimeNs(AuUInt64 ns) override;
AuSPtr<IWorkItem> Then(const AuSPtr<IWorkItem> &next) override;
AuSPtr<IWorkItem> Dispatch() override;
@ -43,6 +45,7 @@ namespace Aurora::Async
bool failed {};
bool dispatchPending_ {};
AuUInt64 dispatchTimeNs_ {};
AuUInt64 delayTimeNs_ {};
void Fail();
void Schedule();

54
Source/Console/Commands/Commands.cpp
View File

@ -17,6 +17,8 @@ namespace Aurora::Console::Commands
static AuList<Hooks::LineHook_cb> gLineCallbacks;
static AuList<CommandDispatch> gPendingCommands;
static auto gMutex = Threading::Primitives::MutexUnique();
static auto gPendingCommandsMutex = Threading::Primitives::MutexUnique();
static std::optional<Async::DispatchTarget_t> gCommandDispatcher;
struct Command
{
@ -37,7 +39,7 @@ namespace Aurora::Console::Commands
static bool Dispatch(const AuString &string)
{
Threading::WaitableLockGuard guard(gMutex.get());
Threading::WaitableLockGuard guard(gPendingCommandsMutex.get());
AuString tag;
AuString cmdParse;
AuMach offset;
@ -79,7 +81,7 @@ namespace Aurora::Console::Commands
void AddCommand(const AuString &tag, const Parse::ParseObject &commandStructure, const CommandCallback_cb &callback)
{
Threading::WaitableLockGuard guard(gMutex.get());
Threading::WaitableLockGuard guard(gPendingCommandsMutex.get());
gCommands.insert(std::make_pair(tag, Command(tag, commandStructure, callback)));
}
@ -88,15 +90,57 @@ namespace Aurora::Console::Commands
return Dispatch(string);
}
void PumpCommands()
void UpdateDispatcher(std::optional<Async::DispatchTarget_t> target)
{
gMutex->Lock();
auto commands = std::exchange(gPendingCommands, {});
gMutex->Unlock();
gPendingCommandsMutex->Lock();
if ((!target.has_value()) && (gCommandDispatcher == target))
{
auto commands = std::exchange(gPendingCommands, {});
for (const auto &command : commands)
{
command.callback(command.arguments);
}
}
gCommandDispatcher = target;
gPendingCommandsMutex->Unlock();
gMutex->Unlock();
}
static void DispatchCommandsFromThis(const AuList<CommandDispatch> &commands)
{
for (const auto &command : commands)
{
command.callback(command.arguments);
}
}
void PumpCommands()
{
gMutex->Lock();
gPendingCommandsMutex->Lock();
auto commands = std::exchange(gPendingCommands, {});
gPendingCommandsMutex->Unlock();
if (gCommandDispatcher.value_or(Async::DispatchTarget_t{0, 0}) == Async::DispatchTarget_t{0, 0})
{
DispatchCommandsFromThis(commands);
}
else
{
Async::NewWorkItem(gCommandDispatcher.value(),
std::make_shared<Async::BasicWorkStdFunc>([&commands]()
{
DispatchCommandsFromThis(commands);
}),
true)->Dispatch()->BlockUntilComplete();
}
gMutex->Unlock();
}
}

1
Source/Console/Commands/Commands.hpp
View File

@ -9,5 +9,6 @@
namespace Aurora::Console::Commands
{
void UpdateDispatcher(std::optional<Async::DispatchTarget_t> target);
void PumpCommands();
}

3
Source/Console/ConsoleWxWidgets/ConsoleWxWidgets.cpp
View File

@ -475,10 +475,9 @@ namespace Aurora::Console::ConsoleWxWidgets
// the shitty wiki doesn't describe how we're supposed to dispatch cmds to the os loop (w/o a window)
if (!gWxConsoleReady) return;
auto window = wxTheApp->GetTopWindow();
if (!window) return;
window->GetEventHandler()->CallAfter([]()
{
wxTheApp->Exit();

6
Source/Parse/Parser.cpp
View File

@ -441,7 +441,7 @@ namespace Aurora::Parse
// Bah
ok = Parse(nestedresult, parseBit.objectParse, context);
// TODO: debug info
parsedSingle.Object = nestedresult.result;
parsedSingle.object = nestedresult.result;
break;
}
default:
@ -597,8 +597,8 @@ namespace Aurora::Parse
}
case ParsableTag::kParseObject:
{
Serialize(!isArray ? parsed.value.single.Object : parsed.value.array[i].Object, ret);
parsedSingle.Object = nestedresult.result;
Serialize(!isArray ? parsed.value.single.object : parsed.value.array[i].object, ret);
parsedSingle.object = nestedresult.result;
break;
}
default:

2
Source/Threading/Sleep.cpp
View File

@ -33,7 +33,7 @@ namespace Aurora::Threading
#if defined(AURORA_PLATFORM_LINUX) || defined(AURORA_PLATFORM_ANDROID)
usleep(timeout);
#else
YieldPollNs(true, timeout + Time::CurrentClockNS(), [=]()
auto status = YieldPollNs(true, timeout + Time::CurrentInternalClockNS(), [=]()
{
return false;
});

20
Source/Threading/WaitFor.cpp
View File

@ -49,7 +49,8 @@ namespace Aurora::Threading
template<AuMach Flags> // forcefully optiMize by templating a constant argument
static inline void _FastSnooze(long &count, AuUInt64 &startTime, AuUInt64 maxStallNS, int &alpha, int &bravo, bool &forceSpin) //, bool yieldFaster , long maxStallMS = 20)
{
AuUInt64 now = Time::CurrentClockNS();
// TODO: rewrite me
AuUInt64 now = Time::CurrentInternalClockNS();
// Begin least likely checks, we're getting on now
// Ironically we need to burn off some CPU cycles
@ -96,19 +97,14 @@ namespace Aurora::Threading
#if defined(AURORA_PLATFORM_WIN32)
SHOULD_CTXSWAP(kPredictedNTOSSwitchTimeYDNS, kPredictedNTOSSwitchTimeRTNS)
{
// TODO:
::Sleep(1);
return;
}
#endif
// Always at least try to burn some cycles off in a spinlock-esc time waster
if ((count < 15) || (forceSpin))
{
count++;
YieldToSharedCore(count);
return;
}
// Always at least try to burn some cycles off in a spinlock-esc time waster
YieldToOtherThread();
}
@ -145,7 +141,7 @@ namespace Aurora::Threading
long count = 0;
unsigned long long a = Time::CurrentClockNS();
unsigned long long a = Time::CurrentInternalClockNS();
do
{
if (permitMultipleContextSwitches)
@ -161,7 +157,7 @@ namespace Aurora::Threading
{
return true;
}
a = Time::CurrentClockNS();
a = Time::CurrentInternalClockNS();
} while ((!timeoutMs) || (timeoutMs > a));
@ -170,7 +166,7 @@ namespace Aurora::Threading
bool YieldPollNs(bool permitMultipleContextSwitches, AuUInt64 timeoutNs, PollCallback_cb cb)
{
AuUInt64 time = Time::CurrentClockNS();
AuUInt64 time = Time::CurrentInternalClockNS();
if (cb())
{
@ -199,7 +195,7 @@ namespace Aurora::Threading
bool YieldPoll(bool permitMultipleContextSwitches, AuUInt64 timeoutMs, PollCallback_cb cb)
{
AuUInt64 time = Time::CurrentClockNS();
AuUInt64 time = Time::CurrentInternalClockNS();
AuUInt64 timeoutNs = timeoutMs ? (time + (timeoutMs * 1000000)) : 0;
if (cb())