void cmdVelReceived(const geometry_msgs::Twist::ConstPtr& cmd_vel)
{
std::cout << "cmdVel Received: speed = " << cmd_vel->linear.x << " angular = " << cmd_vel->angular.z << std::endl;
if(bumper_warning.load()) roomba->drive(-0.2, 0);
else if(ir_warning.load()) roomba->drive(0, cmd_vel->angular.z);
else roomba->drive(cmd_vel->linear.x,cmd_vel->angular.z);
}
void thread_pool::thread_func(std::atomic_bool & stop_request)
{
std::unique_lock<std::mutex> lk(m_mutex, std::defer_lock);
for (;;)
{
ext::intrusive_ptr<task_base> task_ptr;
lk.lock();
if (stop_request.load(std::memory_order_relaxed)) return;
if (!m_tasks.empty()) goto avail;
again:
m_event.wait(lk);
if (stop_request.load(std::memory_order_relaxed)) return;
if (m_tasks.empty()) goto again;
avail:
task_ptr.reset(&m_tasks.front(), ext::noaddref);
m_tasks.pop_front();
lk.unlock();
task_ptr->execute();
}
}
// ------------------------------------------------------------------------
void addAndSetTime(uint32_t ping, uint64_t server_time)
{
if (m_synchronised.load() == true)
return;
if (m_force_set_timer.load() == true)
{
m_force_set_timer.store(false);
m_synchronised.store(true);
STKHost::get()->setNetworkTimer(server_time + (uint64_t)(ping / 2));
return;
}
const uint64_t cur_time = StkTime::getMonoTimeMs();
// Discard too close time compared to last ping
// (due to resend when packet loss)
// 10 packets per second as seen in STKHost
const uint64_t frequency = (uint64_t)((1.0f / 10.0f) * 1000.0f) / 2;
if (!m_times.empty() &&
cur_time - std::get<2>(m_times.back()) < frequency)
return;
// Take max 20 averaged samples from m_times, the next addAndGetTime
// is used to determine that server_time if it's correct, if not
// clear half in m_times until it's correct
if (m_times.size() >= 20)
{
uint64_t sum = std::accumulate(m_times.begin(), m_times.end(),
(uint64_t)0, [cur_time](const uint64_t previous,
const std::tuple<uint32_t, uint64_t, uint64_t>& b)->uint64_t
{
return previous + (uint64_t)(std::get<0>(b) / 2) +
std::get<1>(b) + cur_time - std::get<2>(b);
});
const int64_t averaged_time = sum / 20;
const int64_t server_time_now = server_time + (uint64_t)(ping / 2);
int difference = (int)std::abs(averaged_time - server_time_now);
if (std::abs(averaged_time - server_time_now) <
UserConfigParams::m_timer_sync_difference_tolerance)
{
STKHost::get()->setNetworkTimer(averaged_time);
m_times.clear();
m_force_set_timer.store(false);
m_synchronised.store(true);
Log::info("NetworkTimerSynchronizer", "Network "
"timer synchronized, difference: %dms", difference);
return;
}
m_times.erase(m_times.begin(), m_times.begin() + 10);
}
m_times.emplace_back(ping, server_time, cur_time);
}
bool fiber_waiter::wait_ready(std::chrono::steady_clock::duration timeout_duration) noexcept
{
if (gth_thread_type == thread_type::thread)
{
std::unique_lock<std::mutex> lk(m_thread_mutex);
return m_thread_var.wait_for(lk, timeout_duration, [this] { return m_ready.load(std::memory_order_relaxed); });
}
else
{
std::unique_lock<boost::fibers::mutex> lk(m_fiber_mutex);
return m_fiber_var.wait_for(lk, timeout_duration, [this] { return m_ready.load(std::memory_order_relaxed); });
}
}
void fiber_waiter::wait_ready() noexcept
{
if (gth_thread_type == thread_type::thread)
{
std::unique_lock<std::mutex> lk(m_thread_mutex);
return m_thread_var.wait(lk, [this] { return m_ready.load(std::memory_order_relaxed); });
}
else
{
std::unique_lock<boost::fibers::mutex> lk(m_fiber_mutex);
return m_fiber_var.wait(lk, [this] { return m_ready.load(std::memory_order_relaxed); });
}
}
progressIndicatorThreadWrapper( const std::chrono::nanoseconds& updateInterval )
{
m_stopCondition.store( false );
m_thread = std::thread( [this, &updateInterval]
{
FormattedPrint::On(std::cout, false).app(" ");
int slashIndex = 0;
while( ! m_stopCondition.load() )
{
FormattedPrint::On(std::cout, false).app("\b\b\b \b")
.color( Green )
.app('[')
.color( Yellow )
.app( slashes[ slashIndex++ ] )
.color( Green )
.app(']')
.color();
slashIndex = slashIndex % 4;
std::this_thread::sleep_for( updateInterval );
}
FormattedPrint::On(std::cout, false).app("\b\b\b");
});
}
void gstate_update_func()
{
POINT p;
int mButton;
if(GetSystemMetrics(SM_SWAPBUTTON))
mButton = VK_RBUTTON; // if swapped
else
mButton = VK_LBUTTON; // not swapped (normal)
int screenWidth = GetSystemMetrics( SM_CXSCREEN );
int screenHeight = GetSystemMetrics( SM_CYSCREEN );
// default: SM_CX/CYSCREEN gets the size of a primary screen.
// lines uncommented below are just for a specially need on multi-display.
//int screenWidth = GetSystemMetrics( SM_CXVIRTUALSCREEN );
//int screenHeight = GetSystemMetrics( SM_CYVIRTUALSCREEN );
float r_screenWidth = 1.f / (float)(screenWidth -1);
float r_screenHeight = 1.f / (float)(screenHeight -1);
while ( inputThreadRunning.load( std::memory_order_relaxed ) ) {
// "KeyState" is disabled for now, on Windows...
//GetKey((long*)gstate->keys);
GetCursorPos(&p);
gMouseUGenGlobals.mouseX = (float)p.x * r_screenWidth;
gMouseUGenGlobals.mouseY = 1.f - (float)p.y * r_screenHeight;
gMouseUGenGlobals.mouseButton = (GetKeyState(mButton) < 0);
std::this_thread::sleep_for( std::chrono::milliseconds( 17 ) );
}
}
bool example1_rx(const std::string& dataaddress, unsigned short dataport, std::atomic_bool& stopFlag)
{
SuperBlock rxBlock;
uint8_t rawBlock[sizeof(SuperBlock)];
int rawBlockSize;
UDPSocket rxSocket(dataport);
std::string senderaddress, senderaddress0;
unsigned short senderport, senderport0 = 0;
Example1Rx ex1(nbSamplesPerBlock, nbOriginalBlocks, nbRecoveryBlocks);
std::cerr << "example1_rx: receiving on address: " << dataaddress << " port: " << (int) dataport << std::endl;
while (!stopFlag.load())
{
rawBlockSize = 0;
while (rawBlockSize < sizeof(SuperBlock))
{
rawBlockSize += rxSocket.RecvDataGram((void *) &rawBlock[rawBlockSize], (int) sizeof(SuperBlock), senderaddress, senderport);
if ((senderaddress != senderaddress0) || (senderport != senderport0))
{
std::cerr << "example1_rx: connected to: " << senderaddress << ":" << senderport << std::endl;
senderaddress0 = senderaddress;
senderport0 = senderport;
}
usleep(10);
}
rxBlock = *((SuperBlock *) rawBlock);
ex1.processBlock(rxBlock);
}
}
void reader_thread()
{
while (!data_ready.load()) {
std::this_thread::sleep_for(std::chrono::milliseconds(1));
}
std::cout<<"The answer = "<<data[0]<<"\n";
}
void consume(std::atomic_bool& done, int* array, int_queue& q)
{
while (!done.load())
{
int val;
if(q.pop(val))
{
array[val] = val;
}
else
{
std::this_thread::yield();
}
}
// drain
while (!q.empty())
{
int val;
if(q.pop(val))
{
array[val] = val;
}
else
{
std::this_thread::yield();
}
}
}
/**
* This is the actual function that the thread executes.
* It receives a block from the scheduler, class its run() method and returns it to the scheduler.
* The thread runs until the it is told to stop by setting the m_stop boolean flag
*/
void operator()()
{
if(CPU_COUNT(&m_mask)>0)
{
pthread_t id = pthread_self();
int ret = pthread_setaffinity_np(id, sizeof(m_mask), &m_mask);
if(ret != 0)
{
perror("setaffinity");
throw(std::runtime_error("set affinity failed"));
}
}
while(!m_stop.load())
{
std::shared_ptr<Block>torun(m_scheduler.next_task(m_id));
if(torun)
{
torun->run();
m_scheduler.task_done(m_id, std::move(torun));
}
else
{
std::this_thread::sleep_for(std::chrono::milliseconds(10));
}
}
m_stop.store(false);
}
static void
run(std::atomic_bool& running, int fd, felix::netio::DataSinkCallbacks* callbacks)
{
while(running.load())
{
/* felix::netio::msgheader header;
ssize_t count = read(fd, &header, sizeof(header));
assert(count == sizeof(header));
char* data = new char[header.len];
ssize_t bytes_read = 0;
while(bytes_read < header.len)
{
count = read(fd, data+bytes_read, header.len-bytes_read);
if (count == 0)
{
std::vector<felix::netio::DataSinkMessage> messages;
messages.emplace_back(data, bytes_read);
callbacks->on_data_received_with_error(messages);
return;
}
bytes_read += count;
}
*/
char* data = new char[1024];
ssize_t count = read(fd, data, 1024);
std::vector<felix::netio::DataSinkMessage> messages;
messages.emplace_back(data, count);
callbacks->on_data_received(messages);
}
}
static void
stepCore(uint32_t coreId, bool stepOver)
{
decaf_check(sIsPaused.load());
const cpu::CoreRegs *state = sCorePauseState[coreId];
uint32_t nextInstr = calculateNextInstr(state, stepOver);
cpu::addBreakpoint(nextInstr, cpu::SYSTEM_BPFLAG);
resumeAll();
}
void
handleDbgBreakInterrupt()
{
// If we are not initialised, we should ignore DbgBreaks
if (!decaf::config::debugger::enabled) {
return;
}
std::unique_lock<std::mutex> lock(sMutex);
auto coreId = cpu::this_core::id();
// Store our core state before we flip isPaused
sCorePauseState[coreId] = cpu::this_core::state();
// Check to see if we were the last core to join on the fun
auto coreBit = 1 << coreId;
auto isPausing = sIsPausing.fetch_or(coreBit);
if (isPausing == 0) {
// This is the first core to hit a breakpoint
sPauseInitiatorCoreId = coreId;
// Signal the rest of the cores to stop
for (auto i = 0; i < 3; ++i) {
cpu::interrupt(i, cpu::DBGBREAK_INTERRUPT);
}
}
if ((isPausing | coreBit) == (1 | 2 | 4)) {
// This was the last core to join.
sIsPaused.store(true);
sIsPausing.store(0);
sIsResuming.store(0);
}
// Spin around the release condition while we are paused
while (sIsPausing.load() || sIsPaused.load()) {
sPauseReleaseCond.wait(lock);
}
// Clear any additional DbgBreaks that occured
cpu::this_core::clearInterrupt(cpu::DBGBREAK_INTERRUPT);
// Everyone needs to leave at once in case new breakpoints occur.
if ((sIsResuming.fetch_or(coreBit) | coreBit) == (1 | 2 | 4)) {
sPauseReleaseCond.notify_all();
} else {
while ((sIsResuming.load() | coreBit) != (1 | 2 | 4)) {
sPauseReleaseCond.wait(lock);
}
}
}
void thread_recv() {
while (connected.load()) {
spmsg_t msg = std::make_shared<msg_t>(sizeof(uint32_t));
if (!_do_recv(msg->data(), sizeof(uint32_t)))
return;
uint32_t msg_len = *(uint32_t*)msg->data();
msg->resize(msg_len + sizeof(uint32_t));
*(uint32_t*)msg->data() = msg_len;
if (!_do_recv(msg->data() + sizeof(uint32_t), msg_len))
return;
recv_queue.push(std::move(msg));
}
}
/**
* Main thread entry point for the IPC thread.
*
* This thread represents the IOS side of the IPC mechanism.
*
* Responsible for receiving IPC requests and dispatching them to the
* correct IOS device.
*/
void
ipcThreadEntry()
{
std::unique_lock<std::mutex> lock { sIpcMutex };
while (true) {
if (!sIpcRequests.empty()) {
auto request = sIpcRequests.front();
sIpcRequests.pop();
lock.unlock();
iosDispatchIpcRequest(request);
lock.lock();
switch (request->cpuId) {
case IOSCpuId::PPC0:
sIpcResponses[0].push(request);
cpu::interrupt(0, cpu::IPC_INTERRUPT);
break;
case IOSCpuId::PPC1:
sIpcResponses[1].push(request);
cpu::interrupt(1, cpu::IPC_INTERRUPT);
break;
case IOSCpuId::PPC2:
sIpcResponses[2].push(request);
cpu::interrupt(2, cpu::IPC_INTERRUPT);
break;
default:
decaf_abort("Unexpected cpu id");
}
}
if (!sIpcThreadRunning.load()) {
break;
}
if (sIpcRequests.empty()) {
sIpcCond.wait(lock);
}
}
sIpcThreadRunning.store(false);
}
void gstate_update_func()
{
Window r;
struct timespec requested_time , remaining_time;
// NOTE: should not be required as this is the only thread accessing the x11 API
// but omitting seems to cause troubles.
XInitThreads();
d = XOpenDisplay ( NULL );
if (!d) return;
Window rep_root, rep_child;
XWindowAttributes attributes;
int rep_rootx, rep_rooty ;
unsigned int rep_mask;
int dx, dy;
float r_width;
float r_height;
r = DefaultRootWindow ( d );
XGetWindowAttributes ( d, r, &attributes );
r_width = 1.0 / (float)attributes.width;
r_height = 1.0 / (float)attributes.height;
while ( inputThreadRunning.load( std::memory_order_relaxed ) ) {
XQueryKeymap ( d , (char *) (gKeyStateGlobals.keys) );
XQueryPointer ( d, r,
&rep_root, &rep_child,
&rep_rootx, &rep_rooty,
&dx, &dy,
&rep_mask);
gMouseUGenGlobals.mouseX = (float)dx * r_width;
gMouseUGenGlobals.mouseY = 1.f - ( (float)dy * r_height );
gMouseUGenGlobals.mouseButton = (bool) ( rep_mask & Button1Mask );
std::this_thread::sleep_for( std::chrono::milliseconds( 17 ) );
}
}
void thread_send() {
while (connected.load()) {
spmsg_t msg;
send_queue.pop(msg, true);
if (!msg)
continue;
const char* buffer = (const char*)msg->data();
uint32_t remain = msg->size();
uint32_t len = 0;
uint32_t pos = 0;
do {
len = ::send(this->sock, buffer+pos, remain, 0);
if (len <= 0) {
printf("send error %d\n", get_errno());
return;
}
pos += len;
remain -= len;
} while (remain > 0);
}
}
void MsgPopThread::run ()
{
while (!ShouldStop_.load (std::memory_order_relaxed))
{
const auto msg = gst_bus_timed_pop (Bus_, Multiplier_ * GST_SECOND);
if (!msg)
continue;
QMetaObject::invokeMethod (SourceObj_,
"handleMessage",
Qt::QueuedConnection,
Q_ARG (GstMessage_ptr, std::shared_ptr<GstMessage> (msg, gst_message_unref)));
if (GST_MESSAGE_TYPE (msg) == GST_MESSAGE_ERROR)
{
BusDrainMutex_.lock ();
BusDrainWC_.wait (&BusDrainMutex_);
BusDrainMutex_.unlock ();
qDebug () << "bus drained, continuing";
}
}
}
bool example1_tx(const std::string& dataaddress, int dataport, std::vector<int> &blockExclusionList, std::atomic_bool& stopFlag)
{
SuperBlock txBlocks[256];
Example1Tx ex1(nbSamplesPerBlock, nbOriginalBlocks, nbRecoveryBlocks);
std::cerr << "example1_tx: transmitting on address: " << dataaddress << " port: " << dataport << std::endl;
for (uint16_t frameNumber = 0; !stopFlag.load(); frameNumber++)
{
ex1.makeDataBlocks(txBlocks, frameNumber);
if (!ex1.makeFecBlocks(txBlocks, frameNumber))
{
std::cerr << "example1_tx: encode error" << std::endl;
break;
}
ex1.transmitBlocks(txBlocks, dataaddress, dataport, blockExclusionList, 300);
std::cerr << ".";
}
return true;
}
// ------------------------------------------------------------------------
void enableForceSetTimer()
{
if (m_synchronised.load() == true)
return;
m_force_set_timer.store(true);
}
void DialogSystem::receive(const MouseClickEvent &mce)
{
game::entities.each<Position, Solid, Dialog, Name>(
[&](entityx::Entity e, Position &pos, Solid &dim, Dialog &d, Name &name) {
static std::atomic_bool dialogRun;
(void)e;
(void)d;
if (((mce.position.x > pos.x) & (mce.position.x < pos.x + dim.width)) &&
((mce.position.y > pos.y) & (mce.position.y < pos.y + dim.height))) {
if (!dialogRun.load()) {
std::thread([&] {
std::string questAssignedText;
int newIndex;
auto exml = game::engine.getSystem<WorldSystem>()->getXML()->FirstChildElement("Dialog");
dialogRun.store(true);
if (e.has_component<Direction>())
d.talking = true;
if (d.index == 9999) {
ui::dialogBox(name.name, "", false, randomDialog[d.rindex % randomDialog.size()]);
ui::waitForDialog();
} else if (exml != nullptr) {
while (exml->StrAttribute("name") != name.name)
exml = exml->NextSiblingElement();
exml = exml->FirstChildElement("text");
while (exml->IntAttribute("id") != d.index)
exml = exml->NextSiblingElement();
auto oxml = exml->FirstChildElement("set");
if (oxml != nullptr) {
do game::setValue(oxml->StrAttribute("id"), oxml->StrAttribute("value"));
while ((oxml = oxml->NextSiblingElement()));
game::briceUpdate();
}
auto qxml = exml->FirstChildElement("quest");
if (qxml != nullptr) {
const char *qname;
auto qsys = game::engine.getSystem<QuestSystem>();
do {
// assign quest
qname = qxml->Attribute("assign");
if (qname != nullptr) {
questAssignedText = qname;
auto req = qxml->GetText();
qsys->assign(qname, qxml->StrAttribute("desc"), req ? req : "");
}
// check / finish quest
else {
qname = qxml->Attribute("check");
if (qname != nullptr) {
if (qname != nullptr && qsys->hasQuest(qname) && qsys->finish(qname) == 0) {
d.index = 9999;
} else {
ui::dialogBox(name.name, "", false, "Finish my quest u nug");
ui::waitForDialog();
return;
}
// oldidx = d.index;
// d.index = qxml->UnsignedAttribute("fail");
// goto COMMONAIFUNC;
}
}
} while((qxml = qxml->NextSiblingElement()));
}
auto cxml = exml->FirstChildElement("content");
const char *content;
if (cxml == nullptr) {
content = randomDialog[d.rindex % randomDialog.size()].c_str();
} else {
content = cxml->GetText() - 1;
while (*++content && isspace(*content));
}
ui::dialogBox(name.name, "", false, content);
ui::waitForDialog();
if (!questAssignedText.empty())
ui::passiveImportantText(5000, ("Quest assigned:\n\"" + questAssignedText + "\"").c_str());
if (exml->QueryIntAttribute("nextid", &newIndex) == XML_NO_ERROR)
d.index = newIndex;
}
d.talking = false;
dialogRun.store(false);
}).detach();
}
}
});
}
int CALLBACK WinMain(
HINSTANCE hInstance,
HINSTANCE hPrevInstance,
LPSTR lpCmdLine,
int nCmdShow)
{
s_gameFuncs = LoadGameFuncs();
assert(s_gameFuncs.valid);
ImGuiIO& io = ImGui::GetIO();
//io.MemAllocFn = memory::malloc;
//io.MemFreeFn = memory::free;
//_crtBreakAlloc = 4015;
s_queue = new util::ThreadSafeQueue<WindowEvent>();
g_LogInfo(SL_BUILD_DATE);
// Log CPU features
{
#if 0
struct CPUInfo {
union {
int i[4];
};
} info = { 0 };
// Get number of functions
__cpuid(info.i, 0);
int nIds_ = info.i[0];
// Dump info
std::vector<CPUInfo> data;
for (int i = 0; i <= nIds_; ++i)
{
__cpuidex(info.i, i, 0);
data.push_back(info);
}
// Vendor
if(data.size() >= 0) {
char vendor[13] = {0};
memcpy(vendor + 0, data[0].i + 1, 4);
memcpy(vendor + 4, data[0].i + 3, 4);
memcpy(vendor + 8, data[0].i + 2, 4);
g_LogInfo("CPU Vendor: " + std::string(vendor));
}
#endif
// http://stackoverflow.com/questions/850774/how-to-determine-the-hardware-cpu-and-ram-on-a-machine
int CPUInfo[4] = { 0 };
char CPUBrandString[0x40];
// Get the information associated with each extended ID.
__cpuid(CPUInfo, 0x80000000);
int nExIds = CPUInfo[0];
for (int i = 0x80000000; i <= nExIds; i++)
{
__cpuid(CPUInfo, i);
// Interpret CPU brand string
if (i == 0x80000002)
memcpy(CPUBrandString, CPUInfo, sizeof(CPUInfo));
else if (i == 0x80000003)
memcpy(CPUBrandString + 16, CPUInfo, sizeof(CPUInfo));
else if (i == 0x80000004)
memcpy(CPUBrandString + 32, CPUInfo, sizeof(CPUInfo));
}
//string includes manufacturer, model and clockspeed
std::string brand(CPUBrandString);
g_LogInfo(brand.substr(brand.find_first_not_of(" ")));
SYSTEM_INFO sysInfo;
GetSystemInfo(&sysInfo);
g_LogInfo("Logical processors: " + std::to_string(sysInfo.dwNumberOfProcessors));
MEMORYSTATUSEX statex;
statex.dwLength = sizeof (statex);
GlobalMemoryStatusEx(&statex);
g_LogInfo("Total System Memory: " + std::to_string(statex.ullTotalPhys/1024/1024) + " MB");
}
auto className = L"StarlightClassName";
WNDCLASSEXW wndClass = { 0 };
wndClass.cbSize = sizeof(WNDCLASSEXW);
wndClass.style = CS_CLASSDC;
wndClass.lpfnWndProc = WndProc;
wndClass.hInstance = GetModuleHandleW(nullptr);
wndClass.hCursor = LoadCursorW(nullptr, IDC_ARROW);
wndClass.lpszClassName = className;
RegisterClassExW(&wndClass);
// Get desktop rectangle
RECT desktopRect;
GetClientRect(GetDesktopWindow(), &desktopRect);
// Get window rectangle
RECT windowRect = { 0, 0, 800, 600 }; // TODO: Config file?
AdjustWindowRect(&windowRect, WS_OVERLAPPEDWINDOW, FALSE);
// Calculate window dimensions
LONG windowWidth = windowRect.right - windowRect.left;
LONG windowHeight = windowRect.bottom - windowRect.top;
LONG x = desktopRect.right / 2 - windowWidth / 2;
LONG y = desktopRect.bottom / 2 - windowHeight / 2;
#ifdef _DEBUG
// Move the screen to the right monitor on JOTARO
wchar_t computerName[MAX_COMPUTERNAME_LENGTH + 1];
DWORD dwSize = sizeof(computerName);
GetComputerNameW(computerName, &dwSize);
if (wcscmp(computerName, L"JOTARO") == 0) {
x += 1920;
}
#endif
s_config.Load();
s_hwnd = CreateWindowExW(
0L,
className,
L"Starlight",
WS_OVERLAPPEDWINDOW,
x,
y,
windowWidth,
windowHeight,
nullptr,
nullptr,
GetModuleHandleW(nullptr),
nullptr
);
// Show the window
ShowWindow(s_hwnd, SW_MAXIMIZE);
UpdateWindow(s_hwnd);
// Create thread
s_running.store(true);
unsigned int threadID;
HANDLE thread = (HANDLE) _beginthreadex(nullptr, 0, MyThreadFunction, nullptr, 0, &threadID);
if (!thread) {
// Error creating thread
return 1;
}
// Watch Lua directory
hDirectoryChange = FindFirstChangeNotification(L"../starlight/", TRUE, FILE_NOTIFY_CHANGE_LAST_WRITE);
if (!hDirectoryChange) {
g_LogInfo("Error creating directory change notification handle: Lua reload on save will not work.");
}
// Message loop
MSG msg;
while (s_running.load() && GetMessageW(&msg, nullptr, 0, 0))
{
TranslateMessage(&msg);
DispatchMessageW(&msg);
}
WaitForSingleObject(thread, INFINITE);
CloseHandle(thread);
if (hDirectoryChange) {
if (!FindCloseChangeNotification(hDirectoryChange)) {
g_LogInfo("Failed to close directory change notification handle.");
}
}
s_gameFuncs.DestroyLogger();
io.Fonts->Clear();
s_config.Save();
delete s_queue;
UnregisterClassW(className, GetModuleHandleW(nullptr));
_CrtDumpMemoryLeaks();
return 0;
}
bool
paused()
{
return sIsPaused.load();
}
bool isShutdownTime() const
{
return _shutdownFlag.load();
}
void producer( const map_ptr_t &map, const std::string &key, std::string value ) {
while ( !g_is_done.load( std::memory_order_relaxed ) ) {
auto access_token = map->get_exclusive_access( key );
map->set( key, value );
}
}
bool is_connecting() {
return connecting.load();
}
// ------------------------------------------------------------------------
bool isSynchronised() const { return m_synchronised.load(); }
void consumer( const map_ptr_t &map, const std::string &key ) {
while ( !g_is_done.load( std::memory_order_relaxed ) ) {
std::cout << "value for key [" << key << "] == " << map->get( key ) << std::endl;
}
}
bool is_connected() {
return connected.load();
}