// called on the master server when the league message is received
void nKrawall::ReceiveLeagueMessage(const tString& message)
{
// con << message;
if (message[0] == 'K')
{
tString killer(message.c_str()+1);
tString victim(message.c_str()+1+killer.Len());
MasterFrag(killer, victim);
}
else if (message[0] == 'R')
{
tString numP(message.c_str()+1);
int pos = 1 + numP.Len();
int numPlayers = atoi(numP);
tArray<tString> players(numPlayers);
for (int i = numPlayers-1; i>=0; i--)
{
players(i) = tString(message.c_str()+pos);
pos += players(i).Len();
}
MasterRoundEnd(&players[0], numPlayers);
}
}
void runKillTest(bool abortive) {
Server server;
int sock = createConnectedSocket(server.port());
std::thread killer([&server, abortive] {
std::this_thread::sleep_for(std::chrono::milliseconds(200));
shutdownSocketSet.shutdownAll(abortive);
server.join();
});
char c;
int r = read(sock, &c, 1);
// "abortive" is just a hint for ShutdownSocketSet, so accept both
// behaviors
if (abortive) {
if (r == -1) {
EXPECT_EQ(ECONNRESET, errno);
} else {
EXPECT_EQ(r, 0);
}
} else {
EXPECT_EQ(0, r);
}
close(sock);
killer.join();
// NOT closed by server when it exited
EXPECT_EQ(1, server.closeClients(false));
}
void NotifyParentOnDeathSystem::Update( double DeltaTime )
{
for ( auto actor : mScene.GetActorsFromMap( GetType_static() ) )
{
Opt<INotifyParentOnDeathComponent> notifyParentOnDeathC = actor->Get<INotifyParentOnDeathComponent>();
if ( !notifyParentOnDeathC.IsValid() )
{
continue;
}
Opt<Actor> parent( mScene.GetActor( notifyParentOnDeathC->GetParentGUID() ) );
Opt<Actor> killer( mScene.GetActor( notifyParentOnDeathC->GetKillerGUID() ) );
if( !parent.IsValid() )
{
continue;
}
Opt<IHealthComponent> healthC = actor->Get<IHealthComponent>();
if( !healthC.IsValid() || healthC->IsAlive() )
{
continue;
}
if( !killer.IsValid() )
{
continue;
}
Opt<IListenChildDeathComponent> listenChildDeathC = parent->Get<IListenChildDeathComponent>();
if ( !listenChildDeathC.IsValid() )
{
continue;
}
listenChildDeathC->SetKillerOfChildGUID( killer->GetGUID() );
}
}
MainWindow::MainWindow(QWidget *parent)
: QMainWindow(parent), ui(new Ui::MainWindow)
{
ui->setupUi(this);
createMyMenu();
backAction = new QAction( tr("Exit"), this );
backAction->setSoftKeyRole( QAction::NegativeSoftKey );
connect(backAction, SIGNAL(triggered()), this, SLOT(killer()));
addAction( backAction );
open = false;
}
/**
* Create the input set: an array of given size with random doubles
*
* use character-swapping algorithm from strfry.c in glibc
*
* http://www.koders.com/c/fidBD83E492934F9F671DE79B11E6AC0277F9887CF5.aspx
*
*/
void prepareInput (int size, int argc, char **argv) {
int i;
char c, *p;
int sorted = 0;
int numOutOfOrder = 0;
int distance = 0;
int distribution = 0;
while ((c = getopt(argc, argv, "abdku:")) != -1) {
switch (c) {
case 'a':
sorted = 1;
break;
case 'b':
distribution = 1;
break;
case 'k':
sorted = -2;
break;
case 'd':
sorted = -1;
break;
case 'g':
groupingSize = atoi(optarg);
break;
case 'u':
p = strstr(optarg, ",");
*p = '\0';
numOutOfOrder = atoi(optarg);
distance = atoi(p+1);
*p = ',';
break;
default:
break;
}
}
optind = 0; /* reset getopt for next time around. */
/* create numElements copies of a random double */
values = (double **) calloc (size, sizeof (double *));
if (verbose) {
printf ("Constructing array of %d doubless\n", size);
}
if (distribution == 0) {
/* Generate uniformly between [0,1) */
double den = RAND_MAX;
for (i = 0; i < size; i++) {
values[i] = calloc (1, sizeof (double));
*values[i] = random();
*values[i] /= den;
}
} else {
/* Generate random numbers with mean 0 and std deviation of 1. */
/* Uses the Polar Box Muller method. Must normalize all values. */
/* to be between 0 and 1. To do this, we compute min and max values */
/* and adjust all values, which leads to a mean of 0.5. */
double den = RAND_MAX;
double min = RAND_MAX;
double max = -RAND_MAX;
double ratio;
i = 0;
while (i < size) {
double u1, u2, w;
do {
u1 = random();
u1 /= den;
u2= random();
u2 /= den;
u1 = 2*u1 - 1;
u2 = 2*u2 - 1;
w = u1*u1 + u2*u2;
} while (w >= 1 || w == 0);
w = sqrt((-2*log(w))/w);
values[i] = calloc (1, sizeof (double));
*values[i] = u1*w;
if (*values[i] < min) {
min = *values[i];
}
if (*values[i] > max) {
max = *values[i];
}
i++;
if (i < size) {
values[i] = calloc (1, sizeof (double));
*values[i] = u2*w;
if (*values[i] < min) {
min = *values[i];
}
if (*values[i] > max) {
max = *values[i];
}
i++;
}
}
/* normalize to fit within [0,1). Since we can't be exactly 1, we */
/* tighten up the ratio by adding one to the denominator. */
ratio = 1/(1 + max - min);
for (i = 0; i < size; i++) {
*values[i] = (*values[i]-min)*ratio;
}
}
if (sorted) {
double *combined;
if (verbose) { printf ("sorting first...\n"); }
/* convert pointer-based values into contiguous value expected for
* the internal qsort. */
combined = (double *) calloc (numElements, ELEMENT_SIZE);
/* copy into the combined */
for (i = 0; i < numElements; i++) {
combined[i] = *values[i];
}
if (sorted == 1) {
qsort (combined, numElements, ELEMENT_SIZE,
(int (*)(const void *,const void *)) ascending);
} else if (sorted == -1) {
qsort (combined, numElements, ELEMENT_SIZE,
(int (*)(const void *,const void *)) descending);
} else if (sorted == -2) {
qsort (combined, numElements, ELEMENT_SIZE,
(int (*)(const void *,const void *)) ascending);
killer (combined, numElements);
}
/* move everything back into position now. */
for (i = 0; i < numElements; i++) {
*values[i] = combined[i];
}
free (combined); /* done */
/* now make numOutOfOrder swaps... */
while (numOutOfOrder-- > 0) {
double *tmp;
int j;
/* Compute random value */
i = 1 + (int) (numElements * (rand() / (RAND_MAX + 1.0)));
i %= numElements;
/* find distance (either up or down) from i. */
if (distance == 0) {
j = 1 + (int) (numElements * (rand() / (RAND_MAX + 1.0)));
j %= numElements;
} else {
j = i + distance;
if (j > numElements-1) { j = i - distance; if (j < 0) { j = 0;}}
}
/* swap values. */
if (verbose) { printf ("swap %d with %d\n", i, j); }
tmp = values[i];
values[i] = values[j];
values[j] = tmp;
}
}
if (verbose) {
printf ("Done constructing array of %d entries\n", size);
}
}
void Executor::timerEvent(QTimerEvent *)
{
TimerKiller killer(this, timer_id_, interval_);
//ищем топовое окно заданного класса
static const QString psClass = "TfrmTable";
static const int minFoldHue = 15;
static const int maxFoldHue = 30;
static const int minCallHue = 60;
static const int maxCallHue = 70;
static const int minCheckHue = 42;
static const int maxCheckHue = 58;
//смотрим топовое окно
WId FgWnd = GetForegroundWindow();
char clName[MAX_WND_TEXT];
GetClassNameA(FgWnd, clName, MAX_WND_TEXT);
QString sClass(clName);
if (!sClass.contains(psClass))
{
return;
}
//область кнопок
QRect checkRect;
QRect foldRect;
bool hasCheck = false;
bool hasFold = false;
bool hasCall = false;
int btnHeight = 110;
int btnWidth = 0;
WId BtnWnd = FindWindowEx(FgWnd, NULL, L"TAniLayer", NULL);
if (BtnWnd)
{
RECT btnRect;
//GetClientRect(BtnWnd, &btnRect);
GetWindowRect(BtnWnd, &btnRect);
btnHeight = btnRect.bottom - btnRect.top;
btnWidth = btnRect.right - btnRect.left;
btnWidth = btnWidth >> 1;
HwndToTop(FgWnd);
//делаем скрин области кнопок
QPixmap pixBtn = QPixmap::grabWindow(BtnWnd, btnWidth, 0, btnWidth, btnHeight);
QImage imgBtn = pixBtn.toImage();
//imgBtn.save("btn.bmp");
QPoint ptFold, ptCall, ptCheck;
//здесь нужна обработка нашего хода
static const int rectMin = 10;
//Начинаем поиск с кнопки Чек
//если она есть то однозначно наш ход
hasCheck = Proc770::checkHueButton(imgBtn, minCheckHue, maxCheckHue,
rectMin, checkRect);
if (!hasCheck)
{
//ищем кнопку Fold и Call
hasFold = Proc770::checkHueButton(imgBtn, minFoldHue, maxFoldHue,
rectMin, foldRect);
hasCall = Proc770::checkHueButton(imgBtn, minCallHue, maxCallHue, rectMin);
if (hasFold && hasCall)
{
//qDebug() << "FOLD is avail";
}
else
{
return;
}
}
else
{
//qDebug() << "CHECK is avail";
}
}
//здесь наш ход
QPixmap pixRoom = QPixmap::grabWindow(FgWnd);
QRect rectRoom = pixRoom.rect();
rectRoom.setHeight(rectRoom.height() - btnHeight);
QImage imgRoom = pixRoom.copy(rectRoom).toImage();
// устанавливаем изображение для обработки
cardProc_->setImage(imgRoom);
// если стадия префлопа
if (cardProc_->isPreflop())
{
//qDebug() << "Preflop!";
// получить карманные карты
bool ok = false;
QPair<QRect, QRect> holeCards = cardProc_->getHoleCards(&ok);
if (!ok)
return;
/// Debugging {
//uint num = 0;
//num = QDateTime::currentDateTime().toTime_t();
//imgRoom.save(QString("test/table_%1.bmp").arg(num));
//imgBtn.save(QString("test/btns_%1.bmp").arg(num));
//imgRoom.copy(holeCards.first).save(QString("test/first_%1.bmp").arg(num));
//imgRoom.copy(holeCards.second).save(QString("test/second_%1.bmp").arg(num));
/// } Debugging
if (holeCards.first.isEmpty() || holeCards.second.isEmpty() ||
holeCards.first.isNull() || holeCards.second.isNull())
return;
QImage firstImg = imgRoom.copy(holeCards.first);
QImage secondImg = imgRoom.copy(holeCards.second);
QString card1 = cardFromImage(firstImg);
QString card2 = cardFromImage(secondImg);
if (card1.length() != 2 || card2.length() != 2)
return;
//qDebug() << card1 << card2;
//сохранить карты в кэш
QString joined = card1 + card2;
if (joined == cache_ && !lastIsFold_)
{
//хорошие карты - человек думает, не мешать
return;
}
else
{
cache_ = joined;
}
QString range = cardRangeFromHoles(card1, card2);
//qDebug() << range;
if (playingCard_.contains(range))
{
//panic!
lastIsFold_ = false;
if (data_.visualAlert)
{
alarm_->highlight(joined, FgWnd);
}
if (data_.turnBeep)
{
QString appExe = qApp->applicationDirPath();
QSound::play(appExe + "/sounds/turn.wav");
}
}
else
{
if (data_.advisorMode)
{
QString advice = tr("Fold/Check this hand: %1")
.arg(card1 + " " + card2);
cbFun(advice.toStdString().c_str());
return;
}
//foldOrCheck(FgWnd);
//qDebug() << "Check Rect" << checkRect;
int w = checkRect.width();
int h = checkRect.height();
checkRect.setX(btnWidth + checkRect.x());
checkRect.setY(imgRoom.height() + checkRect.y());
checkRect.setWidth(w);
checkRect.setHeight(h);
//qDebug() << "New Check Rect" << checkRect;
//qDebug() << "Fold Rect" << foldRect;
w = foldRect.width();
h = foldRect.height();
foldRect.setX(btnWidth + foldRect.x());
foldRect.setY(imgRoom.height() + foldRect.y());
foldRect.setWidth(w);
foldRect.setHeight(h);
//qDebug() << "New Fold Rect" << foldRect;
if (hasCheck)
{
if (data_.checkBeep)
{
QString appExe = qApp->applicationDirPath();
QSound::play(appExe + "/sounds/check.wav");
}
clickTo(FgWnd, checkRect);
if (data_.showFolded)
{
QString sAction = tr("This hand has been checked: ");
cbFun(QString(sAction + card1 + " " + card2).toStdString().c_str());
}
//обнулить кэш
cache_.clear();
lastIsFold_ = false;
}
else if (hasFold)
{
lastIsFold_ = true;
if (data_.foldBeep)
{
QString appExe = qApp->applicationDirPath();
QSound::play(appExe + "/sounds/fold.wav");
}
clickTo(FgWnd, foldRect);
if (data_.showFolded)
{
QString sAction = tr("This hand has been folded: ");
cbFun(QString(sAction + card1 + " " + card2).toStdString().c_str());
}
}
}
}
//код для набивки базы карт
/*
qDebug() << "Check Rect" << checkRect;
int w = checkRect.width();
int h = checkRect.height();
checkRect.setX(btnWidth + checkRect.x());
checkRect.setY(imgRoom.height() + checkRect.y());
checkRect.setWidth(w);
checkRect.setHeight(h);
qDebug() << "New Check Rect" << checkRect;
qDebug() << "Fold Rect" << foldRect;
w = foldRect.width();
h = foldRect.height();
foldRect.setX(btnWidth + foldRect.x());
foldRect.setY(imgRoom.height() + foldRect.y());
foldRect.setWidth(w);
foldRect.setHeight(h);
qDebug() << "New Fold Rect" << foldRect;
if (cardProc_->isPreflop())
{
if (hasCheck)
{
clickTo(FgWnd, checkRect);
}
else if (hasFold && hasCall)
{
clickTo(FgWnd, foldRect);
}
}
else
{
clickTo(FgWnd, foldRect);
clickTo(FgWnd, checkRect);
qDebug() << "Flop at least!";
return;
}
*/
}
void EpidemicRoutingExtension::run() throw ()
{
class BundleFilter : public dtn::storage::BundleSelector
{
public:
BundleFilter(const NeighborDatabase::NeighborEntry &entry, const std::set<dtn::core::Node> &neighbors, const dtn::core::FilterContext &context, const dtn::net::ConnectionManager::protocol_list &plist)
: _entry(entry), _neighbors(neighbors), _plist(plist), _context(context)
{};
virtual ~BundleFilter() {};
virtual dtn::data::Size limit() const throw () { return _entry.getFreeTransferSlots(); };
virtual bool addIfSelected(dtn::storage::BundleResult &result, const dtn::data::MetaBundle &meta) const throw (dtn::storage::BundleSelectorException)
{
// check Scope Control Block - do not forward bundles with hop limit == 0
if (meta.hopcount == 0)
{
return false;
}
// do not forward local bundles
if ((meta.destination.getNode() == dtn::core::BundleCore::local)
&& meta.get(dtn::data::PrimaryBlock::DESTINATION_IS_SINGLETON)
)
{
return false;
}
// check Scope Control Block - do not forward non-group bundles with hop limit <= 1
if ((meta.hopcount <= 1) && (meta.get(dtn::data::PrimaryBlock::DESTINATION_IS_SINGLETON)))
{
return false;
}
// do not forward bundles addressed to this neighbor,
// because this is handled by neighbor routing extension
if (_entry.eid == meta.destination.getNode())
{
return false;
}
// request limits from neighbor database
try {
const RoutingLimitations &limits = _entry.getDataset<RoutingLimitations>();
if (meta.get(dtn::data::PrimaryBlock::DESTINATION_IS_SINGLETON))
{
// check if the peer accepts bundles for other nodes
if (limits.getLimit(RoutingLimitations::LIMIT_LOCAL_ONLY) > 0) return false;
}
else
{
// check if destination permits non-singleton bundles
if (limits.getLimit(RoutingLimitations::LIMIT_SINGLETON_ONLY) > 0) return false;
}
// check if the payload is too large for the neighbor
if ((limits.getLimit(RoutingLimitations::LIMIT_FOREIGN_BLOCKSIZE) > 0) &&
((size_t)limits.getLimit(RoutingLimitations::LIMIT_FOREIGN_BLOCKSIZE) < meta.getPayloadLength())) return false;
} catch (const NeighborDatabase::DatasetNotAvailableException&) { }
// if this is a singleton bundle ...
if (meta.get(dtn::data::PrimaryBlock::DESTINATION_IS_SINGLETON))
{
const dtn::core::Node n(meta.destination.getNode());
// do not forward the bundle if the final destination is available
if (_neighbors.find(n) != _neighbors.end())
{
return false;
}
}
// do not forward bundles already known by the destination
// throws BloomfilterNotAvailableException if no filter is available or it is expired
try {
if (_entry.has(meta, true))
{
return false;
}
} catch (const dtn::routing::NeighborDatabase::BloomfilterNotAvailableException&) {
throw dtn::storage::BundleSelectorException();
}
// update filter context
dtn::core::FilterContext context = _context;
context.setMetaBundle(meta);
// check bundle filter for each possible path
for (dtn::net::ConnectionManager::protocol_list::const_iterator it = _plist.begin(); it != _plist.end(); ++it)
{
const dtn::core::Node::Protocol &p = (*it);
// update context with current protocol
context.setProtocol(p);
// execute filtering
dtn::core::BundleFilter::ACTION ret = dtn::core::BundleCore::getInstance().evaluate(dtn::core::BundleFilter::ROUTING, context);
if (ret == dtn::core::BundleFilter::ACCEPT)
{
// put the selected bundle with targeted interface into the result-set
static_cast<RoutingResult&>(result).put(meta, p);
return true;
}
}
return false;
};
private:
const NeighborDatabase::NeighborEntry &_entry;
const std::set<dtn::core::Node> &_neighbors;
const dtn::net::ConnectionManager::protocol_list &_plist;
const dtn::core::FilterContext &_context;
};
// list for bundles
RoutingResult list;
// set of known neighbors
std::set<dtn::core::Node> neighbors;
while (true)
{
try {
Task *t = _taskqueue.poll();
std::auto_ptr<Task> killer(t);
IBRCOMMON_LOGGER_DEBUG_TAG(EpidemicRoutingExtension::TAG, 50) << "processing task " << t->toString() << IBRCOMMON_LOGGER_ENDL;
try {
/**
* SearchNextBundleTask triggers a search for a bundle to transfer
* to another host. This Task is generated by TransferCompleted, TransferAborted
* and node events.
*/
try {
SearchNextBundleTask &task = dynamic_cast<SearchNextBundleTask&>(*t);
// clear the result list
list.clear();
// lock the neighbor database while searching for bundles
try {
NeighborDatabase &db = (**this).getNeighborDB();
ibrcommon::MutexLock l(db);
NeighborDatabase::NeighborEntry &entry = db.get(task.eid, true);
// check if enough transfer slots available (threshold reached)
if (!entry.isTransferThresholdReached())
throw NeighborDatabase::NoMoreTransfersAvailable(task.eid);
if (dtn::daemon::Configuration::getInstance().getNetwork().doPreferDirect()) {
// get current neighbor list
neighbors = dtn::core::BundleCore::getInstance().getConnectionManager().getNeighbors();
} else {
// "prefer direct" option disabled - clear the list of neighbors
neighbors.clear();
}
// get a list of protocols supported by both, the local BPA and the remote peer
const dtn::net::ConnectionManager::protocol_list plist =
dtn::core::BundleCore::getInstance().getConnectionManager().getSupportedProtocols(entry.eid);
// create a filter context
dtn::core::FilterContext context;
context.setPeer(entry.eid);
context.setRouting(*this);
// get the bundle filter of the neighbor
const BundleFilter filter(entry, neighbors, context, plist);
// some debug output
IBRCOMMON_LOGGER_DEBUG_TAG(EpidemicRoutingExtension::TAG, 40) << "search some bundles not known by " << task.eid.getString() << IBRCOMMON_LOGGER_ENDL;
// query some unknown bundle from the storage
(**this).getSeeker().get(filter, list);
} catch (const dtn::storage::BundleSelectorException&) {
// query a new summary vector from this neighbor
(**this).doHandshake(task.eid);
}
// send the bundles as long as we have resources
for (RoutingResult::const_iterator iter = list.begin(); iter != list.end(); ++iter)
{
try {
// transfer the bundle to the neighbor
transferTo(task.eid, (*iter).first, (*iter).second);
} catch (const NeighborDatabase::AlreadyInTransitException&) { };
}
} catch (const NeighborDatabase::NoMoreTransfersAvailable &ex) {
// remember that this peer has pending transfers
ibrcommon::MutexLock pending_lock(_pending_mutex);
_pending_peers.insert(ex.peer);
IBRCOMMON_LOGGER_DEBUG_TAG(TAG, 10) << "task " << t->toString() << " aborted: " << ex.what() << IBRCOMMON_LOGGER_ENDL;
} catch (const NeighborDatabase::EntryNotFoundException &ex) {
IBRCOMMON_LOGGER_DEBUG_TAG(TAG, 10) << "task " << t->toString() << " aborted: " << ex.what() << IBRCOMMON_LOGGER_ENDL;
} catch (const NodeNotAvailableException &ex) {
IBRCOMMON_LOGGER_DEBUG_TAG(TAG, 10) << "task " << t->toString() << " aborted: " << ex.what() << IBRCOMMON_LOGGER_ENDL;
} catch (const dtn::storage::NoBundleFoundException &ex) {
IBRCOMMON_LOGGER_DEBUG_TAG(TAG, 10) << "task " << t->toString() << " aborted: " << ex.what() << IBRCOMMON_LOGGER_ENDL;
} catch (const std::bad_cast&) { };
} catch (const ibrcommon::Exception &ex) {
IBRCOMMON_LOGGER_DEBUG_TAG(EpidemicRoutingExtension::TAG, 20) << "task failed: " << ex.what() << IBRCOMMON_LOGGER_ENDL;
}
} catch (const std::exception &ex) {
IBRCOMMON_LOGGER_DEBUG_TAG(EpidemicRoutingExtension::TAG, 15) << "terminated due to " << ex.what() << IBRCOMMON_LOGGER_ENDL;
return;
}
yield();
}
}
