void statusUpdate(const StatusUpdate& update, const UPID& pid)
{
const TaskStatus& status = update.status();
if (aborted) {
VLOG(1) << "Ignoring task status update message because "
<< "the driver is aborted!";
return;
}
VLOG(2) << "Received status update " << update << " from " << pid;
CHECK(framework.id() == update.framework_id());
// TODO(benh): Note that this maybe a duplicate status update!
// Once we get support to try and have a more consistent view
// of what's running in the cluster, we'll just let this one
// slide. The alternative is possibly dealing with a scheduler
// failover and not correctly giving the scheduler it's status
// update, which seems worse than giving a status update
// multiple times (of course, if a scheduler re-uses a TaskID,
// that could be bad.
Stopwatch stopwatch;
if (FLAGS_v >= 1) {
stopwatch.start();
}
scheduler->statusUpdate(driver, status);
VLOG(1) << "Scheduler::statusUpdate took " << stopwatch.elapsed();
// Acknowledge the status update.
// NOTE: We do a dispatch here instead of directly sending the ACK because,
// we want to avoid sending the ACK if the driver was aborted when we
// made the statusUpdate call. This works because, the 'abort' message will
// be enqueued before the ACK message is processed.
if (pid > 0) {
dispatch(self(), &Self::statusUpdateAcknowledgement, update, pid);
}
}
void rescindOffer(const OfferID& offerId)
{
if (aborted) {
VLOG(1) << "Ignoring rescind offer message because "
<< "the driver is aborted!";
return;
}
VLOG(1) << "Rescinded offer " << offerId;
savedOffers.erase(offerId);
Stopwatch stopwatch;
if (FLAGS_v >= 1) {
stopwatch.start();
}
scheduler->offerRescinded(driver, offerId);
VLOG(1) << "Scheduler::offerRescinded took " << stopwatch.elapsed();
}
void frameworkMessage(const SlaveID& slaveId,
const FrameworkID& frameworkId,
const ExecutorID& executorId,
const string& data)
{
if (aborted) {
VLOG(1) << "Ignoring framework message because the driver is aborted!";
return;
}
VLOG(2) << "Received framework message";
Stopwatch stopwatch;
if (FLAGS_v >= 1) {
stopwatch.start();
}
scheduler->frameworkMessage(driver, executorId, slaveId, data);
VLOG(1) << "Scheduler::frameworkMessage took " << stopwatch.elapsed();
}
void doVariant(const std::vector<std::string>& strvec)
{
MyObj o;
std::cout << sizeof(o) << std::endl;
boost::variant<std::string, double> u(1.1);
/*
std::cout << "boost::variant" << std::endl;
std::cout << "==============" << std::endl;
printSize<char>();
printSize<int>();
printSize<float>();
printSize<double>();
printSize<std::string>();
*/
std::vector<std::string>::const_iterator it = strvec.begin();
std::vector<std::string>::const_iterator end = strvec.end();
Stopwatch sw;
sw.start();
for (; it != end; ++it)
{
boost::variant<int, double, std::string> u(*it);
int i = boost::apply_visitor(string_int_converter(), u);
double d = boost::apply_visitor(string_dbl_converter(), u);
u = i;
std::string s = boost::apply_visitor(num_string_converter(), u);
u = d;
s = boost::apply_visitor(num_string_converter(), u);
}
sw.stop();
std::cout << "variant: " << sw.elapsed()/1000.0 << " [ms]" << std::endl;
std::cout << "==============" << std::endl;
}
void noMasterDetected()
{
VLOG(1) << "No master detected, waiting for another master";
// Inform the scheduler about the disconnection if the driver
// was previously registered with the master.
if (connected) {
Stopwatch stopwatch;
if (FLAGS_v >= 1) {
stopwatch.start();
}
scheduler->disconnected(driver);
VLOG(1) << "Scheduler::disconnected took " << stopwatch.elapsed();
}
// In this case, we don't actually invoke Scheduler::error
// since we might get reconnected to a master imminently.
connected = false;
master = UPID();
}
void LocalSocketTest::testTimeout()
{
SocketAddress sas("/tmp/poco.server.tcp.sock");
EchoServer echoServer(sas);
SocketAddress sac("/tmp/poco.client.tcp.sock");
StreamSocket ss(sas, &sac);
Timespan timeout0 = ss.getReceiveTimeout();
Timespan timeout(250000);
ss.setReceiveTimeout(timeout);
Timespan timeout1 = ss.getReceiveTimeout();
std::cout << "original receive timeout: " << timeout0.totalMicroseconds() << std::endl;
std::cout << "requested receive timeout: " << timeout.totalMicroseconds() << std::endl;
std::cout << "actual receive timeout: " << timeout1.totalMicroseconds() << std::endl;
// some socket implementations adjust the timeout value
// assert (ss.getReceiveTimeout() == timeout);
Stopwatch sw;
try
{
char buffer[256];
sw.start();
ss.receiveBytes(buffer, sizeof(buffer));
fail("nothing to receive - must timeout");
}
catch (TimeoutException&)
{
}
assert (sw.elapsed() < 1000000);
timeout0 = ss.getSendTimeout();
ss.setSendTimeout(timeout);
timeout1 = ss.getSendTimeout();
std::cout << "original send timeout: " << timeout0.totalMicroseconds() << std::endl;
std::cout << "requested send timeout: " << timeout.totalMicroseconds() << std::endl;
std::cout << "actual send timeout: " << timeout1.totalMicroseconds() << std::endl;
// assert (ss.getSendTimeout() == timeout);
}
void sendStatusUpdate(const TaskStatus& status)
{
if (status.state() == TASK_STAGING) {
VLOG(1) << "Executor is not allowed to send "
<< "TASK_STAGING status update. Aborting!";
driver->abort();
Stopwatch stopwatch;
if (FLAGS_v >= 1) {
stopwatch.start();
}
executor->error(driver, "Attempted to send TASK_STAGING status update");
VLOG(1) << "Executor::error took " << stopwatch.elapsed();
return;
}
StatusUpdateMessage message;
StatusUpdate* update = message.mutable_update();
update->mutable_framework_id()->MergeFrom(frameworkId);
update->mutable_executor_id()->MergeFrom(executorId);
update->mutable_slave_id()->MergeFrom(slaveId);
update->mutable_status()->MergeFrom(status);
update->set_timestamp(Clock::now().secs());
update->set_uuid(UUID::random().toBytes());
message.set_pid(self());
VLOG(1) << "Executor sending status update " << *update;
// Capture the status update.
updates[UUID::fromBytes(update->uuid())] = *update;
send(slave, message);
}
void TimerTest::testTimer()
{
Timer t(100, 200);
assert (t.getStartInterval() == 100);
assert (t.getPeriodicInterval() == 200);
Stopwatch sw;
TimerCallback<TimerTest> tc(*this, &TimerTest::onTimer);
sw.start();
t.start(tc);
_event.wait();
sw.stop();
assert (sw.elapsed() >= 80000 && sw.elapsed() < 250000);
sw.restart();
_event.wait();
sw.stop();
assert (sw.elapsed() >= 180000 && sw.elapsed() < 250000);
sw.restart();
_event.wait();
sw.stop();
assert (sw.elapsed() >= 180000 && sw.elapsed() < 250000);
t.stop();
}
void OsmAnd::MapRasterizer_P::rasterize(
const AreaI area31,
const std::shared_ptr<const MapPrimitiviser::PrimitivisedObjects>& primitivisedObjects,
SkCanvas& canvas,
const bool fillBackground,
const AreaI* const pDestinationArea,
MapRasterizer_Metrics::Metric_rasterize* const metric,
const std::shared_ptr<const IQueryController>& queryController)
{
const Stopwatch totalStopwatch(metric != nullptr);
const Context context(
area31,
primitivisedObjects,
pDestinationArea ? *pDestinationArea : AreaI(0, 0, canvas.imageInfo().height(), canvas.imageInfo().width()));
// Deal with background
if (fillBackground)
{
// Get default background color
const auto defaultBackgroundColor = context.env->getDefaultBackgroundColor(context.zoom);
if (pDestinationArea)
{
// If destination area is specified, fill only it with background
SkPaint bgPaint;
bgPaint.setColor(defaultBackgroundColor.toSkColor());
bgPaint.setStyle(SkPaint::kFill_Style);
canvas.drawRectCoords(
pDestinationArea->top(),
pDestinationArea->left(),
pDestinationArea->right(),
pDestinationArea->bottom(),
bgPaint);
}
else
{
// Since destination area is not specified, erase whole canvas with specified color
canvas.clear(defaultBackgroundColor.toSkColor());
}
}
AreaI destinationArea;
if (pDestinationArea)
{
destinationArea = *pDestinationArea;
}
else
{
const auto targetSize = canvas.getDeviceSize();
destinationArea = AreaI(0, 0, targetSize.height(), targetSize.width());
}
// Rasterize layers of map:
rasterizeMapPrimitives(context, canvas, primitivisedObjects->polygons, PrimitivesType::Polygons, queryController);
if (context.shadowMode != MapPresentationEnvironment::ShadowMode::NoShadow)
rasterizeMapPrimitives(context, canvas, primitivisedObjects->polylines, PrimitivesType::Polylines_ShadowOnly, queryController);
rasterizeMapPrimitives(context, canvas, primitivisedObjects->polylines, PrimitivesType::Polylines, queryController);
if (metric)
metric->elapsedTime += totalStopwatch.elapsed();
}
int main(const std::vector<std::string>& args)
{
if (_helpRequested)
{
displayHelp();
}
else
{
URI uri(_uri);
std::vector<Thread*> threads;
Stopwatch sw;
sw.start();
for (int i = 0; i < _threads; ++i)
{
Thread* pt = new Thread(_uri);
poco_check_ptr(pt);
threads.push_back(pt);
HTTPClient* pHTTPClient = new HTTPClient(uri, _repetitions, _cookies, _verbose);
poco_check_ptr(pHTTPClient);
threads.back()->start(*pHTTPClient);
}
std::vector<Thread*>::iterator it = threads.begin();
for(; it != threads.end(); ++it)
{
(*it)->join();
delete *it;
}
sw.stop();
HTTPClient::printStats(_uri, HTTPClient::totalAttempts(), HTTPClient::totalSuccessCount(), sw.elapsed());
}
return Application::EXIT_OK;
}
void run()
{
Stopwatch sw;
std::vector<HTTPCookie> cookies;
for (int i = 0; i < _repetitions; ++i)
{
try
{
int usec = 0;
std::string path(_uri.getPathAndQuery());
if (path.empty()) path = "/";
HTTPClientSession session(_uri.getHost(), _uri.getPort());
HTTPRequest req(HTTPRequest::HTTP_GET, path, HTTPMessage::HTTP_1_1);
if (_cookies)
{
NameValueCollection nvc;
std::vector<HTTPCookie>::iterator it = cookies.begin();
for(; it != cookies.end(); ++it)
nvc.add((*it).getName(), (*it).getValue());
req.setCookies(nvc);
}
HTTPResponse res;
sw.restart();
session.sendRequest(req);
std::istream& rs = session.receiveResponse(res);
NullOutputStream nos;
StreamCopier::copyStream(rs, nos);
sw.stop();
_success += HTTPResponse::HTTP_OK == res.getStatus() ? 1 : 0;
if (_cookies) res.getCookies(cookies);
usec = int(sw.elapsed());
if (_verbose)
{
FastMutex::ScopedLock lock(_mutex);
std::cout
<< _uri.toString() << ' ' << res.getStatus() << ' ' << res.getReason()
<< ' ' << usec/1000.0 << "ms" << std::endl;
}
_usec += usec;
}
catch (Exception& exc)
{
FastMutex::ScopedLock lock(_mutex);
std::cerr << exc.displayText() << std::endl;
}
}
{
FastMutex::ScopedLock lock(_mutex);
_gSuccess += _success;
_gUsec += _usec;
}
if (_verbose)
printStats(_uri.toString(), _repetitions, _success, _usec);
}
bool OsmAnd::MapPrimitivesProvider_P::obtainData(
const TileId tileId,
const ZoomLevel zoom,
std::shared_ptr<MapPrimitivesProvider::Data>& outTiledData,
MapPrimitivesProvider_Metrics::Metric_obtainData* const metric_,
const IQueryController* const queryController)
{
#if OSMAND_PERFORMANCE_METRICS
MapPrimitivesProvider_Metrics::Metric_obtainData localMetric;
const auto metric = metric_ ? metric_ : &localMetric;
#else
const auto metric = metric_;
#endif
const Stopwatch totalStopwatch(metric != nullptr);
std::shared_ptr<TileEntry> tileEntry;
for (;;)
{
// Try to obtain previous instance of tile
_tileReferences.obtainOrAllocateEntry(tileEntry, tileId, zoom,
[]
(const TiledEntriesCollection<TileEntry>& collection, const TileId tileId, const ZoomLevel zoom) -> TileEntry*
{
return new TileEntry(collection, tileId, zoom);
});
// If state is "Undefined", change it to "Loading" and proceed with loading
if (tileEntry->setStateIf(TileState::Undefined, TileState::Loading))
break;
// In case tile entry is being loaded, wait until it will finish loading
if (tileEntry->getState() == TileState::Loading)
{
QReadLocker scopedLcoker(&tileEntry->loadedConditionLock);
// If tile is in 'Loading' state, wait until it will become 'Loaded'
while (tileEntry->getState() != TileState::Loaded)
REPEAT_UNTIL(tileEntry->loadedCondition.wait(&tileEntry->loadedConditionLock));
}
if (!tileEntry->dataIsPresent)
{
// If there was no data, return same
outTiledData.reset();
return true;
}
else
{
// Otherwise, try to lock tile reference
outTiledData = tileEntry->dataWeakRef.lock();
// If successfully locked, just return it
if (outTiledData)
return true;
// Otherwise consider this tile entry as expired, remove it from collection (it's safe to do that right now)
// This will enable creation of new entry on next loop cycle
_tileReferences.removeEntry(tileId, zoom);
tileEntry.reset();
}
}
const Stopwatch totalTimeStopwatch(
#if OSMAND_PERFORMANCE_METRICS
true
#else
metric != nullptr
#endif // OSMAND_PERFORMANCE_METRICS
);
// Obtain map objects data tile
std::shared_ptr<IMapObjectsProvider::Data> dataTile;
std::shared_ptr<Metric> submetric;
owner->mapObjectsProvider->obtainData(
tileId,
zoom,
dataTile,
metric ? &submetric : nullptr,
nullptr);
if (metric && submetric)
metric->addOrReplaceSubmetric(submetric);
if (!dataTile)
{
// Store flag that there was no data and mark tile entry as 'Loaded'
tileEntry->dataIsPresent = false;
tileEntry->setState(TileState::Loaded);
// Notify that tile has been loaded
{
QWriteLocker scopedLcoker(&tileEntry->loadedConditionLock);
tileEntry->loadedCondition.wakeAll();
}
outTiledData.reset();
return true;
}
// Get primitivised objects
std::shared_ptr<MapPrimitiviser::PrimitivisedObjects> primitivisedObjects;
if (owner->mode == MapPrimitivesProvider::Mode::AllObjectsWithoutPolygonFiltering)
{
primitivisedObjects = owner->primitiviser->primitiviseAllMapObjects(
zoom,
dataTile->mapObjects,
//NOTE: So far it's safe to turn off this cache. But it has to be rewritten. Since lock/unlock occurs too often, this kills entire performance
//NOTE: Maybe a QuadTree-based cache with leaf-only locking will save up much. Or use supernodes, like DataBlock
nullptr, //_primitiviserCache,
nullptr,
metric ? metric->findOrAddSubmetricOfType<MapPrimitiviser_Metrics::Metric_primitiviseAllMapObjects>().get() : nullptr);
}
else if (owner->mode == MapPrimitivesProvider::Mode::AllObjectsWithPolygonFiltering)
{
primitivisedObjects = owner->primitiviser->primitiviseAllMapObjects(
Utilities::getScaleDivisor31ToPixel(PointI(owner->tileSize, owner->tileSize), zoom),
zoom,
dataTile->mapObjects,
//NOTE: So far it's safe to turn off this cache. But it has to be rewritten. Since lock/unlock occurs too often, this kills entire performance
//NOTE: Maybe a QuadTree-based cache with leaf-only locking will save up much. Or use supernodes, like DataBlock
nullptr, //_primitiviserCache,
nullptr,
metric ? metric->findOrAddSubmetricOfType<MapPrimitiviser_Metrics::Metric_primitiviseAllMapObjects>().get() : nullptr);
}
else if (owner->mode == MapPrimitivesProvider::Mode::WithoutSurface)
{
primitivisedObjects = owner->primitiviser->primitiviseWithoutSurface(
Utilities::getScaleDivisor31ToPixel(PointI(owner->tileSize, owner->tileSize), zoom),
zoom,
dataTile->mapObjects,
//NOTE: So far it's safe to turn off this cache. But it has to be rewritten. Since lock/unlock occurs too often, this kills entire performance
//NOTE: Maybe a QuadTree-based cache with leaf-only locking will save up much. Or use supernodes, like DataBlock
nullptr, //_primitiviserCache,
nullptr,
metric ? metric->findOrAddSubmetricOfType<MapPrimitiviser_Metrics::Metric_primitiviseWithoutSurface>().get() : nullptr);
}
else // if (owner->mode == MapPrimitivesProvider::Mode::WithSurface)
{
const auto tileBBox31 = Utilities::tileBoundingBox31(tileId, zoom);
primitivisedObjects = owner->primitiviser->primitiviseWithSurface(
tileBBox31,
PointI(owner->tileSize, owner->tileSize),
zoom,
dataTile->tileSurfaceType,
dataTile->mapObjects,
//NOTE: So far it's safe to turn off this cache. But it has to be rewritten. Since lock/unlock occurs too often, this kills entire performance
//NOTE: Maybe a QuadTree-based cache with leaf-only locking will save up much. Or use supernodes, like DataBlock
nullptr, //_primitiviserCache,
nullptr,
metric ? metric->findOrAddSubmetricOfType<MapPrimitiviser_Metrics::Metric_primitiviseWithSurface>().get() : nullptr);
}
// Create tile
const std::shared_ptr<MapPrimitivesProvider::Data> newTiledData(new MapPrimitivesProvider::Data(
tileId,
zoom,
dataTile,
primitivisedObjects,
new RetainableCacheMetadata(tileEntry, dataTile->retainableCacheMetadata)));
// Publish new tile
outTiledData = newTiledData;
// Store weak reference to new tile and mark it as 'Loaded'
tileEntry->dataIsPresent = true;
tileEntry->dataWeakRef = newTiledData;
tileEntry->setState(TileState::Loaded);
// Notify that tile has been loaded
{
QWriteLocker scopedLcoker(&tileEntry->loadedConditionLock);
tileEntry->loadedCondition.wakeAll();
}
if (metric)
metric->elapsedTime = totalStopwatch.elapsed();
#if OSMAND_PERFORMANCE_METRICS
#if OSMAND_PERFORMANCE_METRICS <= 1
LogPrintf(LogSeverityLevel::Info,
"%d polygons, %d polylines, %d points primitivised from %dx%d@%d in %fs",
primitivisedObjects->polygons.size(),
primitivisedObjects->polylines.size(),
primitivisedObjects->polygons.size(),
tileId.x,
tileId.y,
zoom,
totalStopwatch.elapsed());
#else
LogPrintf(LogSeverityLevel::Info,
"%d polygons, %d polylines, %d points primitivised from %dx%d@%d in %fs:\n%s",
primitivisedObjects->polygons.size(),
primitivisedObjects->polylines.size(),
primitivisedObjects->polygons.size(),
tileId.x,
tileId.y,
zoom,
totalStopwatch.elapsed(),
qPrintable(metric ? metric->toString(QLatin1String("\t - ")) : QLatin1String("(null)")));
#endif // OSMAND_PERFORMANCE_METRICS <= 1
#endif // OSMAND_PERFORMANCE_METRICS
return true;
}
int main(int argc, char ** argv)
try
{
using namespace DB;
/** -3 - use reference implementation of LZ4
* -2 - run all algorithms in round robin fashion
* -1 - automatically detect best algorithm based on statistics
* 0..3 - run specified algorithm
*/
ssize_t variant = argc < 2 ? -1 : parse<ssize_t>(argv[1]);
MMapReadBufferFromFileDescriptor in(STDIN_FILENO, 0);
// ReadBufferFromFileDescriptor in(STDIN_FILENO);
FasterCompressedReadBuffer decompressing_in(in, variant);
// WriteBufferFromFileDescriptor out(STDOUT_FILENO);
// HashingWriteBuffer hashing_out(out);
Stopwatch watch;
// copyData(decompressing_in, /*hashing_*/out);
while (!decompressing_in.eof())
{
decompressing_in.position() = decompressing_in.buffer().end();
decompressing_in.next();
}
watch.stop();
std::cout << std::fixed << std::setprecision(3)
<< watch.elapsed() * 1000 / decompressing_in.count()
<< '\n';
/*
// auto hash = hashing_out.getHash();
double seconds = watch.elapsedSeconds();
std::cerr << std::fixed << std::setprecision(3)
<< "Elapsed: " << seconds
<< ", " << formatReadableSizeWithBinarySuffix(in.count()) << " compressed"
<< ", " << formatReadableSizeWithBinarySuffix(decompressing_in.count()) << " decompressed"
<< ", ratio: " << static_cast<double>(decompressing_in.count()) / in.count()
<< ", " << formatReadableSizeWithBinarySuffix(in.count() / seconds) << "/sec. compressed"
<< ", " << formatReadableSizeWithBinarySuffix(decompressing_in.count() / seconds) << "/sec. decompressed"
// << ", checksum: " << hash.first << "_" << hash.second
<< "\n";
// decompressing_in.getStatistics().print();
LZ4::PerformanceStatistics perf_stat = decompressing_in.getPerformanceStatistics();
std::optional<size_t> best_variant;
double best_variant_mean = 0;
for (size_t i = 0; i < LZ4::PerformanceStatistics::NUM_ELEMENTS; ++i)
{
const LZ4::PerformanceStatistics::Element & elem = perf_stat.data[i];
if (elem.count)
{
double mean = elem.mean();
std::cerr << "Variant " << i << ": "
<< "count: " << elem.count
<< ", mean ns/b: " << 1000000000.0 * mean << " (" << formatReadableSizeWithBinarySuffix(1 / mean) << "/sec.)"
<< ", sigma ns/b: " << 1000000000.0 * elem.sigma()
<< "\n";
if (!best_variant || mean < best_variant_mean)
{
best_variant_mean = mean;
best_variant = i;
}
}
}
if (best_variant)
std::cerr << "Best variant: " << *best_variant << "\n";
*/
return 0;
}
catch (...)
{
std::cerr << DB::getCurrentExceptionMessage(true);
return DB::getCurrentExceptionCode();
}
MoveList SmartBogowin::moves(int nmoves)
{
Stopwatch stopwatch;
if (currentPosition().bag().empty())
{
signalFractionDone(0);
EndgamePlayer endgame;
endgame.setPosition(currentPosition());
return endgame.moves(nmoves);
}
// TODO
// Move this all to an Inferrer class
//
// Generate all moves for all racks opp could have had.
// This can be done efficiently by making a big "rack" out of the bag (with the computer
// player's own rack removed) and generating moves from that big "rack" with some smarts
// added to the move generator to not create moves that have so many tiles not in the
// opp's play that they wouldn't have been possible from any of the racks we're looking
// for. Make a ProbableRackList of racks from which the opp's play is best or nearly
// (really what we're looking for is least bad). Most heavily weight the leaves for which
// the play is as close to optimal as possible (an x-point static mistake), and let the
// weights taper off to zero as the mistakes approach say x+7.
//
// Make the Simulator able to select racks randomly from the ProbableRackList
if (m_parameters.inferring) {
int numPlayers = currentPosition().players().size();
UVcout << "numPlayers: " << numPlayers << endl;
if (numPlayers == 2) {
bool hasPreviousPosition;
GamePosition previous = m_simulator.history().previousPosition(&hasPreviousPosition);
if (hasPreviousPosition) {
UVcout << "previous position:" << endl;
UVcout << previous << endl;
} else {
UVcout << "no previous position" << endl;
}
}
}
UVcout << "SmartBogowin generating move from position:" << endl;
UVcout << currentPosition() << endl;
const int zerothPrune = 33;
int plies = 2;
if (currentPosition().bag().size() <= QUACKLE_PARAMETERS->rackSize() * 2)
plies = -1;
const int initialCandidates = m_additionalInitialCandidates + nmoves;
currentPosition().kibitz(initialCandidates);
m_simulator.setIncludedMoves(m_simulator.currentPosition().moves());
m_simulator.pruneTo(zerothPrune, initialCandidates);
m_simulator.makeSureConsideredMovesAreIncluded();
m_simulator.setIgnoreOppos(false);
MoveList staticMoves = m_simulator.moves(/* prune */ true, /* sort by equity */ false);
m_simulator.moveConsideredMovesToBeginning(staticMoves);
//UVcout << "Bogo static moves: " << staticMoves << endl;
//UVcout << "Bogo considered moves: " << m_simulator.consideredMoves() << endl;
MoveList firstMove;
MoveList simmedMoves;
MoveList::const_iterator it = staticMoves.begin();
firstMove.push_back(*it);
signalFractionDone(0);
m_simulator.setIncludedMoves(firstMove);
m_simulator.simulate(plies, minIterations());
Move best = *m_simulator.moves(/* prune */ true, /* sort by win */ true).begin();
simmedMoves.push_back(best);
double bestbp = bogopoints(best);
//UVcout << "firstMove: " << best << endl;
for (++it; it != staticMoves.end(); ++it)
{
signalFractionDone(max(static_cast<float>(simmedMoves.size()) / static_cast<float>(staticMoves.size()), static_cast<float>(stopwatch.elapsed()) / static_cast<float>(m_parameters.secondsPerTurn)));
if (shouldAbort())
goto sort_and_return;
//UVcout << "best move: " << best << " with " << bestbp << " bogopoints." << endl;
MoveList lookFurther;
lookFurther.push_back(*it);
m_simulator.setIncludedMoves(lookFurther);
m_simulator.simulate(plies, minIterations());
Move move = *m_simulator.moves(/* prune */ true, /* sort by win */ true).begin();
double movebp = bogopoints(move);
//UVcout << "we just simmed " << move << "; bogopoints: " << movebp << endl;
if (movebp + 1.96 * 35.0 / sqrt((double)minIterations()) > bestbp)
{
m_simulator.simulate(plies, maxIterations() - minIterations());
Move move2 = *m_simulator.moves(true, true).begin();
movebp = bogopoints(move2);
//UVcout << "sim it some more: " << move2 << " bogopoints: " << movebp << endl;
simmedMoves.push_back(move2);
if (move2.win > best.win)
{
best = move2;
bestbp = movebp;
}
}
else
{
simmedMoves.push_back(move);
}
if (stopwatch.exceeded(m_parameters.secondsPerTurn))
{
//UVcout << "Bogowinplayer stopwatch exceeded its limit " << m_parameters.secondsPerTurn << ". Returning early." << endl;
goto sort_and_return;
}
}
//UVcout << "We had extra time! whoopee!" << endl;
sort_and_return:
MoveList::sort(simmedMoves, MoveList::Win);
MoveList ret;
MoveList::const_iterator simmedEnd = simmedMoves.end();
int i = 0;
for (MoveList::const_iterator simmedIt = simmedMoves.begin();
(simmedIt != simmedEnd); ++i, ++simmedIt)
{
if (i < nmoves || m_simulator.isConsideredMove(*simmedIt))
ret.push_back(*simmedIt);
}
//UVcout << "bogo returning moves:\n" << ret << endl;
return ret;
}
void OsmAnd::ObfMapSectionReader_P::readMapObject(
const ObfReader_P& reader,
const std::shared_ptr<const ObfMapSectionInfo>& section,
uint64_t baseId,
const std::shared_ptr<const ObfMapSectionLevelTreeNode>& treeNode,
std::shared_ptr<OsmAnd::BinaryMapObject>& mapObject,
const AreaI* bbox31,
ObfMapSectionReader_Metrics::Metric_loadMapObjects* const metric)
{
const auto cis = reader.getCodedInputStream().get();
const auto baseOffset = cis->CurrentPosition();
for (;;)
{
const auto tag = cis->ReadTag();
const auto tgn = gpb::internal::WireFormatLite::GetTagFieldNumber(tag);
switch (tgn)
{
case 0:
{
if (!ObfReaderUtilities::reachedDataEnd(cis))
return;
if (mapObject && mapObject->points31.isEmpty())
{
LogPrintf(LogSeverityLevel::Warning,
"Empty BinaryMapObject %s detected in section '%s'",
qPrintable(mapObject->id.toString()),
qPrintable(section->name));
mapObject.reset();
}
return;
}
case OBF::MapData::kAreaCoordinatesFieldNumber:
case OBF::MapData::kCoordinatesFieldNumber:
{
const Stopwatch mapObjectPointsStopwatch(metric != nullptr);
gpb::uint32 length;
cis->ReadVarint32(&length);
const auto oldLimit = cis->PushLimit(length);
PointI p;
p.x = treeNode->area31.left() & MaskToRead;
p.y = treeNode->area31.top() & MaskToRead;
AreaI objectBBox;
objectBBox.top() = objectBBox.left() = std::numeric_limits<int32_t>::max();
objectBBox.bottom() = objectBBox.right() = 0;
auto lastUnprocessedVertexForBBox = 0;
// In protobuf, a sint32 can be encoded using [1..4] bytes,
// so try to guess size of array, and preallocate it.
// (BytesUntilLimit/2) is ~= number of vertices, and is always larger than needed.
// So it's impossible that a buffer overflow will ever happen. But assert on that.
const auto probableVerticesCount = (cis->BytesUntilLimit() / 2);
QVector< PointI > points31(probableVerticesCount);
auto pPoint = points31.data();
auto verticesCount = 0;
bool shouldNotSkip = (bbox31 == nullptr);
while (cis->BytesUntilLimit() > 0)
{
PointI d;
d.x = (ObfReaderUtilities::readSInt32(cis) << ShiftCoordinates);
d.y = (ObfReaderUtilities::readSInt32(cis) << ShiftCoordinates);
p += d;
// Save point into storage
assert(points31.size() > verticesCount);
*(pPoint++) = p;
verticesCount++;
// Check if map object should be maintained
if (!shouldNotSkip && bbox31)
{
const Stopwatch mapObjectBboxStopwatch(metric != nullptr);
shouldNotSkip = bbox31->contains(p);
objectBBox.enlargeToInclude(p);
if (metric)
metric->elapsedTimeForMapObjectsBbox += mapObjectBboxStopwatch.elapsed();
lastUnprocessedVertexForBBox = verticesCount;
}
}
cis->PopLimit(oldLimit);
// Since reserved space may be larger than actual amount of data,
// shrink the vertices array
points31.resize(verticesCount);
// If map object has no vertices, retain it in a special way to report later, when
// it's identifier will be known
if (points31.isEmpty())
{
// Fake that this object is inside bbox
shouldNotSkip = true;
objectBBox = treeNode->area31;
}
// Even if no vertex lays inside bbox, an edge
// may intersect the bbox
if (!shouldNotSkip && bbox31)
{
assert(lastUnprocessedVertexForBBox == points31.size());
shouldNotSkip =
objectBBox.contains(*bbox31) ||
bbox31->intersects(objectBBox);
}
// If map object didn't fit, skip it's entire content
if (!shouldNotSkip)
{
if (metric)
{
metric->elapsedTimeForSkippedMapObjectsPoints += mapObjectPointsStopwatch.elapsed();
metric->skippedMapObjectsPoints += points31.size();
}
cis->Skip(cis->BytesUntilLimit());
break;
}
// Update metric
if (metric)
{
metric->elapsedTimeForNotSkippedMapObjectsPoints += mapObjectPointsStopwatch.elapsed();
metric->notSkippedMapObjectsPoints += points31.size();
}
// In case bbox is not fully calculated, complete this task
auto pPointForBBox = points31.data() + lastUnprocessedVertexForBBox;
while (lastUnprocessedVertexForBBox < points31.size())
{
const Stopwatch mapObjectBboxStopwatch(metric != nullptr);
objectBBox.enlargeToInclude(*pPointForBBox);
if (metric)
metric->elapsedTimeForMapObjectsBbox += mapObjectBboxStopwatch.elapsed();
lastUnprocessedVertexForBBox++;
pPointForBBox++;
}
// Finally, create the object
if (!mapObject)
mapObject.reset(new OsmAnd::BinaryMapObject(section, treeNode->level));
mapObject->isArea = (tgn == OBF::MapData::kAreaCoordinatesFieldNumber);
mapObject->points31 = qMove(points31);
mapObject->bbox31 = objectBBox;
assert(treeNode->area31.top() - mapObject->bbox31.top() <= 32);
assert(treeNode->area31.left() - mapObject->bbox31.left() <= 32);
assert(mapObject->bbox31.bottom() - treeNode->area31.bottom() <= 1);
assert(mapObject->bbox31.right() - treeNode->area31.right() <= 1);
assert(mapObject->bbox31.right() >= mapObject->bbox31.left());
assert(mapObject->bbox31.bottom() >= mapObject->bbox31.top());
break;
}
case OBF::MapData::kPolygonInnerCoordinatesFieldNumber:
{
if (!mapObject)
mapObject.reset(new OsmAnd::BinaryMapObject(section, treeNode->level));
gpb::uint32 length;
cis->ReadVarint32(&length);
auto oldLimit = cis->PushLimit(length);
PointI p;
p.x = treeNode->area31.left() & MaskToRead;
p.y = treeNode->area31.top() & MaskToRead;
// Preallocate memory
const auto probableVerticesCount = (cis->BytesUntilLimit() / 2);
mapObject->innerPolygonsPoints31.push_back(qMove(QVector< PointI >(probableVerticesCount)));
auto& polygon = mapObject->innerPolygonsPoints31.last();
auto pPoint = polygon.data();
auto verticesCount = 0;
while (cis->BytesUntilLimit() > 0)
{
PointI d;
d.x = (ObfReaderUtilities::readSInt32(cis) << ShiftCoordinates);
d.y = (ObfReaderUtilities::readSInt32(cis) << ShiftCoordinates);
p += d;
// Save point into storage
assert(polygon.size() > verticesCount);
*(pPoint++) = p;
verticesCount++;
}
// Shrink memory
polygon.resize(verticesCount);
cis->PopLimit(oldLimit);
break;
}
case OBF::MapData::kAdditionalTypesFieldNumber:
case OBF::MapData::kTypesFieldNumber:
{
if (!mapObject)
mapObject.reset(new OsmAnd::BinaryMapObject(section, treeNode->level));
auto& attributeIds = (tgn == OBF::MapData::kAdditionalTypesFieldNumber)
? mapObject->additionalAttributeIds
: mapObject->attributeIds;
gpb::uint32 length;
cis->ReadVarint32(&length);
auto oldLimit = cis->PushLimit(length);
// Preallocate space
attributeIds.reserve(cis->BytesUntilLimit());
while (cis->BytesUntilLimit() > 0)
{
gpb::uint32 attributeId;
cis->ReadVarint32(&attributeId);
attributeIds.push_back(attributeId);
}
// Shrink preallocated space
attributeIds.squeeze();
cis->PopLimit(oldLimit);
break;
}
case OBF::MapData::kStringNamesFieldNumber:
{
gpb::uint32 length;
cis->ReadVarint32(&length);
auto oldLimit = cis->PushLimit(length);
while (cis->BytesUntilLimit() > 0)
{
bool ok;
gpb::uint32 stringRuleId;
ok = cis->ReadVarint32(&stringRuleId);
assert(ok);
gpb::uint32 stringId;
ok = cis->ReadVarint32(&stringId);
assert(ok);
mapObject->captions.insert(stringRuleId, qMove(ObfReaderUtilities::encodeIntegerToString(stringId)));
mapObject->captionsOrder.push_back(stringRuleId);
}
cis->PopLimit(oldLimit);
break;
}
case OBF::MapData::kIdFieldNumber:
{
const auto d = ObfReaderUtilities::readSInt64(cis);
const auto rawId = static_cast<uint64_t>(d + baseId);
mapObject->id = ObfObjectId::generateUniqueId(rawId, baseOffset, section);
//////////////////////////////////////////////////////////////////////////
//if (mapObject->id.getOsmId() == 49048972u)
//{
// int i = 5;
//}
//////////////////////////////////////////////////////////////////////////
break;
}
default:
ObfReaderUtilities::skipUnknownField(cis, tag);
break;
}
}
}
Try<Storage::State> LevelDBStorage::restore(const string& path)
{
leveldb::Options options;
options.create_if_missing = true;
// TODO(benh): Can't use varint comparator until bug discussed at
// groups.google.com/group/leveldb/browse_thread/thread/17eac39168909ba7
// gets fixed. For now, we are using the default byte-wise
// comparator and *assuming* that the encoding from unsigned long to
// string produces a stable ordering. Checks below.
// options.comparator = &comparator;
const string& one = encode(1);
const string& two = encode(2);
const string& ten = encode(10);
CHECK(leveldb::BytewiseComparator()->Compare(one, two) < 0);
CHECK(leveldb::BytewiseComparator()->Compare(two, one) > 0);
CHECK(leveldb::BytewiseComparator()->Compare(one, ten) < 0);
CHECK(leveldb::BytewiseComparator()->Compare(ten, two) > 0);
CHECK(leveldb::BytewiseComparator()->Compare(ten, ten) == 0);
Stopwatch stopwatch;
stopwatch.start();
leveldb::Status status = leveldb::DB::Open(options, path, &db);
if (!status.ok()) {
// TODO(benh): Consider trying to repair the DB.
return Error(status.ToString());
}
LOG(INFO) << "Opened db in " << stopwatch.elapsed();
stopwatch.start(); // Restart the stopwatch.
// TODO(benh): Conditionally compact to avoid long recovery times?
db->CompactRange(nullptr, nullptr);
LOG(INFO) << "Compacted db in " << stopwatch.elapsed();
State state;
state.begin = 0;
state.end = 0;
// TODO(benh): Consider just reading the "promise" record (e.g.,
// 'encode(0, false)') and then iterating over the rest of the
// records and confirming that they are all indeed of type
// Record::Action.
stopwatch.start(); // Restart the stopwatch.
leveldb::Iterator* iterator = db->NewIterator(leveldb::ReadOptions());
LOG(INFO) << "Created db iterator in " << stopwatch.elapsed();
stopwatch.start(); // Restart the stopwatch.
iterator->SeekToFirst();
LOG(INFO) << "Seeked to beginning of db in " << stopwatch.elapsed();
stopwatch.start(); // Restart the stopwatch.
uint64_t keys = 0;
while (iterator->Valid()) {
keys++;
const leveldb::Slice& slice = iterator->value();
google::protobuf::io::ArrayInputStream stream(slice.data(), slice.size());
Record record;
if (!record.ParseFromZeroCopyStream(&stream)) {
return Error("Failed to deserialize record");
}
switch (record.type()) {
case Record::METADATA: {
CHECK(record.has_metadata());
state.metadata.CopyFrom(record.metadata());
break;
}
// DEPRECATED!
case Record::PROMISE: {
CHECK(record.has_promise());
// This replica is in old format. Set its status to VOTING
// since there is no catch-up logic in the old code and this
// replica is obviously not empty.
state.metadata.set_status(Metadata::VOTING);
state.metadata.set_promised(record.promise().proposal());
break;
}
case Record::ACTION: {
CHECK(record.has_action());
const Action& action = record.action();
if (action.has_learned() && action.learned()) {
state.learned.insert(action.position());
state.unlearned.erase(action.position());
if (action.has_type() && action.type() == Action::TRUNCATE) {
state.begin = std::max(state.begin, action.truncate().to());
}
} else {
state.learned.erase(action.position());
state.unlearned.insert(action.position());
}
state.end = std::max(state.end, action.position());
// Cache the first position in this replica so during a
// truncation, we can attempt to delete all positions from the
// first position up to the truncate position. Note that this
// is not the beginning position of the log, but rather the
// first position that remains (i.e., hasn't been deleted) in
// leveldb.
first = min(first, action.position());
break;
}
default: {
return Error("Bad record");
}
}
iterator->Next();
}
LOG(INFO) << "Iterated through " << keys
<< " keys in the db in " << stopwatch.elapsed();
delete iterator;
return state;
}
bool OsmAnd::BinaryMapDataProvider_P::obtainData(
const TileId tileId,
const ZoomLevel zoom,
std::shared_ptr<MapTiledData>& outTiledData,
BinaryMapDataProvider_Metrics::Metric_obtainData* const metric_,
const IQueryController* const queryController)
{
#if OSMAND_PERFORMANCE_METRICS
BinaryMapDataProvider_Metrics::Metric_obtainData localMetric;
const auto metric = metric_ ? metric_ : &localMetric;
#else
const auto metric = metric_;
#endif
std::shared_ptr<TileEntry> tileEntry;
for (;;)
{
// Try to obtain previous instance of tile
_tileReferences.obtainOrAllocateEntry(tileEntry, tileId, zoom,
[]
(const TiledEntriesCollection<TileEntry>& collection, const TileId tileId, const ZoomLevel zoom) -> TileEntry*
{
return new TileEntry(collection, tileId, zoom);
});
// If state is "Undefined", change it to "Loading" and proceed with loading
if (tileEntry->setStateIf(TileState::Undefined, TileState::Loading))
break;
// In case tile entry is being loaded, wait until it will finish loading
if (tileEntry->getState() == TileState::Loading)
{
QReadLocker scopedLcoker(&tileEntry->_loadedConditionLock);
// If tile is in 'Loading' state, wait until it will become 'Loaded'
while (tileEntry->getState() != TileState::Loaded)
REPEAT_UNTIL(tileEntry->_loadedCondition.wait(&tileEntry->_loadedConditionLock));
}
// Try to lock tile reference
outTiledData = tileEntry->_tile.lock();
// If successfully locked, just return it
if (outTiledData)
return true;
// Otherwise consider this tile entry as expired, remove it from collection (it's safe to do that right now)
// This will enable creation of new entry on next loop cycle
_tileReferences.removeEntry(tileId, zoom);
tileEntry.reset();
}
const Stopwatch totalTimeStopwatch(
#if OSMAND_PERFORMANCE_METRICS
true
#else
metric != nullptr
#endif // OSMAND_PERFORMANCE_METRICS
);
// Obtain OBF data interface
const Stopwatch obtainObfInterfaceStopwatch(metric != nullptr);
const auto& dataInterface = owner->obfsCollection->obtainDataInterface();
if (metric)
metric->elapsedTimeForObtainingObfInterface += obtainObfInterfaceStopwatch.elapsed();
// Get bounding box that covers this tile
const auto tileBBox31 = Utilities::tileBoundingBox31(tileId, zoom);
// Perform read-out
const Stopwatch totalReadTimeStopwatch(metric != nullptr);
QList< std::shared_ptr< const ObfMapSectionReader::DataBlock > > referencedMapDataBlocks;
QList< std::shared_ptr<const Model::BinaryMapObject> > referencedMapObjects;
QList< proper::shared_future< std::shared_ptr<const Model::BinaryMapObject> > > futureReferencedMapObjects;
QList< std::shared_ptr<const Model::BinaryMapObject> > loadedMapObjects;
QSet< uint64_t > loadedSharedMapObjects;
auto tileFoundation = MapFoundationType::Undefined;
dataInterface->loadMapObjects(
&loadedMapObjects,
&tileFoundation,
zoom,
&tileBBox31,
[this, zoom, &referencedMapObjects, &futureReferencedMapObjects, &loadedSharedMapObjects, tileBBox31, metric]
(const std::shared_ptr<const ObfMapSectionInfo>& section, const uint64_t id, const AreaI& bbox, const ZoomLevel firstZoomLevel, const ZoomLevel lastZoomLevel) -> bool
{
const Stopwatch objectsFilteringStopwatch(metric != nullptr);
// This map object may be shared only in case it crosses bounds of a tile
const auto canNotBeShared = tileBBox31.contains(bbox);
// If map object can not be shared, just read it
if (canNotBeShared)
{
if (metric)
metric->elapsedTimeForObjectsFiltering += objectsFilteringStopwatch.elapsed();
return true;
}
// Otherwise, this map object can be shared, so it should be checked for
// being present in shared mapObjects storage, or be reserved there
std::shared_ptr<const Model::BinaryMapObject> sharedMapObjectReference;
proper::shared_future< std::shared_ptr<const Model::BinaryMapObject> > futureSharedMapObjectReference;
if (_sharedMapObjects.obtainReferenceOrFutureReferenceOrMakePromise(id, zoom, Utilities::enumerateZoomLevels(firstZoomLevel, lastZoomLevel), sharedMapObjectReference, futureSharedMapObjectReference))
{
if (sharedMapObjectReference)
{
// If map object is already in shared objects cache and is available, use that one
referencedMapObjects.push_back(qMove(sharedMapObjectReference));
}
else
{
futureReferencedMapObjects.push_back(qMove(futureSharedMapObjectReference));
}
if (metric)
metric->elapsedTimeForObjectsFiltering += objectsFilteringStopwatch.elapsed();
return false;
}
// This map object was reserved, and is going to be shared, but needs to be loaded
loadedSharedMapObjects.insert(id);
return true;
},
_dataBlocksCache.get(),
&referencedMapDataBlocks,
nullptr,// query controller
metric ? &metric->loadMapObjectsMetric : nullptr);
// Process loaded-and-shared map objects
for (auto& mapObject : loadedMapObjects)
{
// Check if this map object is shared
if (!loadedSharedMapObjects.contains(mapObject->id))
continue;
// Add unique map object under lock to all zoom levels, for which this map object is valid
assert(mapObject->level);
_sharedMapObjects.fulfilPromiseAndReference(
mapObject->id,
Utilities::enumerateZoomLevels(mapObject->level->minZoom, mapObject->level->maxZoom),
mapObject);
}
for (auto& futureMapObject : futureReferencedMapObjects)
{
auto mapObject = futureMapObject.get();
referencedMapObjects.push_back(qMove(mapObject));
}
if (metric)
metric->elapsedTimeForRead += totalReadTimeStopwatch.elapsed();
// Prepare data for the tile
const auto sharedMapObjectsCount = referencedMapObjects.size() + loadedSharedMapObjects.size();
const auto allMapObjects = loadedMapObjects + referencedMapObjects;
// Create tile
const std::shared_ptr<BinaryMapDataTile> newTile(new BinaryMapDataTile(
_dataBlocksCache,
referencedMapDataBlocks,
tileFoundation,
allMapObjects,
tileId,
zoom));
newTile->_p->_weakLink = _link->getWeak();
newTile->_p->_refEntry = tileEntry;
// Publish new tile
outTiledData = newTile;
// Store weak reference to new tile and mark it as 'Loaded'
tileEntry->_tile = newTile;
tileEntry->setState(TileState::Loaded);
// Notify that tile has been loaded
{
QWriteLocker scopedLcoker(&tileEntry->_loadedConditionLock);
tileEntry->_loadedCondition.wakeAll();
}
if (metric)
{
metric->elapsedTime += totalTimeStopwatch.elapsed();
metric->objectsCount += allMapObjects.size();
metric->uniqueObjectsCount += allMapObjects.size() - sharedMapObjectsCount;
metric->sharedObjectsCount += sharedMapObjectsCount;
}
#if OSMAND_PERFORMANCE_METRICS
#if OSMAND_PERFORMANCE_METRICS <= 1
LogPrintf(LogSeverityLevel::Info,
"%d map objects (%d unique, %d shared) read from %dx%d@%d in %fs",
allMapObjects.size(),
allMapObjects.size() - sharedMapObjectsCount,
sharedMapObjectsCount,
tileId.x,
tileId.y,
zoom,
totalTimeStopwatch.elapsed());
#else
LogPrintf(LogSeverityLevel::Info,
"%d map objects (%d unique, %d shared) read from %dx%d@%d in %fs:\n%s",
allMapObjects.size(),
allMapObjects.size() - sharedMapObjectsCount,
sharedMapObjectsCount,
tileId.x,
tileId.y,
zoom,
totalTimeStopwatch.elapsed(),
qPrintable(metric ? metric->toString(QLatin1String("\t - ")) : QLatin1String("(null)")));
#endif // OSMAND_PERFORMANCE_METRICS <= 1
#endif // OSMAND_PERFORMANCE_METRICS
return true;
}
void doPerformance(int count)
{
std::cout << "Loop count: " << count << std::endl;
std::cout << "Static cast Int32 to double:" << std::endl;
std::cout << "--------------------------" << std::endl;
fos << "Static cast Int32 to double" << std::endl;
Int32 i = 0;
double d;
Stopwatch sw; sw.start();
do { staticCastInt32ToDouble(d, i); }
while (++i < count); sw.stop();
print("static_cast<double>(Int32)", sw.elapsed());
Any a = 1.0;
i = 0; sw.start();
do { unsafeAnyCastAnyToDouble(d, a); }
while (++i < count); sw.stop();
print("UnsafeAnyCast<double>(Int32)", sw.elapsed());
std::cout << std::endl
<< "Conversion Int32 to double:" << std::endl;
std::cout << "--------------------------" << std::endl;
fos << "Conversion Int32 to double" << std::endl;
i = 0; sw.start();
do { lexicalCastInt32ToDouble(d, i); }
while (++i < count); sw.stop();
print("boost::lexical_cast<double>(Int32)", sw.elapsed());
DynamicAny da = 1;
i = 0; sw.restart();
do { convertInt32ToDouble(d, da); }
while (++i < count); sw.stop();
print("DynamicAny<Int32>::convert<double>()", sw.elapsed());
i = 0; sw.restart();
do { assignInt32ToDouble(d, da); }
while (++i < count); sw.stop();
print("operator=(double, DynamicAny<Int32>)", sw.elapsed());
std::cout << std::endl
<< "Conversion signed Int32 to UInt16:" << std::endl;
std::cout << "--------------------------" << std::endl;
fos << "Conversion signed Int32 to UInt16" << std::endl;
UInt16 us = 0; Int32 j = 1; i = 0; sw.start();
do { lexicalCastInt32toUInt16(us, j); }
while (++i < count); sw.stop();
print("boost::lexical_cast<UInt16>(Int32)", sw.elapsed());
i = 0; sw.restart();
do { convertInt32toUInt16(us, da); }
while (++i < count); sw.stop();
print("DynamicAny<Int32>::convert<UInt16>()", sw.elapsed());
i = 0; sw.restart();
do { assignInt32toUInt16(us, da); }
while (++i < count); sw.stop();
print("operator=(UInt16, DynamicAny<Int32>)", sw.elapsed());
std::cout << std::endl
<< "Conversion string to double:" << std::endl;
std::cout << "-----------" << std::endl;
fos << "Conversion string to double" << std::endl;
std::string s = "1234.5";
i = 0;
sw.start();
do { lexicalCastStringToDouble(d, s); }
while (++i < count); sw.stop();
print("boost::lexical_cast<double>(string)", sw.elapsed());
DynamicAny ds = "1234.5";
i = 0; sw.restart();
do { convertStringToDouble(d, ds); }
while (++i < count); sw.stop();
print("DynamicAny<string>::convert<double>()", sw.elapsed());
i = 0; sw.restart();
do { assignStringToDouble(d, ds); }
while (++i < count); sw.stop();
print("operator=(double, DynamicAny<string>)", sw.elapsed());
std::cout << std::endl
<< "Extraction double:" << std::endl;
std::cout << "-----------" << std::endl;
fos << "Extraction double" << std::endl;
a = 1.0;
i = 0; sw.restart();
do { anyCastRefDouble(d, a); }
while (++i < count); sw.stop();
print("RefAnyCast<double>(Any&)", sw.elapsed());
i = 0; sw.restart();
do { anyCastPtrDouble(d, a); }
while (++i < count); sw.stop();
print("AnyCast<double>(Any*)", sw.elapsed());
da = 1.0; i = 0;
sw.restart();
do { extractDouble(d, da); }
while (++i < count); sw.stop();
print("DynamicAny::extract<double>()", sw.elapsed());
std::cout << std::endl
<< "Extraction string:" << std::endl;
std::cout << "-----------" << std::endl;
fos << "Extraction string" << std::endl;
Any as = std::string("1234.5");
i = 0; sw.restart();
do { anyCastRefString(s, as); }
while (++i < count); sw.stop();
print("RefAnyCast<std::string>(Any&)", sw.elapsed());
i = 0; sw.restart();
do { anyCastPtrString(s, as); }
while (++i < count); sw.stop();
print("AnyCast<std::string>(Any*)", sw.elapsed());
ds = "1234.5"; i = 0;
sw.restart();
do { extractString(s, ds); }
while (++i < count); sw.stop();
print("DynamicAny::extract<std::string>()", sw.elapsed());
fos.close();
}
void PollSetTest::testPoll()
{
EchoServer echoServer1;
EchoServer echoServer2;
StreamSocket ss1;
StreamSocket ss2;
ss1.connect(SocketAddress("127.0.0.1", echoServer1.port()));
ss2.connect(SocketAddress("127.0.0.1", echoServer2.port()));
PollSet ps;
ps.add(ss1, PollSet::POLL_READ);
// nothing readable
Stopwatch sw;
sw.start();
Timespan timeout(1000000);
assert (ps.poll(timeout).empty());
assert (sw.elapsed() >= 900000);
sw.restart();
ps.add(ss2, PollSet::POLL_READ);
// ss1 must be writable, if polled for
ps.update(ss1, PollSet::POLL_READ | PollSet::POLL_WRITE);
PollSet::SocketModeMap sm = ps.poll(timeout);
assert (sm.find(ss1) != sm.end());
assert (sm.find(ss2) == sm.end());
assert (sm.find(ss1)->second == PollSet::POLL_WRITE);
assert (sw.elapsed() < 100000);
ps.update(ss1, PollSet::POLL_READ);
ss1.sendBytes("hello", 5);
char buffer[256];
sw.restart();
sm = ps.poll(timeout);
assert (sm.find(ss1) != sm.end());
assert (sm.find(ss2) == sm.end());
assert (sm.find(ss1)->second == PollSet::POLL_READ);
assert (sw.elapsed() < 100000);
int n = ss1.receiveBytes(buffer, sizeof(buffer));
assert (n == 5);
assert (std::string(buffer, n) == "hello");
ss2.sendBytes("HELLO", 5);
sw.restart();
sm = ps.poll(timeout);
assert (sm.find(ss1) == sm.end());
assert (sm.find(ss2) != sm.end());
assert (sm.find(ss2)->second == PollSet::POLL_READ);
assert (sw.elapsed() < 100000);
n = ss2.receiveBytes(buffer, sizeof(buffer));
assert (n == 5);
assert (std::string(buffer, n) == "HELLO");
ps.remove(ss2);
ss2.sendBytes("HELLO", 5);
sw.restart();
sm = ps.poll(timeout);
assert (sm.empty());
n = ss2.receiveBytes(buffer, sizeof(buffer));
assert (n == 5);
assert (std::string(buffer, n) == "HELLO");
ss1.close();
ss2.close();
}
bool OsmAnd::BinaryMapRasterBitmapTileProvider_GPU_P::obtainData(
const TileId tileId,
const ZoomLevel zoom,
std::shared_ptr<MapTiledData>& outTiledData,
BinaryMapRasterBitmapTileProvider_Metrics::Metric_obtainData* const metric_,
const IQueryController* const queryController)
{
#if OSMAND_PERFORMANCE_METRICS
BinaryMapRasterBitmapTileProvider_Metrics::Metric_obtainData localMetric;
const auto metric = metric_ ? metric_ : &localMetric;
#else
const auto metric = metric_;
#endif
const Stopwatch totalStopwatch(
#if OSMAND_PERFORMANCE_METRICS
true
#else
metric != nullptr
#endif // OSMAND_PERFORMANCE_METRICS
);
// Obtain offline map primitives tile
std::shared_ptr<MapTiledData> primitivesTile_;
owner->primitivesProvider->obtainData(tileId, zoom, primitivesTile_);
if (!primitivesTile_)
{
outTiledData.reset();
return true;
}
const auto primitivesTile = std::static_pointer_cast<BinaryMapPrimitivesTile>(primitivesTile_);
//TODO: SkGpuDevice
// Allocate rasterization target
const auto tileSize = owner->getTileSize();
const std::shared_ptr<SkBitmap> rasterizationSurface(new SkBitmap());
rasterizationSurface->setConfig(SkBitmap::kARGB_8888_Config, tileSize, tileSize);
if (!rasterizationSurface->allocPixels())
{
LogPrintf(LogSeverityLevel::Error, "Failed to allocate buffer for ARGB8888 rasterization surface %dx%d", tileSize, tileSize);
return false;
}
SkBitmapDevice rasterizationTarget(*rasterizationSurface);
// Create rasterization canvas
SkCanvas canvas(&rasterizationTarget);
// Perform actual rendering
if (!primitivesTile->primitivisedArea->isEmpty())
{
_mapRasterizer->rasterize(
primitivesTile->primitivisedArea,
canvas,
true,
nullptr,
metric ? &metric->rasterizeMetric : nullptr,
queryController);
}
else
{
// If there is no data to rasterize, tell that this tile is not available
outTiledData.reset();
return true;
}
// Or supply newly rasterized tile
outTiledData.reset(new BinaryMapRasterizedTile(
primitivesTile,
rasterizationSurface,
AlphaChannelData::NotPresent,
owner->getTileDensityFactor(),
tileId,
zoom));
if (metric)
metric->elapsedTime += totalStopwatch.elapsed();
#if OSMAND_PERFORMANCE_METRICS
#if OSMAND_PERFORMANCE_METRICS <= 1
LogPrintf(LogSeverityLevel::Info,
"%dx%d@%d rasterized on GPU in %fs",
tileId.x,
tileId.y,
zoom,
totalStopwatch.elapsed());
#else
LogPrintf(LogSeverityLevel::Info,
"%dx%d@%d rasterized on GPU in %fs:\n%s",
tileId.x,
tileId.y,
zoom,
totalStopwatch.elapsed(),
qPrintable(metric ? metric->toString(QLatin1String("\t - ")) : QLatin1String("(null)")));
#endif // OSMAND_PERFORMANCE_METRICS <= 1
#endif // OSMAND_PERFORMANCE_METRICS
return true;
}
MergeTreeData::MutableDataPartPtr MergeTreeDataWriter::writeTempPart(BlockWithDateInterval & block_with_dates, Int64 temp_index)
{
/// For logging
Stopwatch stopwatch;
Block & block = block_with_dates.block;
UInt16 min_date = block_with_dates.min_date;
UInt16 max_date = block_with_dates.max_date;
const auto & date_lut = DateLUT::instance();
DayNum_t min_month = date_lut.toFirstDayNumOfMonth(DayNum_t(min_date));
DayNum_t max_month = date_lut.toFirstDayNumOfMonth(DayNum_t(max_date));
if (min_month != max_month)
throw Exception("Logical error: part spans more than one month.");
size_t part_size = (block.rows() + data.index_granularity - 1) / data.index_granularity;
static const String TMP_PREFIX = "tmp_insert_";
String part_name = ActiveDataPartSet::getPartName(DayNum_t(min_date), DayNum_t(max_date), temp_index, temp_index, 0);
MergeTreeData::MutableDataPartPtr new_data_part = std::make_shared<MergeTreeData::DataPart>(data);
new_data_part->name = part_name;
new_data_part->relative_path = TMP_PREFIX + part_name;
new_data_part->is_temp = true;
Poco::File(new_data_part->getFullPath()).createDirectories();
/// If you need to compute some columns to sort, we do it.
if (data.merging_params.mode != MergeTreeData::MergingParams::Unsorted)
data.getPrimaryExpression()->execute(block);
SortDescription sort_descr = data.getSortDescription();
ProfileEvents::increment(ProfileEvents::MergeTreeDataWriterBlocks);
/// Sort.
IColumn::Permutation * perm_ptr = nullptr;
IColumn::Permutation perm;
if (data.merging_params.mode != MergeTreeData::MergingParams::Unsorted)
{
if (!isAlreadySorted(block, sort_descr))
{
stableGetPermutation(block, sort_descr, perm);
perm_ptr = &perm;
}
else
ProfileEvents::increment(ProfileEvents::MergeTreeDataWriterBlocksAlreadySorted);
}
NamesAndTypesList columns = data.getColumnsList().filter(block.getColumnsList().getNames());
MergedBlockOutputStream out(data, new_data_part->getFullPath(), columns, CompressionMethod::LZ4);
out.writePrefix();
out.writeWithPermutation(block, perm_ptr);
MergeTreeData::DataPart::Checksums checksums = out.writeSuffixAndGetChecksums();
new_data_part->left_date = DayNum_t(min_date);
new_data_part->right_date = DayNum_t(max_date);
new_data_part->left = temp_index;
new_data_part->right = temp_index;
new_data_part->level = 0;
new_data_part->size = part_size;
new_data_part->modification_time = time(0);
new_data_part->month = min_month;
new_data_part->columns = columns;
new_data_part->checksums = checksums;
new_data_part->index.swap(out.getIndex());
new_data_part->size_in_bytes = MergeTreeData::DataPart::calcTotalSize(new_data_part->getFullPath());
ProfileEvents::increment(ProfileEvents::MergeTreeDataWriterRows, block.rows());
ProfileEvents::increment(ProfileEvents::MergeTreeDataWriterUncompressedBytes, block.bytes());
ProfileEvents::increment(ProfileEvents::MergeTreeDataWriterCompressedBytes, new_data_part->size_in_bytes);
if (auto part_log = context.getPartLog(data.getDatabaseName(), data.getTableName()))
{
PartLogElement elem;
elem.event_time = time(0);
elem.event_type = PartLogElement::NEW_PART;
elem.size_in_bytes = new_data_part->size_in_bytes;
elem.duration_ms = stopwatch.elapsed() / 1000000;
elem.database_name = new_data_part->storage.getDatabaseName();
elem.table_name = new_data_part->storage.getTableName();
elem.part_name = part_name;
part_log->add(elem);
}
return new_data_part;
}
void LocalSocketTest::testSocketsPerformance()
{
Timestamp::TimeDiff local = 0, net = 0;
std::size_t initBufSize = 1;
std::size_t initReps = 1;
bool noDelay[2] = { true, false };
std::cout << std::endl << "OS Name: " << Environment::osName() << std::endl;
std::cout << "OS Version: " << Environment::osVersion() << std::endl;
std::cout << "OS Architecture: " << Environment::osArchitecture() << std::endl;
for (int d = 0; d < 2; ++d)
{
double locData = 0.0, locTime = 0.0, netData = 0.0, netTime = 0.0;
std::ostringstream os;
os << Environment::osName() << '-'
<< Environment::osVersion() << '-'
<< Environment::osArchitecture() << "-TCP";
if (noDelay[d]) os << "-nodelay";
os << ".csv";
File f(os.str());
if (f.exists()) f.remove();
FileOutputStream fos(os.str());
for (std::size_t repetitions = initReps;
repetitions <= 100000;
repetitions *= 10)
{
for (std::size_t bufSize = initBufSize; bufSize < 20000; bufSize *= 2)
{
char* pBuf = new char[bufSize];
{
SocketAddress sas("/tmp/poco.server.tcp.sock");
EchoServer echoServer(sas, bufSize);
SocketAddress sac("/tmp/poco.client.tcp.sock");
StreamSocket ss(sas, &sac);
int recv = 0, sent = 0;
Stopwatch sw; int i = 0;
for (; i < repetitions; ++i)
{
sent = 0; recv = 0; local = 0;
do
{
int s;
sw.restart();
s = ss.sendBytes(pBuf + sent, bufSize - sent);
sw.stop();
local += sw.elapsed();
sent += s;
} while (sent < bufSize);
do
{
int r;
sw.restart();
r = ss.receiveBytes(pBuf + recv, bufSize - recv);
sw.stop();
local += sw.elapsed();
recv += r;
} while (recv < bufSize);
locData += sent;
locData += recv;
locTime += local;
poco_assert (sent == bufSize && recv == bufSize);
}
std::cout << "Local TCP socket, " << i << " repetitions, " << bufSize << " bytes, "
<< local << " [us]." << std::endl;
ss.close();
}
{
SocketAddress sa("localhost", 12345);
EchoServer echoServer(sa, bufSize);
StreamSocket ss;
ss.connect(SocketAddress(sa.host(), echoServer.port()));
if (noDelay[d]) ss.setNoDelay(true);
int recv = 0, sent = 0;
Stopwatch sw; int i = 0;
for (; i < repetitions; ++i)
{
sent = 0; recv = 0; net = 0;
do
{
int s;
sw.restart();
s = ss.sendBytes(pBuf + sent, bufSize - sent);
sw.stop();
net += sw.elapsed();
sent += s;
} while (sent < bufSize);
do
{
int r;
sw.restart();
r = ss.receiveBytes(pBuf + recv, bufSize - recv);
sw.stop();
net += sw.elapsed();
recv += r;
} while (recv < bufSize);
netData += sent;
netData += recv;
netTime += net;
poco_assert (sent == bufSize && recv == bufSize);
}
std::cout << "Network TCP socket, " << i << " repetitions, " << bufSize << " bytes, "
<< net << " [us]." << std::endl;
fos << i << ',' << bufSize << ',';
ss.close();
}
delete pBuf;
double ratio = ((double) net) / ((double) local);
double diff = ((double) net) - ((double) local);
std::cout << "Ratio: " << ratio << "(" << diff / 1000.0 << "[us/msg]" << std::endl;
fos << ratio << std::endl;
}
}
poco_assert (locData == netData);
double locDTR = ((locData / (locTime / Timestamp::resolution())) * 8) / 1000000;
double netDTR = ((netData / (netTime / Timestamp::resolution())) * 8) / 1000000;
std::cout << (d ? "NO DELAY" : "DELAY") << std::endl
<< "=================================" << std::endl
<< "Local DTR: " << ((locData / (locTime / Timestamp::resolution())) * 8) / 1000000 << " [Mbit/s]" << std::endl
<< "Network DTR: " << ((netData / (netTime / Timestamp::resolution())) * 8) / 1000000 << " [Mbit/s]" << std::endl
<< "Local sockets speedup: " << ((locDTR / netDTR) * 100) - 100 << '%' << std::endl
<< "=================================" << std::endl;
fos << "=================================" << std::endl
<< "Local DTR: " << ((locData / (locTime / Timestamp::resolution())) * 8) / 1000000 << " [Mbit/s]" << std::endl
<< "Network DTR: " << ((netData / (netTime / Timestamp::resolution())) * 8) / 1000000 << " [Mbit/s]" << std::endl
<< "Local sockets speedup: " << ((locDTR / netDTR) * 100) - 100 << '%' << std::endl
<< "=================================" << std::endl;
fos.close();
}
}
void OsmAnd::ObfMapSectionReader_P::readMapObjectsBlock(
const ObfReader_P& reader,
const std::shared_ptr<const ObfMapSectionInfo>& section,
const std::shared_ptr<const ObfMapSectionLevelTreeNode>& tree,
QList< std::shared_ptr<const OsmAnd::BinaryMapObject> >* resultOut,
const AreaI* bbox31,
const FilterReadingByIdFunction filterById,
const VisitorFunction visitor,
const std::shared_ptr<const IQueryController>& queryController,
ObfMapSectionReader_Metrics::Metric_loadMapObjects* const metric)
{
const auto cis = reader.getCodedInputStream().get();
QList< std::shared_ptr<BinaryMapObject> > intermediateResult;
QStringList mapObjectsCaptionsTable;
gpb::uint64 baseId = 0;
for (;;)
{
const auto tag = cis->ReadTag();
switch (gpb::internal::WireFormatLite::GetTagFieldNumber(tag))
{
case 0:
{
if (!ObfReaderUtilities::reachedDataEnd(cis))
return;
for (const auto& mapObject : constOf(intermediateResult))
{
// Fill mapObject captions from string-table
for (auto& caption : mapObject->captions)
{
const auto stringId = ObfReaderUtilities::decodeIntegerFromString(caption);
if (stringId >= mapObjectsCaptionsTable.size())
{
LogPrintf(LogSeverityLevel::Error,
"Data mismatch: string #%d (map object %s not found in string table (size %d) in section '%s'",
stringId,
qPrintable(mapObject->id.toString()),
mapObjectsCaptionsTable.size(), qPrintable(section->name));
caption = QString::fromLatin1("#%1 NOT FOUND").arg(stringId);
continue;
}
caption = mapObjectsCaptionsTable[stringId];
}
//////////////////////////////////////////////////////////////////////////
//if (mapObject->id.getOsmId() == 49048972u)
//{
// int i = 5;
//}
//////////////////////////////////////////////////////////////////////////
if (!visitor || visitor(mapObject))
{
if (resultOut)
resultOut->push_back(qMove(mapObject));
}
}
return;
}
case OBF::MapDataBlock::kBaseIdFieldNumber:
{
cis->ReadVarint64(&baseId);
//////////////////////////////////////////////////////////////////////////
//if (bbox31)
// LogPrintf(LogSeverityLevel::Debug, "BBOX %d %d %d %d - MAP BLOCK %" PRIi64, bbox31->top, bbox31->left, bbox31->bottom, bbox31->right, baseId);
//////////////////////////////////////////////////////////////////////////
break;
}
case OBF::MapDataBlock::kDataObjectsFieldNumber:
{
gpb::uint32 length;
cis->ReadVarint32(&length);
const auto offset = cis->CurrentPosition();
// Read map object content
const Stopwatch readMapObjectStopwatch(metric != nullptr);
std::shared_ptr<OsmAnd::BinaryMapObject> mapObject;
auto oldLimit = cis->PushLimit(length);
readMapObject(reader, section, baseId, tree, mapObject, bbox31, metric);
ObfReaderUtilities::ensureAllDataWasRead(cis);
cis->PopLimit(oldLimit);
// Update metric
if (metric)
metric->visitedMapObjects++;
// If map object was not read, skip it
if (!mapObject)
{
if (metric)
metric->elapsedTimeForOnlyVisitedMapObjects += readMapObjectStopwatch.elapsed();
break;
}
// Update metric
if (metric)
{
metric->elapsedTimeForOnlyAcceptedMapObjects += readMapObjectStopwatch.elapsed();
metric->acceptedMapObjects++;
}
//////////////////////////////////////////////////////////////////////////
//if (mapObject->id.getOsmId() == 49048972u)
//{
// int i = 5;
//}
//////////////////////////////////////////////////////////////////////////
// Check if map object is desired
const auto shouldReject = filterById && !filterById(
section,
mapObject->id,
mapObject->bbox31,
mapObject->level->minZoom,
mapObject->level->maxZoom);
if (shouldReject)
break;
// Save object
intermediateResult.push_back(qMove(mapObject));
break;
}
case OBF::MapDataBlock::kStringTableFieldNumber:
{
gpb::uint32 length;
cis->ReadVarint32(&length);
const auto offset = cis->CurrentPosition();
auto oldLimit = cis->PushLimit(length);
if (intermediateResult.isEmpty())
{
cis->Skip(cis->BytesUntilLimit());
cis->PopLimit(oldLimit);
break;
}
ObfReaderUtilities::readStringTable(cis, mapObjectsCaptionsTable);
ObfReaderUtilities::ensureAllDataWasRead(cis);
cis->PopLimit(oldLimit);
break;
}
default:
ObfReaderUtilities::skipUnknownField(cis, tag);
break;
}
}
}
void DatagramLocalSocketTest::testDatagramSocketPerformance()
{
Timestamp::TimeDiff local, net;
std::size_t initBufSize = 1;
std::size_t initReps = 1;
double locData = 0.0, locTime = 0.0, netData = 0.0, netTime = 0.0;
std::cout << std::endl << "OS Name: " << Environment::osName() << std::endl;
std::cout << "OS Version: " << Environment::osVersion() << std::endl;
std::cout << "OS Architecture: " << Environment::osArchitecture() << std::endl;
std::ostringstream os;
os << Environment::osName() << '-'
<< Environment::osVersion() << '-'
<< Environment::osArchitecture()
<< "-UDP.csv";
File f(os.str());
if (f.exists()) f.remove();
FileOutputStream fos(os.str());
for (std::size_t repetitions = initReps;
repetitions <= 100000;
repetitions *= 10)
{
for (std::size_t bufSize = initBufSize; bufSize < 20000; bufSize *= 2)
{
char* pBuf = new char[bufSize];
{
UDPLocalEchoServer echoServer(bufSize);
DatagramSocket ss(SocketAddress("/tmp/poco.client.udp.sock"), true);
SocketAddress addr(echoServer.address().toString());
ss.connect(addr);
int recv = 0, sent = 0;
Stopwatch sw; int i = 0;
for (; i < repetitions; ++i)
{
sent = 0; recv = 0; local = 0;
do
{
int s;
sw.restart();
s = ss.sendBytes(pBuf + sent, bufSize - sent);
sw.stop();
local += sw.elapsed();
sent += s;
} while (sent < bufSize);
do
{
int r;
sw.restart();
r = ss.receiveBytes(pBuf + recv, bufSize - recv);
sw.stop();
local += sw.elapsed();
recv += r;
} while (recv < bufSize);
locData += sent;
locData += recv;
locTime += local;
poco_assert (sent == bufSize && recv == bufSize);
}
std::cout << "Local UDP socket, " << i << " repetitions, " << bufSize << " bytes, "
<< local << " [us]." << std::endl;
ss.close();
}
{
UDPEchoServer echoServer(bufSize);
DatagramSocket ss;
ss.connect(SocketAddress("localhost", echoServer.port()));
int recv = 0, sent = 0;
Stopwatch sw; int i = 0;
for (; i < repetitions; ++i)
{
sent = 0; recv = 0; net = 0;
do
{
int s;
sw.restart();
s = ss.sendBytes(pBuf + sent, bufSize - sent);
sw.stop();
net += sw.elapsed();
sent += s;
} while (sent < bufSize);
do
{
int r;
sw.restart();
r = ss.receiveBytes(pBuf + recv, bufSize - recv);
sw.stop();
net += sw.elapsed();
recv += r;
} while (recv < bufSize);
netData += sent;
netData += recv;
netTime += net;
poco_assert (sent == bufSize && recv == bufSize);
}
std::cout << "Network UDP socket, " << i << " repetitions, " << bufSize << " bytes, "
<< net << " [us]." << std::endl;
fos << i << ',' << bufSize << ',';
ss.close();
}
delete pBuf;
double ratio = local ? ((double) net) / ((double) local) : (double) net;
double diff = ((double) net) - ((double) local);
std::cout << "Ratio: " << ratio << "(" << diff / 1000.0 << "[us/msg]" << ')' << std::endl;
fos << ratio << std::endl;
}
}
poco_assert (locData == netData);
double locDTR = ((locData / (locTime / Timestamp::resolution())) * 8) / 1000000;
double netDTR = ((netData / (netTime / Timestamp::resolution())) * 8) / 1000000;
std::cout << "=================================" << std::endl
<< "Local DTR: " << locDTR << " [Mbit/s]" << std::endl
<< "Network DTR: " << netDTR << " [Mbit/s]" << std::endl
<< "Local sockets speedup: " << ((locDTR / netDTR) * 100) - 100 << '%' << std::endl
<< "=================================" << std::endl;
fos << "=================================" << std::endl
<< "Local DTR: " << locDTR << " [Mbit/s]" << std::endl
<< "Network DTR: " << netDTR << " [Mbit/s]" << std::endl
<< "Local sockets speedup: " << ((locDTR / netDTR) * 100) - 100 << '%' << std::endl
<< "=================================" << std::endl;
fos.close();
}
void OsmAnd::ObfMapSectionReader_P::loadMapObjects(
const ObfReader_P& reader,
const std::shared_ptr<const ObfMapSectionInfo>& section,
ZoomLevel zoom,
const AreaI* bbox31,
QList< std::shared_ptr<const OsmAnd::BinaryMapObject> >* resultOut,
MapSurfaceType* outBBoxOrSectionSurfaceType,
const ObfMapSectionReader::FilterByIdFunction filterById,
const VisitorFunction visitor,
DataBlocksCache* cache,
QList< std::shared_ptr<const DataBlock> >* outReferencedCacheEntries,
const std::shared_ptr<const IQueryController>& queryController,
ObfMapSectionReader_Metrics::Metric_loadMapObjects* const metric)
{
const auto cis = reader.getCodedInputStream().get();
const auto filterReadById =
[filterById, zoom]
(const std::shared_ptr<const ObfMapSectionInfo>& section,
const ObfObjectId mapObjectId,
const AreaI& bbox,
const ZoomLevel firstZoomLevel,
const ZoomLevel lastZoomLevel) -> bool
{
return filterById(section, mapObjectId, bbox, firstZoomLevel, lastZoomLevel, zoom);
};
// Ensure encoding/decoding rules are read
if (section->_p->_attributeMappingLoaded.loadAcquire() == 0)
{
QMutexLocker scopedLocker(§ion->_p->_attributeMappingLoadMutex);
if (!section->_p->_attributeMapping)
{
// Read encoding/decoding rules
cis->Seek(section->offset);
auto oldLimit = cis->PushLimit(section->length);
const std::shared_ptr<ObfMapSectionAttributeMapping> attributeMapping(new ObfMapSectionAttributeMapping());
readAttributeMapping(reader, section, attributeMapping);
section->_p->_attributeMapping = attributeMapping;
cis->PopLimit(oldLimit);
section->_p->_attributeMappingLoaded.storeRelease(1);
}
}
ObfMapSectionReader_Metrics::Metric_loadMapObjects localMetric;
auto bboxOrSectionSurfaceType = MapSurfaceType::Undefined;
if (outBBoxOrSectionSurfaceType)
*outBBoxOrSectionSurfaceType = bboxOrSectionSurfaceType;
QList< std::shared_ptr<const DataBlock> > danglingReferencedCacheEntries;
for (const auto& mapLevel : constOf(section->levels))
{
// Update metric
if (metric)
metric->visitedLevels++;
if (mapLevel->minZoom > zoom || mapLevel->maxZoom < zoom)
continue;
if (bbox31)
{
const Stopwatch bboxLevelCheckStopwatch(metric != nullptr);
const auto shouldSkip =
!bbox31->contains(mapLevel->area31) &&
!mapLevel->area31.contains(*bbox31) &&
!bbox31->intersects(mapLevel->area31);
if (metric)
metric->elapsedTimeForLevelsBbox += bboxLevelCheckStopwatch.elapsed();
if (shouldSkip)
continue;
}
const Stopwatch treeNodesStopwatch(metric != nullptr);
if (metric)
metric->acceptedLevels++;
// If there are no tree nodes in map level, it means they are not loaded.
// Since loading may be called from multiple threads, loading of root nodes needs synchronization
// Ensure encoding/decoding rules are read
if (mapLevel->_p->_rootNodesLoaded.loadAcquire() == 0)
{
QMutexLocker scopedLocker(&mapLevel->_p->_rootNodesLoadMutex);
if (!mapLevel->_p->_rootNodes)
{
cis->Seek(mapLevel->offset);
auto oldLimit = cis->PushLimit(mapLevel->length);
cis->Skip(mapLevel->firstDataBoxInnerOffset);
const std::shared_ptr< QList< std::shared_ptr<const ObfMapSectionLevelTreeNode> > > rootNodes(
new QList< std::shared_ptr<const ObfMapSectionLevelTreeNode> >());
readMapLevelTreeNodes(reader, section, mapLevel, *rootNodes);
mapLevel->_p->_rootNodes = rootNodes;
cis->PopLimit(oldLimit);
mapLevel->_p->_rootNodesLoaded.storeRelease(1);
}
}
// Collect tree nodes with data
QList< std::shared_ptr<const ObfMapSectionLevelTreeNode> > treeNodesWithData;
for (const auto& rootNode : constOf(*mapLevel->_p->_rootNodes))
{
// Update metric
if (metric)
metric->visitedNodes++;
if (bbox31)
{
const Stopwatch bboxNodeCheckStopwatch(metric != nullptr);
const auto shouldSkip =
!bbox31->contains(rootNode->area31) &&
!rootNode->area31.contains(*bbox31) &&
!bbox31->intersects(rootNode->area31);
// Update metric
if (metric)
metric->elapsedTimeForNodesBbox += bboxNodeCheckStopwatch.elapsed();
if (shouldSkip)
continue;
}
// Update metric
if (metric)
metric->acceptedNodes++;
if (rootNode->dataOffset > 0)
treeNodesWithData.push_back(rootNode);
auto rootSubnodesSurfaceType = MapSurfaceType::Undefined;
if (rootNode->hasChildrenDataBoxes)
{
cis->Seek(rootNode->offset);
auto oldLimit = cis->PushLimit(rootNode->length);
cis->Skip(rootNode->firstDataBoxInnerOffset);
readTreeNodeChildren(reader, section, rootNode, rootSubnodesSurfaceType, &treeNodesWithData, bbox31, queryController, metric);
ObfReaderUtilities::ensureAllDataWasRead(cis);
cis->PopLimit(oldLimit);
}
const auto surfaceTypeToMerge = (rootSubnodesSurfaceType != MapSurfaceType::Undefined) ? rootSubnodesSurfaceType : rootNode->surfaceType;
if (surfaceTypeToMerge != MapSurfaceType::Undefined)
{
if (bboxOrSectionSurfaceType == MapSurfaceType::Undefined)
bboxOrSectionSurfaceType = surfaceTypeToMerge;
else if (bboxOrSectionSurfaceType != surfaceTypeToMerge)
bboxOrSectionSurfaceType = MapSurfaceType::Mixed;
}
}
// Sort blocks by data offset to force forward-only seeking
std::sort(treeNodesWithData,
[]
(const std::shared_ptr<const ObfMapSectionLevelTreeNode>& l, const std::shared_ptr<const ObfMapSectionLevelTreeNode>& r) -> bool
{
return l->dataOffset < r->dataOffset;
});
// Update metric
const Stopwatch mapObjectsStopwatch(metric != nullptr);
if (metric)
metric->elapsedTimeForNodes += treeNodesStopwatch.elapsed();
// Read map objects from their blocks
for (const auto& treeNode : constOf(treeNodesWithData))
{
if (queryController && queryController->isAborted())
break;
DataBlockId blockId;
blockId.sectionRuntimeGeneratedId = section->runtimeGeneratedId;
blockId.offset = treeNode->dataOffset;
if (cache && cache->shouldCacheBlock(blockId, treeNode->area31, bbox31))
{
// In case cache is provided, read and cache
const auto levelZooms = Utilities::enumerateZoomLevels(treeNode->level->minZoom, treeNode->level->maxZoom);
std::shared_ptr<const DataBlock> dataBlock;
std::shared_ptr<const DataBlock> sharedBlockReference;
proper::shared_future< std::shared_ptr<const DataBlock> > futureSharedBlockReference;
if (cache->obtainReferenceOrFutureReferenceOrMakePromise(blockId, zoom, levelZooms, sharedBlockReference, futureSharedBlockReference))
{
// Got reference or future reference
// Update metric
if (metric)
metric->mapObjectsBlocksReferenced++;
if (sharedBlockReference)
{
// Ok, this block was already loaded, just use it
dataBlock = sharedBlockReference;
}
else
{
// Wait until it will be loaded
dataBlock = futureSharedBlockReference.get();
}
}
else
{
// Made a promise, so load entire block into temporary storage
QList< std::shared_ptr<const BinaryMapObject> > mapObjects;
cis->Seek(treeNode->dataOffset);
gpb::uint32 length;
cis->ReadVarint32(&length);
const auto oldLimit = cis->PushLimit(length);
readMapObjectsBlock(
reader,
section,
treeNode,
&mapObjects,
nullptr,
nullptr,
nullptr,
nullptr,
metric ? &localMetric : nullptr);
ObfReaderUtilities::ensureAllDataWasRead(cis);
cis->PopLimit(oldLimit);
// Update metric
if (metric)
metric->mapObjectsBlocksRead++;
// Create a data block and share it
dataBlock.reset(new DataBlock(blockId, treeNode->area31, treeNode->surfaceType, mapObjects));
cache->fulfilPromiseAndReference(blockId, levelZooms, dataBlock);
}
if (outReferencedCacheEntries)
outReferencedCacheEntries->push_back(dataBlock);
else
danglingReferencedCacheEntries.push_back(dataBlock);
// Process data block
for (const auto& mapObject : constOf(dataBlock->mapObjects))
{
//////////////////////////////////////////////////////////////////////////
//if (mapObject->id.getOsmId() == 49048972u)
//{
// if (bbox31 && *bbox31 == Utilities::tileBoundingBox31(TileId::fromXY(1052, 673), ZoomLevel11))
// {
// const auto t = mapObject->toString();
// int i = 5;
// }
//}
//////////////////////////////////////////////////////////////////////////
if (metric)
metric->visitedMapObjects++;
if (bbox31)
{
const auto shouldNotSkip =
mapObject->bbox31.contains(*bbox31) ||
bbox31->intersects(mapObject->bbox31);
if (!shouldNotSkip)
continue;
}
// Check if map object is desired
const auto shouldReject = filterById && !filterById(
section,
mapObject->id,
mapObject->bbox31,
mapObject->level->minZoom,
mapObject->level->maxZoom,
zoom);
if (shouldReject)
continue;
if (!visitor || visitor(mapObject))
{
if (metric)
metric->acceptedMapObjects++;
if (resultOut)
resultOut->push_back(qMove(mapObject));
}
}
}
else
{
// In case there's no cache, simply read
cis->Seek(treeNode->dataOffset);
gpb::uint32 length;
cis->ReadVarint32(&length);
const auto oldLimit = cis->PushLimit(length);
readMapObjectsBlock(
reader,
section,
treeNode,
resultOut,
bbox31,
filterById != nullptr ? filterReadById : FilterReadingByIdFunction(),
visitor,
queryController,
metric);
ObfReaderUtilities::ensureAllDataWasRead(cis);
cis->PopLimit(oldLimit);
// Update metric
if (metric)
metric->mapObjectsBlocksRead++;
}
// Update metric
if (metric)
metric->mapObjectsBlocksProcessed++;
}
// Update metric
if (metric)
metric->elapsedTimeForMapObjectsBlocks += mapObjectsStopwatch.elapsed();
}
// In case cache was supplied, but referenced cache entries output collection was not specified,
// release all dangling references
if (cache && !outReferencedCacheEntries)
{
for (auto& referencedCacheEntry : danglingReferencedCacheEntries)
cache->releaseReference(referencedCacheEntry->id, zoom, referencedCacheEntry);
danglingReferencedCacheEntries.clear();
}
if (outBBoxOrSectionSurfaceType)
*outBBoxOrSectionSurfaceType = bboxOrSectionSurfaceType;
// In case cache was used, and metric was requested, some values must be taken from different parts
if (cache && metric)
{
metric->elapsedTimeForOnlyAcceptedMapObjects += localMetric.elapsedTimeForOnlyAcceptedMapObjects;
}
}
UInt64
timeElapsed() // nofail, in milliseconds.
{
return s_stopwatch.elapsed();
}
Try<Nothing> Benchmark::execute(int argc, char** argv)
{
flags.setUsageMessage(
"Usage: " + name() + " [options]\n"
"\n"
"This command is used to do performance test on the\n"
"replicated log. It takes a trace file of write sizes\n"
"and replay that trace to measure the latency of each\n"
"write. The data to be written for each write can be\n"
"specified using the --type flag.\n"
"\n");
// Configure the tool by parsing command line arguments.
if (argc > 0 && argv != NULL) {
Try<Nothing> load = flags.load(None(), argc, argv);
if (load.isError()) {
return Error(flags.usage(load.error()));
}
if (flags.help) {
return Error(flags.usage());
}
process::initialize();
logging::initialize(argv[0], flags);
}
if (flags.quorum.isNone()) {
return Error(flags.usage("Missing required option --quorum"));
}
if (flags.path.isNone()) {
return Error(flags.usage("Missing required option --path"));
}
if (flags.servers.isNone()) {
return Error(flags.usage("Missing required option --servers"));
}
if (flags.znode.isNone()) {
return Error(flags.usage("Missing required option --znode"));
}
if (flags.input.isNone()) {
return Error(flags.usage("Missing required option --input"));
}
if (flags.output.isNone()) {
return Error(flags.usage("Missing required option --output"));
}
// Initialize the log.
if (flags.initialize) {
Initialize initialize;
initialize.flags.path = flags.path;
Try<Nothing> execution = initialize.execute();
if (execution.isError()) {
return Error(execution.error());
}
}
// Create the log.
Log log(
flags.quorum.get(),
flags.path.get(),
flags.servers.get(),
Seconds(10),
flags.znode.get());
// Create the log writer.
Log::Writer writer(&log);
Future<Option<Log::Position> > position = writer.start();
if (!position.await(Seconds(15))) {
return Error("Failed to start a log writer: timed out");
} else if (!position.isReady()) {
return Error("Failed to start a log writer: " +
(position.isFailed()
? position.failure()
: "Discarded future"));
}
// Statistics to output.
vector<Bytes> sizes;
vector<Duration> durations;
vector<Time> timestamps;
// Read sizes from the input trace file.
ifstream input(flags.input.get().c_str());
if (!input.is_open()) {
return Error("Failed to open the trace file " + flags.input.get());
}
string line;
while (getline(input, line)) {
Try<Bytes> size = Bytes::parse(strings::trim(line));
if (size.isError()) {
return Error("Failed to parse the trace file: " + size.error());
}
sizes.push_back(size.get());
}
input.close();
// Generate the data to be written.
vector<string> data;
for (size_t i = 0; i < sizes.size(); i++) {
if (flags.type == "one") {
data.push_back(string(sizes[i].bytes(), static_cast<char>(0xff)));
} else if (flags.type == "random") {
data.push_back(string(sizes[i].bytes(), ::random() % 256));
} else {
data.push_back(string(sizes[i].bytes(), 0));
}
}
Stopwatch stopwatch;
stopwatch.start();
for (size_t i = 0; i < sizes.size(); i++) {
Stopwatch stopwatch;
stopwatch.start();
position = writer.append(data[i]);
if (!position.await(Seconds(10))) {
return Error("Failed to append: timed out");
} else if (!position.isReady()) {
return Error("Failed to append: " +
(position.isFailed()
? position.failure()
: "Discarded future"));
} else if (position.get().isNone()) {
return Error("Failed to append: exclusive write promise lost");
}
durations.push_back(stopwatch.elapsed());
timestamps.push_back(Clock::now());
}
cout << "Total number of appends: " << sizes.size() << endl;
cout << "Total time used: " << stopwatch.elapsed() << endl;
// Ouput statistics.
ofstream output(flags.output.get().c_str());
if (!output.is_open()) {
return Error("Failed to open the output file " + flags.output.get());
}
for (size_t i = 0; i < sizes.size(); i++) {
output << timestamps[i]
<< " Appended " << sizes[i].bytes() << " bytes"
<< " in " << durations[i].ms() << " ms" << endl;
}
return Nothing();
}
std::shared_ptr<SkBitmap> OsmAnd::MapRasterLayerProvider_GPU_P::rasterize(
const TileId tileId,
const ZoomLevel zoom,
const std::shared_ptr<const MapPrimitivesProvider::Data>& primitivesTile,
MapRasterLayerProvider_Metrics::Metric_obtainData* const metric_,
const IQueryController* const queryController)
{
#if OSMAND_PERFORMANCE_METRICS
MapRasterLayerProvider_Metrics::Metric_obtainData localMetric;
const auto metric = metric_ ? metric_ : &localMetric;
#else
const auto metric = metric_;
#endif
const Stopwatch totalStopwatch(
#if OSMAND_PERFORMANCE_METRICS
true
#else
metric != nullptr
#endif // OSMAND_PERFORMANCE_METRICS
);
//TODO: SkGpuDevice
// Allocate rasterization target
const auto tileSize = owner->getTileSize();
const std::shared_ptr<SkBitmap> rasterizationSurface(new SkBitmap());
rasterizationSurface->setConfig(SkBitmap::kARGB_8888_Config, tileSize, tileSize);
if (!rasterizationSurface->allocPixels())
{
LogPrintf(LogSeverityLevel::Error, "Failed to allocate buffer for ARGB8888 rasterization surface %dx%d", tileSize, tileSize);
return nullptr;
}
SkBitmapDevice rasterizationTarget(*rasterizationSurface);
// Create rasterization canvas
SkCanvas canvas(&rasterizationTarget);
// Perform actual rasterization
if (!owner->fillBackground)
canvas.clear(SK_ColorTRANSPARENT);
_mapRasterizer->rasterize(
Utilities::tileBoundingBox31(tileId, zoom),
primitivesTile->primitivisedObjects,
canvas,
owner->fillBackground,
nullptr,
metric ? metric->findOrAddSubmetricOfType<MapRasterizer_Metrics::Metric_rasterize>().get() : nullptr,
queryController);
if (metric)
metric->elapsedTime += totalStopwatch.elapsed();
#if OSMAND_PERFORMANCE_METRICS
#if OSMAND_PERFORMANCE_METRICS <= 1
LogPrintf(LogSeverityLevel::Info,
"%dx%d@%d rasterized on CPU in %fs",
tileId.x,
tileId.y,
zoom,
totalStopwatch.elapsed());
#else
LogPrintf(LogSeverityLevel::Info,
"%dx%d@%d rasterized on CPU in %fs:\n%s",
tileId.x,
tileId.y,
zoom,
totalStopwatch.elapsed(),
qPrintable(metric ? metric->toString(QLatin1String("\t - ")) : QLatin1String("(null)")));
#endif // OSMAND_PERFORMANCE_METRICS <= 1
#endif // OSMAND_PERFORMANCE_METRICS
return rasterizationSurface;
}
Try<Nothing> LevelDBStorage::persist(const Action& action)
{
Stopwatch stopwatch;
stopwatch.start();
Record record;
record.set_type(Record::ACTION);
record.mutable_action()->MergeFrom(action);
string value;
if (!record.SerializeToString(&value)) {
return Error("Failed to serialize record");
}
leveldb::WriteOptions options;
options.sync = true;
leveldb::Status status = db->Put(options, encode(action.position()), value);
if (!status.ok()) {
return Error(status.ToString());
}
// Updated the first position. Notice that we use 'min' here instead
// of checking 'isNone()' because it's likely that log entries are
// written out of order during catch-up (e.g. if a random bulk
// catch-up policy is used).
first = min(first, action.position());
LOG(INFO) << "Persisting action (" << value.size()
<< " bytes) to leveldb took " << stopwatch.elapsed();
// Delete positions if a truncate action has been *learned*. Note
// that we do this in a best-effort fashion (i.e., we ignore any
// failures to the database since we can always try again).
if (action.has_type() && action.type() == Action::TRUNCATE &&
action.has_learned() && action.learned()) {
CHECK(action.has_truncate());
stopwatch.start(); // Restart the stopwatch.
// To actually perform the truncation in leveldb we need to remove
// all the keys that represent positions no longer in the log. We
// do this by attempting to delete all keys that represent the
// first position we know is still in leveldb up to (but
// excluding) the truncate position. Note that this works because
// the semantics of WriteBatch are such that even if the position
// doesn't exist (which is possible because this replica has some
// holes), we can attempt to delete the key that represents it and
// it will just ignore that key. This is *much* cheaper than
// actually iterating through the entire database instead (which
// was, for posterity, the original implementation). In addition,
// caching the "first" position we know is in the database is
// cheaper than using an iterator to determine the first position
// (which was, for posterity, the second implementation).
leveldb::WriteBatch batch;
CHECK_SOME(first);
// Add positions up to (but excluding) the truncate position to
// the batch starting at the first position still in leveldb. It's
// likely that the first position is greater than the truncate
// position (e.g., during catch-up). In that case, we do nothing
// because there is nothing we can truncate.
// TODO(jieyu): We might miss a truncation if we do random (i.e.,
// out of order) bulk catch-up and the truncate operation is
// caught up first.
uint64_t index = 0;
while ((first.get() + index) < action.truncate().to()) {
batch.Delete(encode(first.get() + index));
index++;
}
// If we added any positions, attempt to delete them!
if (index > 0) {
// We do this write asynchronously (e.g., using default options).
leveldb::Status status = db->Write(leveldb::WriteOptions(), &batch);
if (!status.ok()) {
LOG(WARNING) << "Ignoring leveldb batch delete failure: "
<< status.ToString();
} else {
// Save the new first position!
CHECK_LT(first.get(), action.truncate().to());
first = action.truncate().to();
LOG(INFO) << "Deleting ~" << index
<< " keys from leveldb took " << stopwatch.elapsed();
}
}
}
return Nothing();
}
void ReplicatedMergeTreeBlockOutputStream::write(const Block & block)
{
last_block_is_duplicate = false;
/// TODO Is it possible to not lock the table structure here?
storage.data.delayInsertOrThrowIfNeeded(&storage.partial_shutdown_event);
auto zookeeper = storage.getZooKeeper();
assertSessionIsNotExpired(zookeeper);
/** If write is with quorum, then we check that the required number of replicas is now live,
* and also that for all previous parts for which quorum is required, this quorum is reached.
* And also check that during the insertion, the replica was not reinitialized or disabled (by the value of `is_active` node).
* TODO Too complex logic, you can do better.
*/
if (quorum)
checkQuorumPrecondition(zookeeper);
auto part_blocks = storage.writer.splitBlockIntoParts(block);
for (auto & current_block : part_blocks)
{
Stopwatch watch;
/// Write part to the filesystem under temporary name. Calculate a checksum.
MergeTreeData::MutableDataPartPtr part = storage.writer.writeTempPart(current_block);
String block_id;
if (deduplicate)
{
SipHash hash;
part->checksums.computeTotalChecksumDataOnly(hash);
union
{
char bytes[16];
UInt64 words[2];
} hash_value;
hash.get128(hash_value.bytes);
/// We add the hash from the data and partition identifier to deduplication ID.
/// That is, do not insert the same data to the same partition twice.
block_id = part->info.partition_id + "_" + toString(hash_value.words[0]) + "_" + toString(hash_value.words[1]);
LOG_DEBUG(log, "Wrote block with ID '" << block_id << "', " << block.rows() << " rows");
}
else
{
LOG_DEBUG(log, "Wrote block with " << block.rows() << " rows");
}
try
{
commitPart(zookeeper, part, block_id);
/// Set a special error code if the block is duplicate
int error = (deduplicate && last_block_is_duplicate) ? ErrorCodes::INSERT_WAS_DEDUPLICATED : 0;
PartLog::addNewPart(storage.context, part, watch.elapsed(), ExecutionStatus(error));
}
catch (...)
{
PartLog::addNewPart(storage.context, part, watch.elapsed(), ExecutionStatus::fromCurrentException(__PRETTY_FUNCTION__));
throw;
}
}
}