/* * Copyright (c) Meta Platforms, Inc. and affiliates. * * Licensed under the Apache License, Version 2.0 (the "License"); * you may not use this file except in compliance with the License. * You may obtain a copy of the License at * * http://www.apache.org/licenses/LICENSE-2.0 * * Unless required by applicable law or agreed to in writing, software * distributed under the License is distributed on an "AS IS" BASIS, * WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. * See the License for the specific language governing permissions and * limitations under the License. */ #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include using namespace apache::thrift; using apache::thrift::ThriftServer; using apache::thrift::concurrency::PosixThreadFactory; using apache::thrift::concurrency::ThreadManager; using apache::thrift::server::TConnectionContext; using apache::thrift::server::TServerEventHandler; using apache::thrift::server::TServerObserver; using apache::thrift::transport::THeader; using folly::SSLContext; using wangle::SSLCacheOptions; using wangle::SSLContextConfig; using namespace boost::python; // If less than 3.7 offer no additional protection #if PY_VERSION_HEX <= 0x03070000 #define _Py_IsFinalizing() false #endif THRIFT_FLAG_DEFINE_bool(allow_resource_pools_in_cpp_server_wrapper, false); namespace { const std::string kHeaderEx = "uex"; const std::string kHeaderExWhat = "uexw"; object makePythonHeaders( const THeader::StringToStringMap& cppheaders, const Cpp2RequestContext* context) { object headers = dict(); for (const auto& it : cppheaders) { headers[it.first] = it.second; } headers[(std::string)apache::thrift::THeader::CLIENT_TIMEOUT_HEADER] = folly::to( std::chrono::milliseconds(context->getRequestTimeout()).count()); return headers; } object makePythonList(const std::vector& vec) { list result; for (auto it = vec.begin(); it != vec.end(); ++it) { result.append(*it); } return std::move(result); } std::string getStringAttrSafe(object& pyObject, const char* attrName) { object val = pyObject.attr(attrName); if (val.is_none()) { return ""; } return extract(str(val)); } template T getIntAttr(object& pyObject, const char* attrName) { object val = pyObject.attr(attrName); return extract(val); } } // namespace class CallbackWrapper { public: void call(object obj) { callback_(obj); } void setCallback(folly::Function&& callback) { callback_ = std::move(callback); } private: folly::Function callback_; }; class CppServerEventHandler : public TServerEventHandler { public: explicit CppServerEventHandler(object serverEventHandler) : handler_(std::make_shared(serverEventHandler)) {} void newConnection(TConnectionContext* ctx) override { callPythonHandler(ctx, "newConnection"); } void connectionDestroyed(TConnectionContext* ctx) override { callPythonHandler(ctx, "connectionDestroyed"); } private: void callPythonHandler(TConnectionContext* ctx, const char* method) { if (!_Py_IsFinalizing()) { PyGILState_STATE state = PyGILState_Ensure(); SCOPE_EXIT { PyGILState_Release(state); }; // This cast always succeeds because it is called from Cpp2Connection. Cpp2ConnContext* cpp2Ctx = dynamic_cast(ctx); auto cd_cls = handler_->attr("CONTEXT_DATA"); object contextData = cd_cls(); extract(contextData)().copyContextContents(cpp2Ctx); auto ctx_cls = handler_->attr("CPP_CONNECTION_CONTEXT"); object cppConnContext = ctx_cls(contextData); handler_->attr(method)(cppConnContext); } } std::shared_ptr handler_; }; class PythonCallTimestamps : public TServerObserver::CallTimestamps { public: void set_readEndNow() { readEnd = clock::now(); } uint64_t get_readEndUsec() const noexcept { return to_microseconds(readEnd.time_since_epoch()); } void set_processBeginNow() { processBegin = clock::now(); } uint64_t get_processBeginUsec() const noexcept { return to_microseconds(processBegin.time_since_epoch()); } void set_processEndNow() { processEnd = clock::now(); } uint64_t get_processEndUsec() const noexcept { return to_microseconds(processEnd.time_since_epoch()); } void set_writeBeginNow() { writeBegin = clock::now(); } uint64_t get_writeBeginUsec() const noexcept { return to_microseconds(writeBegin.time_since_epoch()); } void set_writeEndNow() { writeEnd = clock::now(); } uint64_t get_writeEndUsec() const noexcept { return to_microseconds(writeEnd.time_since_epoch()); } }; class CppServerObserver : public TServerObserver { public: explicit CppServerObserver(object serverObserver) : observer_(serverObserver) {} void connAccepted( const wangle::TransportInfo& /* info */, const TServerObserver::ConnectionInfo& /* connInfo */) override { this->call("connAccepted"); } void connDropped() override { this->call("connDropped"); } void connRejected() override { this->call("connRejected"); } void tlsError() override { this->call("tlsError"); } void tlsComplete() override { this->call("tlsComplete"); } void tlsFallback() override { this->call("tlsFallback"); } void tlsResumption() override { this->call("tlsResumption"); } void taskKilled() override { this->call("taskKilled"); } void taskTimeout() override { this->call("taskTimeout"); } void serverOverloaded(apache::thrift::LoadShedder /*loadShedder*/) override { this->call("serverOverloaded"); } void receivedRequest(const std::string* /*method*/) override { this->call("receivedRequest"); } void admittedRequest(const std::string* /*method*/) override { this->call("admittedRequest"); } void queuedRequests(int32_t n) override { this->call("queuedRequests", n); } void queueTimeout() override { this->call("queueTimeout"); } void sentReply() override { this->call("sentReply"); } void activeRequests(int32_t n) override { this->call("activeRequests", n); } void callCompleted(const CallTimestamps& runtimes) override { this->call( "callCompleted", reinterpret_cast(runtimes)); } void tlsWithClientCert() override { this->call("tlsWithClientCert"); } private: template void call(const char* method_name, Types... args) { PyGILState_STATE state = PyGILState_Ensure(); SCOPE_EXIT { PyGILState_Release(state); }; // check if the object has an attribute, because we want to be accepting // if we added a new listener callback and didn't yet update call the // people using this interface. if (!PyObject_HasAttrString(observer_.ptr(), method_name)) { return; } try { (void)observer_.attr(method_name)(args...); } catch (const error_already_set&) { // print the error to sys.stderr and carry on, because raising here // would break the server protocol, and raising in Python later // would be extremely disconnected and confusing since it would // happen in apparently unconnected Python code. PyErr_Print(); } } object observer_; }; class PythonAsyncProcessor : public AsyncProcessor { public: explicit PythonAsyncProcessor(std::shared_ptr adapter) : adapter_(adapter) { getPythonOnewayMethods(); } void processSerializedCompressedRequestWithMetadata( apache::thrift::ResponseChannelRequest::UniquePtr req, apache::thrift::SerializedCompressedRequest&& serializedCompressedRequest, const apache::thrift::AsyncProcessorFactory::MethodMetadata&, apache::thrift::protocol::PROTOCOL_TYPES protType, apache::thrift::Cpp2RequestContext* context, folly::EventBase* eb, apache::thrift::concurrency::ThreadManager* tm) override { auto fname = context->getMethodName(); bool oneway = isOnewayMethod(fname); if (oneway && !req->isOneway()) { req->sendReply(ResponsePayload{}); } auto task = [=, reqCaptured = std::move(req), serializedCompressedRequestCaptured = std::move(serializedCompressedRequest), protTypeCaptured = protType, contextCaptured = context, ebCaptured = eb]() mutable { runTask( std::move(reqCaptured), std::move(serializedCompressedRequestCaptured), protTypeCaptured, contextCaptured, ebCaptured, false /* fromExecuteRequest */); }; using PriorityThreadManager = apache::thrift::concurrency::PriorityThreadManager; auto ptm = dynamic_cast(tm); if (ptm != nullptr) { ptm->add( getMethodPriority(context), std::make_shared( std::move(task))); return; } tm->add(std::move(task)); } void executeRequest( apache::thrift::ServerRequest&& request, const apache::thrift::AsyncProcessorFactory::MethodMetadata&) override { using ServerRequestHelper = apache::thrift::detail::ServerRequestHelper; auto req = ServerRequestHelper::request(std::move(request)); auto serializedCompressedRequest = ServerRequestHelper::compressedRequest(std::move(request)); auto protType = ServerRequestHelper::protocol(request); auto context = request.requestContext(); auto eb = ServerRequestHelper::eventBase(request); runTask( std::move(req), std::move(serializedCompressedRequest), protType, context, eb, true /* fromExecuteRequest */); } /** * Get the priority of the request * Check the headers directly in C++ since noone seems to override that logic * Ask python if no priority headers were supplied with the request */ concurrency::PRIORITY getMethodPriority(Cpp2RequestContext* ctx) { if (ctx) { auto requestPriority = ctx->getCallPriority(); if (requestPriority != concurrency::PRIORITY::N_PRIORITIES) { VLOG(3) << "Request priority from headers"; return requestPriority; } } PyGILState_STATE state = PyGILState_Ensure(); SCOPE_EXIT { PyGILState_Release(state); }; try { auto fname = ctx->getMethodName(); return static_cast( extract(adapter_->attr("get_priority")(fname))()); } catch (error_already_set&) { // get_priority doesn't exist, or it threw an exception LOG(ERROR) << "Error while calling _ProcessorAdapter.get_priority()"; PyErr_Print(); } return concurrency::PRIORITY::NORMAL; } private: void runTask( apache::thrift::ResponseChannelRequest::UniquePtr req, apache::thrift::SerializedCompressedRequest&& serializedCompressedRequest, apache::thrift::protocol::PROTOCOL_TYPES protType, apache::thrift::Cpp2RequestContext* context, folly::EventBase* eb, bool fromExecuteRequest) { auto fname = context->getMethodName(); bool oneway = isOnewayMethod(fname); auto buf = apache::thrift::LegacySerializedRequest( protType, context->getProtoSeqId(), context->getMethodName(), std::move(serializedCompressedRequest).uncompress()) .buffer; SCOPE_EXIT { eb->runInEventBaseThread([req = std::move(req)]() mutable { req = {}; }); }; if (!fromExecuteRequest && !oneway && !req->getShouldStartProcessing()) { return; } folly::ByteRange input_range = buf->coalesce(); auto input_data = const_cast(input_range.data()); auto clientType = context->getHeader()->getClientType(); { PyGILState_STATE state = PyGILState_Ensure(); SCOPE_EXIT { PyGILState_Release(state); }; #if PY_MAJOR_VERSION == 2 auto input = handle<>(PyBuffer_FromMemory(input_data, input_range.size())); #else auto input = handle<>(PyMemoryView_FromMemory( reinterpret_cast(input_data), input_range.size(), PyBUF_READ)); #endif auto cd_ctor = adapter_->attr("CONTEXT_DATA"); object contextData = cd_ctor(); extract(contextData)().copyContextContents(context); auto cb_ctor = adapter_->attr("CALLBACK_WRAPPER"); object callbackWrapper = cb_ctor(); extract(callbackWrapper)().setCallback( [oneway, req = std::move(req), context, eb = eb, contextData, protType](object output) mutable { // Make sure the request is deleted in evb. SCOPE_EXIT { eb->runInEventBaseThread( [req = std::move(req)]() mutable { req = {}; }); }; // Always called from python so no need to grab GIL. try { std::unique_ptr outbuf; if (output.is_none()) { throw std::runtime_error( "Unexpected error in processor method"); } PyObject* output_ptr = output.ptr(); #if PY_MAJOR_VERSION == 2 if (PyString_Check(output_ptr)) { int len = extract(output.attr("__len__")()); if (len == 0) { return; } outbuf = folly::IOBuf::copyBuffer(extract(output), len); } else #endif if (PyBytes_Check(output_ptr)) { int len = PyBytes_Size(output_ptr); if (len == 0) { return; } outbuf = folly::IOBuf::copyBuffer(PyBytes_AsString(output_ptr), len); } else { throw std::runtime_error( "Return from processor " "method is not string or bytes"); } if (!req->isActive()) { return; } CppContextData& cppContextData = extract(contextData); if (!cppContextData.getHeaderEx().empty()) { context->getHeader()->setHeader( kHeaderEx, cppContextData.getHeaderEx()); } if (!cppContextData.getHeaderExWhat().empty()) { context->getHeader()->setHeader( kHeaderExWhat, cppContextData.getHeaderExWhat()); } auto response = LegacySerializedResponse{std::move(outbuf)}; auto [mtype, payload] = std::move(response).extractPayload( req->includeEnvelope(), protType); payload.transform(context->getHeader()->getWriteTransforms()); eb->runInEventBaseThread( [mtype = mtype, req = std::move(req), payload = std::move(payload)]() mutable { if (mtype == MessageType::T_REPLY) { req->sendReply(std::move(payload)); } else if (mtype == MessageType::T_EXCEPTION) { req->sendException(std::move(payload)); } else { LOG(ERROR) << "Invalid type. type=" << uint16_t(mtype); } }); } catch (const std::exception& e) { if (!oneway) { req->sendErrorWrapped( folly::make_exception_wrapper( folly::to( "Failed to read response from Python:", e.what())), "python"); } } }); adapter_->attr("call_processor")( input, makePythonHeaders(context->getHeader()->getHeaders(), context), int(clientType), int(protType), contextData, callbackWrapper); } } bool isOnewayMethod(const std::string& fname) { return onewayMethods_.find(fname) != onewayMethods_.end(); } void getPythonOnewayMethods() { PyGILState_STATE state = PyGILState_Ensure(); SCOPE_EXIT { PyGILState_Release(state); }; object ret = adapter_->attr("oneway_methods")(); if (ret.is_none()) { LOG(ERROR) << "Unexpected error in processor method"; return; } tuple t = extract(ret); for (int i = 0; i < len(t); i++) { onewayMethods_.insert(extract(t[i])); } } std::shared_ptr adapter_; std::unordered_set onewayMethods_; }; class PythonAsyncProcessorFactory : public AsyncProcessorFactory { public: explicit PythonAsyncProcessorFactory(std::shared_ptr adapter) : adapter_(adapter) {} std::unique_ptr getProcessor() override { return std::make_unique(adapter_); } // TODO(T89004867): Call onStartServing() and onStopServing() hooks for // non-C++ thrift servers std::vector getServiceHandlers() override { return {}; } CreateMethodMetadataResult createMethodMetadata() override { WildcardMethodMetadataMap wildcardMap; // python tasks will be run on executor wildcardMap.wildcardMetadata = std::make_shared( MethodMetadata::ExecutorType::ANY); wildcardMap.knownMethods = {}; return wildcardMap; } private: std::shared_ptr adapter_; }; class CppServerWrapper : public ThriftServer { public: CppServerWrapper() { ThriftServer::metadata().wrapper = "CppServerWrapper-py"; } void setAdapter(object adapter) { // We use a shared_ptr to manage the adapter so the processor // factory handing won't ever try to manipulate python reference // counts without the GIL. setInterface(std::make_unique( std::make_shared(adapter))); } // peer to setObserver, but since we want a different argument, avoid // shadowing in our parent class. void setObserverFromPython(object observer) { setObserver(std::make_shared(observer)); } object getAddress() { return makePythonAddress(ThriftServer::getAddress()); } void loop() { PyThreadState* save_state = PyEval_SaveThread(); SCOPE_EXIT { PyEval_RestoreThread(save_state); }; // Thrift main loop. This will run indefinitely, until stop() is // called. if (auto sslContextObserver = ThriftServer::getSSLConfig()) { // This mirrors what we do in ThriftServer::serve to handle listening for // cert/key changes and reloading SSLContextConfigs. ThriftServer::getSSLCallbackHandle(); } getServeEventBase()->loopForever(); } void setup() { PyThreadState* save_state = PyEval_SaveThread(); SCOPE_EXIT { PyEval_RestoreThread(save_state); }; // This check is only useful for C++-based Thrift servers. ThriftServer::setAllowCheckUnimplementedExtraInterfaces(false); ThriftServer::setup(); } void setCppSSLConfig(object sslConfig) { auto certPath = getStringAttrSafe(sslConfig, "cert_path"); auto keyPath = getStringAttrSafe(sslConfig, "key_path"); if (certPath.empty() ^ keyPath.empty()) { PyErr_SetString( PyExc_ValueError, "certPath and keyPath must both be populated"); throw_error_already_set(); return; } auto cfg = std::make_shared(); cfg->clientCAFiles = std::vector{ getStringAttrSafe(sslConfig, "client_ca_path")}; if (!certPath.empty()) { auto keyPwPath = getStringAttrSafe(sslConfig, "key_pw_path"); cfg->setCertificate(certPath, keyPath, keyPwPath); } cfg->clientVerification = extract(sslConfig.attr("verify")); auto eccCurve = getStringAttrSafe(sslConfig, "ecc_curve_name"); if (!eccCurve.empty()) { cfg->eccCurveName = eccCurve; } object sessionContext = sslConfig.attr("session_context"); if (!sessionContext.is_none()) { cfg->sessionContext = extract(str(sessionContext)); } object sslVersionAttr = sslConfig.attr("ssl_version"); if (!sslVersionAttr.is_none()) { cfg->sslVersion = extract(sslConfig.attr("ssl_version")); } ThriftServer::setSSLConfig(folly::observer::makeObserver( [cfg, nextProtocolsObserver = ThriftServer::defaultNextProtocols()] { auto cfgWithNextProtocols = *cfg; cfgWithNextProtocols.setNextProtocols(**nextProtocolsObserver); return cfgWithNextProtocols; })); setSSLPolicy(extract(sslConfig.attr("ssl_policy"))); auto ticketFilePath = getStringAttrSafe(sslConfig, "ticket_file_path"); ThriftServer::watchTicketPathForChanges(ticketFilePath); } void setCppFastOpenOptions(object enabledObj, object tfoMaxQueueObj) { bool enabled{extract(enabledObj)}; uint32_t tfoMaxQueue{extract(tfoMaxQueueObj)}; ThriftServer::setFastOpenOptions(enabled, tfoMaxQueue); } void useCppExistingSocket(int socket) { ThriftServer::useExistingSocket(socket); } void setCppSSLCacheOptions(object cacheOptions) { SSLCacheOptions options = { .sslCacheTimeout = std::chrono::seconds( getIntAttr(cacheOptions, "ssl_cache_timeout_seconds")), .maxSSLCacheSize = getIntAttr(cacheOptions, "max_ssl_cache_size"), .sslCacheFlushSize = getIntAttr(cacheOptions, "ssl_cache_flush_size"), .handshakeValidity = std::chrono::seconds(getIntAttr( cacheOptions, "ssl_handshake_validity_seconds")), }; ThriftServer::setSSLCacheOptions(std::move(options)); } object getCppTicketSeeds() { auto seeds = getTicketSeeds(); if (!seeds) { return boost::python::object(); } boost::python::dict result; result["old"] = makePythonList(seeds->oldSeeds); result["current"] = makePythonList(seeds->currentSeeds); result["new"] = makePythonList(seeds->newSeeds); return std::move(result); } void cleanUp() { // Deadlock avoidance: consider a thrift worker thread is doing // something in C++-land having relinquished the GIL. This thread // acquires the GIL, stops the workers, and waits for the worker // threads to complete. The worker thread now finishes its work, // and tries to reacquire the GIL, but deadlocks with the current // thread, which holds the GIL and is waiting for the worker to // complete. So we do cleanUp() without the GIL, and reacquire it // only once thrift is all cleaned up. PyThreadState* save_state = PyEval_SaveThread(); SCOPE_EXIT { PyEval_RestoreThread(save_state); }; ThriftServer::cleanUp(); } void setIdleTimeout(int timeout) { std::chrono::milliseconds ms(timeout); ThriftServer::setIdleTimeout(ms); } void setTaskExpireTime(int timeout) { std::chrono::milliseconds ms(timeout); ThriftServer::setTaskExpireTime(ms); } void setCppServerEventHandler(object serverEventHandler) { setServerEventHandler( std::make_shared(serverEventHandler)); } void setNewSimpleThreadManager(size_t count, size_t) { if (THRIFT_FLAG(allow_resource_pools_in_cpp_server_wrapper)) { setNumCPUWorkerThreads(count); setThreadManagerType( apache::thrift::ThriftServer::ThreadManagerType::SIMPLE); } else { auto tm = ThreadManager::newSimpleThreadManager(count); auto poolThreadName = getCPUWorkerThreadName(); if (!poolThreadName.empty()) { tm->setNamePrefix(poolThreadName); } tm->threadFactory(std::make_shared()); tm->start(); setThreadManager_deprecated(std::move(tm)); } } void setNewPriorityQueueThreadManager(size_t numThreads) { if (THRIFT_FLAG(allow_resource_pools_in_cpp_server_wrapper)) { setNumCPUWorkerThreads(numThreads); setThreadManagerType( apache::thrift::ThriftServer::ThreadManagerType::PRIORITY_QUEUE); } else { auto tm = ThreadManager::newPriorityQueueThreadManager(numThreads); auto poolThreadName = getCPUWorkerThreadName(); if (!poolThreadName.empty()) { tm->setNamePrefix(poolThreadName); } tm->threadFactory(std::make_shared()); tm->start(); setThreadManager_deprecated(std::move(tm)); } } void setNewPriorityThreadManager( size_t high_important, size_t high, size_t important, size_t normal, size_t best_effort, size_t) { if (THRIFT_FLAG(allow_resource_pools_in_cpp_server_wrapper)) { setThreadManagerType( apache::thrift::ThriftServer::ThreadManagerType::PRIORITY); setThreadManagerPoolSizes( {{high_important, high, important, normal, best_effort}}); } else { auto tm = PriorityThreadManager::newPriorityThreadManager( {{high_important, high, important, normal, best_effort}}); tm->enableCodel(getEnableCodel()); auto poolThreadName = getCPUWorkerThreadName(); if (!poolThreadName.empty()) { tm->setNamePrefix(poolThreadName); } tm->threadFactory(std::make_shared()); tm->start(); setThreadManager_deprecated(std::move(tm)); } } // this adapts from a std::shared_ptr, which boost::python does not (yet) // support, to a boost::shared_ptr, which it has internal support for. // // the magic is in the custom deleter which takes and releases a refcount on // the std::shared_ptr, instead of doing any local deletion. boost::shared_ptr getThreadManagerHelper() { auto ptr = this->getThreadManager_deprecated(); return boost::shared_ptr(ptr.get(), [ptr](void*) {}); } void setWorkersJoinTimeout(int seconds) { ThriftServer::setWorkersJoinTimeout(std::chrono::seconds(seconds)); } void setNumIOWorkerThreads(size_t numIOWorkerThreads) { ThriftServer::setNumIOWorkerThreads(numIOWorkerThreads); } void setListenBacklog(int listenBacklog) { ThriftServer::setListenBacklog(listenBacklog); } void setMaxConnections(uint32_t maxConnections) { ThriftServer::setMaxConnections(maxConnections); } void setNumCPUWorkerThreads(size_t numCPUWorkerThreads) { ThriftServer::setNumCPUWorkerThreads(numCPUWorkerThreads); } void setWrapperName(object wrapperName) { ThriftServer::metadata().wrapper = extract(str(wrapperName)); } void setLanguageFrameworkName(object languageFrameworkName) { ThriftServer::metadata().languageFramework = extract(str(languageFrameworkName)); } void setUnixSocketPath(const char* path) { setAddress(folly::SocketAddress::makeFromPath(path)); } }; BOOST_PYTHON_MODULE(CppServerWrapper) { PyEval_InitThreads(); class_("CppContextData") .def("getClientIdentity", &CppContextData::getClientIdentity) .def("getPeerAddress", &CppContextData::getPeerAddress) .def("getLocalAddress", &CppContextData::getLocalAddress) .def("setHeaderEx", &CppContextData::setHeaderEx) .def("setHeaderExWhat", &CppContextData::setHeaderExWhat); class_("CallbackWrapper") .def("call", &CallbackWrapper::call); class_("ThriftServer"); class_, boost::noncopyable>( "CppServerWrapper") // methods added or customized for the python implementation .def("setAdapter", &CppServerWrapper::setAdapter) .def( "setAddress", static_cast( &CppServerWrapper::setAddress)) .def("setUnixSocketPath", &CppServerWrapper::setUnixSocketPath) .def("setObserver", &CppServerWrapper::setObserverFromPython) .def("setIdleTimeout", &CppServerWrapper::setIdleTimeout) .def("setTaskExpireTime", &CppServerWrapper::setTaskExpireTime) .def("getAddress", &CppServerWrapper::getAddress) .def("getPort", &CppServerWrapper::getPort) .def("loop", &CppServerWrapper::loop) .def("cleanUp", &CppServerWrapper::cleanUp) .def( "setCppServerEventHandler", &CppServerWrapper::setCppServerEventHandler) .def( "setNewSimpleThreadManager", &CppServerWrapper::setNewSimpleThreadManager, (arg("count"), arg("pendingTaskCountMax"))) .def( "setNewPriorityQueueThreadManager", &CppServerWrapper::setNewPriorityQueueThreadManager, (arg("numThreads"))) .def( "setNewPriorityThreadManager", &CppServerWrapper::setNewPriorityThreadManager, (arg("high_important"), arg("high"), arg("important"), arg("normal"), arg("best_effort"), arg("maxQueueLen") = 0)) .def("setCppSSLConfig", &CppServerWrapper::setCppSSLConfig) .def("setCppSSLCacheOptions", &CppServerWrapper::setCppSSLCacheOptions) .def("setCppFastOpenOptions", &CppServerWrapper::setCppFastOpenOptions) .def("getCppTicketSeeds", &CppServerWrapper::getCppTicketSeeds) .def("setWorkersJoinTimeout", &CppServerWrapper::setWorkersJoinTimeout) .def("useCppExistingSocket", &CppServerWrapper::useCppExistingSocket) // methods directly passed to the C++ impl .def("setup", &CppServerWrapper::setup) .def("setNumCPUWorkerThreads", &CppServerWrapper::setNumCPUWorkerThreads) .def("setNumIOWorkerThreads", &CppServerWrapper::setNumIOWorkerThreads) .def("setListenBacklog", &CppServerWrapper::setListenBacklog) .def("setPort", &CppServerWrapper::setPort) .def("setReusePort", &CppServerWrapper::setReusePort) .def("stop", &CppServerWrapper::stop) .def("setMaxConnections", &CppServerWrapper::setMaxConnections) .def("getMaxConnections", &CppServerWrapper::getMaxConnections) .def("setEnabled", &CppServerWrapper::setEnabled) .def("getLoad", &CppServerWrapper::getLoad) .def("getActiveRequests", &CppServerWrapper::getActiveRequests) .def("getThreadManager", &CppServerWrapper::getThreadManagerHelper) .def("setWrapperName", &CppServerWrapper::setWrapperName) .def( "setLanguageFrameworkName", &CppServerWrapper::setLanguageFrameworkName); class_, boost::noncopyable>( "ThreadManager", no_init) .def("idleWorkerCount", &ThreadManager::idleWorkerCount) .def("workerCount", &ThreadManager::workerCount) .def("pendingTaskCount", &ThreadManager::pendingTaskCount) .def("pendingUpstreamTaskCount", &ThreadManager::pendingUpstreamTaskCount) .def("totalTaskCount", &ThreadManager::totalTaskCount) .def("expiredTaskCount", &ThreadManager::expiredTaskCount) .def("clearPending", &ThreadManager::clearPending); class_("CallTimestamps") .def("getReadEnd", &PythonCallTimestamps::get_readEndUsec) .def("setReadEndNow", &PythonCallTimestamps::set_readEndNow) .def("getProcessBegin", &PythonCallTimestamps::get_processBeginUsec) .def("setProcessBeginNow", &PythonCallTimestamps::set_processBeginNow) .def("getProcessEnd", &PythonCallTimestamps::get_processEndUsec) .def("setProcessEndNow", &PythonCallTimestamps::set_processEndNow) .def("getWriteBegin", &PythonCallTimestamps::get_writeBeginUsec) .def("setWriteBeginNow", &PythonCallTimestamps::set_writeBeginNow) .def("getWriteEnd", &PythonCallTimestamps::get_writeEndUsec) .def("setWriteEndNow", &PythonCallTimestamps::set_writeEndNow); enum_("SSLPolicy") .value("DISABLED", SSLPolicy::DISABLED) .value("PERMITTED", SSLPolicy::PERMITTED) .value("REQUIRED", SSLPolicy::REQUIRED); enum_("VerifyClientCertificate") .value( "IF_PRESENTED", folly::SSLContext::VerifyClientCertificate::IF_PRESENTED) .value( "ALWAYS_VERIFY", folly::SSLContext::VerifyClientCertificate::ALWAYS) .value( "NONE_DO_NOT_REQUEST", folly::SSLContext::VerifyClientCertificate::DO_NOT_REQUEST); enum_("SSLVersion") .value("TLSv1_2", folly::SSLContext::SSLVersion::TLSv1_2); }