debug_log( LOG_DBG, "fetchMinerInfo(): target difficulty: %f (%0.2fM)", difficulty, difficulty/1000000);
if (difficulty > 0.0)
{
mi->summary.targetDifficulty = difficulty;
}
// --------------------------------
// Update global miner info object.
// --------------------------------
updateMinerStats(mi);
} // end of fetchMinerInfo()
DWORD WINAPI minerApiThread( LPVOID lpParam )
{
CGMConfig * _cfg = (CGMConfig *) lpParam;
Miner_Info _minerInfo;
DWORD waitInterval = _cfg->minerPollInterval*1000; // miliseconds
debug_log(LOG_SVR, "minerApiThread(): will poll miner (%s@%d) status every %d seconds", _minerHost, _minerPort, waitInterval/1000);
resetMinerInfoObject(&_minerInfo);
wait(waitInterval);
while (waitForShutdown(1) == 0) // while shutdown event is not set
{
debug_log(LOG_DBG, "minerApiThread(): woke up; checking miner status...");
void WServer::run()
{
if (start()) {
waitForShutdown();
stop();
}
}
void Service::start()
{
try
{
sp_modules_->loadModules();
observers_.notify(&IObserver::onServerPrepared);
if (!isShutdown())
run();
}
catch (exception& e)
{
shutdown_now = true;
try
{
observers_.notify(&IObserver::onServerClosing);
onShutdown();
}
catch (...)
{
}
throw;
}
waitForShutdown();
}
void GroupMessagingService::run()
{
routing_table_ =
sg::Service::instance()->getModulesManager().getModuleInterface<common::RoutingTable>(
"routing");
// stubs
sg::Stubs stubs(getServiceType());
boost::shared_ptr<sg::WorkersPool> login_pool =
getWorkersPoolsManager().registerPool<sg::SingleThreadStrategy>("login");
stubs.registerMethod<methods::MethodOpen>(login_pool);
stubs.registerMethod<methods::MethodClose>(login_pool);
stubs.registerMethod<methods::MethodDropGrp>(login_pool);
stubs.registerMethod<methods::MethodDropMember>(login_pool);
stubs.registerMethod<methods::MethodAddMember>(login_pool);
stubs.registerMethod<methods::MethodSetMemberRoleLevel>();
stubs.registerMethod<methods::MethodGetOnlineMembersCount>(sg::Stubs::MethodAccessAllowAll);
stubs.registerMethod<methods::MethodSendGrpChatMsg>(sg::Stubs::MethodAccessAllowAll);
stubs.registerMethod<methods::MethodAckGrpChatMsg>(sg::Stubs::MethodAccessAllowClient);
stubs.registerMethod<methods::MethodSendGrpSysMsg>(sg::Stubs::MethodAccessAllowOtherDomain);
stubs.registerMethod<methods::MethodAckGrpSysMsg>(sg::Stubs::MethodAccessAllowClient);
getRoutingTable()->startRoutingT<sg::ConnectionHandler>(stubs);
LOG(info, "\n\n====== server start ("
<< getServiceType() << "_" << getServiceNumber() << "@" << getServiceDomain()
<< ") ======\n\n");
waitForShutdown();
}
void Initializer::requestShutdown(int retcode) {
// Stop thrift services/clients/and their thread pools.
kExitCode = retcode;
if (std::this_thread::get_id() != kMainThreadId) {
raise(SIGUSR1);
} else {
// The main thread is requesting a shutdown, meaning in almost every case
// it is NOT waiting for a shutdown.
// Exceptions include: tight request / wait in an exception handler or
// custom signal handling.
Dispatcher::stopServices();
waitForShutdown();
}
}
int test_main( void ) {
if ( ProcessorID() != 0 ) {
_Bg_Sleep_Forever();
}
showPersonality();
if ( ( fwext_getPersonality()->Kernel_Config.TraceConfig & TRACE_Verbose ) != 0 ) {
dumpBeDRAM();
}
waitForShutdown();
Terminate(0);
}
void MessagesStorageService::run()
{
// stubs
sg::Stubs stubs(getServiceType(),
getWorkersPoolsManager().registerPool<sg::UnorderedThreadPoolStrategy>("roam", 8));
sg::Service::instance()->getModulesManager().getModuleInterface<common::RoutingTable>(
"routing")->startRoutingT<sg::ConnectionHandler>(
stubs);
LOG(info, "\n\n====== server start ("
<< getServiceType() << "_" << getServiceNumber() << "@" << getServiceDomain()
<< ") ======\n\n");
waitForShutdown();
}
void SimulatorService::run()
{
// push
auto_ptr<base::net::FilterCreatorStrategyBase> push_ssl_filter;
string push_pem_file = getProperties().getWithDef<string>("push.pem_file", "");
push_ssl_filter.reset(new base::net::SSLFilterCreatorStrategy(push_pem_file));
auto_ptr<base::net::HandlerCreatorStrategyBase> push_handler_creator;
push_handler_creator.reset(new base::net::DefaultHandlerCreatorStrategyT<PushHandler>());
base::net::Acceptor push_acceptor(getCommunicator().reactor(), base::net::OPT_NODELAY);
push_acceptor.open(base::net::SockAddr(getProperties().get<string>("push.address")),
-1,
auto_ptr<base::net::HandlerCreatorStrategyBase>(push_handler_creator.release()),
push_ssl_filter);
// feedback
auto_ptr<base::net::FilterCreatorStrategyBase> fb_ssl_filter;
string fb_pem_file = getProperties().getWithDef<string>("feedback.pem_file", "");
fb_ssl_filter.reset(new base::net::SSLFilterCreatorStrategy(fb_pem_file));
auto_ptr<base::net::HandlerCreatorStrategyBase> fb_handler_creator;
fb_handler_creator.reset(new base::net::DefaultHandlerCreatorStrategyT<FeedbackHandler>());
base::net::Acceptor fb_acceptor(getCommunicator().reactor(), base::net::OPT_NODELAY);
fb_acceptor.open(base::net::SockAddr(getProperties().get<string>("feedback.address")),
-1,
auto_ptr<base::net::HandlerCreatorStrategyBase>(fb_handler_creator.release()),
fb_ssl_filter);
LOG(info, "\n\n====== server start ("
<< getServiceType() << "_" << getServiceNumber() << "@" << getServiceDomain()
<< ") ======\n\n");
waitForShutdown();
}
ExitCode _initAndListen(int listenPort) {
Client::initThread("initandlisten");
_initWireSpec();
auto globalServiceContext = getGlobalServiceContext();
globalServiceContext->setFastClockSource(FastClockSourceFactory::create(Milliseconds(10)));
globalServiceContext->setOpObserver(stdx::make_unique<OpObserver>());
DBDirectClientFactory::get(globalServiceContext)
.registerImplementation([](OperationContext* txn) {
return std::unique_ptr<DBClientBase>(new DBDirectClient(txn));
});
const repl::ReplSettings& replSettings = repl::getGlobalReplicationCoordinator()->getSettings();
{
ProcessId pid = ProcessId::getCurrent();
LogstreamBuilder l = log(LogComponent::kControl);
l << "MongoDB starting : pid=" << pid << " port=" << serverGlobalParams.port
<< " dbpath=" << storageGlobalParams.dbpath;
if (replSettings.isMaster())
l << " master=" << replSettings.isMaster();
if (replSettings.isSlave())
l << " slave=" << (int)replSettings.isSlave();
const bool is32bit = sizeof(int*) == 4;
l << (is32bit ? " 32" : " 64") << "-bit host=" << getHostNameCached() << endl;
}
DEV log(LogComponent::kControl) << "DEBUG build (which is slower)" << endl;
#if defined(_WIN32)
VersionInfoInterface::instance().logTargetMinOS();
#endif
logProcessDetails();
checked_cast<ServiceContextMongoD*>(getGlobalServiceContext())->createLockFile();
transport::TransportLayerLegacy::Options options;
options.port = listenPort;
options.ipList = serverGlobalParams.bind_ip;
auto sep =
stdx::make_unique<ServiceEntryPointMongod>(getGlobalServiceContext()->getTransportLayer());
auto sepPtr = sep.get();
getGlobalServiceContext()->setServiceEntryPoint(std::move(sep));
// Create, start, and attach the TL
auto transportLayer = stdx::make_unique<transport::TransportLayerLegacy>(options, sepPtr);
auto res = transportLayer->setup();
if (!res.isOK()) {
error() << "Failed to set up listener: " << res;
return EXIT_NET_ERROR;
}
std::shared_ptr<DbWebServer> dbWebServer;
if (serverGlobalParams.isHttpInterfaceEnabled) {
dbWebServer.reset(new DbWebServer(serverGlobalParams.bind_ip,
serverGlobalParams.port + 1000,
getGlobalServiceContext(),
new RestAdminAccess()));
if (!dbWebServer->setupSockets()) {
error() << "Failed to set up sockets for HTTP interface during startup.";
return EXIT_NET_ERROR;
}
}
getGlobalServiceContext()->initializeGlobalStorageEngine();
#ifdef MONGO_CONFIG_WIREDTIGER_ENABLED
if (WiredTigerCustomizationHooks::get(getGlobalServiceContext())->restartRequired()) {
exitCleanly(EXIT_CLEAN);
}
#endif
// Warn if we detect configurations for multiple registered storage engines in
// the same configuration file/environment.
if (serverGlobalParams.parsedOpts.hasField("storage")) {
BSONElement storageElement = serverGlobalParams.parsedOpts.getField("storage");
invariant(storageElement.isABSONObj());
BSONObj storageParamsObj = storageElement.Obj();
BSONObjIterator i = storageParamsObj.begin();
while (i.more()) {
BSONElement e = i.next();
// Ignore if field name under "storage" matches current storage engine.
if (storageGlobalParams.engine == e.fieldName()) {
continue;
}
// Warn if field name matches non-active registered storage engine.
if (getGlobalServiceContext()->isRegisteredStorageEngine(e.fieldName())) {
warning() << "Detected configuration for non-active storage engine "
<< e.fieldName() << " when current storage engine is "
<< storageGlobalParams.engine;
}
}
}
if (!getGlobalServiceContext()->getGlobalStorageEngine()->getSnapshotManager()) {
if (moe::startupOptionsParsed.count("replication.enableMajorityReadConcern") &&
moe::startupOptionsParsed["replication.enableMajorityReadConcern"].as<bool>()) {
// Note: we are intentionally only erroring if the user explicitly requested that we
// enable majority read concern. We do not error if the they are implicitly enabled for
// CSRS because a required step in the upgrade procedure can involve an mmapv1 node in
// the CSRS in the REMOVED state. This is handled by the TopologyCoordinator.
invariant(replSettings.isMajorityReadConcernEnabled());
severe() << "Majority read concern requires a storage engine that supports"
<< " snapshots, such as wiredTiger. " << storageGlobalParams.engine
<< " does not support snapshots.";
exitCleanly(EXIT_BADOPTIONS);
}
}
logMongodStartupWarnings(storageGlobalParams, serverGlobalParams);
{
stringstream ss;
ss << endl;
ss << "*********************************************************************" << endl;
ss << " ERROR: dbpath (" << storageGlobalParams.dbpath << ") does not exist." << endl;
ss << " Create this directory or give existing directory in --dbpath." << endl;
ss << " See http://dochub.mongodb.org/core/startingandstoppingmongo" << endl;
ss << "*********************************************************************" << endl;
uassert(10296, ss.str().c_str(), boost::filesystem::exists(storageGlobalParams.dbpath));
}
{
stringstream ss;
ss << "repairpath (" << storageGlobalParams.repairpath << ") does not exist";
uassert(12590, ss.str().c_str(), boost::filesystem::exists(storageGlobalParams.repairpath));
}
// TODO: This should go into a MONGO_INITIALIZER once we have figured out the correct
// dependencies.
if (snmpInit) {
snmpInit();
}
if (!storageGlobalParams.readOnly) {
boost::filesystem::remove_all(storageGlobalParams.dbpath + "/_tmp/");
}
if (mmapv1GlobalOptions.journalOptions & MMAPV1Options::JournalRecoverOnly)
return EXIT_NET_ERROR;
if (mongodGlobalParams.scriptingEnabled) {
ScriptEngine::setup();
}
auto startupOpCtx = getGlobalServiceContext()->makeOperationContext(&cc());
repairDatabasesAndCheckVersion(startupOpCtx.get());
if (storageGlobalParams.upgrade) {
log() << "finished checking dbs";
exitCleanly(EXIT_CLEAN);
}
uassertStatusOK(getGlobalAuthorizationManager()->initialize(startupOpCtx.get()));
/* this is for security on certain platforms (nonce generation) */
srand((unsigned)(curTimeMicros64() ^ startupSrandTimer.micros()));
// The snapshot thread provides historical collection level and lock statistics for use
// by the web interface. Only needed when HTTP is enabled.
if (serverGlobalParams.isHttpInterfaceEnabled) {
statsSnapshotThread.go();
invariant(dbWebServer);
stdx::thread web(stdx::bind(&webServerListenThread, dbWebServer));
web.detach();
}
#ifndef _WIN32
mongo::signalForkSuccess();
#endif
AuthorizationManager* globalAuthzManager = getGlobalAuthorizationManager();
if (globalAuthzManager->shouldValidateAuthSchemaOnStartup()) {
Status status = authindex::verifySystemIndexes(startupOpCtx.get());
if (!status.isOK()) {
log() << redact(status);
exitCleanly(EXIT_NEED_UPGRADE);
}
// SERVER-14090: Verify that auth schema version is schemaVersion26Final.
int foundSchemaVersion;
status =
globalAuthzManager->getAuthorizationVersion(startupOpCtx.get(), &foundSchemaVersion);
if (!status.isOK()) {
log() << "Auth schema version is incompatible: "
<< "User and role management commands require auth data to have "
<< "at least schema version " << AuthorizationManager::schemaVersion26Final
<< " but startup could not verify schema version: " << status;
exitCleanly(EXIT_NEED_UPGRADE);
}
if (foundSchemaVersion < AuthorizationManager::schemaVersion26Final) {
log() << "Auth schema version is incompatible: "
<< "User and role management commands require auth data to have "
<< "at least schema version " << AuthorizationManager::schemaVersion26Final
<< " but found " << foundSchemaVersion << ". In order to upgrade "
<< "the auth schema, first downgrade MongoDB binaries to version "
<< "2.6 and then run the authSchemaUpgrade command.";
exitCleanly(EXIT_NEED_UPGRADE);
}
} else if (globalAuthzManager->isAuthEnabled()) {
error() << "Auth must be disabled when starting without auth schema validation";
exitCleanly(EXIT_BADOPTIONS);
} else {
// If authSchemaValidation is disabled and server is running without auth,
// warn the user and continue startup without authSchema metadata checks.
log() << startupWarningsLog;
log() << "** WARNING: Startup auth schema validation checks are disabled for the "
"database."
<< startupWarningsLog;
log() << "** This mode should only be used to manually repair corrupted auth "
"data."
<< startupWarningsLog;
}
auto shardingInitialized =
uassertStatusOK(ShardingState::get(startupOpCtx.get())
->initializeShardingAwarenessIfNeeded(startupOpCtx.get()));
if (shardingInitialized) {
reloadShardRegistryUntilSuccess(startupOpCtx.get());
}
if (!storageGlobalParams.readOnly) {
logStartup(startupOpCtx.get());
startFTDC();
getDeleter()->startWorkers();
restartInProgressIndexesFromLastShutdown(startupOpCtx.get());
if (serverGlobalParams.clusterRole == ClusterRole::ShardServer) {
// Note: For replica sets, ShardingStateRecovery happens on transition to primary.
if (!repl::getGlobalReplicationCoordinator()->isReplEnabled()) {
uassertStatusOK(ShardingStateRecovery::recover(startupOpCtx.get()));
}
} else if (serverGlobalParams.clusterRole == ClusterRole::ConfigServer) {
uassertStatusOK(
initializeGlobalShardingStateForMongod(startupOpCtx.get(),
ConnectionString::forLocal(),
kDistLockProcessIdForConfigServer));
Balancer::create(startupOpCtx->getServiceContext());
}
repl::getGlobalReplicationCoordinator()->startup(startupOpCtx.get());
const unsigned long long missingRepl =
checkIfReplMissingFromCommandLine(startupOpCtx.get());
if (missingRepl) {
log() << startupWarningsLog;
log() << "** WARNING: mongod started without --replSet yet " << missingRepl
<< " documents are present in local.system.replset" << startupWarningsLog;
log() << "** Restart with --replSet unless you are doing maintenance and "
<< " no other clients are connected." << startupWarningsLog;
log() << "** The TTL collection monitor will not start because of this."
<< startupWarningsLog;
log() << "** ";
log() << " For more info see http://dochub.mongodb.org/core/ttlcollections";
log() << startupWarningsLog;
} else {
startTTLBackgroundJob();
}
if (!replSettings.usingReplSets() && !replSettings.isSlave() &&
storageGlobalParams.engine != "devnull") {
ScopedTransaction transaction(startupOpCtx.get(), MODE_X);
Lock::GlobalWrite lk(startupOpCtx.get()->lockState());
FeatureCompatibilityVersion::setIfCleanStartup(
startupOpCtx.get(), repl::StorageInterface::get(getGlobalServiceContext()));
}
}
startClientCursorMonitor();
PeriodicTask::startRunningPeriodicTasks();
// MessageServer::run will return when exit code closes its socket and we don't need the
// operation context anymore
startupOpCtx.reset();
auto start = getGlobalServiceContext()->addAndStartTransportLayer(std::move(transportLayer));
if (!start.isOK()) {
error() << "Failed to start the listener: " << start.toString();
return EXIT_NET_ERROR;
}
return waitForShutdown();
}
ExitCode _initAndListen(int listenPort) {
Client::initThread("initandlisten");
initWireSpec();
auto serviceContext = getGlobalServiceContext();
serviceContext->setFastClockSource(FastClockSourceFactory::create(Milliseconds(10)));
auto opObserverRegistry = stdx::make_unique<OpObserverRegistry>();
opObserverRegistry->addObserver(stdx::make_unique<OpObserverShardingImpl>());
opObserverRegistry->addObserver(stdx::make_unique<UUIDCatalogObserver>());
if (serverGlobalParams.clusterRole == ClusterRole::ShardServer) {
opObserverRegistry->addObserver(stdx::make_unique<ShardServerOpObserver>());
} else if (serverGlobalParams.clusterRole == ClusterRole::ConfigServer) {
opObserverRegistry->addObserver(stdx::make_unique<ConfigServerOpObserver>());
}
setupFreeMonitoringOpObserver(opObserverRegistry.get());
serviceContext->setOpObserver(std::move(opObserverRegistry));
DBDirectClientFactory::get(serviceContext).registerImplementation([](OperationContext* opCtx) {
return std::unique_ptr<DBClientBase>(new DBDirectClient(opCtx));
});
const repl::ReplSettings& replSettings =
repl::ReplicationCoordinator::get(serviceContext)->getSettings();
{
ProcessId pid = ProcessId::getCurrent();
LogstreamBuilder l = log(LogComponent::kControl);
l << "MongoDB starting : pid=" << pid << " port=" << serverGlobalParams.port
<< " dbpath=" << storageGlobalParams.dbpath;
const bool is32bit = sizeof(int*) == 4;
l << (is32bit ? " 32" : " 64") << "-bit host=" << getHostNameCached() << endl;
}
DEV log(LogComponent::kControl) << "DEBUG build (which is slower)" << endl;
#if defined(_WIN32)
VersionInfoInterface::instance().logTargetMinOS();
#endif
logProcessDetails();
serviceContext->setServiceEntryPoint(
stdx::make_unique<ServiceEntryPointMongod>(serviceContext));
if (!storageGlobalParams.repair) {
auto tl =
transport::TransportLayerManager::createWithConfig(&serverGlobalParams, serviceContext);
auto res = tl->setup();
if (!res.isOK()) {
error() << "Failed to set up listener: " << res;
return EXIT_NET_ERROR;
}
serviceContext->setTransportLayer(std::move(tl));
}
// Set up the periodic runner for background job execution. This is required to be running
// before the storage engine is initialized.
auto runner = makePeriodicRunner(serviceContext);
runner->startup();
serviceContext->setPeriodicRunner(std::move(runner));
initializeStorageEngine(serviceContext, StorageEngineInitFlags::kNone);
#ifdef MONGO_CONFIG_WIREDTIGER_ENABLED
if (EncryptionHooks::get(serviceContext)->restartRequired()) {
exitCleanly(EXIT_CLEAN);
}
#endif
// Warn if we detect configurations for multiple registered storage engines in the same
// configuration file/environment.
if (serverGlobalParams.parsedOpts.hasField("storage")) {
BSONElement storageElement = serverGlobalParams.parsedOpts.getField("storage");
invariant(storageElement.isABSONObj());
for (auto&& e : storageElement.Obj()) {
// Ignore if field name under "storage" matches current storage engine.
if (storageGlobalParams.engine == e.fieldName()) {
continue;
}
// Warn if field name matches non-active registered storage engine.
if (isRegisteredStorageEngine(serviceContext, e.fieldName())) {
warning() << "Detected configuration for non-active storage engine "
<< e.fieldName() << " when current storage engine is "
<< storageGlobalParams.engine;
}
}
}
// Disallow running a storage engine that doesn't support capped collections with --profile
if (!serviceContext->getStorageEngine()->supportsCappedCollections() &&
serverGlobalParams.defaultProfile != 0) {
log() << "Running " << storageGlobalParams.engine << " with profiling is not supported. "
<< "Make sure you are not using --profile.";
exitCleanly(EXIT_BADOPTIONS);
}
// Disallow running WiredTiger with --nojournal in a replica set
if (storageGlobalParams.engine == "wiredTiger" && !storageGlobalParams.dur &&
replSettings.usingReplSets()) {
log() << "Running wiredTiger without journaling in a replica set is not "
<< "supported. Make sure you are not using --nojournal and that "
<< "storage.journal.enabled is not set to 'false'.";
exitCleanly(EXIT_BADOPTIONS);
}
logMongodStartupWarnings(storageGlobalParams, serverGlobalParams, serviceContext);
#ifdef MONGO_CONFIG_SSL
if (sslGlobalParams.sslAllowInvalidCertificates &&
((serverGlobalParams.clusterAuthMode.load() == ServerGlobalParams::ClusterAuthMode_x509) ||
sequenceContains(saslGlobalParams.authenticationMechanisms, "MONGODB-X509"))) {
log() << "** WARNING: While invalid X509 certificates may be used to" << startupWarningsLog;
log() << "** connect to this server, they will not be considered"
<< startupWarningsLog;
log() << "** permissible for authentication." << startupWarningsLog;
log() << startupWarningsLog;
}
#endif
{
std::stringstream ss;
ss << endl;
ss << "*********************************************************************" << endl;
ss << " ERROR: dbpath (" << storageGlobalParams.dbpath << ") does not exist." << endl;
ss << " Create this directory or give existing directory in --dbpath." << endl;
ss << " See http://dochub.mongodb.org/core/startingandstoppingmongo" << endl;
ss << "*********************************************************************" << endl;
uassert(10296, ss.str().c_str(), boost::filesystem::exists(storageGlobalParams.dbpath));
}
initializeSNMP();
if (!storageGlobalParams.readOnly) {
boost::filesystem::remove_all(storageGlobalParams.dbpath + "/_tmp/");
}
if (mongodGlobalParams.scriptingEnabled) {
ScriptEngine::setup();
}
auto startupOpCtx = serviceContext->makeOperationContext(&cc());
bool canCallFCVSetIfCleanStartup =
!storageGlobalParams.readOnly && (storageGlobalParams.engine != "devnull");
if (canCallFCVSetIfCleanStartup && !replSettings.usingReplSets()) {
Lock::GlobalWrite lk(startupOpCtx.get());
FeatureCompatibilityVersion::setIfCleanStartup(startupOpCtx.get(),
repl::StorageInterface::get(serviceContext));
}
auto swNonLocalDatabases = repairDatabasesAndCheckVersion(startupOpCtx.get());
if (!swNonLocalDatabases.isOK()) {
// SERVER-31611 introduced a return value to `repairDatabasesAndCheckVersion`. Previously,
// a failing condition would fassert. SERVER-31611 covers a case where the binary (3.6) is
// refusing to start up because it refuses acknowledgement of FCV 3.2 and requires the
// user to start up with an older binary. Thus shutting down the server must leave the
// datafiles in a state that the older binary can start up. This requires going through a
// clean shutdown.
//
// The invariant is *not* a statement that `repairDatabasesAndCheckVersion` must return
// `MustDowngrade`. Instead, it is meant as a guardrail to protect future developers from
// accidentally buying into this behavior. New errors that are returned from the method
// may or may not want to go through a clean shutdown, and they likely won't want the
// program to return an exit code of `EXIT_NEED_DOWNGRADE`.
severe(LogComponent::kControl) << "** IMPORTANT: "
<< swNonLocalDatabases.getStatus().reason();
invariant(swNonLocalDatabases == ErrorCodes::MustDowngrade);
exitCleanly(EXIT_NEED_DOWNGRADE);
}
// Assert that the in-memory featureCompatibilityVersion parameter has been explicitly set. If
// we are part of a replica set and are started up with no data files, we do not set the
// featureCompatibilityVersion until a primary is chosen. For this case, we expect the in-memory
// featureCompatibilityVersion parameter to still be uninitialized until after startup.
if (canCallFCVSetIfCleanStartup &&
(!replSettings.usingReplSets() || swNonLocalDatabases.getValue())) {
invariant(serverGlobalParams.featureCompatibility.isVersionInitialized());
}
if (storageGlobalParams.upgrade) {
log() << "finished checking dbs";
exitCleanly(EXIT_CLEAN);
}
// Start up health log writer thread.
HealthLog::get(startupOpCtx.get()).startup();
auto const globalAuthzManager = AuthorizationManager::get(serviceContext);
uassertStatusOK(globalAuthzManager->initialize(startupOpCtx.get()));
// This is for security on certain platforms (nonce generation)
srand((unsigned)(curTimeMicros64()) ^ (unsigned(uintptr_t(&startupOpCtx))));
if (globalAuthzManager->shouldValidateAuthSchemaOnStartup()) {
Status status = verifySystemIndexes(startupOpCtx.get());
if (!status.isOK()) {
log() << redact(status);
if (status == ErrorCodes::AuthSchemaIncompatible) {
exitCleanly(EXIT_NEED_UPGRADE);
} else if (status == ErrorCodes::NotMaster) {
// Try creating the indexes if we become master. If we do not become master,
// the master will create the indexes and we will replicate them.
} else {
quickExit(EXIT_FAILURE);
}
}
// SERVER-14090: Verify that auth schema version is schemaVersion26Final.
int foundSchemaVersion;
status =
globalAuthzManager->getAuthorizationVersion(startupOpCtx.get(), &foundSchemaVersion);
if (!status.isOK()) {
log() << "Auth schema version is incompatible: "
<< "User and role management commands require auth data to have "
<< "at least schema version " << AuthorizationManager::schemaVersion26Final
<< " but startup could not verify schema version: " << status;
log() << "To manually repair the 'authSchema' document in the admin.system.version "
"collection, start up with --setParameter "
"startupAuthSchemaValidation=false to disable validation.";
exitCleanly(EXIT_NEED_UPGRADE);
}
if (foundSchemaVersion <= AuthorizationManager::schemaVersion26Final) {
log() << "This server is using MONGODB-CR, an authentication mechanism which "
<< "has been removed from MongoDB 4.0. In order to upgrade the auth schema, "
<< "first downgrade MongoDB binaries to version 3.6 and then run the "
<< "authSchemaUpgrade command. "
<< "See http://dochub.mongodb.org/core/3.0-upgrade-to-scram-sha-1";
exitCleanly(EXIT_NEED_UPGRADE);
}
} else if (globalAuthzManager->isAuthEnabled()) {
error() << "Auth must be disabled when starting without auth schema validation";
exitCleanly(EXIT_BADOPTIONS);
} else {
// If authSchemaValidation is disabled and server is running without auth,
// warn the user and continue startup without authSchema metadata checks.
log() << startupWarningsLog;
log() << "** WARNING: Startup auth schema validation checks are disabled for the "
"database."
<< startupWarningsLog;
log() << "** This mode should only be used to manually repair corrupted auth "
"data."
<< startupWarningsLog;
}
// This function may take the global lock.
auto shardingInitialized = ShardingInitializationMongoD::get(startupOpCtx.get())
->initializeShardingAwarenessIfNeeded(startupOpCtx.get());
if (shardingInitialized) {
waitForShardRegistryReload(startupOpCtx.get()).transitional_ignore();
}
auto storageEngine = serviceContext->getStorageEngine();
invariant(storageEngine);
BackupCursorHooks::initialize(serviceContext, storageEngine);
if (!storageGlobalParams.readOnly) {
if (storageEngine->supportsCappedCollections()) {
logStartup(startupOpCtx.get());
}
startMongoDFTDC();
startFreeMonitoring(serviceContext);
restartInProgressIndexesFromLastShutdown(startupOpCtx.get());
if (serverGlobalParams.clusterRole == ClusterRole::ShardServer) {
// Note: For replica sets, ShardingStateRecovery happens on transition to primary.
if (!repl::ReplicationCoordinator::get(startupOpCtx.get())->isReplEnabled()) {
if (ShardingState::get(startupOpCtx.get())->enabled()) {
uassertStatusOK(ShardingStateRecovery::recover(startupOpCtx.get()));
}
}
} else if (serverGlobalParams.clusterRole == ClusterRole::ConfigServer) {
initializeGlobalShardingStateForMongoD(startupOpCtx.get(),
ConnectionString::forLocal(),
kDistLockProcessIdForConfigServer);
Balancer::create(startupOpCtx->getServiceContext());
ShardingCatalogManager::create(
startupOpCtx->getServiceContext(),
makeShardingTaskExecutor(executor::makeNetworkInterface("AddShard-TaskExecutor")));
Grid::get(startupOpCtx.get())->setShardingInitialized();
} else if (replSettings.usingReplSets()) { // standalone replica set
auto keysCollectionClient = stdx::make_unique<KeysCollectionClientDirect>();
auto keyManager = std::make_shared<KeysCollectionManager>(
KeysCollectionManager::kKeyManagerPurposeString,
std::move(keysCollectionClient),
Seconds(KeysRotationIntervalSec));
keyManager->startMonitoring(startupOpCtx->getServiceContext());
LogicalTimeValidator::set(startupOpCtx->getServiceContext(),
stdx::make_unique<LogicalTimeValidator>(keyManager));
}
repl::ReplicationCoordinator::get(startupOpCtx.get())->startup(startupOpCtx.get());
const unsigned long long missingRepl =
checkIfReplMissingFromCommandLine(startupOpCtx.get());
if (missingRepl) {
log() << startupWarningsLog;
log() << "** WARNING: mongod started without --replSet yet " << missingRepl
<< " documents are present in local.system.replset." << startupWarningsLog;
log() << "** Database contents may appear inconsistent with the oplog and may "
"appear to not contain"
<< startupWarningsLog;
log() << "** writes that were visible when this node was running as part of a "
"replica set."
<< startupWarningsLog;
log() << "** Restart with --replSet unless you are doing maintenance and no "
"other clients are connected."
<< startupWarningsLog;
log() << "** The TTL collection monitor will not start because of this."
<< startupWarningsLog;
log() << "** ";
log() << " For more info see http://dochub.mongodb.org/core/ttlcollections";
log() << startupWarningsLog;
} else {
startTTLBackgroundJob();
}
if (replSettings.usingReplSets() || !internalValidateFeaturesAsMaster) {
serverGlobalParams.validateFeaturesAsMaster.store(false);
}
}
startClientCursorMonitor();
PeriodicTask::startRunningPeriodicTasks();
SessionKiller::set(serviceContext,
std::make_shared<SessionKiller>(serviceContext, killSessionsLocal));
// Start up a background task to periodically check for and kill expired transactions; and a
// background task to periodically check for and decrease cache pressure by decreasing the
// target size setting for the storage engine's window of available snapshots.
//
// Only do this on storage engines supporting snapshot reads, which hold resources we wish to
// release periodically in order to avoid storage cache pressure build up.
if (storageEngine->supportsReadConcernSnapshot()) {
startPeriodicThreadToAbortExpiredTransactions(serviceContext);
startPeriodicThreadToDecreaseSnapshotHistoryCachePressure(serviceContext);
}
// Set up the logical session cache
LogicalSessionCacheServer kind = LogicalSessionCacheServer::kStandalone;
if (serverGlobalParams.clusterRole == ClusterRole::ShardServer) {
kind = LogicalSessionCacheServer::kSharded;
} else if (serverGlobalParams.clusterRole == ClusterRole::ConfigServer) {
kind = LogicalSessionCacheServer::kConfigServer;
} else if (replSettings.usingReplSets()) {
kind = LogicalSessionCacheServer::kReplicaSet;
}
auto sessionCache = makeLogicalSessionCacheD(kind);
LogicalSessionCache::set(serviceContext, std::move(sessionCache));
// MessageServer::run will return when exit code closes its socket and we don't need the
// operation context anymore
startupOpCtx.reset();
auto start = serviceContext->getServiceExecutor()->start();
if (!start.isOK()) {
error() << "Failed to start the service executor: " << start;
return EXIT_NET_ERROR;
}
start = serviceContext->getServiceEntryPoint()->start();
if (!start.isOK()) {
error() << "Failed to start the service entry point: " << start;
return EXIT_NET_ERROR;
}
if (!storageGlobalParams.repair) {
start = serviceContext->getTransportLayer()->start();
if (!start.isOK()) {
error() << "Failed to start the listener: " << start.toString();
return EXIT_NET_ERROR;
}
}
serviceContext->notifyStartupComplete();
#ifndef _WIN32
mongo::signalForkSuccess();
#else
if (ntservice::shouldStartService()) {
ntservice::reportStatus(SERVICE_RUNNING);
log() << "Service running";
}
#endif
if (MONGO_FAIL_POINT(shutdownAtStartup)) {
log() << "starting clean exit via failpoint";
exitCleanly(EXIT_CLEAN);
}
MONGO_IDLE_THREAD_BLOCK;
return waitForShutdown();
}
ExitCode runMongosServer(ServiceContext* serviceContext) {
Client::initThread("mongosMain");
printShardingVersionInfo(false);
initWireSpec();
serviceContext->setServiceEntryPoint(
stdx::make_unique<ServiceEntryPointMongos>(serviceContext));
auto tl =
transport::TransportLayerManager::createWithConfig(&serverGlobalParams, serviceContext);
auto res = tl->setup();
if (!res.isOK()) {
error() << "Failed to set up listener: " << res;
return EXIT_NET_ERROR;
}
serviceContext->setTransportLayer(std::move(tl));
auto unshardedHookList = stdx::make_unique<rpc::EgressMetadataHookList>();
unshardedHookList->addHook(stdx::make_unique<rpc::LogicalTimeMetadataHook>(serviceContext));
unshardedHookList->addHook(
stdx::make_unique<rpc::ShardingEgressMetadataHookForMongos>(serviceContext));
// TODO SERVER-33053: readReplyMetadata is not called on hooks added through
// ShardingConnectionHook with _shardedConnections=false, so this hook will not run for
// connections using globalConnPool.
unshardedHookList->addHook(stdx::make_unique<rpc::CommittedOpTimeMetadataHook>(serviceContext));
// Add sharding hooks to both connection pools - ShardingConnectionHook includes auth hooks
globalConnPool.addHook(new ShardingConnectionHook(false, std::move(unshardedHookList)));
auto shardedHookList = stdx::make_unique<rpc::EgressMetadataHookList>();
shardedHookList->addHook(stdx::make_unique<rpc::LogicalTimeMetadataHook>(serviceContext));
shardedHookList->addHook(
stdx::make_unique<rpc::ShardingEgressMetadataHookForMongos>(serviceContext));
shardedHookList->addHook(stdx::make_unique<rpc::CommittedOpTimeMetadataHook>(serviceContext));
shardConnectionPool.addHook(new ShardingConnectionHook(true, std::move(shardedHookList)));
// Hook up a Listener for changes from the ReplicaSetMonitor
// This will last for the scope of this function. i.e. until shutdown finishes
auto shardingRSCL =
ReplicaSetMonitor::getNotifier().makeListener<ShardingReplicaSetChangeListener>(
serviceContext);
// Mongos connection pools already takes care of authenticating new connections so the
// replica set connection shouldn't need to.
DBClientReplicaSet::setAuthPooledSecondaryConn(false);
if (getHostName().empty()) {
quickExit(EXIT_BADOPTIONS);
}
auto opCtx = cc().makeOperationContext();
auto logicalClock = stdx::make_unique<LogicalClock>(opCtx->getServiceContext());
LogicalClock::set(opCtx->getServiceContext(), std::move(logicalClock));
{
Status status = initializeSharding(opCtx.get());
if (!status.isOK()) {
if (status == ErrorCodes::CallbackCanceled) {
invariant(globalInShutdownDeprecated());
log() << "Shutdown called before mongos finished starting up";
return EXIT_CLEAN;
}
error() << "Error initializing sharding system: " << status;
return EXIT_SHARDING_ERROR;
}
Grid::get(opCtx.get())
->getBalancerConfiguration()
->refreshAndCheck(opCtx.get())
.transitional_ignore();
}
startMongoSFTDC();
Status status = AuthorizationManager::get(serviceContext)->initialize(opCtx.get());
if (!status.isOK()) {
error() << "Initializing authorization data failed: " << status;
return EXIT_SHARDING_ERROR;
}
// Construct the sharding uptime reporter after the startup parameters have been parsed in order
// to ensure that it picks up the server port instead of reporting the default value.
shardingUptimeReporter.emplace();
shardingUptimeReporter->startPeriodicThread();
clusterCursorCleanupJob.go();
UserCacheInvalidator cacheInvalidatorThread(AuthorizationManager::get(serviceContext));
{
cacheInvalidatorThread.initialize(opCtx.get());
cacheInvalidatorThread.go();
}
PeriodicTask::startRunningPeriodicTasks();
// Set up the periodic runner for background job execution
auto runner = makePeriodicRunner(serviceContext);
runner->startup();
serviceContext->setPeriodicRunner(std::move(runner));
SessionKiller::set(serviceContext,
std::make_shared<SessionKiller>(serviceContext, killSessionsRemote));
LogicalSessionCache::set(
serviceContext,
stdx::make_unique<LogicalSessionCacheImpl>(stdx::make_unique<ServiceLiaisonMongos>(),
stdx::make_unique<SessionsCollectionSharded>(),
RouterSessionCatalog::reapSessionsOlderThan));
status = serviceContext->getServiceExecutor()->start();
if (!status.isOK()) {
error() << "Failed to start the service executor: " << redact(status);
return EXIT_NET_ERROR;
}
status = serviceContext->getServiceEntryPoint()->start();
if (!status.isOK()) {
error() << "Failed to start the service entry point: " << redact(status);
return EXIT_NET_ERROR;
}
status = serviceContext->getTransportLayer()->start();
if (!status.isOK()) {
error() << "Failed to start the transport layer: " << redact(status);
return EXIT_NET_ERROR;
}
serviceContext->notifyStartupComplete();
#if !defined(_WIN32)
signalForkSuccess();
#else
if (ntservice::shouldStartService()) {
ntservice::reportStatus(SERVICE_RUNNING);
log() << "Service running";
}
#endif
// Block until shutdown.
MONGO_IDLE_THREAD_BLOCK;
return waitForShutdown();
}
int net_recvHttpLine(int sock, char * line, int maxLineLen, int timeout)
{
WSAOVERLAPPED recvOverlapped;
WSABUF dataBuf;
DWORD recvBytes = 0;
int index = 0;
DWORD flags = 0;
int rc = 0;
int lastError = 0;
time_t start = 0;
time_t end = 0;
char * p = line;
time(&start);
// Make sure the RecvOverlapped struct is zeroed out
SecureZeroMemory((PVOID) &recvOverlapped, sizeof (WSAOVERLAPPED));
SecureZeroMemory((PVOID) &dataBuf, sizeof (WSABUF));
// Create an event handle and setup an overlapped structure.
recvOverlapped.hEvent = WSACreateEvent();
if (recvOverlapped.hEvent == NULL)
{
debug_log(LOG_ERR, "net_recvHttpLine(): WSACreateEvent failed: %d", WSAGetLastError());
closesocket(sock);
return SOCK_IO_ERROR;
}
while (index < maxLineLen)
{
recvBytes = 0;
flags = 0;
dataBuf.len = 1;
dataBuf.buf = p;
wait_for_recv: // submit the request
rc = WSARecv(sock, &dataBuf, 1, &recvBytes, &flags, &recvOverlapped, NULL);
if (rc != 0)
{
if (rc == SOCKET_ERROR)
{
lastError = WSAGetLastError();
if (lastError == WSAEWOULDBLOCK)
{
if (waitForShutdown(WAIT_FOR_SHUTDOWN_INTERVAL))
{
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_WDOG_SHUTDOWN;
}
SleepEx(SLEEP_EX_INTERVAL, TRUE);
goto wait_for_recv;
} else
{
if (lastError != WSA_IO_PENDING)
{
debug_log(LOG_ERR, "net_recvHttpLine(): WSARecv failed with error: %d", lastError);
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_IO_ERROR;
}
}
}
wait_for_io: // Wait for I/O completion
rc = WSAWaitForMultipleEvents(1, &recvOverlapped.hEvent, TRUE, timeout, TRUE);
if (rc == WSA_WAIT_TIMEOUT)
{
debug_log(LOG_ERR, "net_recvHttpLine(): overlapped I/O timeout: %d", timeout);
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_TIMEOUT;
}
if (rc == WSA_WAIT_IO_COMPLETION)
{
if (waitForShutdown(WAIT_FOR_SHUTDOWN_INTERVAL))
{
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_WDOG_SHUTDOWN;
}
SleepEx(SLEEP_EX_INTERVAL, TRUE);
goto wait_for_io;
}
wait_for_ov: // Check the result of the I/O overlapped operation
rc = WSAGetOverlappedResult(sock, &recvOverlapped, &recvBytes, FALSE, &flags);
if (rc == FALSE)
{
lastError = WSAGetLastError();
if (lastError == WSA_IO_INCOMPLETE)
{
if (waitForShutdown(WAIT_FOR_SHUTDOWN_INTERVAL))
{
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_WDOG_SHUTDOWN;
}
SleepEx(SLEEP_EX_INTERVAL, TRUE);
goto wait_for_ov;
}
debug_log(LOG_ERR, "net_recvHttpLine(): overlapped I/O failed with error: %d", lastError);
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_IO_ERROR;
}
// ------------------------
// Reset the signaled event
// ------------------------
rc = WSAResetEvent(recvOverlapped.hEvent);
if (rc == FALSE)
{
debug_log(LOG_ERR, "net_recvHttpLine(): WSAResetEvent failed with error = %d", WSAGetLastError());
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_IO_ERROR;
}
}
// Check what we received...
if (*p == '\n')
{
p += recvBytes;
index += recvBytes;
break;
} else
{
// Continue receiving the line until we get LF, we need to receive those bytes to cler the buffer.
p += recvBytes;
index += recvBytes;
recvBytes = 0;
flags = 0;
dataBuf.len = 1;
dataBuf.buf = p;
}
time(&end);
if (end-start > timeout/1000)
{
debug_log(LOG_SVR, "net_recvHttpLine(): timeout waiting for LF character...");
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_IO_ERROR;
}
} // while (index < maxLineLen)
WSACloseEvent(recvOverlapped.hEvent);
if (index < maxLineLen)
return SOCK_NO_ERROR;
return SOCK_PROTOCOL_ERROR;
} // end of "net_recvHttpLine()"
int net_recvBytes(int sock, char *buf, int bufSize, int * outLen, int timeout)
{
WSAOVERLAPPED recvOverlapped;
WSABUF dataBuf;
DWORD recvBytes = 0;
int index = 0;
DWORD flags = 0;
int rc = 0;
int lastError = 0;
// Make sure the RecvOverlapped struct is zeroed out
SecureZeroMemory((PVOID) & recvOverlapped, sizeof (WSAOVERLAPPED));
SecureZeroMemory((PVOID) & dataBuf, sizeof (WSABUF));
// Create an event handle and setup an overlapped structure.
recvOverlapped.hEvent = WSACreateEvent();
if (recvOverlapped.hEvent == NULL)
{
debug_log(LOG_ERR, "net_recvBytes(): WSACreateEvent failed: %d", WSAGetLastError());
return SOCK_IO_ERROR;
}
dataBuf.len = bufSize-1; // one for ending null
dataBuf.buf = buf;
*buf = '\0';
while (index < bufSize)
{
recvBytes = 0;
flags = 0;
wait_for_recv:
rc = WSARecv(sock, &dataBuf, 1, &recvBytes, &flags, &recvOverlapped, NULL);
if (rc != 0)
{
if (rc == SOCKET_ERROR)
{
lastError = WSAGetLastError();
if (lastError == WSAEWOULDBLOCK)
{
if (waitForShutdown(WAIT_FOR_SHUTDOWN_INTERVAL))
{
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_WDOG_SHUTDOWN;
}
SleepEx(SLEEP_EX_INTERVAL, TRUE);
goto wait_for_recv;
} else
{
if (lastError != WSA_IO_PENDING)
{
debug_log(LOG_ERR, "net_recvBytes(): WSARecv failed with error: %d", lastError);
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_IO_ERROR;
}
}
}
wait_for_io:
rc = WSAWaitForMultipleEvents(1, &recvOverlapped.hEvent, TRUE, timeout, TRUE);
if (rc == WSA_WAIT_TIMEOUT)
{
debug_log(LOG_ERR, "net_recvBytes(): overlapped I/O timeout: %d", timeout);
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_TIMEOUT;
}
if (rc == WSA_WAIT_IO_COMPLETION)
{
if (waitForShutdown(WAIT_FOR_SHUTDOWN_INTERVAL))
{
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_WDOG_SHUTDOWN;
}
SleepEx(SLEEP_EX_INTERVAL, TRUE);
goto wait_for_io;
}
wait_for_ov:
rc = WSAGetOverlappedResult(sock, &recvOverlapped, &recvBytes, FALSE, &flags);
if (rc == FALSE)
{
lastError = WSAGetLastError();
if (lastError == WSA_IO_INCOMPLETE)
{
if (waitForShutdown(WAIT_FOR_SHUTDOWN_INTERVAL))
{
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_WDOG_SHUTDOWN;
}
SleepEx(SLEEP_EX_INTERVAL, TRUE);
goto wait_for_ov;
}
debug_log(LOG_ERR, "net_recvBytes(): overlapped I/O failed with error: %d", lastError);
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_IO_ERROR;
}
// ------------------------
// Reset the signaled event
// ------------------------
rc = WSAResetEvent(recvOverlapped.hEvent);
if (rc == FALSE)
{
debug_log(LOG_ERR, "net_recvBytes(): WSAResetEvent failed with error = %d", WSAGetLastError());
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_IO_ERROR;
}
}
if (recvBytes == 0)
break;
if ((index + (int) recvBytes) > bufSize)
break;
index += recvBytes;
buf[index] = '\0';
if ((bufSize-index) <= 0)
break;
dataBuf.len = bufSize-index;
dataBuf.buf = buf+index;
} // while (index < bufSize)
WSACloseEvent(recvOverlapped.hEvent);
*outLen = index;
return SOCK_NO_ERROR;
} // end of net_recvBytes()
int net_recvSmtpResponse(int sock, int * smtpCode, int timeout)
{
WSAOVERLAPPED recvOverlapped;
WSABUF dataBuf;
DWORD recvBytes = 0;
int index = 0;
DWORD flags = 0;
int rc = 0;
int lastError = 0;
int bytesLeft = SMTP_MAX_TEXT_LINE_LEN-1;
int bufSize = SMTP_MAX_TEXT_LINE_LEN;
char buf[SMTP_MAX_TEXT_LINE_LEN] = {0};
char * p = NULL;
// Make sure the RecvOverlapped struct is zeroed out
SecureZeroMemory((PVOID) &recvOverlapped, sizeof (WSAOVERLAPPED));
SecureZeroMemory((PVOID) &dataBuf, sizeof (WSABUF));
SecureZeroMemory((PVOID) &buf, sizeof (buf));
// Create an event handle and setup an overlapped structure.
recvOverlapped.hEvent = WSACreateEvent();
if (recvOverlapped.hEvent == NULL)
{
debug_log(LOG_ERR, "net_recvSmtpResponse(): WSACreateEvent failed: %d", WSAGetLastError());
closesocket(sock);
return SOCK_IO_ERROR;
}
while (index < bufSize)
{
recvBytes = 0;
flags = 0;
dataBuf.len = 1;
dataBuf.buf = &buf[index];
wait_for_recv: // submit the request
rc = WSARecv(sock, &dataBuf, 1, &recvBytes, &flags, &recvOverlapped, NULL);
if (rc != 0)
{
if (rc == SOCKET_ERROR)
{
lastError = WSAGetLastError();
if (lastError == WSAEWOULDBLOCK)
{
if (waitForShutdown(WAIT_FOR_SHUTDOWN_INTERVAL))
{
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_WDOG_SHUTDOWN;
}
SleepEx(SLEEP_EX_INTERVAL, TRUE);
goto wait_for_recv;
} else
{
if (lastError != WSA_IO_PENDING)
{
debug_log(LOG_ERR, "net_recvSmtpResponse(): WSARecv failed with error: %d", lastError);
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_IO_ERROR;
}
}
}
wait_for_io: // Wait for I/O completion
rc = WSAWaitForMultipleEvents(1, &recvOverlapped.hEvent, TRUE, timeout, TRUE);
if (rc == WSA_WAIT_TIMEOUT)
{
debug_log(LOG_ERR, "net_recvSmtpResponse(): overlapped I/O timeout: %d", timeout);
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_TIMEOUT;
}
if (rc == WSA_WAIT_IO_COMPLETION)
{
if (waitForShutdown(WAIT_FOR_SHUTDOWN_INTERVAL))
{
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_WDOG_SHUTDOWN;
}
SleepEx(SLEEP_EX_INTERVAL, TRUE);
goto wait_for_io;
}
wait_for_ov: // Check the result of the I/O overlapped operation
rc = WSAGetOverlappedResult(sock, &recvOverlapped, &recvBytes, FALSE, &flags);
if (rc == FALSE)
{
lastError = WSAGetLastError();
if (lastError == WSA_IO_INCOMPLETE)
{
if (waitForShutdown(WAIT_FOR_SHUTDOWN_INTERVAL))
{
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_WDOG_SHUTDOWN;
}
SleepEx(SLEEP_EX_INTERVAL, TRUE);
goto wait_for_ov;
}
debug_log(LOG_ERR, "net_recvSmtpResponse(): overlapped I/O failed with error: %d", lastError);
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_IO_ERROR;
}
// ------------------------
// Reset the signaled event
// ------------------------
rc = WSAResetEvent(recvOverlapped.hEvent);
if (rc == FALSE)
{
debug_log(LOG_ERR, "net_recvSmtpResponse(): WSAResetEvent failed with error = %d", WSAGetLastError());
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_IO_ERROR;
}
}
// Check what we received...
if (buf[index] == '\r')
{
index += recvBytes;
recvBytes = 0;
flags = 0;
dataBuf.len = 1;
dataBuf.buf = &buf[index];
// Receive another byte
wait_for_recv2:
rc = WSARecv(sock, &dataBuf, 1, &recvBytes, &flags, &recvOverlapped, NULL);
if (rc != 0)
{
if (rc == SOCKET_ERROR)
{
lastError = WSAGetLastError();
if (lastError == WSAEWOULDBLOCK)
{
if (waitForShutdown(WAIT_FOR_SHUTDOWN_INTERVAL))
{
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_WDOG_SHUTDOWN;
}
SleepEx(SLEEP_EX_INTERVAL, TRUE);
goto wait_for_recv2;
} else
{
if (lastError != WSA_IO_PENDING)
{
debug_log(LOG_ERR, "net_recvSmtpResponse(): WSARecv failed with error: %d", lastError);
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_IO_ERROR;
}
}
}
wait_for_io2:
rc = WSAWaitForMultipleEvents(1, &recvOverlapped.hEvent, TRUE, timeout, TRUE);
if (rc == WSA_WAIT_TIMEOUT)
{
debug_log(LOG_ERR, "net_recvSmtpResponse(): overlapped I/O timeout: %d", timeout);
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_TIMEOUT;
}
if (rc == WSA_WAIT_IO_COMPLETION)
{
if (waitForShutdown(WAIT_FOR_SHUTDOWN_INTERVAL))
{
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_WDOG_SHUTDOWN;
}
SleepEx(SLEEP_EX_INTERVAL, TRUE);
goto wait_for_io2;
}
wait_for_ov2:
rc = WSAGetOverlappedResult(sock, &recvOverlapped, &recvBytes, FALSE, &flags);
if (rc == FALSE)
{
lastError = WSAGetLastError();
if (lastError == WSA_IO_INCOMPLETE)
{
if (waitForShutdown(WAIT_FOR_SHUTDOWN_INTERVAL))
{
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_WDOG_SHUTDOWN;
}
SleepEx(SLEEP_EX_INTERVAL, TRUE);
goto wait_for_ov2;
}
debug_log(LOG_ERR, "net_recvSmtpResponse(): overlapped I/O failed with error: %d", lastError);
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_IO_ERROR;
}
// ------------------------
// Reset the signaled event
// ------------------------
rc = WSAResetEvent(recvOverlapped.hEvent);
if (rc == FALSE)
{
debug_log(LOG_ERR, "net_recvSmtpResponse(): WSAResetEvent failed with error = %d", WSAGetLastError());
closesocket(sock);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_IO_ERROR;
}
}
if ( buf[index] == '\n')
{
// we got to the end of line (CRLF found)
index += recvBytes;
if (buf[3] == '-')
{
net_recvSmtpResponse(sock, smtpCode, timeout); // receive another line in multiline replies
} // endif
break;
}
} else
{
// Continue receiving the line until we get CRLF, we need to receive those bytes to cler the buffer.
index += recvBytes;
recvBytes = 0;
flags = 0;
dataBuf.len = 1;
dataBuf.buf = &buf[index];
}
} // while (index < bufSize)
buf[3] = 0; // get frist three bytes
*smtpCode = atoi(buf);
WSACloseEvent(recvOverlapped.hEvent);
return SOCK_NO_ERROR;
} // end of "net_recvSmtpResponse()"
int net_connectMX(char * domain, SOCKET * outSock)
{
struct in_addr ipAddr;
int retryCount = 0;
unsigned long ip = 0;
fd_set writeFD;
struct timeval tm_out;
SOCKET sock;
struct sockaddr_in serv;
int rc = 0;
*outSock = INVALID_SOCKET;
if (net_reQueryMxRecord(domain, &ipAddr) != SOCK_NO_ERROR)
{
debug_log(LOG_ERR, "net_connectMX(): re-querying of MX for domain: %s failed", domain);
return SOCK_DNS_ERROR;
}
// Create a new socket
sock = socket(AF_INET, SOCK_STREAM, 0);
if (sock == INVALID_SOCKET)
{
debug_log(LOG_ERR, "net_connectMX(): creating socket failed, rc: %d", WSAGetLastError());
return SOCK_IO_ERROR;
}
if (net_setNonBlockingMode(sock) != SOCK_NO_ERROR)
{
debug_log(LOG_ERR, "net_connectMX(): putting socket into non-blocking mode failed");
closesocket(sock);
return SOCK_IO_ERROR;
}
memset(&serv, 0, sizeof(serv));
serv.sin_family = AF_INET;
serv.sin_port = htons(25); // SMTP port
memcpy(&(serv.sin_addr), &ipAddr, sizeof(ipAddr)); // MX ip address
//ip = inet_addr("127.0.0.1");
//memcpy(&(serv.sin_addr), &ip, sizeof(ip));
if (waitForShutdown(1))
{
closesocket(sock);
return SOCK_WDOG_SHUTDOWN;
}
rc = connect(sock, (struct sockaddr *)&serv, sizeof(struct sockaddr));
if (rc == SOCKET_ERROR)
{
rc = WSAGetLastError();
if (rc == WSAEWOULDBLOCK)
{
if (waitForShutdown(1))
{
closesocket(sock);
return SOCK_WDOG_SHUTDOWN;
}
FD_ZERO(&writeFD);
FD_CLR(sock, &writeFD);
FD_SET(sock, &writeFD);
tm_out.tv_sec = SOCK_CONNECT_TIMEOUT;
tm_out.tv_usec = 0;
rc = select(0, 0, &writeFD, 0, &tm_out);
if (rc == 0)
{
debug_log(LOG_SVR, "net_connectMX(): host \'%s\' did not respond in %d seconds", inet_ntoa(serv.sin_addr), SOCK_CONNECT_TIMEOUT);
closesocket(sock);
return SOCK_TIMEOUT;
}
} else
{
debug_log(LOG_SVR, "net_connectMX(): connect() to \'%s\' failed: %d", inet_ntoa(serv.sin_addr), rc);
closesocket(sock);
return SOCK_IO_ERROR;
}
}
debug_log(LOG_INF, "net_connectMX(): successfully connected to: \'%s@25\'", inet_ntoa(serv.sin_addr));
*outSock = sock;
return SOCK_NO_ERROR;
} // end of net_connectMX()
int net_connect(char * host, int port, SOCKET * outSock, int localHost)
{
int retryCount = 0;
fd_set writeFD;
struct timeval tm_out;
SOCKET sock;
struct sockaddr_in serv;
int rc = 0;
struct hostent *ip;
*outSock = INVALID_SOCKET;
ip = (struct hostent *) gethostbyname(host);
if (ip == NULL)
{
debug_log(LOG_ERR, "net_connect(): gethostbyname(%s) failed: %d", host, WSAGetLastError());
return SOCK_DNS_ERROR;
}
// Create a new socket
sock = socket(AF_INET, SOCK_STREAM, 0);
if (sock == INVALID_SOCKET)
{
debug_log(LOG_ERR, "net_connect(): creating socket failed, rc: %d", WSAGetLastError());
return SOCK_IO_ERROR;
}
if (net_setNonBlockingMode(sock) != SOCK_NO_ERROR)
{
debug_log(LOG_ERR, "net_connect(): putting socket into non-blocking mode failed");
closesocket(sock);
return SOCK_IO_ERROR;
}
memset(&serv, 0, sizeof(serv));
serv.sin_family = AF_INET;
serv.sin_addr = *((struct in_addr *)ip->h_addr);
serv.sin_port = htons(port);
if (waitForShutdown(1))
{
closesocket(sock);
return SOCK_WDOG_SHUTDOWN;
}
rc = connect(sock, (struct sockaddr *)&serv, sizeof(struct sockaddr));
if (rc == SOCKET_ERROR)
{
rc = WSAGetLastError();
if (rc == WSAEWOULDBLOCK)
{
if (waitForShutdown(1))
{
closesocket(sock);
return SOCK_WDOG_SHUTDOWN;
}
FD_ZERO(&writeFD);
FD_CLR(sock, &writeFD);
FD_SET(sock, &writeFD);
if (localHost)
tm_out.tv_sec = SOCK_LOCAL_CONNECT_TIMEOUT;
else
tm_out.tv_sec = SOCK_CONNECT_TIMEOUT;
tm_out.tv_usec = 0;
rc = select(0, 0, &writeFD, 0, &tm_out);
if (rc == 0)
{
debug_log(LOG_SVR, "net_connect(): host \'%s\' (%s) did not respond in %d seconds", host, inet_ntoa(serv.sin_addr), localHost ? SOCK_LOCAL_CONNECT_TIMEOUT : SOCK_CONNECT_TIMEOUT);
closesocket(sock);
return SOCK_TIMEOUT;
}
} else
{
debug_log(LOG_SVR, "net_connect(): connect() to \'%s\' (%s) failed: %d", host, inet_ntoa(serv.sin_addr), rc);
closesocket(sock);
return SOCK_IO_ERROR;
}
}
if (localHost == 0)
debug_log(LOG_INF, "net_connect(): connected to: \'%s@%d\'", host, port);
*outSock = sock;
return SOCK_NO_ERROR;
} // end of net_connect()