int main(int argc, char *argv[])
{
int sfd = startServer();
serverLoop(sfd);
close(sfd);
return 0;
}
void WiFiManager::startWebConfig() {
DEBUG_PRINT("");
display.print("WiFi connected");
DEBUG_PRINT("WiFi connected");
DEBUG_PRINT(WiFi.localIP());
DEBUG_PRINT(WiFi.softAPIP());
if (!mdns.begin(_apName, WiFi.localIP())) {
DEBUG_PRINT("Error setting up MDNS responder!");
display.print("mDNS error");
while(1) {
delay(1000);
}
}
DEBUG_PRINT("mDNS responder started");
// Start the server
server_s.begin();
display.print("Server started");
DEBUG_PRINT("Server started");
while(serverLoop() == WM_WAIT) {
//looping
}
display.print("All done. Bye.");
DEBUG_PRINT("Setup done");
delay(10000);
ESP.reset();
}
//-------------------------------------------------------------------------------------
void GalactiCombatServer::startServer(long portNo)
{
if(verbose) std::cout << "Entering startServer" << std::endl;
IPaddress ip; //32-bit IPv4 host, 16-bit port
const char *host = NULL;
Uint16 port = (Uint16)portNo;
isServer = true;
if(NetworkUtil::ResolveHost(&ip, NULL, port)==-1) exit(3);
TCPServerSock = NetworkUtil::TCPOpen(&ip);
if(!TCPServerSock) exit(4);
/*
UDPServerSock = NetworkUtil::UDPOpen(0);
if(!UDPServerSock) exit(4);
*/
//set up the game environment
if(verbose) std::cout << "Setting up game...." << std::endl;
mRoot = new Ogre::Root();
chooseSceneManager();
this->createServerMinerals();
this->createServerRoom();
host = SDLNet_ResolveIP(&ip);
if(host == NULL)
host = "N/A";
if(verbose) std::cout << "Host: " << host << std::endl;
if(verbose) std::cout << "Exiting startServer" << std::endl << std::endl;
std::cout<<"Ready!"<<std::endl;
serverLoop();
}
void WiFiManager::startWebConfig() {
DEBUG_PRINT("");
DEBUG_PRINT("WiFi connected");
DEBUG_PRINT(WiFi.localIP());
DEBUG_PRINT(WiFi.softAPIP());
if (!mdns.begin(_apName, WiFi.localIP())) {
DEBUG_PRINT("Error setting up MDNS responder!");
while (1) {
delay(1000);
}
}
DEBUG_PRINT("mDNS responder started");
// Start the server
server.begin();
DEBUG_PRINT("Server started");
while (serverLoop() == WM_WAIT) {
//looping
if(timeout > 0 && start + timeout < millis()) {
//we passed timeout value, release
DEBUG_PRINT("timeout reached");
return;
}
}
DEBUG_PRINT("Setup done");
delay(5000);
ESP.reset();
}
int main(int argc, char* argv[]) {
// setup signal handlers
setHandler(SIGINT, signalHandler, 0);
setHandler(SIGHUP, signalHandler, 1);
//initialize port and counts
serverPort = 2000;
clientCount = 0;
killCount = 0;
// check arg count and scan in arg
if (argc != 2){
fprintf(stderr, "Error: Too few or too many arguments to %s.\n", argv[0]);
cleanup();
exit(0);
}
strncpy(configPath, argv[1], strlen(argv[1]));
// open the log files
serverlog = fopen(getenv("PROCNANNYSERVERINFO"), "w");
logfile = fopen(getenv("PROCNANNYLOGS"), "w");
readFile(); /* read in the config file */
killPrevious("procnanny.server", getpid()); /* kill previous instances of procnanny server */
// server loops forever until it is sent SIGINT
serverLoop();
/* shouldn't get here */
return (EXIT_SUCCESS);
}
int main ()
{
int sfd;
printf("\n\nThe Client List is:");
display_clist();
make_table();
sfd = startServer();
serverLoop(sfd);
return 0;
}
/**
* Opens a connection, exchanges a session key and
* communicates with symmetric encryption using the
* session key
*/
int main(int argc , char *argv[]){
/* Wait for a connection */
int client_sock = openConnection();
/* exchange encryption keys */
unsigned char *session_key = getSessionKey(client_sock);
/* client-server communication */
serverLoop(client_sock, session_key);
return 0;
}
void runServer(const McrouterStandaloneOptions& standaloneOpts,
mcrouter_t& router) {
AsyncMcServer::Options opts;
if (standaloneOpts.listen_sock_fd >= 0) {
opts.existingSocketFd = standaloneOpts.listen_sock_fd;
} else {
opts.ports = standaloneOpts.ports;
opts.sslPorts = standaloneOpts.ssl_ports;
opts.pemCertPath = router.opts.pem_cert_path;
opts.pemKeyPath = router.opts.pem_key_path;
opts.pemCaPath = router.opts.pem_ca_path;
}
opts.numThreads = router.opts.num_proxies;
opts.worker.versionString = MCROUTER_PACKAGE_STRING;
opts.worker.maxInFlight = standaloneOpts.max_client_outstanding_reqs;
opts.worker.sendTimeout = std::chrono::milliseconds{
router.opts.server_timeout_ms};
/* Default to one read per event to help latency-sensitive workloads.
We can make this an option if this needs to be adjusted. */
opts.worker.maxReadsPerEvent = 1;
opts.worker.requestsPerRead = standaloneOpts.requests_per_read;
try {
LOG(INFO) << "Spawning AsyncMcServer";
AsyncMcServer server(opts);
server.spawn(
[&router] (size_t threadId,
folly::EventBase& evb,
AsyncMcServerWorker& worker) {
serverLoop(router, threadId, evb, worker);
}
);
server.installShutdownHandler({SIGINT, SIGTERM});
server.join();
LOG(INFO) << "Shutting down";
} catch (const std::exception& e) {
LOG(ERROR) << e.what();
}
}
int main(int argc, const char * argv[])
{
io_iterator_t serialPortIterator;
char bsdPath[MAXPATHLEN];
if(udpServerInit() != 0) {
consoleNotef("Simulator link input port open failed.\n");
return -1;
}
if(initConsoleInput() != 0) {
consoleNotef("Console input initialization failed.\n");
return -2;
}
Boolean looking = false;
while(1) {
if(!looking) {
consoleNotef("Looking for the serial port...\n");
looking = true;
}
if(findModems(&serialPortIterator) == KERN_SUCCESS) {
if(getModemPath(serialPortIterator, bsdPath, sizeof(bsdPath)) == KERN_SUCCESS) {
if(openSerialPort(bsdPath) != -1) {
serverInit();
consoleNotef("Entering server loop...\n");
serverLoop();
consoleNotef("Server loop exited.\n");
closeSerialPort(serialPort);
looking = false;
} else
consoleNotef("Serial port could not be opened.\n");
}
IOObjectRelease(serialPortIterator);
}
sleep(1);
}
return EX_OK;
}
int main(int argc, char *argv[])
{
parseCommandLine(argc, argv);
logInit("certserv", arg.useSyslog, arg.verbose, arg.logMask);
//logNorm("arg.verbose = %d, arg.log_mask = %d\n", arg.verbose, arg.logMask);
//logNorm("arg.chunks = %s\n", arg.chunks);
if (init() < 0)
dieError("init()\n");
// Skip the slash
if (arg.url[0] == '/')
arg.url++;
logVerb("host = '%s', url = '%s', port = %d\n", arg.host, arg.url, arg.port);
if (arg.isServer)
serverLoop();
else
client();
return 0;
}
bool runServer(const McrouterStandaloneOptions& standaloneOpts,
const McrouterOptions& mcrouterOpts) {
AsyncMcServer::Options opts;
if (standaloneOpts.listen_sock_fd >= 0) {
opts.existingSocketFd = standaloneOpts.listen_sock_fd;
} else if (!standaloneOpts.unix_domain_sock.empty()) {
opts.unixDomainSockPath = standaloneOpts.unix_domain_sock;
} else {
opts.ports = standaloneOpts.ports;
opts.sslPorts = standaloneOpts.ssl_ports;
opts.pemCertPath = mcrouterOpts.pem_cert_path;
opts.pemKeyPath = mcrouterOpts.pem_key_path;
opts.pemCaPath = mcrouterOpts.pem_ca_path;
}
opts.numThreads = mcrouterOpts.num_proxies;
opts.setPerThreadMaxConns(standaloneOpts.max_conns, opts.numThreads);
opts.tcpListenBacklog = standaloneOpts.tcp_listen_backlog;
opts.worker.defaultVersionHandler = false;
opts.worker.maxInFlight = standaloneOpts.max_client_outstanding_reqs;
opts.worker.sendTimeout = std::chrono::milliseconds{
standaloneOpts.client_timeout_ms};
if (!mcrouterOpts.debug_fifo_root.empty()) {
opts.worker.debugFifoPath = getServerDebugFifoFullPath(mcrouterOpts);
}
/* Default to one read per event to help latency-sensitive workloads.
We can make this an option if this needs to be adjusted. */
opts.worker.maxReadsPerEvent = 1;
try {
LOG(INFO) << "Spawning AsyncMcServer";
AsyncMcServer server(opts);
server.installShutdownHandler({SIGINT, SIGTERM});
auto router = McrouterInstance::init(
"standalone",
mcrouterOpts,
server.eventBases());
if (router == nullptr) {
LOG(ERROR) << "CRITICAL: Failed to initialize mcrouter!";
return false;
}
router->addStartupOpts(standaloneOpts.toDict());
if (standaloneOpts.postprocess_logging_route) {
router->setPostprocessCallback(getLogPostprocessFunc<void>());
}
if (standaloneOpts.enable_server_compression &&
!mcrouterOpts.enable_compression) {
initCompression(*router);
}
server.spawn(
[router, &standaloneOpts] (size_t threadId,
folly::EventBase& evb,
AsyncMcServerWorker& worker) {
serverLoop(*router, threadId, evb, worker, standaloneOpts);
},
[router]() {
router->shutdown();
}
);
server.join();
LOG(INFO) << "Shutting down";
McrouterInstance::freeAllMcrouters();
if (!opts.unixDomainSockPath.empty()) {
std::remove(opts.unixDomainSockPath.c_str());
}
} catch (const std::exception& e) {
LOG(ERROR) << e.what();
return false;
}
return true;
}
int
main(int argc, char *argv[])
{
int rc, infinite = 0, count=0;
FDType serverFD;
processArgs(argc, argv);
if (server) {
serverLoop();
fprintf(stderr, "oops server loop terminated\n");
}
if (!host) {
usage();
fprintf(stderr, "sockTestSrv: FAIL: please use -h to specify host\n");
return 1;
}
printf("host = %s\n", host);
if (!port) {
fprintf(stderr, "must specify server port with -p\n");
return 0;
}
printf("port = %d\n", port);
rc = 1;
if (clientAction == CMD) {
serverFD = clientConnect(host, port);
if (serverFD == -1) return 0;
rc = cmdClient(serverFD);
close(serverFD);
} else if (clientAction == ECHO) {
if (repeatCount == 0) { infinite = 1; count = 0; }
while (1) {
if (!infinite && repeatCount==0) {
break;
}
serverFD = clientConnect(host, port);
if (serverFD == -1) return 0;
rc = echoClient(serverFD);
close(serverFD);
if (!infinite) {
repeatCount--;
write(1,".",1);
if (repeatCount) {
doDelay();
}
} else {
count++;
if (count == 1000) { write(1,".",1); count=0; }
doDelay();
}
}
} else {
fprintf(stderr, "unknown client action\n");
rc = 0;
}
return rc;
}
bool runServer(const McrouterStandaloneOptions& standaloneOpts,
const McrouterOptions& mcrouterOpts) {
AsyncMcServer::Options opts;
if (standaloneOpts.listen_sock_fd >= 0) {
opts.existingSocketFd = standaloneOpts.listen_sock_fd;
} else if (!standaloneOpts.unix_domain_sock.empty()) {
opts.unixDomainSockPath = standaloneOpts.unix_domain_sock;
} else {
opts.ports = standaloneOpts.ports;
opts.sslPorts = standaloneOpts.ssl_ports;
opts.pemCertPath = mcrouterOpts.pem_cert_path;
opts.pemKeyPath = mcrouterOpts.pem_key_path;
opts.pemCaPath = mcrouterOpts.pem_ca_path;
}
opts.numThreads = mcrouterOpts.num_proxies;
opts.worker.connLRUopts.maxConns =
(standaloneOpts.max_conns + opts.numThreads - 1) / opts.numThreads;
opts.worker.versionString = MCROUTER_PACKAGE_STRING;
opts.worker.maxInFlight = standaloneOpts.max_client_outstanding_reqs;
opts.worker.sendTimeout = std::chrono::milliseconds{
mcrouterOpts.server_timeout_ms};
/* Default to one read per event to help latency-sensitive workloads.
We can make this an option if this needs to be adjusted. */
opts.worker.maxReadsPerEvent = 1;
opts.worker.requestsPerRead = standaloneOpts.requests_per_read;
try {
LOG(INFO) << "Spawning AsyncMcServer";
AsyncMcServer server(opts);
server.installShutdownHandler({SIGINT, SIGTERM});
auto router = McrouterInstance::init(
"standalone",
mcrouterOpts,
server.eventBases());
if (router == nullptr) {
LOG(ERROR) << "CRITICAL: Failed to initialize mcrouter!";
return false;
}
router->addStartupOpts(standaloneOpts.toDict());
if (standaloneOpts.postprocess_logging_route) {
router->setPostprocessCallback(getLogPostprocessFunc<void>());
}
server.spawn(
[router, &standaloneOpts] (size_t threadId,
folly::EventBase& evb,
AsyncMcServerWorker& worker) {
serverLoop(*router, threadId, evb, worker,
standaloneOpts.retain_source_ip);
}
);
server.join();
LOG(INFO) << "Shutting down";
McrouterInstance::freeAllMcrouters();
if (!opts.unixDomainSockPath.empty()) {
std::remove(opts.unixDomainSockPath.c_str());
}
} catch (const std::exception& e) {
LOG(ERROR) << e.what();
return false;
}
return true;
}