int mod_init(void) {
mp_cache_init(&mod_cache, module_t);
load_modules();
return 0;
}
int
main (int argc,
char *argv [])
{
SifInitRpc (0);
init_scr ();
scr_printf (APP_NAME "-" VERSION "\n");
/* decide whether to load TCP/IP or it is already loaded */
SifExitIopHeap ();
SifLoadFileExit ();
SifExitRpc ();
SifIopReset (NULL /* "rom0:UDNL rom0:EELOADCNF" */, 0);
while (SifIopSync ())
;
SifInitRpc (0);
if (load_modules () == 0)
{
scr_printf ("Ready\n");
}
else
scr_printf ("Failed to load\n");
/* our job is done; IOP would handle the rest */
SleepThread ();
return (0);
}
void
special_mod(const char *spec_mod)
{
int i = 0, j = 0;
char mod_name[LEN_32];
struct module *mod = NULL;
memset(mod_name, 0, LEN_32);
sprintf(mod_name, "mod_%s", spec_mod + 5);
for ( i = 0; i < statis.total_mod_num; i++ )
{
mod = mods[i];
if (!strcmp(mod->name, mod_name)) {
/* set special field */
load_modules();
char *token = strtok(NULL, W_SPACE);
struct mod_info *info = mod->info;
for (j=0; j < mod->n_col; j++) {
char *p = info[j].hdr;
while (*p == ' ') {
p++;
}
if (strstr(token, p)) {
info[j].summary_bit = SPEC_BIT;
mod->spec = 1;
}
}
}
}
}
PyMODINIT_FUNC
initgwy(void)
{
gchar *settings_file;
PyObject *mod, *dict;
if (!reload_libraries())
return;
/* gwybatch.c */
/* This requires a display. */
gtk_init(NULL, NULL);
gwy_widgets_type_init();
gwy_undo_set_enabled(FALSE);
gwy_resource_class_load(g_type_class_peek(GWY_TYPE_GRADIENT));
gwy_resource_class_load(g_type_class_peek(GWY_TYPE_GL_MATERIAL));
gwy_resource_class_load(g_type_class_peek(GWY_TYPE_GRAIN_VALUE));
gwy_resource_class_load(g_type_class_peek(GWY_TYPE_CALIBRATION));
settings_file = gwy_app_settings_get_settings_filename();
gwy_app_settings_load(settings_file, NULL);
g_free(settings_file);
/* This requires a display. */
gwy_stock_register_stock_items();
load_modules();
/* pygwy.c */
init_pygobject();
mod = Py_InitModule("gwy", (PyMethodDef*)pygwy_functions);
dict = PyModule_GetDict(mod);
/* This does "import gtk" so display is required. */
pygwy_register_classes(dict);
pygwy_add_constants(mod, "GWY_");
}
void plugin_factory_collection::load_modules(const filesystem::path& Path, const bool Recursive, const load_proxy_t LoadProxies)
{
m_implementation->m_message_signal.emit(string_cast(boost::format(_("Searching for plugins in %1%")) % Path.native_utf8_string().raw()));
// Create a sorted list of files in this directory ...
std::vector<filesystem::path> files;
for(k3d::filesystem::directory_iterator path(Path); path != k3d::filesystem::directory_iterator(); ++path)
files.push_back(*path);
std::sort(files.begin(), files.end());
// Load modules
for(std::vector<filesystem::path>::const_iterator file = files.begin(); file != files.end(); ++file)
{
if(!filesystem::is_directory(*file))
load_module(*file, LoadProxies);
}
// Optionally descend recursively into subdirectories ...
if(Recursive)
{
for(std::vector<filesystem::path>::const_iterator file = files.begin(); file != files.end(); ++file)
{
if(filesystem::is_directory(*file))
load_modules(*file, Recursive, LoadProxies);
}
}
}
int
main (int argc, char **argv)
{
UniqueApp *app;
GtkWidget *window;
g_thread_init (NULL);
bindtextdomain (GETTEXT_PACKAGE, LOCALEDIR);
bind_textdomain_codeset (GETTEXT_PACKAGE, "UTF-8");
textdomain (GETTEXT_PACKAGE);
gtk_init (&argc, &argv);
/* TODO: use GOption to parse arguments */
app = unique_app_new_with_commands ("com.intel.Bisho", NULL,
"callback", COMMAND_CALLBACK,
NULL);
if (unique_app_is_running (app)) {
UniqueResponse response;
if (argc != 2) {
response = unique_app_send_message (app, UNIQUE_ACTIVATE, NULL);
} else {
UniqueMessageData *msg;
msg = unique_message_data_new ();
unique_message_data_set_uris (msg, argv + 1);
response = unique_app_send_message (app, COMMAND_CALLBACK, msg);
unique_message_data_free (msg);
}
if (response == UNIQUE_RESPONSE_OK)
goto done;
}
load_modules ();
window = bisho_window_new ();
unique_app_watch_window (app, GTK_WINDOW (window));
g_signal_connect (app, "message-received", G_CALLBACK (unique_message_cb), window);
g_signal_connect (window, "delete-event", gtk_main_quit, NULL);
gtk_widget_show (window);
gtk_main ();
done:
g_object_unref (app);
return 0;
}
init_module_fn *load_samba_modules(TALLOC_CTX *mem_ctx, const char *subsystem)
{
char *path = modules_path(mem_ctx, subsystem);
init_module_fn *ret;
ret = load_modules(mem_ctx, path);
talloc_free(path);
return ret;
}
RequestHandler::RequestHandler( const std::string &method ) {
// initialise defaults
_handlers_count = 0;
_handlers = NULL;
// update variables
_req_handler.method = method;
// load modifier modules
load_modules();
}
int main(int argc, char**argv)
{
/* clear the EZTRACE_TRACE environment variable so that all the available modules are listed */
unsetenv("EZTRACE_TRACE");
/* parse the arguments passed to this program */
parse_args (argc, argv);
load_modules(0);
eztrace_convert_list();
return 0;
}
int backend_init(const char *moddir)
{
if (!moddir || !*moddir) {
errno = EINVAL;
return -1;
}
if (backends)
return 0;
backends = g_hash_table_new_full(g_str_hash, g_str_equal,
NULL, (GDestroyNotify)free_backend);
if (!backends) {
errno = ENOMEM;
return -1;
}
return load_modules(moddir);
}
static gboolean
handle_enable_modules (StoragedManager *object,
GDBusMethodInvocation *invocation,
gboolean arg_enable)
{
StoragedLinuxManager *manager = STORAGED_LINUX_MANAGER (object);
if (! arg_enable)
{
/* TODO: implement proper module unloading */
g_dbus_method_invocation_return_error_literal (invocation,
G_IO_ERROR, G_IO_ERROR_INVALID_ARGUMENT,
"Invalid value \"FALSE\"");
return TRUE;
}
if (! storaged_daemon_get_disable_modules (manager->daemon))
load_modules (manager->daemon);
storaged_manager_complete_enable_modules (object, invocation);
return TRUE; /* returning TRUE means that we handled the method invocation */
}
void host_init(char *ifname)
{
struct sockaddr_in *ina;
char buf[1024], tmp_ifname[IFNAMSIZ],
ifnames[(IFNAMSIZ + 1) * MAX_NR_INTERFACES], *iface;
struct ifconf ifc;
struct ifreq ifreq, *ifr;
int i, iw_sock, if_sock = 0;
memset(&this_host, 0, sizeof(struct host_info));
memset(dev_indices, 0, sizeof(unsigned int) * MAX_NR_INTERFACES);
if (!ifname) {
/* No interface was given... search for first wireless. */
iw_sock = socket(PF_INET, SOCK_DGRAM, 0);
ifc.ifc_len = sizeof(buf);
ifc.ifc_buf = buf;
if (ioctl(iw_sock, SIOCGIFCONF, &ifc) < 0) {
fprintf(stderr, "Could not get wireless info\n");
exit(-1);
}
ifr = ifc.ifc_req;
for (i = ifc.ifc_len / sizeof(struct ifreq); i >= 0; i--, ifr++) {
struct iwreq req;
strcpy(req.ifr_name, ifr->ifr_name);
if (ioctl(iw_sock, SIOCGIWNAME, &req) >= 0) {
strcpy(tmp_ifname, ifr->ifr_name);
break;
}
}
/* Did we find a wireless interface? */
if (!strlen(tmp_ifname)) {
fprintf(stderr, "\nCould not find a wireless interface!\n");
fprintf(stderr, "Use -i <interface> to override...\n\n");
exit(-1);
}
strcpy(ifreq.ifr_name, tmp_ifname);
if (ioctl(iw_sock, SIOCGIFINDEX, &ifreq) < 0) {
alog(LOG_ERR, errno, __FUNCTION__,
"Could not get index of %s", tmp_ifname);
close(if_sock);
exit(-1);
}
close(iw_sock);
ifname = tmp_ifname;
alog(LOG_NOTICE, 0, __FUNCTION__,
"Attaching to %s, override with -i <if1,if2,...>.", tmp_ifname);
}
strcpy(ifnames, ifname);
/* Intitialize the local sequence number an rreq_id to zero */
this_host.seqno = 1;
this_host.rreq_id = 0;
/* Zero interfaces enabled so far... */
this_host.nif = 0;
gettimeofday(&this_host.bcast_time, NULL);
/* Find the indices of all interfaces to broadcast on... */
if_sock = socket(AF_INET, SOCK_DGRAM, 0);
iface = strtok(ifname, ",");
/* OK, now lookup interface information, and store it... */
do {
strcpy(ifreq.ifr_name, iface);
if (ioctl(if_sock, SIOCGIFINDEX, &ifreq) < 0) {
alog(LOG_ERR, errno, __FUNCTION__, "Could not get index of %s",
iface);
close(if_sock);
exit(-1);
}
this_host.devs[this_host.nif].ifindex = ifreq.ifr_ifindex;
dev_indices[this_host.nif++] = ifreq.ifr_ifindex;
strcpy(DEV_IFINDEX(ifreq.ifr_ifindex).ifname, iface);
/* Get IP-address of interface... */
ina = get_if_info(iface, SIOCGIFADDR);
if (ina == NULL)
exit(-1);
DEV_IFINDEX(ifreq.ifr_ifindex).ipaddr = ina->sin_addr;
/* Get netmask of interface... */
ina = get_if_info(iface, SIOCGIFNETMASK);
if (ina == NULL)
exit(-1);
DEV_IFINDEX(ifreq.ifr_ifindex).netmask = ina->sin_addr;
ina = get_if_info(iface, SIOCGIFBRDADDR);
if (ina == NULL)
exit(-1);
DEV_IFINDEX(ifreq.ifr_ifindex).broadcast = ina->sin_addr;
DEV_IFINDEX(ifreq.ifr_ifindex).enabled = 1;
if (this_host.nif >= MAX_NR_INTERFACES)
break;
} while ((iface = strtok(NULL, ",")));
close(if_sock);
/* Load kernel modules */
load_modules(ifnames);
/* Enable IP forwarding and set other kernel options... */
if (set_kernel_options() < 0) {
fprintf(stderr, "Could not set kernel options!\n");
exit(-1);
}
}
int main(int argc, char **argv)
{
ZBX_TASK_EX t;
#ifdef _WINDOWS
int ret;
/* Provide, so our process handles errors instead of the system itself. */
/* Attention!!! */
/* The system does not display the critical-error-handler message box. */
/* Instead, the system sends the error to the calling process.*/
SetErrorMode(SEM_FAILCRITICALERRORS);
#endif
#if defined(PS_OVERWRITE_ARGV) || defined(PS_PSTAT_ARGV)
argv = setproctitle_save_env(argc, argv);
#endif
memset(&t, 0, sizeof(t));
t.task = ZBX_TASK_START;
progname = get_program_name(argv[0]);
parse_commandline(argc, argv, &t);
import_symbols();
/* this is needed to set default hostname in zbx_load_config() */
init_metrics();
switch (t.task)
{
case ZBX_TASK_SHOW_USAGE:
usage();
exit(EXIT_FAILURE);
break;
#ifdef _WINDOWS
case ZBX_TASK_INSTALL_SERVICE:
case ZBX_TASK_UNINSTALL_SERVICE:
case ZBX_TASK_START_SERVICE:
case ZBX_TASK_STOP_SERVICE:
zbx_load_config(ZBX_CFG_FILE_REQUIRED);
zbx_free_config();
if (t.flags & ZBX_TASK_FLAG_MULTIPLE_AGENTS)
{
zbx_snprintf(ZABBIX_SERVICE_NAME, sizeof(ZABBIX_SERVICE_NAME), "%s [%s]",
APPLICATION_NAME, CONFIG_HOSTNAME);
zbx_snprintf(ZABBIX_EVENT_SOURCE, sizeof(ZABBIX_EVENT_SOURCE), "%s [%s]",
APPLICATION_NAME, CONFIG_HOSTNAME);
}
ret = zbx_exec_service_task(argv[0], &t);
free_metrics();
exit(ret);
break;
#endif
case ZBX_TASK_TEST_METRIC:
case ZBX_TASK_PRINT_SUPPORTED:
zbx_load_config(ZBX_CFG_FILE_OPTIONAL);
#ifdef _WINDOWS
init_perf_collector(0);
load_perf_counters(CONFIG_PERF_COUNTERS);
#else
zbx_set_common_signal_handlers();
#endif
#ifndef _WINDOWS
if (FAIL == load_modules(CONFIG_LOAD_MODULE_PATH, CONFIG_LOAD_MODULE, CONFIG_TIMEOUT, 0))
{
zabbix_log(LOG_LEVEL_CRIT, "loading modules failed, exiting...");
exit(EXIT_FAILURE);
}
#endif
load_user_parameters(CONFIG_USER_PARAMETERS);
load_aliases(CONFIG_ALIASES);
zbx_free_config();
if (ZBX_TASK_TEST_METRIC == t.task)
test_parameter(TEST_METRIC);
else
test_parameters();
#ifdef _WINDOWS
free_perf_collector(); /* cpu_collector must be freed before perf_collector is freed */
#endif
#ifndef _WINDOWS
unload_modules();
#endif
free_metrics();
alias_list_free();
exit(SUCCEED);
break;
default:
zbx_load_config(ZBX_CFG_FILE_REQUIRED);
break;
}
START_MAIN_ZABBIX_ENTRY(CONFIG_ALLOW_ROOT);
exit(SUCCEED);
}
int MAIN_ZABBIX_ENTRY()
{
zbx_thread_args_t *thread_args;
zbx_sock_t listen_sock;
int i, thread_num = 0;
#ifdef _WINDOWS
DWORD res;
#endif
if (NULL == CONFIG_LOG_FILE || '\0' == *CONFIG_LOG_FILE)
zabbix_open_log(LOG_TYPE_SYSLOG, CONFIG_LOG_LEVEL, NULL);
else
zabbix_open_log(LOG_TYPE_FILE, CONFIG_LOG_LEVEL, CONFIG_LOG_FILE);
zabbix_log(LOG_LEVEL_INFORMATION, "Starting Zabbix Agent [%s]. Zabbix %s (revision %s).",
CONFIG_HOSTNAME, ZABBIX_VERSION, ZABBIX_REVISION);
zabbix_log(LOG_LEVEL_INFORMATION, "using configuration file: %s", CONFIG_FILE);
#ifndef _WINDOWS
if (FAIL == load_modules(CONFIG_LOAD_MODULE_PATH, CONFIG_LOAD_MODULE, CONFIG_TIMEOUT, 1))
{
zabbix_log(LOG_LEVEL_CRIT, "loading modules failed, exiting...");
exit(EXIT_FAILURE);
}
#endif
if (0 != CONFIG_PASSIVE_FORKS)
{
if (FAIL == zbx_tcp_listen(&listen_sock, CONFIG_LISTEN_IP, (unsigned short)CONFIG_LISTEN_PORT))
{
zabbix_log(LOG_LEVEL_CRIT, "listener failed: %s", zbx_tcp_strerror());
exit(1);
}
}
init_collector_data();
#ifdef _WINDOWS
init_perf_collector(1);
load_perf_counters(CONFIG_PERF_COUNTERS);
#endif
load_user_parameters(CONFIG_USER_PARAMETERS);
load_aliases(CONFIG_ALIASES);
zbx_free_config();
/* --- START THREADS ---*/
/* allocate memory for a collector, all listeners and an active check */
threads_num = 1 + CONFIG_PASSIVE_FORKS + CONFIG_ACTIVE_FORKS;
threads = zbx_calloc(threads, threads_num, sizeof(ZBX_THREAD_HANDLE));
/* start the collector thread */
thread_args = (zbx_thread_args_t *)zbx_malloc(NULL, sizeof(zbx_thread_args_t));
thread_args->thread_num = thread_num;
thread_args->thread_num2 = 1;
thread_args->args = NULL;
threads[thread_num++] = zbx_thread_start(collector_thread, thread_args);
/* start listeners */
for (i = 0; i < CONFIG_PASSIVE_FORKS; i++)
{
thread_args = (zbx_thread_args_t *)zbx_malloc(NULL, sizeof(zbx_thread_args_t));
thread_args->thread_num = thread_num;
thread_args->thread_num2 = i + 1;
thread_args->args = &listen_sock;
threads[thread_num++] = zbx_thread_start(listener_thread, thread_args);
}
/* start active check */
for (i = 0; i < CONFIG_ACTIVE_FORKS; i++)
{
thread_args = (zbx_thread_args_t *)zbx_malloc(NULL, sizeof(zbx_thread_args_t));
thread_args->thread_num = thread_num;
thread_args->thread_num2 = i + 1;
thread_args->args = &CONFIG_ACTIVE_ARGS[i];
threads[thread_num++] = zbx_thread_start(active_checks_thread, thread_args);
}
#ifdef _WINDOWS
set_parent_signal_handler(); /* must be called after all threads are created */
/* wait for an exiting thread */
res = WaitForMultipleObjectsEx(threads_num, threads, FALSE, INFINITE, FALSE);
if (ZBX_IS_RUNNING())
{
/* Zabbix agent service should either be stopped by the user in ServiceCtrlHandler() or */
/* crash. If some thread has terminated normally, it means something is terribly wrong. */
zabbix_log(LOG_LEVEL_CRIT, "One thread has terminated unexpectedly (code:%lu). Exiting ...", res);
THIS_SHOULD_NEVER_HAPPEN;
/* notify other threads and allow them to terminate */
ZBX_DO_EXIT();
zbx_sleep(1);
}
else
{
/* wait for the service worker thread to terminate us */
zbx_sleep(3);
THIS_SHOULD_NEVER_HAPPEN;
}
#else
while (-1 == wait(&i)) /* wait for any child to exit */
{
if (EINTR != errno)
{
zabbix_log(LOG_LEVEL_ERR, "failed to wait on child processes: %s", zbx_strerror(errno));
break;
}
}
/* all exiting child processes should be caught by signal handlers */
THIS_SHOULD_NEVER_HAPPEN;
#endif
zbx_on_exit();
return SUCCEED;
}
void host_init(char *ifname) {
static struct local_host_info host_info;
struct sockaddr_in *ina;
char buf[1024];
struct ifconf ifc;
struct ifreq *ifr;
int i, iw_sock;
/* Make sure the global "this_host" pointer points to the info
structure so that the information can be accessed from
outside this function... */
memset(&host_info, '\0', sizeof(struct local_host_info));
this_host = &host_info;
/* Find the first wireless interface */
if(ifname != NULL)
strcpy(host_info.ifname, ifname);
else {
iw_sock= socket(AF_INET, SOCK_DGRAM, 0);
ifc.ifc_len = sizeof(buf);
ifc.ifc_buf = buf;
if(ioctl(iw_sock, SIOCGIFCONF, &ifc) < 0) {
fprintf(stderr, "Could not get wireless info\n");
exit(-1);
}
ifr = ifc.ifc_req;
for(i = ifc.ifc_len / sizeof(struct ifreq); i >= 0; i--, ifr++) {
struct iwreq req;
strcpy(req.ifr_name, ifr->ifr_name);
if (ioctl(iw_sock, SIOCGIWNAME, &req) >= 0) {
strcpy(host_info.ifname, ifr->ifr_name);
break;
}
}
close(iw_sock);
/* Did we find a wireless interface? */
if(host_info.ifname[0] == '\0') {
fprintf(stderr, "Could not find a wireless interface!\n");
fprintf(stderr, "Use -i <interface> to override...\n");
exit(-1);
}
}
/* Load required kernel modules */
load_modules(host_info.ifname);
/* Get IP-address of interface... */
ina = get_if_info(host_info.ifname, SIOCGIFADDR);
if(ina == NULL)
exit(-1);
/* Remember our host IP address... */
host_info.ipaddr = ntohl(ina->sin_addr.s_addr);
/* printf("Address of interface %s is %s\n", host_info.ifname, */
/* ip_to_str(host_info.ipaddr)); */
/* Get netmask of interface... */
ina = get_if_info(host_info.ifname, SIOCGIFNETMASK);
if(ina == NULL)
exit(-1);
/* Remember the netmask */
host_info.netmask = ntohl(ina->sin_addr.s_addr);
/* printf("Netmask of interface %s is %s\n", host_info.ifname, */
/* ip_to_str(host_info.netmask)); */
ina = get_if_info(host_info.ifname, SIOCGIFBRDADDR);
if(ina == NULL)
exit(-1);
host_info.broadcast = ntohl(ina->sin_addr.s_addr);
/* printf("Broadcast address is %s\n", ip_to_str(host_info.broadcast)); */
/* Enable IP forwarding and set other kernel options... */
if(set_kernel_options(host_info.ifname) < 0) {
fprintf(stderr, "Could not set kernel options!\n");
exit(-1);
}
/* Add broadcast route (255.255.255.255) */
k_add_rte(AODV_BROADCAST, 0, 0, 0);
/* Intitialize the local sequence number an flood_id to zero */
host_info.seqno = 0;
host_info.flood_id = 0;
}
/**
* exit function if a signal is received in daemon mode.
*
* Argument: signal number
* Return: None
*/
gboolean nuauth_reload(int signum)
{
struct nuauth_params *newconf = NULL;
gboolean restart;
int retval;
g_message("[+] Reload NuAuth server");
nuauth_install_signals(FALSE);
/* Reload the configuration file */
retval = nuauth_parse_configuration(nuauthconf->configfile);
if (retval != 0) {
log_message(CRITICAL, DEBUG_AREA_MAIN,
"Cannot reload configuration (file '%s')",
nuauthconf->configfile);
return -1;
}
init_nuauthconf(&newconf);
g_message("nuauth module reloading");
/* block threads of pool at start */
block_thread_pools();
/* we have to wait that all threads are blocked */
wait_all_thread_pools();
/* unload modules */
unload_modules();
/* Only duplicate configfile info, if configfile has not been set */
if (! newconf->configfile) {
newconf->configfile = g_strdup(nuauthconf->configfile);
}
/* switch conf before loading modules */
restart = compare_nuauthparams(nuauthconf, newconf);
if (restart == FALSE) {
apply_new_config(newconf);
/* debug is set via command line thus duplicate */
newconf->debug_level = nuauthconf->debug_level;
free_nuauth_params(nuauthconf);
g_free(nuauthconf);
nuauthconf = newconf;
} else {
free_nuauth_params(newconf);
}
/* reload modules with new conf */
load_modules();
/* init period */
nuauthconf->periods = init_periods(nuauthconf);
/* ask cache to reset */
if (nuauthconf->acl_cache) {
cache_reset(nuauthdatas->acl_cache);
}
release_thread_pools();
nuauth_install_signals(TRUE);
force_refresh_crl_file();
g_message("[+] NuAuth server reloaded");
return restart;
}
/*
* 处理主要游戏逻辑的逻辑服务器进程
*/
int main(int argc , char **argv){
sspackage_t sspackage;
char arg_segs[ARG_SEG_COUNT][ARG_CONTENT_LEN]; /*参数内容*/
online_players_t *ponline_players; /*保存在线玩家信息的结构，共享内存*/
runtime_env_t *pruntime_env; /*游戏运行时环境*/
int index;
u64 ticks = 0; /*计时滴答*/
struct sigaction sig_act; /*信号动作*/
int iret;
int icount;
int i;
module_commond_t module_commond;
void *handle = NULL; /*动态加载模块句柄*/
/*检测参数*/
if(argc < 2){
write_log(LOG_ERR , "logic_server:argc < 2 , please input more information worldid.lineid.xxxx , like:1.1.xxxx");
return -1;
}
/*解析参数字符串*/
icount = strsplit(argv[1] , '.' , arg_segs , ARG_SEG_COUNT , ARG_CONTENT_LEN);
if(icount < 2){
write_log(LOG_ERR , "logic_server:illegal argument 1:%s , exit!" , argv[1]);
return -1;
}
world_id = atoi(arg_segs[0]); /*世界ID*/
line_id = atoi(arg_segs[1]); /*线ID*/
if(world_id<=0 || world_id>MAX_WORLD_COUNT || line_id<=0 || line_id>MAX_LINE_COUNT){ /*ID不能小于0或超出最大*/
write_log(LOG_ERR , "logic_server:illegal argument1:%s , exit!" , argv[1]);
return -1;
}
#ifdef DEBUG
printf("world_id:%d , line_id:%d\n" , world_id , line_id);
#endif
connect_server_id = GEN_WORLDID(world_id) | GEN_LINEID(line_id) | FLAG_SERV | GAME_CONNECT_SERVER;
logic_server_id = GEN_WORLDID(world_id) | GEN_LINEID(line_id) | FLAG_SERV | GAME_LOGIC_SERVER;
log_server_id = GEN_WORLDID(world_id) | GEN_LINEID(line_id) | FLAG_SERV | GAME_LOG_SERVER;
/*注册信号*/
memset(&sig_act , 0 , sizeof(sig_act));
sig_act.sa_handler = handle_signal;
sigaction(SIGINT , &sig_act , NULL);
sigaction(SIGUSR1 , &sig_act , NULL);
ctrl_msg = 0;
/***链接BUS*/
iret = open_bus(connect_server_id , logic_server_id);
if(iret < 0){
write_log(LOG_ERR , "logic_server:open bus connect <-> logic failed!");
return -1;
}
/***获得游戏运行时环境*/
pruntime_env = (runtime_env_t *)attach_shm_res(GAME_RT_ENV , world_id , line_id);
if(!pruntime_env){
write_log(LOG_ERR , "logic_server:attach runtime env failed!");
return -1;
}else{
write_log(LOG_INFO , "logic_server:attach runtime env %x success!" , pruntime_env->basic.global_id);
}
//设置相关信息
index = index_last_1bit(GAME_LOGIC_SERVER);
pruntime_env->basic.proc_info[index].global_id = logic_server_id;
pruntime_env->basic.proc_info[index].pid = getpid();
// printf("proc_t:%x vs pid:%d\n" , pruntime_env->basic.proc_info[index].global_id , pruntime_env->basic.proc_info[index].pid);
/***链接在线玩家共享内存*/
ponline_players = (online_players_t *)attach_shm_res(GAME_ONLINE_PLAYERS , world_id , line_id);
if(!ponline_players){
return -1;
}else{
write_log(LOG_INFO , "logic_server:attach online_players %x success!" , ponline_players->global_id);
}
/***加载模块*/
iret = load_modules(MODULE_TYPE_CS , -1 , cs_module_starts , CS_PROTO_MODULE_COUNT);
if(iret < 0)
{
return -1;
}
// cs_module1_start(CS , 1 , NULL);
// cs_module2_start(1 , 1 , NULL);
// cs_module3_start(1 , 1 , NULL);
module_commond.type = MODULE_COMMOND_RELOAD;
module_commond.data.pmodule_dir_path = "../XXMODULE/";
for(i=0; i<CS_PROTO_MODULE_COUNT; i++)
{
cs_module_starts[i](MODULE_TYPE_CS , NULL , &module_commond);
}
/***start success*/
write_log(LOG_INFO , "start logic_server %s success!" , argv[1]);
/***主循环*/
while(1){
ticks++; /*循环一次加一次*/
/***读包*/
do{
iret = get_bus_pkg(logic_server_id , connect_server_id , &sspackage);
if(iret == -1){ /*读包出错*/
write_log(LOG_ERR , "logic server: recv bus failed!");
break;
}
if(iret == -2){ /*BUS为空*/
break;
}
/*BUS有货*/
switch(sspackage.sshead.package_type){
case SS_FROM_CLIENT:
handle_req_client(&sspackage);
break;
default:
break;
}
}while(0);
/***其他的定时处理机制*/
//检测是否存在控制信息
if(ticks % 5 == 0 && ctrl_msg){
handle_ctrl_msg(pruntime_env);
}
} /*end while*/
return 0;
}
/*
* This program should be used to parse the log file generated by FxT
*/
int
main (int argc, char **argv)
{
int ret;
int fd_in;
load_modules(1);
setTraceType (PAJE);
/* parse the arguments passed to this program */
parse_args (argc, argv);
#ifdef GTG_OUT_OF_ORDER
ret = initTrace(output_filename, 0, GTG_FLAG_OUTOFORDER);
#else
ret = initTrace(output_filename, 0, GTG_FLAG_NONE);
#endif
if(ret != TRACE_SUCCESS) {
fprintf(stderr, "fail to initialize GTG\n");
return 1;
}
if(compress)
if(setCompress(9) != TRACE_SUCCESS)
fprintf(stderr, "Fail to enable trace compression\n");
eztrace_initialize_gtg();
__init_modules();
int i;
/* initialize the traces array */
for(i=0;i< NB_TRACES; i++) {
/* open the trace file */
fxt_t fut = fxt_open (get_traces(i)->input_filename);
if (!fut)
{
perror ("fxt_open:");
exit (-1);
}
get_traces(i)->delay = 0;
get_traces(i)->rank = i;
get_traces(i)->id = i;
get_traces(i)->done = 0;
get_traces(i)->skip = 0;
get_traces(i)->line_number = 0;
eztrace_create_containers(i);
/* if several traces are loaded, this means that MPI was used,
* so let's skip all the first events until MPI_Init is detected
*/
if(NB_TRACES > 1) {
get_traces(i)->start = 0;
get_traces(i)->trace_id = NULL;
} else {
CREATE_TRACE_ID_STR(get_traces(i)->trace_id, 0);
get_traces(i)->start = 1;
NB_START= 1;
addContainer (0.00000, get_traces(i)->trace_id, "CT_Process", "C_Prog", get_traces(i)->trace_id, "0");
eztrace_create_ids(get_traces(i)->rank);
}
get_traces(i)->block = fxt_blockev_enter (fut);
ret = fxt_next_ev (get_traces(i)->block, FXT_EV_TYPE_64, (struct fxt_ev *) &get_traces(i)->ev);
if (ret != FXT_EV_OK)
{
fprintf (stderr, "no more block ...\n");
break;
}
get_traces(i)->start_time = get_traces(i)->ev.time;
}
/* todo: 0 or i ? */
set_cur_trace(get_traces(0));
set_cur_ev(&get_traces(i)->ev);
struct eztrace_event_handler* h_info = NULL;
h_info = get_handler_info();
h_info->cur_trace_nb = 0;
h_info->nb_done = 0;
h_info->nb_handled = 0;
sem_init(&h_info->events_processed, 0, 0);
/* create the handler thread and wait until it completes */
create_main_thread();
wake_up_handler_thread();
sem_wait(&h_info->events_processed);
/* finalize the trace and close the file */
endTrace ();
eztrace_convert_finalize();
printf("%d events handled\n", h_info->nb_handled);
return 0;
}
int MAIN_ZABBIX_ENTRY()
{
DB_RESULT result;
DB_ROW row;
pid_t pid;
zbx_sock_t listen_sock;
int i, server_num = 0, server_count = 0;
if (NULL == CONFIG_LOG_FILE || '\0' == *CONFIG_LOG_FILE)
zabbix_open_log(LOG_TYPE_SYSLOG, CONFIG_LOG_LEVEL, NULL);
else
zabbix_open_log(LOG_TYPE_FILE, CONFIG_LOG_LEVEL, CONFIG_LOG_FILE);
#ifdef HAVE_SNMP
# define SNMP_FEATURE_STATUS "YES"
#else
# define SNMP_FEATURE_STATUS " NO"
#endif
#ifdef HAVE_OPENIPMI
# define IPMI_FEATURE_STATUS "YES"
#else
# define IPMI_FEATURE_STATUS " NO"
#endif
#ifdef HAVE_LIBCURL
# define LIBCURL_FEATURE_STATUS "YES"
#else
# define LIBCURL_FEATURE_STATUS " NO"
#endif
#if defined(HAVE_LIBXML2) && defined(HAVE_LIBCURL)
# define VMWARE_FEATURE_STATUS "YES"
#else
# define VMWARE_FEATURE_STATUS " NO"
#endif
#ifdef HAVE_JABBER
# define JABBER_FEATURE_STATUS "YES"
#else
# define JABBER_FEATURE_STATUS " NO"
#endif
#ifdef HAVE_UNIXODBC
# define ODBC_FEATURE_STATUS "YES"
#else
# define ODBC_FEATURE_STATUS " NO"
#endif
#ifdef HAVE_SSH2
# define SSH2_FEATURE_STATUS "YES"
#else
# define SSH2_FEATURE_STATUS " NO"
#endif
#ifdef HAVE_IPV6
# define IPV6_FEATURE_STATUS "YES"
#else
# define IPV6_FEATURE_STATUS " NO"
#endif
zabbix_log(LOG_LEVEL_INFORMATION, "Starting Zabbix Server. Zabbix %s (revision %s).",
ZABBIX_VERSION, ZABBIX_REVISION);
zabbix_log(LOG_LEVEL_INFORMATION, "****** Enabled features ******");
zabbix_log(LOG_LEVEL_INFORMATION, "SNMP monitoring: " SNMP_FEATURE_STATUS);
zabbix_log(LOG_LEVEL_INFORMATION, "IPMI monitoring: " IPMI_FEATURE_STATUS);
zabbix_log(LOG_LEVEL_INFORMATION, "WEB monitoring: " LIBCURL_FEATURE_STATUS);
zabbix_log(LOG_LEVEL_INFORMATION, "VMware monitoring: " VMWARE_FEATURE_STATUS);
zabbix_log(LOG_LEVEL_INFORMATION, "Jabber notifications: " JABBER_FEATURE_STATUS);
zabbix_log(LOG_LEVEL_INFORMATION, "Ez Texting notifications: " LIBCURL_FEATURE_STATUS);
zabbix_log(LOG_LEVEL_INFORMATION, "ODBC: " ODBC_FEATURE_STATUS);
zabbix_log(LOG_LEVEL_INFORMATION, "SSH2 support: " SSH2_FEATURE_STATUS);
zabbix_log(LOG_LEVEL_INFORMATION, "IPv6 support: " IPV6_FEATURE_STATUS);
zabbix_log(LOG_LEVEL_INFORMATION, "******************************");
if (0 != CONFIG_NODEID)
{
zabbix_log(LOG_LEVEL_INFORMATION, "NodeID: %3d", CONFIG_NODEID);
zabbix_log(LOG_LEVEL_INFORMATION, "******************************");
}
zabbix_log(LOG_LEVEL_INFORMATION, "using configuration file: %s", CONFIG_FILE);
if (FAIL == load_modules(CONFIG_LOAD_MODULE_PATH, CONFIG_LOAD_MODULE, CONFIG_TIMEOUT, 1))
{
zabbix_log(LOG_LEVEL_CRIT, "loading modules failed, exiting...");
exit(EXIT_FAILURE);
}
zbx_free_config();
init_database_cache();
init_configuration_cache();
init_selfmon_collector();
/* initialize vmware support */
if (0 != CONFIG_VMWARE_FORKS)
zbx_vmware_init();
/* initialize history value cache */
zbx_vc_init();
zbx_create_itservices_lock();
#ifdef HAVE_SQLITE3
zbx_create_sqlite3_mutex();
#endif
if (SUCCEED != DBcheck_version())
exit(EXIT_FAILURE);
DBconnect(ZBX_DB_CONNECT_NORMAL);
if (0 != CONFIG_NODEID)
{
result = DBselect("select masterid from nodes where nodeid=%d", CONFIG_NODEID);
if (NULL != (row = DBfetch(result)) && SUCCEED != DBis_null(row[0]))
CONFIG_MASTER_NODEID = atoi(row[0]);
DBfree_result(result);
}
DCload_config();
/* make initial configuration sync before worker processes are forked */
DCsync_configuration();
DBclose();
if (ZBX_MUTEX_ERROR == zbx_mutex_create_force(&node_sync_access, ZBX_MUTEX_NODE_SYNC))
{
zbx_error("Unable to create mutex for node syncs");
exit(FAIL);
}
threads_num = CONFIG_CONFSYNCER_FORKS + CONFIG_WATCHDOG_FORKS + CONFIG_POLLER_FORKS
+ CONFIG_UNREACHABLE_POLLER_FORKS + CONFIG_TRAPPER_FORKS + CONFIG_PINGER_FORKS
+ CONFIG_ALERTER_FORKS + CONFIG_HOUSEKEEPER_FORKS + CONFIG_TIMER_FORKS
+ CONFIG_NODEWATCHER_FORKS + CONFIG_HTTPPOLLER_FORKS + CONFIG_DISCOVERER_FORKS
+ CONFIG_HISTSYNCER_FORKS + CONFIG_ESCALATOR_FORKS + CONFIG_IPMIPOLLER_FORKS
+ CONFIG_JAVAPOLLER_FORKS + CONFIG_SNMPTRAPPER_FORKS + CONFIG_PROXYPOLLER_FORKS
+ CONFIG_SELFMON_FORKS + CONFIG_VMWARE_FORKS;
threads = zbx_calloc(threads, threads_num, sizeof(pid_t));
if (0 < CONFIG_TRAPPER_FORKS)
{
if (FAIL == zbx_tcp_listen(&listen_sock, CONFIG_LISTEN_IP, (unsigned short)CONFIG_LISTEN_PORT))
{
zabbix_log(LOG_LEVEL_CRIT, "listener failed: %s", zbx_tcp_strerror());
exit(1);
}
}
for (i = 0; i < threads_num; i++)
{
if (0 == (pid = zbx_child_fork()))
{
server_num = i + 1; /* child processes are numbered starting from 1 */
break;
}
else
threads[i] = pid;
}
if (0 == server_num)
{
zabbix_log(LOG_LEVEL_INFORMATION, "server #0 started [main process]");
while (-1 == wait(&i)) /* wait for any child to exit */
{
if (EINTR != errno)
{
zabbix_log(LOG_LEVEL_ERR, "failed to wait on child processes: %s", zbx_strerror(errno));
break;
}
}
/* all exiting child processes should be caught by signal handlers */
THIS_SHOULD_NEVER_HAPPEN;
zbx_on_exit();
}
else if (server_num <= (server_count += CONFIG_CONFSYNCER_FORKS))
{
/* !!! configuration syncer must be server #1 - child_signal_handler() uses threads[0] !!! */
INIT_SERVER(ZBX_PROCESS_TYPE_CONFSYNCER, CONFIG_CONFSYNCER_FORKS);
main_dbconfig_loop();
}
else if (server_num <= (server_count += CONFIG_WATCHDOG_FORKS))
{
INIT_SERVER(ZBX_PROCESS_TYPE_WATCHDOG, CONFIG_WATCHDOG_FORKS);
main_watchdog_loop();
}
else if (server_num <= (server_count += CONFIG_POLLER_FORKS))
{
#ifdef HAVE_SNMP
init_snmp("zabbix_server");
#endif
INIT_SERVER(ZBX_PROCESS_TYPE_POLLER, CONFIG_POLLER_FORKS);
main_poller_loop(ZBX_POLLER_TYPE_NORMAL);
}
else if (server_num <= (server_count += CONFIG_UNREACHABLE_POLLER_FORKS))
{
#ifdef HAVE_SNMP
init_snmp("zabbix_server");
#endif
INIT_SERVER(ZBX_PROCESS_TYPE_UNREACHABLE, CONFIG_UNREACHABLE_POLLER_FORKS);
main_poller_loop(ZBX_POLLER_TYPE_UNREACHABLE);
}
else if (server_num <= (server_count += CONFIG_TRAPPER_FORKS))
{
INIT_SERVER(ZBX_PROCESS_TYPE_TRAPPER, CONFIG_TRAPPER_FORKS);
main_trapper_loop(&listen_sock);
}
else if (server_num <= (server_count += CONFIG_PINGER_FORKS))
{
INIT_SERVER(ZBX_PROCESS_TYPE_PINGER, CONFIG_PINGER_FORKS);
main_pinger_loop();
}
else if (server_num <= (server_count += CONFIG_ALERTER_FORKS))
{
INIT_SERVER(ZBX_PROCESS_TYPE_ALERTER, CONFIG_ALERTER_FORKS);
main_alerter_loop();
}
else if (server_num <= (server_count += CONFIG_HOUSEKEEPER_FORKS))
{
INIT_SERVER(ZBX_PROCESS_TYPE_HOUSEKEEPER, CONFIG_HOUSEKEEPER_FORKS);
main_housekeeper_loop();
}
else if (server_num <= (server_count += CONFIG_TIMER_FORKS))
{
INIT_SERVER(ZBX_PROCESS_TYPE_TIMER, CONFIG_TIMER_FORKS);
main_timer_loop();
}
else if (server_num <= (server_count += CONFIG_NODEWATCHER_FORKS))
{
INIT_SERVER(ZBX_PROCESS_TYPE_NODEWATCHER, CONFIG_NODEWATCHER_FORKS);
main_nodewatcher_loop();
}
else if (server_num <= (server_count += CONFIG_HTTPPOLLER_FORKS))
{
INIT_SERVER(ZBX_PROCESS_TYPE_HTTPPOLLER, CONFIG_HTTPPOLLER_FORKS);
main_httppoller_loop();
}
else if (server_num <= (server_count += CONFIG_DISCOVERER_FORKS))
{
#ifdef HAVE_SNMP
init_snmp("zabbix_server");
#endif
INIT_SERVER(ZBX_PROCESS_TYPE_DISCOVERER, CONFIG_DISCOVERER_FORKS);
main_discoverer_loop();
}
else if (server_num <= (server_count += CONFIG_HISTSYNCER_FORKS))
{
INIT_SERVER(ZBX_PROCESS_TYPE_HISTSYNCER, CONFIG_HISTSYNCER_FORKS);
main_dbsyncer_loop();
}
else if (server_num <= (server_count += CONFIG_ESCALATOR_FORKS))
{
INIT_SERVER(ZBX_PROCESS_TYPE_ESCALATOR, CONFIG_ESCALATOR_FORKS);
main_escalator_loop();
}
else if (server_num <= (server_count += CONFIG_IPMIPOLLER_FORKS))
{
INIT_SERVER(ZBX_PROCESS_TYPE_IPMIPOLLER, CONFIG_IPMIPOLLER_FORKS);
main_poller_loop(ZBX_POLLER_TYPE_IPMI);
}
else if (server_num <= (server_count += CONFIG_JAVAPOLLER_FORKS))
{
INIT_SERVER(ZBX_PROCESS_TYPE_JAVAPOLLER, CONFIG_JAVAPOLLER_FORKS);
main_poller_loop(ZBX_POLLER_TYPE_JAVA);
}
else if (server_num <= (server_count += CONFIG_SNMPTRAPPER_FORKS))
{
INIT_SERVER(ZBX_PROCESS_TYPE_SNMPTRAPPER, CONFIG_SNMPTRAPPER_FORKS);
main_snmptrapper_loop();
}
else if (server_num <= (server_count += CONFIG_PROXYPOLLER_FORKS))
{
INIT_SERVER(ZBX_PROCESS_TYPE_PROXYPOLLER, CONFIG_PROXYPOLLER_FORKS);
main_proxypoller_loop();
}
else if (server_num <= (server_count += CONFIG_SELFMON_FORKS))
{
INIT_SERVER(ZBX_PROCESS_TYPE_SELFMON, CONFIG_SELFMON_FORKS);
main_selfmon_loop();
}
else if (server_num <= (server_count += CONFIG_VMWARE_FORKS))
{
INIT_SERVER(ZBX_PROCESS_TYPE_VMWARE, CONFIG_VMWARE_FORKS);
main_vmware_loop();
}
return SUCCEED;
}
/**
* \brief Main program function
*
* This functions parse command line options to determine Isaac behaviour
* This progran can be used as a Isaac process or a CLI client
* if -r option is specified.
*
* \param argc Argument counter
* \param argv Array of string arguments passed to the program
*/
int
main(int argc, char *argv[])
{
pid_t pid;
int opt_remote = 0;
char opt;
char * xarg = NULL;
// Parse commandline arguments
while ((opt = getopt(argc, argv, "dhrvx:")) != EOF) {
switch (opt) {
case 'd':
debug++;
break;
case 'r':
opt_remote++;
break;
case 'x':
opt_execute++;
opt_remote++; // This is implicit in 'x'
xarg = strdup(optarg);
break;
case 'v':
version();
exit(EXIT_SUCCESS);
case 'h':
case '?':
usage();
exit(EXIT_SUCCESS);
}
}
// Check if there is an Isaac is already running
if (opt_remote) {
if (remote_tryconnect() == 0) {
if (!opt_execute) {
remote_control(NULL);
return 0;
} else {
remote_control(xarg);
return 0;
}
} else {
fprintf(stderr, "Unable to connect to remote Isaac (does %s exist?)\n", CLI_SOCKET);
exit(1);
}
} else {
// Check Isaac is not already running
if (access(CLI_SOCKET, F_OK) == 0) {
fprintf(stderr, "%s already running on %s. Use '%s -r' to connect\n", argv[0],
CLI_SOCKET, argv[0]);
exit(1);
}
}
// If we are not in debug mode, then fork to background
if (!debug) {
if ((pid = fork()) < 0)
exit(1);
else if (pid > 0)
exit(0);
}
cfg_init(&config);
// Setup signal handlers
(void) signal(SIGINT, quit);
(void) signal(SIGTERM, quit);
(void) signal(SIGPIPE, SIG_IGN);
// Read configuration files
if (cfg_read(&config, CFILE) != 0) {
fprintf(stderr, "Failed to read configuration file %s\n", CFILE);
quit(EXIT_FAILURE);
}
// Initialize logging
if (start_logging(config.logtype, config.logfile, config.logtag, config.loglevel) != 0) {
fprintf(stderr, "Failed to read configuration file %s\n", CFILE);
quit(EXIT_FAILURE);
}
// Load Modules. The contain the server Applications
if (load_modules() != 0) {
quit(EXIT_FAILURE);
}
// Start manager thread
if (start_manager(config.manaddr, config.manport, config.manuser, config.manpass) != 0) {
quit(EXIT_FAILURE);
}
// Start cli service
if (cli_server_start() != 0) {
quit(EXIT_FAILURE);
}
// Start server thread
if (start_server(config.listenaddr, config.listenport) == -1) {
quit(EXIT_FAILURE);
}
// All subsystems Up!
isaac_log(LOG_NONE, "\e[1;37m%s Ready.\e[0m\n", PACKAGE_NAME);
// Wait here until any signal is sent
pause();
// Unreachable code :D
return 0;
}
int
main(int argc, char **argv)
{
parse_config_file(DEFAULT_CONF_FILE_PATH);
load_modules();
statis.cur_time = time(NULL);
conf.print_day = -1;
main_init(argc, argv);
/*
* enter running
*/
switch (conf.running_mode) {
case RUN_LIST:
running_list();
break;
case RUN_CRON:
conf.print_mode = DATA_DETAIL;
running_cron();
break;
#ifdef OLDTSAR
/*for check option*/
case RUN_CHECK:
reload_check_modules();
/* disable module when n_col is zero */
running_check(RUN_CHECK);
break;
/*end*/
#endif
case RUN_CHECK_NEW:
if (reload_modules(conf.output_print_mod)) {
conf.print_mode = DATA_DETAIL;
};
/* disable module when n_col is zero */
disable_col_zero();
running_check(RUN_CHECK_NEW);
break;
case RUN_PRINT:
/* reload module by output_stdio_mod and output_print_mod*/
reload_modules(conf.output_stdio_mod);
reload_modules(conf.output_print_mod);
/* disable module when n_col is zero */
disable_col_zero();
/* set conf.print_nline_interval */
conf.print_nline_interval = conf.print_interval;
running_print();
break;
case RUN_PRINT_LIVE:
/* reload module by output_stdio_mod and output_print_mod*/
reload_modules(conf.output_stdio_mod);
reload_modules(conf.output_print_mod);
/* disable module when n_col is zero */
disable_col_zero();
running_print_live();
break;
default:
break;
}
shut_down();
return 0;
}
void plugin_factory_collection::load_modules(const std::string& Paths, const bool Recursive, const load_proxy_t LoadProxies)
{
const system::paths_t paths = system::decompose_path_list(Paths);
for(system::paths_t::const_iterator path = paths.begin(); path != paths.end(); ++path)
load_modules(*path, Recursive, LoadProxies);
}
int main(int argc, char **argv)
{
char ch;
int task = ZBX_TASK_START;
char *TEST_METRIC = NULL;
zbx_sock_t s_in;
zbx_sock_t s_out;
int ret;
char **value;
AGENT_RESULT result;
progname = get_program_name(argv[0]);
/* parse the command-line */
while ((char)EOF != (ch = (char)zbx_getopt_long(argc, argv, "c:hVpt:", longopts, NULL)))
{
switch (ch)
{
case 'c':
CONFIG_FILE = strdup(zbx_optarg);
break;
case 'h':
help();
exit(EXIT_SUCCESS);
break;
case 'V':
version();
#ifdef _AIX
tl_version();
#endif
exit(EXIT_SUCCESS);
break;
case 'p':
if (task == ZBX_TASK_START)
task = ZBX_TASK_PRINT_SUPPORTED;
break;
case 't':
if (task == ZBX_TASK_START)
{
task = ZBX_TASK_TEST_METRIC;
TEST_METRIC = strdup(zbx_optarg);
}
break;
default:
usage();
exit(EXIT_FAILURE);
break;
}
}
if (NULL == CONFIG_FILE)
CONFIG_FILE = DEFAULT_CONFIG_FILE;
/* load configuration */
if (ZBX_TASK_PRINT_SUPPORTED == task || ZBX_TASK_TEST_METRIC == task)
zbx_load_config(ZBX_CFG_FILE_OPTIONAL);
else
zbx_load_config(ZBX_CFG_FILE_REQUIRED);
/* set defaults */
if (NULL == CONFIG_LOAD_MODULE_PATH)
CONFIG_LOAD_MODULE_PATH = zbx_strdup(CONFIG_LOAD_MODULE_PATH, LIBDIR "/modules");
zbx_set_common_signal_handlers();
/* metrics should be initialized before loading user parameters */
init_metrics();
/* loadable modules */
if (FAIL == load_modules(CONFIG_LOAD_MODULE_PATH, CONFIG_LOAD_MODULE, CONFIG_TIMEOUT, 0))
{
zabbix_log(LOG_LEVEL_CRIT, "loading modules failed, exiting...");
exit(EXIT_FAILURE);
}
/* user parameters */
load_user_parameters(CONFIG_USER_PARAMETERS);
/* aliases */
load_aliases(CONFIG_ALIASES);
zbx_free_config();
/* do not create debug files */
zabbix_open_log(LOG_TYPE_SYSLOG, LOG_LEVEL_EMPTY, NULL);
switch (task)
{
case ZBX_TASK_TEST_METRIC:
case ZBX_TASK_PRINT_SUPPORTED:
if (ZBX_TASK_TEST_METRIC == task)
test_parameter(TEST_METRIC);
else
test_parameters();
zbx_on_exit();
break;
default:
/* do nothing */
break;
}
alarm(CONFIG_TIMEOUT);
zbx_tcp_init(&s_in, (ZBX_SOCKET)fileno(stdin));
zbx_tcp_init(&s_out, (ZBX_SOCKET)fileno(stdout));
if (SUCCEED == (ret = zbx_tcp_check_security(&s_in, CONFIG_HOSTS_ALLOWED, 0)))
{
if (SUCCEED == (ret = zbx_tcp_recv(&s_in)))
{
zbx_rtrim(s_in.buffer, "\r\n");
zabbix_log(LOG_LEVEL_DEBUG, "requested [%s]", s_in.buffer);
init_result(&result);
process(s_in.buffer, 0, &result);
if (NULL == (value = GET_TEXT_RESULT(&result)))
value = GET_MSG_RESULT(&result);
if (NULL != value)
{
zabbix_log(LOG_LEVEL_DEBUG, "sending back [%s]", *value);
ret = zbx_tcp_send(&s_out, *value);
}
free_result(&result);
}
if (FAIL == ret)
zabbix_log(LOG_LEVEL_DEBUG, "processing error: %s", zbx_tcp_strerror());
}
fflush(stdout);
alarm(0);
zbx_on_exit();
return SUCCEED;
}
static void* run_thread(void* arg) {
mthread* thread = (mthread*) arg;
PerlInterpreter* my_perl = construct_perl();
const message *to_run, *modules, *message;
SV *call, *status;
perl_mutex* shutdown_mutex;
thread->interp = my_perl;
#ifndef WIN32
S_set_sigmask(&thread->initial_sigmask);
#endif
PERL_SET_CONTEXT(my_perl);
store_self(my_perl, thread);
{
dSP;
modules = queue_dequeue(thread->queue, NULL);
load_modules(my_perl, modules);
to_run = queue_dequeue(thread->queue, NULL);
ENTER;
SAVETMPS;
call = SvRV(message_load_value(to_run));
PUSHMARK(SP);
mXPUSHs(newSVpvn("exit", 4));
status = newSVpvn("normal", 6);
mXPUSHs(status);
mXPUSHs(newSViv(thread->id));
ENTER;
PUSHMARK(SP);
PUTBACK;
call_sv(call, G_SCALAR|G_EVAL);
SPAGAIN;
if (SvTRUE(ERRSV)) {
sv_setpvn(status, "error", 5);
warn("Thread %"UVuf" got error %s\n", thread->id, SvPV_nolen(ERRSV));
PUSHs(ERRSV);
}
message_from_stack_pushed(message);
LEAVE;
send_listeners(thread, message);
destroy_message(message);
FREETMPS;
LEAVE;
}
shutdown_mutex = get_shutdown_mutex();
MUTEX_LOCK(shutdown_mutex);
perl_destruct(my_perl);
MUTEX_UNLOCK(shutdown_mutex);
mthread_destroy(thread);
PerlMemShared_free(thread);
perl_free(my_perl);
return NULL;
}
void entry(struct Multiboot_Info_dec * old_mbinfo)
{
// This function is entered into by the kernel header
// which sets up some basic tables for use and passes on
// the multiboot info structure
struct Multiboot_Info_dec mbinfo;
#ifdef DEBUG
U8 * screen = (U8 *)0xB8000;
U16 i;
// Clear the screen so debug messages are more visible
for (i = 0; i < 160; i+=2)
{
screen[i] = ' ';
screen[i+1] = 0x17;
}
for (i = 160; i < 7840; i+=2)
{
screen[i] = ' ';
screen[i+1] = 0x07;
}
dprint("\t\t\tThe Poseidon Project Kernel.\n\n");
dprint("The Poseidon Project (c) Copyright 1998, 1999 John Barker\n");
dprint("All rights reserved. 32 bit message based real time operating system.\n\n");
#endif
// Copy the old table to a local one for safe keeping
// because once memory is initialized the old one may be wiped
memcpy(&mbinfo,old_mbinfo,sizeof(struct Multiboot_Info_dec));
// Set up the exception traps
init_traps();
// Allocate the irq routines
init_irqs();
// Initialize memory management so we can use kmalloc and other
// memory based functions
init_mm(&mbinfo);
// Initialize the object manager so we can start using it
init_obj();
// Initialize the module/driver interface so modules can be loaded
init_mdi();
// Set up the clocks and timers
init_time();
// Set up tables and data for the executive
init_executive();
// Initialize IPC and message buffers for all objects
init_ipc();
// Initialize the system calls (system call interface)
init_sci();
// Load all the modules passed to us at boot time, one of these
// should be init or main
load_modules(&mbinfo);
// Start the executive scheduler, will boot the init module
start_executive();
// The idle function - just loop, should be run in user mode
idle();
}
extern "C" int
main(stage2_args *args)
{
TRACE(("boot(): enter\n"));
if (heap_init(args) < B_OK)
panic("Could not initialize heap!\n");
TRACE(("boot(): heap initialized...\n"));
// set debug syslog default
#if KDEBUG_ENABLE_DEBUG_SYSLOG
gKernelArgs.keep_debug_output_buffer = true;
#endif
add_stage2_driver_settings(args);
platform_init_video();
// the main platform dependent initialisation
// has already taken place at this point.
if (vfs_init(args) < B_OK)
panic("Could not initialize VFS!\n");
dprintf("Welcome to the Haiku boot loader!\n");
bool mountedAllVolumes = false;
Directory *volume = get_boot_file_system(args);
if (volume == NULL || (platform_boot_options() & BOOT_OPTION_MENU) != 0) {
if (volume == NULL)
puts("\tno boot path found, scan for all partitions...\n");
if (mount_file_systems(args) < B_OK) {
// That's unfortunate, but we still give the user the possibility
// to insert a CD-ROM or just rescan the available devices
puts("Could not locate any supported boot devices!\n");
}
// ToDo: check if there is only one bootable volume!
mountedAllVolumes = true;
if (user_menu(&volume) < B_OK) {
// user requested to quit the loader
goto out;
}
}
if (volume != NULL) {
// we got a volume to boot from!
status_t status;
while ((status = load_kernel(args, volume)) < B_OK) {
// loading the kernel failed, so let the user choose another
// volume to boot from until it works
volume = NULL;
if (!mountedAllVolumes) {
// mount all other file systems, if not already happened
if (mount_file_systems(args) < B_OK)
panic("Could not locate any supported boot devices!\n");
mountedAllVolumes = true;
}
if (user_menu(&volume) < B_OK || volume == NULL) {
// user requested to quit the loader
goto out;
}
}
// if everything is okay, continue booting; the kernel
// is already loaded at this point and we definitely
// know our boot volume, too
if (status == B_OK) {
register_boot_file_system(volume);
if ((platform_boot_options() & BOOT_OPTION_DEBUG_OUTPUT) == 0)
platform_switch_to_logo();
load_modules(args, volume);
load_driver_settings(args, volume);
// apply boot settings
apply_boot_settings();
// set up kernel args version info
gKernelArgs.kernel_args_size = sizeof(kernel_args);
gKernelArgs.version = CURRENT_KERNEL_ARGS_VERSION;
// clone the boot_volume KMessage into kernel accessible memory
// note, that we need to 4 byte align the buffer and thus allocate
// 3 more bytes
void* buffer = kernel_args_malloc(gBootVolume.ContentSize() + 3);
if (!buffer) {
panic("Could not allocate memory for the boot volume kernel "
"arguments");
}
buffer = (void*)(((addr_t)buffer + 3) & ~(addr_t)0x3);
memcpy(buffer, gBootVolume.Buffer(), gBootVolume.ContentSize());
gKernelArgs.boot_volume = buffer;
gKernelArgs.boot_volume_size = gBootVolume.ContentSize();
// ToDo: cleanup, heap_release() etc.
platform_start_kernel();
}
}
out:
heap_release(args);
return 0;
}
int main(int argc, char *argv[])
{
int ret, server_mode;
void *host_addr = memalign(1024 * 1024, HOST_SIZE);
msgType dialog_type;
sys_ppu_thread_t id; // start server thread
load_modules();
init_logging();
netInitialize();
netCtlInit();
// Initialize SPUs
LOG(lm_main, LOG_DEBUG, ("Initializing SPUs\n"));
ret = sysSpuInitialize(MAX_PHYSICAL_SPU, MAX_RAW_SPU);
if (ret != 0)
{
LOG(lm_main, LOG_ERROR, ("sysSpuInitialize failed: %d\n", ret));
goto quit;
}
init_screen(host_addr, HOST_SIZE);
ioPadInit(7);
ret = initialize_exit_handlers();
if (ret != 0)
goto quit;
show_version();
if (user_requested_exit())
goto quit;
u64 CEX=0x4345580000000000ULL;
u64 DEX=0x4445580000000000ULL;
u64 DEH=0x4445480000000000ULL;
if(lv2peek(0x80000000002E79C8ULL)==DEX) {dex_mode=2; c_firmware=3.41f;}
else
if(lv2peek(0x80000000002CFF98ULL)==CEX) {dex_mode=0; c_firmware=3.41f;}
else
if(lv2peek(0x80000000002EFE20ULL)==DEX) {dex_mode=2; c_firmware=3.55f;}
else
if(lv2peek(0x80000000002D83D0ULL)==CEX) {dex_mode=0; c_firmware=3.55f;}
else
if(lv2peek(0x8000000000302D88ULL)==DEX) {dex_mode=2; c_firmware=4.21f;}
else
if(lv2peek(0x80000000002E8610ULL)==CEX) {dex_mode=0; c_firmware=4.21f;}
else
if(lv2peek(0x80000000002E9F08ULL)==CEX) {dex_mode=0; c_firmware=4.30f;}
else
if(lv2peek(0x8000000000304630ULL)==DEX) {dex_mode=2; c_firmware=4.30f;}
else
if(lv2peek(0x80000000002E9F18ULL)==CEX) {dex_mode=0; c_firmware=4.31f;}
else
if(lv2peek(0x80000000002EA488ULL)==CEX) {dex_mode=0; c_firmware=4.40f;}
else
if(lv2peek(0x80000000002EA498ULL)==CEX) {dex_mode=0; c_firmware=4.41f;}
else
if(lv2peek(0x8000000000304EF0ULL)==DEX) {dex_mode=2; c_firmware=4.41f;}
else
if(lv2peek(0x80000000002EA9B8ULL)==CEX) {dex_mode=0; c_firmware=4.46f;}
else
if(lv2peek(0x8000000000305410ULL)==DEX) {dex_mode=2; c_firmware=4.46f;}
else
if(lv2peek(0x80000000002E9BE0ULL)==CEX) {dex_mode=0; c_firmware=4.50f;}
else
if(lv2peek(0x8000000000309698ULL)==DEX) {dex_mode=2; c_firmware=4.50f;}
else
if(lv2peek(0x80000000002E9D70ULL)==CEX) {dex_mode=0; c_firmware=4.53f;}
else
if(lv2peek(0x80000000002EC5E0ULL)==CEX) {dex_mode=0; c_firmware=4.55f;}
else
if(lv2peek(0x80000000002ED850ULL)==CEX) {dex_mode=0; c_firmware=4.60f;}
else
if(lv2peek(0x80000000002ED860ULL)==CEX) {dex_mode=0; c_firmware=4.65f;}
else
if(lv2peek(0x800000000030F1A8ULL)==DEX) {dex_mode=2; c_firmware=4.65f;}
else
if(lv2peek(0x80000000002ED778ULL)==CEX) {dex_mode=0; c_firmware=4.70f;}
else
if(lv2peek(0x800000000030F240ULL)==DEX) {dex_mode=2; c_firmware=4.70f;}
else
if(lv2peek(0x80000000002ED818ULL)==CEX) {dex_mode=0; c_firmware=4.75f;}
else
if(lv2peek(0x800000000030F2D0ULL)==DEX) {dex_mode=2; c_firmware=4.75f;}
else
if(lv2peek(0x80000000002ED808ULL)==CEX) {dex_mode=0; c_firmware=4.80f;}
else
if(lv2peek(0x800000000030F3A0ULL)==DEX) {dex_mode=2; c_firmware=4.80f;}
else
if(lv2peek(0x800000000030F3B0ULL)==DEX) {dex_mode=2; c_firmware=4.81f;}
else
if(lv2peek(0x800000000032EB60ULL)==DEH) {deh_mode=2; c_firmware=4.81f;}
else
c_firmware=0.00f;
if(c_firmware==3.55f && dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_355D;
}
else
if(c_firmware==3.55f && !dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_355;
}
else
if(c_firmware==4.21f && !dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_421;
}
else
if(c_firmware==4.30f && !dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_430;
}
else
if(c_firmware==4.30f && dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_430D;
}
else
if(c_firmware==4.31f && !dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_431;
}
else
if(c_firmware==4.40f && !dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_440;
}
else
if(c_firmware==4.41f && !dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_441;
}
else
if(c_firmware==4.41f && dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_441D;
}
else
if(c_firmware==4.46f && !dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_446;
}
else
if(c_firmware==4.50f && !dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_450;
}
else
if(c_firmware==4.53f && !dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_453;
}
else
if(c_firmware==4.55f && !dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_455;
}
else
if(c_firmware==4.60f && !dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_460;
}
else
if(c_firmware==4.65f && !dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_465;
}
else
if(c_firmware==4.65f && dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_465D;
}
else
if(c_firmware==4.70f && !dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_470;
}
else
if(c_firmware==4.70f && dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_470D;
}
else
if(c_firmware==4.75f && !dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_475;
}
else
if(c_firmware==4.80f && !dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_480;
}
else
if(c_firmware==4.80f && dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_480D;
}
else
if(c_firmware==4.75f && dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_475D;
}
else
if(c_firmware==4.81f && dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_481D;
}
else
if(c_firmware==4.46f && dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_446D;
}
else
if(c_firmware==4.50f && dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_450D;
}
else
if(c_firmware==4.21f && dex_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_421D;
}
else
if(c_firmware==3.41f)
{
SYSCALL_TABLE = SYSCALL_TABLE_341;
}
else
if(c_firmware==4.81f && deh_mode)
{
SYSCALL_TABLE = SYSCALL_TABLE_481H;
}
/*
if(c_firmware>=4.20f && SYSCALL_TABLE)
{
// add and enable lv2 peek/poke + lv1 peek/poke
lv2poke(0x800000000000171CULL, 0x7C0802A6F8010010ULL);
lv2poke(0x800000000000171CULL + 8, 0x396000B644000022ULL);
lv2poke(0x800000000000171CULL + 16, 0x7C832378E8010010ULL);
lv2poke(0x800000000000171CULL + 24, 0x7C0803A64E800020ULL);
lv2poke(0x800000000000171CULL + 32, 0x7C0802A6F8010010ULL);
lv2poke(0x800000000000171CULL + 40, 0x396000B744000022ULL);
lv2poke(0x800000000000171CULL + 48, 0x38600000E8010010ULL);
lv2poke(0x800000000000171CULL + 56, 0x7C0803A64E800020ULL);
lv2poke(0x800000000000171CULL + 64, 0x7C0802A6F8010010ULL);
lv2poke(0x800000000000171CULL + 72, 0x7D4B537844000022ULL);
lv2poke(0x800000000000171CULL + 80, 0xE80100107C0803A6ULL);
lv2poke(0x800000000000171CULL + 88, 0x4E80002080000000ULL);
lv2poke(0x800000000000171CULL + 96, 0x0000170C80000000ULL);
lv2poke(0x800000000000171CULL + 104, 0x0000171480000000ULL);
lv2poke(0x800000000000171CULL + 112, 0x0000171C80000000ULL);
lv2poke(0x800000000000171CULL + 120, 0x0000173C80000000ULL);
lv2poke(0x800000000000171CULL + 128, 0x0000175C00000000ULL);
lv2poke(SYSCALL_PTR( 6), 0x8000000000001778ULL); //sc6
lv2poke(SYSCALL_PTR( 7), 0x8000000000001780ULL); //sc7
lv2poke(SYSCALL_PTR( 8), 0x8000000000001788ULL); //sc8
lv2poke(SYSCALL_PTR( 9), 0x8000000000001790ULL); //sc9
lv2poke(SYSCALL_PTR(10), 0x8000000000001798ULL); //sc10
}*/
// remove patch protection
if(c_firmware==3.55f)
remove_protection();
if(c_firmware==0.00f)
ret = -1;
else
ret = patch_lv1_ss_services();
if (ret < 0)
{
dialog_type = (MSG_DIALOG_NORMAL | MSG_DIALOG_BTN_TYPE_OK | MSG_DIALOG_DISABLE_CANCEL_ON);
msgDialogOpen2(dialog_type, "ERROR: Couldn't patch lv1 services, returning to the XMB.\nMake sure you are running a firmware which allows patching!", dialog_handler, NULL, NULL);
dialog_action = 0;
while (!dialog_action && !user_requested_exit())
{
sysUtilCheckCallback();
flip();
}
msgDialogAbort();
goto quit;
}
// patch syscall 864 to allow drive re-init
if(c_firmware==0.0f)
ret = -1;
else
ret = patch_syscall_864();
if (ret < 0)
{
dialog_type = (MSG_DIALOG_NORMAL | MSG_DIALOG_BTN_TYPE_OK | MSG_DIALOG_DISABLE_CANCEL_ON);
msgDialogOpen2(dialog_type, "ERROR: Couldn't patch syscall 864, returning to the XMB.\nMake sure you are running a firmware which allows patching!", dialog_handler, NULL, NULL);
dialog_action = 0;
while (!dialog_action && !user_requested_exit())
{
sysUtilCheckCallback();
flip();
}
msgDialogAbort();
goto quit;
}
// install the necessary modules
ret = install_modules();
if (ret < 0)
{
dialog_type = (MSG_DIALOG_NORMAL | MSG_DIALOG_BTN_TYPE_OK | MSG_DIALOG_DISABLE_CANCEL_ON);
msgDialogOpen2(dialog_type, "Installation was aborted, returning to the XMB.", dialog_handler, NULL, NULL);
dialog_action = 0;
while (!dialog_action && !user_requested_exit())
{
sysUtilCheckCallback();
flip();
}
msgDialogAbort();
goto quit;
}
if (user_requested_exit())
goto quit;
// reset & re-authenticate the BD drive
sys_storage_reset_bd();
sys_storage_authenticate_bd();
// eject current disc
{
int fd;
ret = sys_storage_open(BD_DEVICE, &fd);
if (ret == 0)
{
ioctl_eject(fd);
sys_storage_close(fd);
}
}
ret = sysDiscRegisterDiscChangeCallback(&bd_eject_disc_callback, &bd_insert_disc_callback);
// poll for an output_device
poll_output_devices();
server_mode = user_select_server_mode();
if (user_requested_exit())
goto quit;
if (server_mode)
{
#ifdef ENABLE_LOGGING
if (output_device)
{
char file_path[100];
sprintf(file_path, "%s/daemon_log.txt", output_device);
set_log_file(file_path);
}
#endif
sysThreadCreate(&id, listener_thread, NULL, 1500, 0x400, 0, "listener");
while (1)
{
// server loop
server_loop();
// break out of the loop when requested
if (user_requested_exit())
break;
}
}
else
{
while (1)
{
// main loop
main_loop();
// break out of the loop when requested
if (user_requested_exit())
break;
}
}
ret = sysDiscUnregisterDiscChangeCallback();
quit:
unpatch_lv1_ss_services();
destroy_logging();
netDeinitialize();
unload_modules();
free(host_addr);
return 0;
}
/**
* Initialize all data:
* - Create different queues:
* - tls_push_queue: read in push_worker() ;
* - connections_queue: read in search_and_fill() ;
* - localid_auth_queue: read in localid_auth().
* - Create hash table ::conn_list
* - Init. modules: init_modules_system(), load_modules()
* - Init. periods: init_periods()
* - Init. cache: init_acl_cache() and init_user_cache() (if enabled)
* - Create thread pools:
* - ip_authentication_workers with external_ip_auth() (if enabled) ;
* - acl_checkers with acl_check_and_decide() ;
* - user_loggers with real_log_user_packet() ;
* - user_session_loggers with log_user_session_thread() ;
* - decisions_workers with decisions_queue_work().
* - Create threads:
* - tls_pusher with push_worker() ;
* - search_and_fill_worker with search_and_fill() ;
* - localid_auth_thread with localid_auth() (if needed) ;
* - tls_auth_servers with tls_user_start_servers() ;
* - tls_nufw_servers with tls_nufw_start_servers() ;
* - limited_connections_handler with limited_connection_handler().
*
* Other queue, threads, etc. are created elsewhere:
* - in tls_user_init(): tls_sasl_worker thread pool, tls_sasl_connect().
*/
void init_nuauthdata()
{
block_thread_pools();
nuauthdatas->tls_push_queue = g_async_queue_new();
if (!nuauthdatas->tls_push_queue)
exit(EXIT_FAILURE);
/* initialize packets list */
conn_list = g_hash_table_new_full((GHashFunc) hash_connection,
(GEqualFunc) tracking_equal,
NULL, (GDestroyNotify)
free_connection);
/* async queue initialisation */
nuauthdatas->connections_queue = g_async_queue_new();
if (!nuauthdatas->connections_queue)
exit(EXIT_FAILURE);
init_protocol_extension(nuauthdatas);
/* init and load modules */
init_modules_system();
if (!load_modules())
exit(EXIT_FAILURE);
/* init periods */
nuauthconf->periods = init_periods(nuauthconf);
if (nuauthconf->acl_cache)
init_acl_cache();
/* create user cache thread */
if (nuauthconf->user_cache)
init_user_cache();
start_all_thread_pools();
null_message = g_new0(struct cache_message, 1);
null_queue_datas = g_new0(gchar, 1);
/* init private datas for pool thread */
nuauthdatas->aclqueue =
g_private_new((GDestroyNotify) g_async_queue_unref);
nuauthdatas->userqueue =
g_private_new((GDestroyNotify) g_async_queue_unref);
g_static_mutex_init(&insert_mutex);
/* create thread for search_and_fill thread */
log_message(VERBOSE_DEBUG, DEBUG_AREA_MAIN,
"Creating search_and_fill thread");
thread_new(&nuauthdatas->search_and_fill_worker,
"search&fill", search_and_fill);
if (nuauthconf->push && nuauthconf->hello_authentication) {
log_message(VERBOSE_DEBUG, DEBUG_AREA_MAIN,
"Creating hello mode authentication thread");
nuauthdatas->localid_auth_queue = g_async_queue_new();
thread_new(&nuauthdatas->localid_auth_thread,
"localid", localid_auth);
}
#ifdef BUILD_NUAUTH_COMMAND
if (nuauthconf->use_command_server) {
log_message(VERBOSE_DEBUG, DEBUG_AREA_MAIN,
"Creating command thread");
thread_new(&nuauthdatas->command_thread,
"command", command_server);
}
#endif
/* create thread for client request sender */
thread_new(&nuauthdatas->tls_pusher, "tls pusher", push_worker);
/* create TLS authentication server threads (auth + nufw) */
tls_common_init();
log_message(VERBOSE_DEBUG, DEBUG_AREA_MAIN,
"Creating tls authentication server threads");
tls_user_start_servers(nuauthdatas->tls_auth_servers);
log_message(VERBOSE_DEBUG, DEBUG_AREA_MAIN,
"Creating tls nufw server threads");
tls_nufw_start_servers(nuauthdatas->tls_nufw_servers);
log_message(INFO, DEBUG_AREA_MAIN, "Threads system started");
release_thread_pools();
nuauthdatas->is_starting = FALSE;
}
int MAIN_ZABBIX_ENTRY()
{
zbx_sock_t listen_sock;
int i, db_type;
if (NULL == CONFIG_LOG_FILE || '\0' == *CONFIG_LOG_FILE)
zabbix_open_log(LOG_TYPE_SYSLOG, CONFIG_LOG_LEVEL, NULL);
else
zabbix_open_log(LOG_TYPE_FILE, CONFIG_LOG_LEVEL, CONFIG_LOG_FILE);
#ifdef HAVE_NETSNMP
# define SNMP_FEATURE_STATUS "YES"
#else
# define SNMP_FEATURE_STATUS " NO"
#endif
#ifdef HAVE_OPENIPMI
# define IPMI_FEATURE_STATUS "YES"
#else
# define IPMI_FEATURE_STATUS " NO"
#endif
#ifdef HAVE_LIBCURL
# define LIBCURL_FEATURE_STATUS "YES"
#else
# define LIBCURL_FEATURE_STATUS " NO"
#endif
#if defined(HAVE_LIBXML2) && defined(HAVE_LIBCURL)
# define VMWARE_FEATURE_STATUS "YES"
#else
# define VMWARE_FEATURE_STATUS " NO"
#endif
#ifdef HAVE_UNIXODBC
# define ODBC_FEATURE_STATUS "YES"
#else
# define ODBC_FEATURE_STATUS " NO"
#endif
#ifdef HAVE_SSH2
# define SSH2_FEATURE_STATUS "YES"
#else
# define SSH2_FEATURE_STATUS " NO"
#endif
#ifdef HAVE_IPV6
# define IPV6_FEATURE_STATUS "YES"
#else
# define IPV6_FEATURE_STATUS " NO"
#endif
zabbix_log(LOG_LEVEL_INFORMATION, "Starting Zabbix Proxy (%s) [%s]. Zabbix %s (revision %s).",
ZBX_PROXYMODE_PASSIVE == CONFIG_PROXYMODE ? "passive" : "active",
CONFIG_HOSTNAME, ZABBIX_VERSION, ZABBIX_REVISION);
zabbix_log(LOG_LEVEL_INFORMATION, "**** Enabled features ****");
zabbix_log(LOG_LEVEL_INFORMATION, "SNMP monitoring: " SNMP_FEATURE_STATUS);
zabbix_log(LOG_LEVEL_INFORMATION, "IPMI monitoring: " IPMI_FEATURE_STATUS);
zabbix_log(LOG_LEVEL_INFORMATION, "WEB monitoring: " LIBCURL_FEATURE_STATUS);
zabbix_log(LOG_LEVEL_INFORMATION, "VMware monitoring: " VMWARE_FEATURE_STATUS);
zabbix_log(LOG_LEVEL_INFORMATION, "ODBC: " ODBC_FEATURE_STATUS);
zabbix_log(LOG_LEVEL_INFORMATION, "SSH2 support: " SSH2_FEATURE_STATUS);
zabbix_log(LOG_LEVEL_INFORMATION, "IPv6 support: " IPV6_FEATURE_STATUS);
zabbix_log(LOG_LEVEL_INFORMATION, "**************************");
zabbix_log(LOG_LEVEL_INFORMATION, "using configuration file: %s", CONFIG_FILE);
if (FAIL == load_modules(CONFIG_LOAD_MODULE_PATH, CONFIG_LOAD_MODULE, CONFIG_TIMEOUT, 1))
{
zabbix_log(LOG_LEVEL_CRIT, "loading modules failed, exiting...");
exit(EXIT_FAILURE);
}
zbx_free_config();
init_database_cache();
init_configuration_cache();
init_selfmon_collector();
/* initialize vmware support */
if (0 != CONFIG_VMWARE_FORKS)
zbx_vmware_init();
DBinit();
if (ZBX_DB_UNKNOWN == (db_type = zbx_db_get_database_type()))
{
zabbix_log(LOG_LEVEL_ERR, "cannot use database \"%s\": database is not a Zabbix database",
CONFIG_DBNAME);
exit(EXIT_FAILURE);
}
else if (ZBX_DB_PROXY != db_type)
{
zabbix_log(LOG_LEVEL_ERR, "cannot use database \"%s\": Zabbix proxy cannot work with a"
" Zabbix server database", CONFIG_DBNAME);
exit(EXIT_FAILURE);
}
if (SUCCEED != DBcheck_version())
exit(EXIT_FAILURE);
DBconnect(ZBX_DB_CONNECT_NORMAL);
DCsync_configuration();
DBclose();
threads_num = CONFIG_CONFSYNCER_FORKS + CONFIG_HEARTBEAT_FORKS + CONFIG_DATASENDER_FORKS
+ CONFIG_POLLER_FORKS + CONFIG_UNREACHABLE_POLLER_FORKS + CONFIG_TRAPPER_FORKS
+ CONFIG_PINGER_FORKS + CONFIG_HOUSEKEEPER_FORKS + CONFIG_HTTPPOLLER_FORKS
+ CONFIG_DISCOVERER_FORKS + CONFIG_HISTSYNCER_FORKS + CONFIG_IPMIPOLLER_FORKS
+ CONFIG_JAVAPOLLER_FORKS + CONFIG_SNMPTRAPPER_FORKS + CONFIG_SELFMON_FORKS
+ CONFIG_VMWARE_FORKS;
threads = zbx_calloc(threads, threads_num, sizeof(pid_t));
if (0 != CONFIG_TRAPPER_FORKS)
{
if (FAIL == zbx_tcp_listen(&listen_sock, CONFIG_LISTEN_IP, (unsigned short)CONFIG_LISTEN_PORT))
{
zabbix_log(LOG_LEVEL_CRIT, "listener failed: %s", zbx_tcp_strerror());
exit(EXIT_FAILURE);
}
}
zabbix_log(LOG_LEVEL_INFORMATION, "proxy #0 started [main process]");
for (i = 0; i < threads_num; i++)
{
zbx_thread_args_t thread_args;
unsigned char poller_type;
if (FAIL == get_process_info_by_thread(i + 1, &thread_args.process_type, &thread_args.process_num))
{
THIS_SHOULD_NEVER_HAPPEN;
exit(EXIT_FAILURE);
}
thread_args.server_num = i + 1;
thread_args.args = NULL;
switch (thread_args.process_type)
{
case ZBX_PROCESS_TYPE_CONFSYNCER:
threads[i] = zbx_thread_start(proxyconfig_thread, &thread_args);
break;
case ZBX_PROCESS_TYPE_HEARTBEAT:
threads[i] = zbx_thread_start(heart_thread, &thread_args);
break;
case ZBX_PROCESS_TYPE_DATASENDER:
threads[i] = zbx_thread_start(datasender_thread, &thread_args);
break;
case ZBX_PROCESS_TYPE_POLLER:
poller_type = ZBX_PROCESS_TYPE_POLLER;
thread_args.args = &poller_type;
threads[i] = zbx_thread_start(poller_thread, &thread_args);
break;
case ZBX_PROCESS_TYPE_UNREACHABLE:
poller_type = ZBX_PROCESS_TYPE_UNREACHABLE;
thread_args.args = &poller_type;
threads[i] = zbx_thread_start(poller_thread, &thread_args);
break;
case ZBX_PROCESS_TYPE_TRAPPER:
thread_args.args = &listen_sock;
threads[i] = zbx_thread_start(trapper_thread, &thread_args);
break;
case ZBX_PROCESS_TYPE_PINGER:
threads[i] = zbx_thread_start(pinger_thread, &thread_args);
break;
case ZBX_PROCESS_TYPE_HOUSEKEEPER:
threads[i] = zbx_thread_start(housekeeper_thread, &thread_args);
break;
case ZBX_PROCESS_TYPE_HTTPPOLLER:
threads[i] = zbx_thread_start(httppoller_thread, &thread_args);
break;
case ZBX_PROCESS_TYPE_DISCOVERER:
threads[i] = zbx_thread_start(discoverer_thread, &thread_args);
break;
case ZBX_PROCESS_TYPE_HISTSYNCER:
threads[i] = zbx_thread_start(dbsyncer_thread, &thread_args);
break;
case ZBX_PROCESS_TYPE_IPMIPOLLER:
poller_type = ZBX_PROCESS_TYPE_IPMIPOLLER;
thread_args.args = &poller_type;
threads[i] = zbx_thread_start(poller_thread, &thread_args);
break;
case ZBX_PROCESS_TYPE_JAVAPOLLER:
poller_type = ZBX_PROCESS_TYPE_JAVAPOLLER;
thread_args.args = &poller_type;
threads[i] = zbx_thread_start(poller_thread, &thread_args);
break;
case ZBX_PROCESS_TYPE_SNMPTRAPPER:
threads[i] = zbx_thread_start(snmptrapper_thread, &thread_args);
break;
case ZBX_PROCESS_TYPE_SELFMON:
threads[i] = zbx_thread_start(selfmon_thread, &thread_args);
break;
case ZBX_PROCESS_TYPE_VMWARE:
threads[i] = zbx_thread_start(vmware_thread, &thread_args);
break;
}
}
while (-1 == wait(&i)) /* wait for any child to exit */
{
if (EINTR != errno)
{
zabbix_log(LOG_LEVEL_ERR, "failed to wait on child processes: %s", zbx_strerror(errno));
break;
}
}
/* all exiting child processes should be caught by signal handlers */
THIS_SHOULD_NEVER_HAPPEN;
zbx_on_exit();
return SUCCEED;
}