C++ cfg_getnsec函数代码示例

int main(void)
{
	cfg_t *acfg, *bcfg;
	cfg_t *sec;

	acfg = create_config();
	fail_unless(cfg_parse(acfg, SRC_DIR "/a.conf") == 0);

	bcfg = create_config();
	fail_unless(cfg_parse(bcfg, SRC_DIR "/b.conf") == 0);

	sec = cfg_getnsec(acfg, "sec", 0);
	fail_unless(sec != 0);
	fail_unless(cfg_size(acfg, "sec") == 1);
	fail_unless(strcmp(cfg_title(sec), "acfg") == 0);
	fail_unless(cfg_getint(sec, "a") == 5);
	fail_unless(cfg_getint(sec, "b") == 2);

	sec = cfg_getnsec(bcfg, "sec", 0);
	fail_unless(sec != 0);
	fail_unless(cfg_size(bcfg, "sec") == 1);
	fail_unless(strcmp(cfg_title(sec), "bcfg") == 0);
	fail_unless(cfg_getint(sec, "a") == 1);
	fail_unless(cfg_getint(sec, "b") == 9);

	cfg_free(acfg);
	cfg_free(bcfg);

	return 0;
}

int Settings::getNodeId(Node type, int intDeviceIndex) const {
	if (intDeviceIndex >= getNumberOfNodes(type)) {  // Out of bounds
		return -1;
	}
	TelldusCore::MutexLocker locker(&mutex);
	cfg_t *cfg_node;
	if (type == Device) {
		cfg_node = cfg_getnsec(d->cfg, "device", intDeviceIndex);
	} else if (type == Controller) {
		cfg_node = cfg_getnsec(d->cfg, "controller", intDeviceIndex);
	}
	int id = cfg_getint(cfg_node, "id");
	return id;
}

int
parse_mapping_cfg_params(cfg_t *map, conf_mapping_t *conf_mapping, uint8_t is_local)
{

    int ctr;
    cfg_t *rl;
    conf_loc_t *conf_loc;
    conf_loc_iface_t *conf_loc_iface;
    int afi;

    strcpy(conf_mapping->eid_prefix,cfg_getstr(map, "eid-prefix"));
    conf_mapping->iid = cfg_getint(map, "iid");

    for (ctr = 0; ctr < cfg_size(map, "rloc-address"); ctr++){
        rl = cfg_getnsec(map, "rloc-address", ctr);
        conf_loc = conf_loc_new_init(
                cfg_getstr(rl, "address"),
                cfg_getint(rl, "priority"),
                cfg_getint(rl, "weight"),
                255,0);
        glist_add_tail(conf_loc,conf_mapping->conf_loc_list);
    }

    if (is_local){

        for (ctr = 0; ctr < cfg_size(map, "rloc-iface"); ctr++){
            rl = cfg_getnsec(map, "rloc-iface", ctr);
            afi = cfg_getint(rl, "ip_version");
            if (afi == 4){
                afi = AF_INET;
            }else if (afi == 6){
                afi = AF_INET6;
            }else{
                OOR_LOG(LERR,"Configuration file: The conf_loc_iface->ip_version of the locator should be 4 (IPv4) or 6 (IPv6)");
                return (BAD);
            }
            conf_loc_iface = conf_loc_iface_new_init(
                    cfg_getstr(rl, "interface"),
                    afi,
                    cfg_getint(rl, "priority"),
                    cfg_getint(rl, "weight"),
                    255,0);
            glist_add_tail(conf_loc_iface,conf_mapping->conf_loc_iface_list);
        }
    }

    return (GOOD);
}

int cb_validate_conffile(cfg_t *cfg)
{
	char LaunchString[255];
	cfg_t *cfg_greet;
	
	if(cfg_size(cfg, "Channel") == 0)
	{
		cfg_error(cfg, "no \"Channel\" section found");
		return -1;
	}
	
	printf("\t%d Channel setions found\n", cfg_size(cfg, "Channel"));
	
	int j;
	for(j = 0; j < cfg_size(cfg, "Channel"); j++)
	{
		cfg_greet = cfg_getnsec(cfg, "Channel", j);
		sprintf(LaunchString, "%s", cfg_getstr(cfg_greet, "LaunchString"));
		if(!(strlen(LaunchString) > 0))
		{
			cfg_error(cfg, "invalid LaunchString for Channel[%d]", j);
			return -1;
		}
		printf("\tChannel[%d].LaunchString = %s\n", j, LaunchString);
		printf("\tChannel[%d].AudioChannels = %ld\n", j, cfg_getint(cfg_greet, "AudioChannels"));
		printf("\tChannel[%d].SampleRate = %ld\n", j, cfg_getint(cfg_greet, "SampleRate"));
		printf("\tChannel[%d].Width = %ld\n", j, cfg_getint(cfg_greet, "Width"));
		printf("\tChannel[%d].Height = %ld\n", j, cfg_getint(cfg_greet, "Height"));
		printf("\tChannel[%d].Bitrate = %ld\n", j, cfg_getint(cfg_greet, "Bitrate"));
		printf("\tChannel[%d].Ratio = %s\n", j, cfg_getstr(cfg_greet, "Ratio"));
	}
    return 0;
}

SyncLogEntry SyncLogger::ReadFirstEntry(const char* pszHash)
{
	ParseFile(pszHash);

	// Assures the correct parsing of the file.
	assert(m_pCFG != NULL);

//	cfg_t* pEntryCFG = cfg_getnsec(m_pCFG, MOD_NUMBER_VARNAME, 0);
	return ReadEntry(cfg_getnsec(m_pCFG, MOD_NUMBER_VARNAME, 0));
/*
	// Assures that the section has been found, which means there is at least one section.
    assert(pEntryCFG != NULL);

	// TODO: Copy values
	SyncLogEntry sle;
	sle.m_strFilePath = cfg_getstr(pEntryCFG, FILE_PATH_VARNAME);
	sle.m_strModTime = cfg_getstr(pEntryCFG, MOD_TIME_VARNAME);
	string strModType = cfg_getstr(pEntryCFG, MOD_TYPE_VARNAME);
	if (strModType.length() != 1)
	{
		// The log entry does not meet the standard.
		return NULL;
	}
	sle.m_chModType = strModType.c_str()[0];

    return sle;
*/
}

static void
parse_mcinfo_list(cfg_t *cfg, shash_t *ht)
{
    mc_t *mc;
    lisp_addr_t *laddr;
    char *name;
    int i, count;

    count = 0;
    for (i = 0; i < cfg_size(cfg, "multicast-info"); i++) {
        cfg_t *mcnode = cfg_getnsec(cfg, "multicast-info", i);
        name = cfg_getstr(mcnode, "mc-info-name");

        laddr = lisp_addr_new_lafi(LM_AFI_LCAF);
        lisp_addr_lcaf_set_type(laddr, LCAF_MCAST_INFO);

        mc = mc_type_new();
        lisp_addr_ip_from_char(cfg_getstr(mcnode, "source"), mc->src);
        mc->src_plen = cfg_getint(mcnode, "source-mask-length");
        lisp_addr_ip_from_char(cfg_getstr(mcnode, "group"), mc->grp);
        mc->src_plen = cfg_getint(mcnode, "group-mask-length");
        mc->iid = cfg_getint(mcnode, "iid");

        lisp_addr_lcaf_set_addr(laddr, mc);
        OOR_LOG(LDBG_1, "Configuration file: parsed multicast-info: %s",
                lisp_addr_to_char(laddr));

        shash_insert(ht, strdup(name), laddr);
        count ++;
    }

    if (count != 0) {
        OOR_LOG(LINF, "Parsed configured multicast addresses");
    }
}

int main(int argc, char **argv)
{
    int i;
    cfg_t *cfg = parse_conf(argc > 1 ? argv[1] : "ftp.conf");

    /* print the parsed configuration options */
    if(cfg)
    {
        printf("reverse-dns = %s\n", cfg_getbool(cfg, "reverse-dns") ? "true" : "false");
        printf("passive-mode = %s\n", cfg_getbool(cfg, "passive-mode") ? "true" : "false");
        printf("remote-completion = %s\n", cfg_getbool(cfg, "remote-completion") ? "true" : "false");

        printf("number of bookmarks: %d\n", cfg_size(cfg, "bookmark"));
        for(i = 0; i < cfg_size(cfg, "bookmark"); i++)
        {
            cfg_t *bookmark = cfg_getnsec(cfg, "bookmark", i);
            printf("  bookmark #%d: %s:%[email protected]%s:%ld%s\n", i+1,
                    cfg_getstr(bookmark, "login"),
                    cfg_getstr(bookmark, "password"),
                    cfg_getstr(bookmark, "host"),
                    cfg_getint(bookmark, "port"),
                    cfg_getstr(bookmark, "directory"));
        }

        for(i = 0; i < cfg_size(cfg, "xterm-terminals"); i++)
            printf("xterm-terminal #%d: %s\n", i+1, cfg_getnstr(cfg, "xterm-terminals", i));

        printf("auto-create-bookmark = %ld\n", cfg_getint(cfg, "auto-create-bookmark"));
        cfg_free(cfg);
    }

    return 0;
}

int Settings::setIntSetting(Node type, int intDeviceId, const std::wstring &name, int value, bool parameter) {
	// already locked
	if (d->cfg == 0) {
		return TELLSTICK_ERROR_PERMISSION_DENIED;
	}
	std::string strType = getNodeString(type);
	cfg_t *cfg_device;
	for (int i = 0; i < cfg_size(d->cfg, strType.c_str()); ++i) {
		cfg_device = cfg_getnsec(d->cfg, strType.c_str(), i);
		if (cfg_getint(cfg_device, "id") == intDeviceId)  {
			if (parameter) {
				cfg_t *cfg_parameters = cfg_getsec(cfg_device, "parameters");
				cfg_setint(cfg_parameters, TelldusCore::wideToString(name).c_str(), value);
			} else {
				cfg_setint(cfg_device, TelldusCore::wideToString(name).c_str(), value);
			}
			FILE *fp = fopen(CONFIG_FILE, "we");  // e for setting O_CLOEXEC on the file handle
			if (!fp) {
				return TELLSTICK_ERROR_PERMISSION_DENIED;
			}
			cfg_print(d->cfg, fp);
			fclose(fp);
			return TELLSTICK_SUCCESS;
		}
	}
	return TELLSTICK_ERROR_DEVICE_NOT_FOUND;
}

int
parse_proxy_etrs(cfg_t *cfg, lisp_xtr_t *xtr)
{
    int n,i;
    void *fwd_map_inf;
    /* PROXY-ETR CONFIG */
    n = cfg_size(cfg, "proxy-etr");
    for(i = 0; i < n; i++) {
        cfg_t *petr = cfg_getnsec(cfg, "proxy-etr", i);
        if (add_proxy_etr_entry(xtr->petrs,
                cfg_getstr(petr, "address"),
                cfg_getint(petr, "priority"),
                cfg_getint(petr, "weight")) == GOOD) {
            OOR_LOG(LDBG_1, "Added %s to proxy-etr list", cfg_getstr(petr, "address"));
        } else{
            OOR_LOG(LERR, "Can't add proxy-etr %s", cfg_getstr(petr, "address"));
        }
    }

    /* Calculate forwarding info for petrs */
    fwd_map_inf = xtr->fwd_policy->new_map_cache_policy_inf(xtr->fwd_policy_dev_parm,mcache_entry_mapping(xtr->petrs));
    if (fwd_map_inf == NULL){
        OOR_LOG(LDBG_1, "xtr_ctrl_construct: Couldn't create routing info for PeTRs!.");
        mcache_entry_del(xtr->petrs);
        return(BAD);
    }
    mcache_entry_set_routing_info(xtr->petrs,fwd_map_inf,xtr->fwd_policy->del_map_cache_policy_inf);
    return (GOOD);
}

//
// E_ProcessInventoryDeltas
//
// Does processing for inventorydelta sections, which allow cascading editing
// of existing inventory items. The inventorydelta shares most of its fields
// and processing code with the thingtype section.
//
void E_ProcessInventoryDeltas(cfg_t *cfg)
{
   int i, numdeltas;

   E_EDFLogPuts("\t* Processing inventory deltas\n");

   numdeltas = cfg_size(cfg, EDF_SEC_INVDELTA);

   E_EDFLogPrintf("\t\t%d inventorydelta(s) defined\n", numdeltas);

   for(i = 0; i < numdeltas; i++)
   {
      cfg_t       *deltasec = cfg_getnsec(cfg, EDF_SEC_INVDELTA, i);
      inventory_t *inv;

      // get thingtype to edit
      if(!cfg_size(deltasec, ITEM_DELTA_NAME))
         E_EDFLoggedErr(2, "E_ProcessInventoryDeltas: inventorydelta requires name field\n");

      inv = E_GetInventoryForName(cfg_getstr(deltasec, ITEM_DELTA_NAME));

      E_ProcessInventory(inv, deltasec, cfg, false);

      E_EDFLogPrintf("\t\tApplied inventorydelta #%d to %s(#%d)\n",
                     i, inv->name, inv->numkey);
   }
}

static void print_systems(cfg_t *cfg)
{
	size_t i;

	for (i = 0; i < cfg_size(cfg, "provider"); i++)
		print_system(cfg_getnsec(cfg, "provider", i));
}

static cfg_t* find_module_config(char *modname)
{
    cfg_t *modules_cfg;
    int j;

    modules_cfg = cfg_getsec(python_module.config_file, "modules");
    for (j = 0; j < cfg_size(modules_cfg, "module"); j++) {
        char *modName, *modLanguage;
        int modEnabled;

        cfg_t *pymodule = cfg_getnsec(modules_cfg, "module", j);

        /* Check the module language to make sure that
           the language designation is python.
        */
        modLanguage = cfg_getstr(pymodule, "language");
        if (!modLanguage || strcasecmp(modLanguage, "python")) 
            continue;

        modName = cfg_getstr(pymodule, "name");
        if (strcasecmp(modname, modName)) {
            continue;
        }

        /* Check to make sure that the module is enabled.
        */
        modEnabled = cfg_getbool(pymodule, "enabled");
        if (!modEnabled) 
            continue;

        return pymodule;
    }
    return NULL; 
}

//
// E_ProcessInventoryDefs
//
// Resolves and loads all information for the inventory structures.
//
void E_ProcessInventoryDefs(cfg_t *cfg)
{
   unsigned int i, numInventory;

   E_EDFLogPuts("\t* Processing inventory data\n");

   if(!(numInventory = cfg_size(cfg, EDF_SEC_INVENTORY)))
      return;

   // allocate inheritance stack and hitlist
   inv_pstack = ecalloc(inventory_t **, numInventoryDefs, sizeof(inventory_t *));

   // TODO: any first-time-only processing?

   for(i = 0; i < numInventory; i++)
   {
      cfg_t       *invsec = cfg_getnsec(cfg, EDF_SEC_INVENTORY, i);
      const char  *name   = cfg_title(invsec);
      inventory_t *inv    = E_InventoryForName(name);

      // reset the inheritance stack
      E_ResetInventoryPStack();

      // add this def to the stack
      E_AddInventoryToPStack(inv);

      E_ProcessInventory(inv, invsec, cfg, true);

      E_EDFLogPrintf("\t\tFinished inventory %s(#%d)\n", inv->name, inv->numkey);
   }

   // free tables
   efree(inv_pstack);
}

static HV* build_params_hash(cfg_t *plmodule)
{
    int k;
    HV *params_hash;

    params_hash = newHV();

    if (plmodule && params_hash) {
        for (k = 0; k < cfg_size(plmodule, "param"); k++) {
            cfg_t *param;
            char *name, *value;
            SV *sv_value;

            param = cfg_getnsec(plmodule, "param", k);
            name = apr_pstrdup(pool, param->title);
            value = apr_pstrdup(pool, cfg_getstr(param, "value"));
            sv_value = newSVpv(value, 0);
            if (name && sv_value) {
                /* Silence "value computed is not used" warning */
                (void)hv_store(params_hash, name, strlen(name), sv_value, 0);
            }
        }
    }
    return params_hash;
} 

int main(void)
{
    unsigned int i;

    read_config();
    signal(SIGHUP, sighandler);
    signal(SIGUSR1, usr1handler);

    while(loop)
    {
        printf("Message: %s", cfg_getstr(cfg, "message"));
        for(i = 0; i < cfg_size(cfg, "argument"); i++)
        {
            cfg_t *arg = cfg_getnsec(cfg, "argument", i);
            printf(", %s", cfg_getstr(arg, "value"));
        }
        printf("\n");

        sleep(cfg_getint(cfg, "delay"));
    }

    cfg_free(cfg);
    cfg = 0;

    return 0;
}