#include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include "triton.h" #include "events.h" #include "log.h" #include "ppp.h" #include "cli.h" #ifdef RADIUS #include "radius.h" #endif #include "memdebug.h" #define TIME_UNITS_PER_SEC 1000000 #define ATTR_UP 1 #define ATTR_DOWN 2 static int conf_verbose = 0; #ifdef RADIUS static int conf_attr_down = 11; //Filter-Id static int conf_attr_up = 11; //Filter-Id static int conf_vendor = 0; #endif static double conf_down_burst_factor = 0.1; static double conf_up_burst_factor = 1; static int conf_latency = 50; static int conf_mpu = 0; static int temp_down_speed; static int temp_up_speed; static pthread_rwlock_t shaper_lock = PTHREAD_RWLOCK_INITIALIZER; static LIST_HEAD(shaper_list); static double tick_in_usec = 1; static double clock_factor = 1; struct shaper_pd_t { struct list_head entry; struct ppp_t *ppp; struct ppp_pd_t pd; int down_speed; int down_burst; int up_speed; int up_burst; int temp_down_speed; int temp_up_speed; }; static void *pd_key; static unsigned tc_time2tick(unsigned time) { return time*tick_in_usec; } /*static unsigned tc_tick2time(unsigned tick) { return tick/tick_in_usec; }*/ static unsigned tc_calc_xmittime(unsigned rate, unsigned size) { return tc_time2tick(TIME_UNITS_PER_SEC*((double)size/rate)); } /*static unsigned tc_calc_xmitsize(unsigned rate, unsigned ticks) { return ((double)rate*tc_tick2time(ticks))/TIME_UNITS_PER_SEC; }*/ static void tc_calc_rtable(struct tc_ratespec *r, uint32_t *rtab, int cell_log, unsigned mtu) { int i; unsigned sz; unsigned bps = r->rate; unsigned mpu = r->mpu; if (mtu == 0) mtu = 2047; if (cell_log <= 0) { cell_log = 0; while ((mtu >> cell_log) > 255) cell_log++; } for (i=0; i<256; i++) { //sz = tc_adjust_size((i + 1) << cell_log, mpu, linklayer); sz = (i + 1) << cell_log; if (sz < mpu) sz = mpu; rtab[i] = tc_calc_xmittime(bps, sz); } r->cell_align=-1; // Due to the sz calc r->cell_log=cell_log; } static int install_tbf(struct nl_sock *h, int ifindex, int speed, int burst) { struct tc_tbf_qopt opt; struct nl_msg *msg; struct nl_msg *pmsg = NULL; uint32_t rtab[RTNL_TC_RTABLE_SIZE]; double rate = speed * 1000 / 8; double bucket = burst ? burst : rate * conf_down_burst_factor; struct tcmsg tchdr = { .tcm_family = AF_UNSPEC, .tcm_ifindex = ifindex, .tcm_handle = 0x00010000, .tcm_parent = TC_H_ROOT, }; memset(&opt, 0, sizeof(opt)); opt.rate.rate = rate; opt.rate.mpu = conf_mpu; opt.limit = rate*conf_latency/1000 + bucket; opt.buffer = tc_calc_xmittime(rate, bucket); tc_calc_rtable(&opt.rate, rtab, 0, 0); msg = nlmsg_alloc(); if (!msg) goto out_err; NLA_PUT(msg, TCA_TBF_PARMS, sizeof(opt), &opt); NLA_PUT(msg, TCA_TBF_RTAB, sizeof(rtab), rtab); pmsg = nlmsg_alloc_simple(RTM_NEWQDISC, NLM_F_CREATE | NLM_F_REPLACE); if (!pmsg) goto out_err; if (nlmsg_append(pmsg, &tchdr, sizeof(tchdr), NLMSG_ALIGNTO) < 0) goto out_err; NLA_PUT_STRING(pmsg, TCA_KIND, "tbf"); nla_put_nested(pmsg, TCA_OPTIONS, msg); if (nl_send_auto_complete(h, pmsg) < 0) goto out_err; if (nl_wait_for_ack(h) < 0) goto out_err; nlmsg_free(msg); nlmsg_free(pmsg); return 0; out_err: nla_put_failure: if (msg) nlmsg_free(msg); if (pmsg) nlmsg_free(pmsg); log_ppp_error("tbf: error occured, tbf is not installed\n"); return -1; } static int install_ingress(struct nl_sock *h, int ifindex) { struct nl_msg *pmsg; struct tcmsg tchdr = { .tcm_family = AF_UNSPEC, .tcm_ifindex = ifindex, .tcm_handle = 0xffff0000, .tcm_parent = TC_H_INGRESS, }; pmsg = nlmsg_alloc_simple(RTM_NEWQDISC, NLM_F_CREATE | NLM_F_REPLACE); if (!pmsg) goto out_err; if (nlmsg_append(pmsg, &tchdr, sizeof(tchdr), NLMSG_ALIGNTO) < 0) goto out_err; NLA_PUT_STRING(pmsg, TCA_KIND, "ingress"); if (nl_send_auto_complete(h, pmsg) < 0) goto out_err; if (nl_wait_for_ack(h) < 0) goto out_err; nlmsg_free(pmsg); return 0; out_err: nla_put_failure: if (pmsg) nlmsg_free(pmsg); log_ppp_error("tbf: error occured, ingress is not installed\n"); return -1; } static int install_filter(struct nl_sock *h, int ifindex, int speed, int burst) { //double rate = speed*1000/8; //double bucket = rate*conf_burst_factor; double rate = speed * 1000 / 8; double bucket = burst ? burst : rate * conf_up_burst_factor; struct nl_msg *pmsg = NULL; struct nl_msg *msg = NULL; struct nl_msg *msg1 = NULL; struct nl_msg *msg2 = NULL; struct nl_msg *msg3 = NULL; uint32_t rtab[RTNL_TC_RTABLE_SIZE]; struct tcmsg tchdr = { .tcm_family = AF_UNSPEC, .tcm_ifindex = ifindex, .tcm_handle = 1, .tcm_parent = 0xffff0000, .tcm_info = TC_H_MAKE(10 << 16, ntohs(ETH_P_IP)), }; struct sel_t { struct tc_u32_sel sel; struct tc_u32_key key; } sel = { .sel.nkeys = 1, .sel.flags = TC_U32_TERMINAL, .key.off = 12, }; struct tc_police police = { .action = TC_POLICE_SHOT, .rate.rate = rate, .rate.mpu = conf_mpu, .limit = rate*conf_latency/1000 + bucket, .burst = tc_calc_xmittime(rate, bucket), }; tc_calc_rtable(&police.rate, rtab, 0, 0); pmsg = nlmsg_alloc_simple(RTM_NEWTFILTER, NLM_F_CREATE | NLM_F_REPLACE); if (!pmsg) goto out_err; msg = nlmsg_alloc(); if (!msg) goto out_err; msg1 = nlmsg_alloc(); if (!msg1) goto out_err; msg2 = nlmsg_alloc(); if (!msg2) goto out_err; msg3 = nlmsg_alloc(); if (!msg3) goto out_err; if (nlmsg_append(pmsg, &tchdr, sizeof(tchdr), NLMSG_ALIGNTO) < 0) goto out_err; NLA_PUT_STRING(pmsg, TCA_KIND, "u32"); NLA_PUT_U32(msg, TCA_U32_CLASSID, 1); NLA_PUT(msg, TCA_U32_SEL, sizeof(sel), &sel); NLA_PUT_STRING(msg3, TCA_ACT_KIND, "police"); NLA_PUT(msg2, TCA_POLICE_TBF, sizeof(police), &police); NLA_PUT(msg2, TCA_POLICE_RATE, sizeof(rtab), rtab); if (nla_put_nested(msg3, TCA_ACT_OPTIONS, msg2) < 0) goto out_err; if (nla_put_nested(msg1, 1, msg3) < 0) goto out_err; if (nla_put_nested(msg, TCA_U32_ACT, msg1)) goto out_err; if (nla_put_nested(pmsg, TCA_OPTIONS, msg)) goto out_err; if (nl_send_auto_complete(h, pmsg) < 0) goto out_err; if (nl_wait_for_ack(h) < 0) goto out_err; nlmsg_free(pmsg); nlmsg_free(msg); nlmsg_free(msg1); nlmsg_free(msg2); nlmsg_free(msg3); return 0; out_err: nla_put_failure: if (pmsg) nlmsg_free(pmsg); if (msg) nlmsg_free(msg); if (msg1) nlmsg_free(msg1); if (msg2) nlmsg_free(msg1); if (msg3) nlmsg_free(msg1); log_ppp_error("tbf: error occured, filter is not installed\n"); return -1; } static int install_shaper(const char *ifname, int down_speed, int down_burst, int up_speed, int up_burst) { struct nl_sock *h; struct ifreq ifr; int err; memset(&ifr, 0, sizeof(ifr)); strcpy(ifr.ifr_name, ifname); if (ioctl(sock_fd, SIOCGIFINDEX, &ifr)) { log_ppp_error("tbf: ioctl(SIOCGIFINDEX)", strerror(errno)); return -1; } h = nl_socket_alloc(); if (!h) { log_ppp_error("tbf: nl_socket_alloc failed\n"); return -1; } err = nl_connect(h, NETLINK_ROUTE); if (err < 0) { log_ppp_error("tbf: nl_connect: %s", strerror(errno)); goto out; } if (down_speed) if (install_tbf(h, ifr.ifr_ifindex, down_speed, down_burst)) return -1; if (up_speed) { if (install_ingress(h, ifr.ifr_ifindex)) return -1; if (install_filter(h, ifr.ifr_ifindex, up_speed, up_burst)) return -1; } nl_close(h); out: nl_socket_free(h); return 0; } static struct shaper_pd_t *find_pd(struct ppp_t *ppp, int create) { struct ppp_pd_t *pd; struct shaper_pd_t *spd; list_for_each_entry(pd, &ppp->pd_list, entry) { if (pd->key == &pd_key) { spd = container_of(pd, typeof(*spd), pd); return spd; } } if (create) { spd = _malloc(sizeof(*spd)); if (!spd) { log_emerg("tbf: out of memory\n"); return NULL; } memset(spd, 0, sizeof(*spd)); spd->ppp = ppp; list_add_tail(&spd->pd.entry, &ppp->pd_list); spd->pd.key = &pd_key; pthread_rwlock_wrlock(&shaper_lock); list_add_tail(&spd->entry, &shaper_list); pthread_rwlock_unlock(&shaper_lock); return spd; } return NULL; } static int remove_shaper(const char *ifname) { struct nl_sock *h; struct ifreq ifr; struct nl_msg *pmsg; int err; memset(&ifr, 0, sizeof(ifr)); strcpy(ifr.ifr_name, ifname); if (ioctl(sock_fd, SIOCGIFINDEX, &ifr)) { log_ppp_error("tbf: ioctl(SIOCGIFINDEX)", strerror(errno)); return -1; } struct tcmsg tchdr1 = { .tcm_family = AF_UNSPEC, .tcm_ifindex = ifr.ifr_ifindex, .tcm_handle = 0x00010000, .tcm_parent = TC_H_ROOT, }; struct tcmsg tchdr2 = { .tcm_family = AF_UNSPEC, .tcm_ifindex = ifr.ifr_ifindex, .tcm_handle = 0xffff0000, .tcm_parent = TC_H_INGRESS, }; h = nl_socket_alloc(); if (!h) { log_ppp_error("tbf: nl_socket_alloc failed\n"); return -1; } err = nl_connect(h, NETLINK_ROUTE); if (err < 0) { log_ppp_error("tbf: nl_connect: %s", strerror(errno)); nl_socket_free(h); return -1; } pmsg = nlmsg_alloc_simple(RTM_DELQDISC, NLM_F_CREATE | NLM_F_REPLACE); if (!pmsg) goto out_err; if (nlmsg_append(pmsg, &tchdr1, sizeof(tchdr1), NLMSG_ALIGNTO) < 0) goto out_err; if (nl_send_auto_complete(h, pmsg) < 0) goto out_err; if (nl_wait_for_ack(h) < 0) goto out_err; nlmsg_free(pmsg); pmsg = nlmsg_alloc_simple(RTM_DELQDISC, NLM_F_CREATE | NLM_F_REPLACE); if (!pmsg) goto out_err; if (nlmsg_append(pmsg, &tchdr2, sizeof(tchdr2), NLMSG_ALIGNTO) < 0) goto out_err; if (nl_send_auto_complete(h, pmsg) < 0) goto out_err; if (nl_wait_for_ack(h) < 0) goto out_err; nlmsg_free(pmsg); nl_close(h); nl_socket_free(h); return 0; out_err: log_ppp_error("tbf: failed to remove shaper\n"); if (pmsg) nlmsg_free(pmsg); nl_close(h); nl_socket_free(h); return -1; } static void parse_string(const char *str, int dir, int *speed, int *burst) { char *endptr; long int val; unsigned int n1, n2, n3; if (strstr(str, "lcp:interface-config#1=rate-limit output") == str) { if (dir == ATTR_DOWN) { val = sscanf(str, "lcp:interface-config#1=rate-limit output %u %u %u conform-action transmit exceed-action drop", &n1, &n2, &n3); if (val == 3) { *speed = n1/1000; *burst = n2; } } return; } else if (strstr(str, "lcp:interface-config#1=rate-limit input") == str) { if (dir == ATTR_UP) { val = sscanf(str, "lcp:interface-config#1=rate-limit input %u %u %u conform-action transmit exceed-action drop", &n1, &n2, &n3); if (val == 3) { *speed = n1/1000; *burst = n2; } } return; } val = strtol(str, &endptr, 10); if (*endptr == 0) *speed = val; else { if (*endptr == '/' || *endptr == '\\' || *endptr == ':') { if (dir == ATTR_DOWN) *speed = val; else *speed = strtol(endptr + 1, &endptr, 10); } } } #ifdef RADIUS static void parse_attr(struct rad_attr_t *attr, int dir, int *speed, int *burst) { if (attr->attr->type == ATTR_TYPE_STRING) parse_string(attr->val.string, dir, speed, burst); else if (attr->attr->type == ATTR_TYPE_INTEGER) *speed = attr->val.integer; } static void ev_radius_access_accept(struct ev_radius_t *ev) { struct rad_attr_t *attr; int down_speed = 0, down_burst = 0; int up_speed = 0, up_burst = 0; struct shaper_pd_t *pd = find_pd(ev->ppp, 1); if (!pd) return; list_for_each_entry(attr, &ev->reply->attrs, entry) { if (attr->vendor && attr->vendor->id != conf_vendor) continue; if (!attr->vendor && conf_vendor) continue; if (attr->attr->id == conf_attr_down) parse_attr(attr, ATTR_DOWN, &down_speed, &down_burst); if (attr->attr->id == conf_attr_up) parse_attr(attr, ATTR_UP, &up_speed, &up_burst); } pd->down_speed = down_speed; pd->down_burst = down_burst; pd->up_speed = up_speed; pd->up_burst = up_burst; if (temp_down_speed) { pd->temp_down_speed = temp_down_speed; pd->temp_up_speed = temp_up_speed; down_speed = temp_down_speed; down_burst = 0; } if (temp_up_speed) { up_speed = temp_up_speed; up_burst = 0; } if (down_speed > 0 && up_speed > 0) { if (!install_shaper(ev->ppp->ifname, down_speed, down_burst, up_speed, up_burst)) { if (conf_verbose) log_ppp_info2("tbf: installed shaper %i/%i (Kbit)\n", down_speed, up_speed); } } } static void ev_radius_coa(struct ev_radius_t *ev) { struct rad_attr_t *attr; int down_speed = 0, down_burst = 0; int up_speed = 0, up_burst = 0; struct shaper_pd_t *pd = find_pd(ev->ppp, 1); if (!pd) { ev->res = -1; return; } list_for_each_entry(attr, &ev->request->attrs, entry) { if (attr->vendor && attr->vendor->id != conf_vendor) continue; if (!attr->vendor && conf_vendor) continue; if (attr->attr->id == conf_attr_down) parse_attr(attr, ATTR_DOWN, &down_speed, &down_burst); if (attr->attr->id == conf_attr_up) parse_attr(attr, ATTR_UP, &up_speed, &up_burst); } if (pd->down_speed != down_speed || pd->up_speed != up_speed || pd->down_burst != down_burst || pd->up_burst != up_burst) { pd->down_speed = down_speed; pd->down_burst = down_burst; pd->up_speed = up_speed; pd->up_burst = up_burst; if (temp_down_speed || temp_up_speed) return; if (remove_shaper(ev->ppp->ifname)) { ev->res = -1; return; } if (down_speed > 0 || up_speed > 0) { if (install_shaper(ev->ppp->ifname, down_speed, down_burst, up_speed, up_burst)) { ev->res= -1; return; } else { if (conf_verbose) log_ppp_info2("tbf: changed shaper %i/%i (Kbit)\n", down_speed, up_speed); } } else { if (conf_verbose) log_ppp_info2("tbf: removed shaper\n"); } } } #endif static void ev_shaper(struct ev_shaper_t *ev) { struct shaper_pd_t *pd = find_pd(ev->ppp, 1); int down_speed = 0, down_burst = 0; int up_speed = 0, up_burst = 0; if (!pd) return; parse_string(ev->val, ATTR_DOWN, &down_speed, &down_burst); parse_string(ev->val, ATTR_UP, &up_speed, &up_burst); if (down_speed > 0 && up_speed > 0) { pd->down_speed = down_speed; pd->up_speed = up_speed; if (!install_shaper(ev->ppp->ifname, down_speed, down_burst, up_speed, up_burst)) { if (conf_verbose) log_ppp_info2("tbf: installed shaper %i/%i (Kbit)\n", down_speed, up_speed); } } } static void ev_ctrl_finished(struct ppp_t *ppp) { struct shaper_pd_t *pd = find_pd(ppp, 0); if (pd) { pthread_rwlock_wrlock(&shaper_lock); list_del(&pd->entry); pthread_rwlock_unlock(&shaper_lock); list_del(&pd->pd.entry); _free(pd); } } static void shaper_change_help(char * const *f, int f_cnt, void *cli) { cli_send(cli, "shaper change [temp] - change shaper on specified interface, if temp is set then previous settings may be restored later by 'shaper restore'\r\n"); cli_send(cli, "shaper change all [temp] - change shaper on all interfaces, if temp is set also new interfaces will have specified shaper value\r\n"); } static void shaper_change(struct shaper_pd_t *pd) { if ((pd->temp_down_speed && pd->temp_up_speed) || (pd->down_speed && pd->up_speed)) remove_shaper(pd->ppp->ifname); if (pd->temp_down_speed && pd->temp_up_speed) install_shaper(pd->ppp->ifname, pd->temp_down_speed, 0, pd->temp_up_speed, 0); else if (pd->down_speed && pd->up_speed) install_shaper(pd->ppp->ifname, pd->down_speed, pd->down_burst, pd->up_speed, pd->up_burst); } static int shaper_change_exec(const char *cmd, char * const *f, int f_cnt, void *cli) { struct shaper_pd_t *pd; int down_speed = 0, up_speed = 0, down_burst = 0, up_burst = 0; int all = 0, temp = 0, found = 0; if (f_cnt < 4) return CLI_CMD_SYNTAX; parse_string(f[3], ATTR_DOWN, &down_speed, &down_burst); parse_string(f[3], ATTR_UP, &up_speed, &up_burst); if (down_speed == 0 || up_speed == 0) return CLI_CMD_INVAL; if (!strcmp(f[2], "all")) all = 1; if (f_cnt == 5) { if (strcmp(f[4], "temp")) return CLI_CMD_SYNTAX; else temp = 1; } if (all && temp) { temp_down_speed = down_speed; temp_up_speed = up_speed; } pthread_rwlock_rdlock(&shaper_lock); list_for_each_entry(pd, &shaper_list, entry) { if (all || !strcmp(f[2], pd->ppp->ifname)) { if (temp) { pd->temp_down_speed = down_speed; pd->temp_up_speed = up_speed; } else { pd->temp_down_speed = 0; pd->temp_up_speed = 0; pd->down_speed = down_speed; pd->down_burst = down_burst; pd->up_speed = up_speed; pd->up_burst = up_burst; } triton_context_call(pd->ppp->ctrl->ctx, (triton_event_func)shaper_change, pd); if (!all) { found = 1; break; } } } pthread_rwlock_unlock(&shaper_lock); if (!all && !found) cli_send(cli, "not found\r\n"); return CLI_CMD_OK; } static void shaper_restore_help(char * const *f, int f_cnt, void *cli) { cli_send(cli, "shaper restore - restores shaper settings on specified interface made by 'shaper change' command with 'temp' flag\r\n"); cli_send(cli, "shaper restore all - restores shaper settings on all interfaces made by 'shaper change' command with 'temp' flag\r\n"); } static void shaper_restore(struct shaper_pd_t *pd) { remove_shaper(pd->ppp->ifname); if (pd->down_speed && pd->up_speed) install_shaper(pd->ppp->ifname, pd->down_speed, pd->down_burst, pd->up_speed, pd->up_burst); } static int shaper_restore_exec(const char *cmd, char * const *f, int f_cnt, void *cli) { struct shaper_pd_t *pd; int all, found = 0;; if (f_cnt != 3) return CLI_CMD_SYNTAX; if (strcmp(f[2], "all")) all = 0; else all = 1; pthread_rwlock_rdlock(&shaper_lock); if (all) { temp_down_speed = 0; temp_up_speed = 0; } list_for_each_entry(pd, &shaper_list, entry) { if (!pd->temp_down_speed) continue; if (all || !strcmp(f[2], pd->ppp->ifname)) { pd->temp_down_speed = 0; pd->temp_up_speed = 0; triton_context_call(pd->ppp->ctrl->ctx, (triton_event_func)shaper_restore, pd); if (!all) { found = 1; break; } } } pthread_rwlock_unlock(&shaper_lock); if (!all && !found) cli_send(cli, "not found\r\n"); return CLI_CMD_OK; } static int clock_init(void) { FILE *fp; uint32_t clock_res; uint32_t t2us; uint32_t us2t; fp = fopen("/proc/net/psched", "r"); if (!fp) { log_emerg("tbf: failed to open /proc/net/psched: %s\n", strerror(errno)); return -1; } if (fscanf(fp, "%08x%08x%08x", &t2us, &us2t, &clock_res) != 3) { log_emerg("tbf: failed to parse /proc/net/psched\n"); fclose(fp); return -1; } fclose(fp); /* compatibility hack: for old iproute binaries (ignoring * the kernel clock resolution) the kernel advertises a * tick multiplier of 1000 in case of nano-second resolution, * which really is 1. */ if (clock_res == 1000000000) t2us = us2t; clock_factor = (double)clock_res / TIME_UNITS_PER_SEC; tick_in_usec = (double)t2us / us2t * clock_factor; return 0; } #ifdef RADIUS static int parse_attr_opt(const char *opt) { struct rad_dict_attr_t *attr; struct rad_dict_vendor_t *vendor; if (conf_vendor) vendor = rad_dict_find_vendor_id(conf_vendor); else vendor = NULL; if (conf_vendor) { if (vendor) attr = rad_dict_find_vendor_attr(vendor, opt); else attr = NULL; }else attr = rad_dict_find_attr(opt); if (attr) return attr->id; return atoi(opt); } static int parse_vendor_opt(const char *opt) { struct rad_dict_vendor_t *vendor; vendor = rad_dict_find_vendor_name(opt); if (vendor) return vendor->id; return atoi(opt); } #endif static void __init init(void) { const char *opt; if (clock_init()) return; #ifdef RADIUS opt = conf_get_opt("tbf", "vendor"); if (opt) conf_vendor = parse_vendor_opt(opt); opt = conf_get_opt("tbf", "attr"); if (opt) { conf_attr_down = parse_attr_opt(opt); conf_attr_up = parse_attr_opt(opt); } opt = conf_get_opt("tbf", "attr-down"); if (opt) conf_attr_down = parse_attr_opt(opt); opt = conf_get_opt("tbf", "attr-up"); if (opt) conf_attr_up = parse_attr_opt(opt); if (conf_attr_up <= 0 || conf_attr_down <= 0) { log_emerg("tbf: incorrect attribute(s), tbf disabled...\n"); return; } #endif opt = conf_get_opt("tbf", "burst-factor"); if (opt) { conf_down_burst_factor = strtod(opt, NULL); conf_up_burst_factor = conf_down_burst_factor * 10; } opt = conf_get_opt("tbf", "down-burst-factor"); if (opt) conf_down_burst_factor = strtod(opt, NULL); opt = conf_get_opt("tbf", "up-burst-factor"); if (opt) conf_up_burst_factor = strtod(opt, NULL); opt = conf_get_opt("tbf", "latency"); if (opt && atoi(opt) > 0) conf_latency = atoi(opt); opt = conf_get_opt("tbf", "mpu"); if (opt && atoi(opt) >= 0) conf_mpu = atoi(opt); opt = conf_get_opt("tbf", "verbose"); if (opt && atoi(opt) > 0) conf_verbose = 1; #ifdef RADIUS triton_event_register_handler(EV_RADIUS_ACCESS_ACCEPT, (triton_event_func)ev_radius_access_accept); triton_event_register_handler(EV_RADIUS_COA, (triton_event_func)ev_radius_coa); #endif triton_event_register_handler(EV_CTRL_FINISHED, (triton_event_func)ev_ctrl_finished); triton_event_register_handler(EV_SHAPER, (triton_event_func)ev_shaper); cli_register_simple_cmd2(shaper_change_exec, shaper_change_help, 2, "shaper", "change"); cli_register_simple_cmd2(shaper_restore_exec, shaper_restore_help, 2, "shaper", "restore"); }