/* GKrellM | Copyright (C) 1999-2010 Bill Wilson | | Author: Bill Wilson billw@gkrellm.net | Latest versions might be found at: http://gkrellm.net | | | GKrellM is free software: you can redistribute it and/or modify it | under the terms of the GNU General Public License as published by | the Free Software Foundation, either version 3 of the License, or | (at your option) any later version. | | GKrellM is distributed in the hope that it will be useful, but WITHOUT | ANY WARRANTY; without even the implied warranty of MERCHANTABILITY | or FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public | License for more details. | | You should have received a copy of the GNU General Public License | along with this program. If not, see http://www.gnu.org/licenses/ | | | Additional permission under GNU GPL version 3 section 7 | | If you modify this program, or any covered work, by linking or | combining it with the OpenSSL project's OpenSSL library (or a | modified version of that library), containing parts covered by | the terms of the OpenSSL or SSLeay licenses, you are granted | additional permission to convey the resulting work. | Corresponding Source for a non-source form of such a combination | shall include the source code for the parts of OpenSSL used as well | as that of the covered work. */ #include "gkrellmd.h" #include "gkrellmd-private.h" #include GList *gkrellmd_monitor_list; static GList *serveflag_done_list; static struct tm gkrellmd_current_tm; gint gkrellm_get_timer_ticks(void) { return GK.timer_ticks; } gboolean gkrellmd_check_client_version(GkrellmdMonitor *mon, gint major, gint minor, gint rev) { GkrellmdClient *client = mon->privat->client; if ( client->major_version > major || (client->major_version == major && client->minor_version > minor) || ( client->major_version == major && client->minor_version == minor && client->rev_version >= rev ) ) return TRUE; return FALSE; } void gkrellmd_add_serveflag_done(gboolean *flag) { serveflag_done_list = g_list_append(serveflag_done_list, flag); } void gkrellmd_set_serve_name(GkrellmdMonitor *mon, const gchar *tag) { GkrellmdMonitorPrivate *mp = mon->privat; mp->serve_name = tag; mp->serve_name_sent = FALSE; } void gkrellmd_serve_data(GkrellmdMonitor *mon, gchar *line) { GkrellmdMonitorPrivate *mp = mon->privat; gchar buf[128]; if (!line || !*line) return; if (!mp->serve_name_sent) { if (mp->serve_name) { snprintf(buf, sizeof(buf), "<%s>\n", mp->serve_name); gkrellm_debug(DEBUG_SERVER, "%s", buf); mp->serve_gstring = g_string_append(mp->serve_gstring, buf); mp->serve_name_sent = TRUE; } else { g_warning("gkrellmd: %s forgot to gkrellmd_set_serve_name()\n", mon->name); return; } } gkrellm_debug(DEBUG_SERVER,"%s", line); mp->serve_gstring = g_string_append(mp->serve_gstring, line); } /* ======================================================= */ typedef struct { gint instance; gulong user, nice, sys, idle; } CpuData; static gchar *n_cpus_setup; static gboolean nice_time_unsupported; static GList *cpu_list; static GList *instance_list; void gkrellm_cpu_set_number_of_cpus(gint n) { CpuData *cpu; GList *list; gint i; n_cpus_setup = g_strdup_printf("n_cpus %d\n", n); for (i = 0; i < n; ++i) { cpu = g_new0(CpuData, 1); cpu_list = g_list_append(cpu_list, cpu); if (instance_list && (list = g_list_nth(instance_list, i)) != NULL) cpu->instance = GPOINTER_TO_INT(list->data); else cpu->instance = i; } } void gkrellm_cpu_add_instance(gint instance) { instance_list = g_list_append(instance_list, GINT_TO_POINTER(instance)); } void gkrellm_cpu_nice_time_unsupported(void) { nice_time_unsupported = TRUE; } void gkrellm_cpu_assign_composite_data(gulong user, gulong nice, gulong sys, gulong idle) { return; /* let client gkrellm compute it */ } void gkrellm_cpu_assign_data(gint n, gulong user, gulong nice, gulong sys, gulong idle) { CpuData *cpu = NULL; GList *list; for (list = cpu_list; list; list = list->next) { cpu = (CpuData *) list->data; if (cpu->instance == n) break; } if (list) { cpu->user = user; cpu->nice = nice; cpu->sys = sys; cpu->idle = idle; } } static void update_cpu(GkrellmdMonitor *mon, gboolean first_update) { gkrellm_sys_cpu_read_data(); gkrellmd_need_serve(mon); } static void serve_cpu_data(GkrellmdMonitor *mon, gboolean first_serve) { CpuData *cpu; GList *list; gchar buf[128]; gkrellmd_set_serve_name(mon, "cpu"); for (list = cpu_list; list; list = list->next) { cpu = (CpuData *) list->data; snprintf(buf, sizeof(buf), "%d %lu %lu %lu %lu\n", cpu->instance, cpu->user, cpu->nice, cpu->sys, cpu->idle); gkrellmd_serve_data(mon, buf); } } static void serve_cpu_setup(GkrellmdMonitor *mon) { GkrellmdClient *client = mon->privat->client; GList *list; gchar buf[64]; gkrellmd_send_to_client(client, "\n"); for (list = instance_list; list; list = list->next) { snprintf(buf, sizeof(buf), "cpu_instance %d\n", GPOINTER_TO_INT(list->data)); gkrellmd_send_to_client(client, buf); } gkrellmd_send_to_client(client, n_cpus_setup); if (nice_time_unsupported) gkrellmd_send_to_client(client, "nice_time_unsupported\n"); } static GkrellmdMonitor cpu_monitor = { "cpu", update_cpu, serve_cpu_data, serve_cpu_setup }; static GkrellmdMonitor * init_cpu_monitor(void) { if (gkrellm_sys_cpu_init()) return &cpu_monitor; return NULL; } /* ======================================================= */ struct { gboolean changed; gint n_processes, n_running, n_users; gulong n_forks; gfloat fload; } proc; void gkrellm_proc_assign_data(gint n_processes, gint n_running, gulong n_forks, gfloat load) { if ( proc.n_processes != n_processes || proc.n_running != n_running || proc.n_forks != n_forks || proc.fload != load ) { proc.n_processes = n_processes; proc.n_running = n_running; proc.n_forks = n_forks; proc.fload = load; proc.changed = TRUE; } } void gkrellm_proc_assign_users(gint n_users) { if (proc.n_users != n_users) { proc.n_users = n_users; proc.changed = TRUE; } } static void update_proc(GkrellmdMonitor *mon, gboolean first_update) { proc.changed = FALSE; gkrellm_sys_proc_read_data(); if (first_update || GK.five_second_tick) gkrellm_sys_proc_read_users(); if (proc.changed) gkrellmd_need_serve(mon); } static void serve_proc_data(GkrellmdMonitor *mon, gboolean first_serve) { gchar buf[128]; gkrellmd_set_serve_name(mon, "proc"); snprintf(buf, sizeof(buf), "%d %d %lu %.2f %d\n", proc.n_processes, proc.n_running, proc.n_forks, proc.fload, proc.n_users); gkrellmd_serve_data(mon, buf); } static GkrellmdMonitor proc_monitor = { "proc", update_proc, serve_proc_data, NULL }; static GkrellmdMonitor * init_proc_monitor(void) { if (!gkrellm_sys_proc_init()) return NULL; serveflag_done_list = g_list_append(serveflag_done_list, &proc.changed); return &proc_monitor; } /* ======================================================= */ typedef struct { gchar *name; gchar *subdisk_parent; gint order, subdisk, changed; gint device_number, unit_number; gboolean virtual; guint64 rb, wb; } DiskData; static GList *disk_list; static gint n_disks; static gboolean units_are_blocks; static DiskData * add_disk(const gchar *name, gint order, gint device_number, gint unit_number) { DiskData *disk; GList *list; gint i; disk = g_new0(DiskData, 1); disk->name = g_strdup(name); disk->order = order; disk->subdisk = -1; disk->device_number = device_number; disk->unit_number = unit_number; if (order >= 0) { for (i = 0, list = disk_list; list; list = list->next, ++i) if (disk->order < ((DiskData *) list->data)->order) break; disk_list = g_list_insert(disk_list, disk, i); } else disk_list = g_list_append(disk_list, disk); ++n_disks; return disk; } static DiskData * add_subdisk(gchar *subdisk_name, gchar *disk_name, gint subdisk) { DiskData *sdisk = NULL; DiskData *disk; GList *list = NULL; for (list = disk_list; list; list = list->next) { disk = (DiskData * ) list->data; if (!strcmp(disk_name, disk->name)) break; } if (!list) return NULL; sdisk = g_new0(DiskData, 1); sdisk->name = g_strdup(subdisk_name); sdisk->subdisk_parent = g_strdup(disk_name); sdisk->order = disk->order; sdisk->subdisk = subdisk; for (list = list->next; list; list = list->next) { disk = (DiskData * ) list->data; if (disk->subdisk == -1 || disk->subdisk > subdisk) break; } disk_list = g_list_insert_before(disk_list, list, sdisk); ++n_disks; return sdisk; } static void disk_assign_data(DiskData *disk, guint64 rb, guint64 wb, gboolean virtual) { if (disk) { if (disk->rb != rb || disk->wb != wb) disk->changed = TRUE; else disk->changed = FALSE; disk->rb = rb; disk->wb = wb; disk->virtual = virtual; } } void gkrellm_disk_reset_composite(void) { /* Don't handle this. */ } void gkrellm_disk_units_are_blocks(void) { units_are_blocks = TRUE; } void gkrellm_disk_add_by_name(const gchar *name, const gchar *label) { gint order = -1; if (NULL == name) // Cannot add disk without a name return; order = gkrellm_sys_disk_order_from_name(name); /* FIXME: gkrellmd currently has no support for disk labels. Extend network-protocol and server to support disks with both name and label. */ add_disk(name, order, 0, 0); } void gkrellm_disk_assign_data_by_device(gint device_number, gint unit_number, guint64 rb, guint64 wb, gboolean virtual) { GList *list; DiskData *disk = NULL; gchar *name; gint order = -1; for (list = disk_list; list; list = list->next) { disk = (DiskData * ) list->data; if ( disk->device_number == device_number && disk->unit_number == unit_number ) break; disk = NULL; } if (!disk) { name = gkrellm_sys_disk_name_from_device(device_number, unit_number, &order); if (name) disk = add_disk(name, order, device_number, unit_number); } disk_assign_data(disk, rb, wb, virtual); } void gkrellm_disk_assign_data_nth(gint n, guint64 rb, guint64 wb, gboolean virtual) { DiskData *disk; gchar name[32]; if (n < n_disks) disk = (DiskData *) g_list_nth_data(disk_list, n); else { snprintf(name, sizeof(name), "%s%c", _("Disk"), 'A' + n); disk = add_disk(name, n, 0, 0); } disk_assign_data(disk, rb, wb, virtual); } void gkrellm_disk_assign_data_by_name(gchar *name, guint64 rb, guint64 wb, gboolean virtual) { GList *list; DiskData *disk = NULL; gint order = -1; for (list = disk_list; list; list = list->next) { disk = (DiskData * ) list->data; if (!strcmp(name, disk->name)) break; disk = NULL; } if (!disk) { order = gkrellm_sys_disk_order_from_name(name); disk = add_disk(name, order, 0, 0); } disk_assign_data(disk, rb, wb, virtual); } void gkrellm_disk_subdisk_assign_data_by_name(gchar *subdisk_name, gchar *disk_name, guint64 rb, guint64 wb) { GList *list; DiskData *disk = NULL; gchar *s, *endptr; gint subdisk; if (!subdisk_name || !disk_name) return; for (list = disk_list; list; list = list->next) { disk = (DiskData * ) list->data; if (!strcmp(subdisk_name, disk->name)) break; disk = NULL; } if (!disk) { /* A subdisk name is expected to be the disk_name with a number string | appended. Eg. "hda1" is a subdisk_name of disk_name "hda" */ s = subdisk_name + strlen(disk_name); subdisk = strtol(s, &endptr, 0); if (!*s || *endptr) return; disk = add_subdisk(subdisk_name, disk_name, subdisk); } disk_assign_data(disk, rb, wb, FALSE); } static void update_disk(GkrellmdMonitor *mon, gboolean first_update) { GList *list; DiskData *disk = NULL; gkrellm_sys_disk_read_data(); for (list = disk_list; list; list = list->next) { disk = (DiskData * ) list->data; if (disk->changed) { gkrellmd_need_serve(mon); break; } } } static void serve_disk_data(GkrellmdMonitor *mon, gboolean first_serve) { DiskData *disk; GList *list; gchar *buf = NULL; gkrellmd_set_serve_name(mon, "disk"); for (list = disk_list; list; list = list->next) { disk = (DiskData *) list->data; if (!disk->changed && !first_serve) continue; if (!disk->subdisk_parent) { if (gkrellmd_check_client_version(mon, 2, 2, 7) && disk->virtual) buf = g_strdup_printf("%s virtual %" PRIu64 " %" PRIu64 "\n", disk->name, disk->rb, disk->wb); else buf = g_strdup_printf("%s %" PRIu64 " %" PRIu64 "\n", disk->name, disk->rb, disk->wb); } else if (mon->privat->client->feature_subdisk) buf = g_strdup_printf("%s %s %" PRIu64 " %" PRIu64 "\n", disk->name, disk->subdisk_parent, disk->rb, disk->wb); else continue; gkrellmd_serve_data(mon, buf); g_free(buf); buf = NULL; } } static void serve_disk_setup(GkrellmdMonitor *mon) { GkrellmdClient *client = mon->privat->client; if (units_are_blocks) gkrellmd_send_to_client(client, "\nunits_are_blocks\n"); if (gkrellmd_check_client_version(mon, 2,1,3)) client->feature_subdisk = TRUE; } static GkrellmdMonitor disk_monitor = { "disk", update_disk, serve_disk_data, serve_disk_setup }; static GkrellmdMonitor * init_disk_monitor(void) { if (gkrellm_sys_disk_init()) return &disk_monitor; return NULL; } /* ======================================================= */ #include "../src/inet.h" typedef struct { ActiveTCP tcp; gboolean alive, new_connection; } InetData; static GList *inet_list, *inet_dead_list; static gboolean inet_unsupported, inet_new; void gkrellm_inet_log_tcp_port_data(gpointer data) { GList *list; InetData *in; ActiveTCP *tcp, *active_tcp = NULL; gchar *ap, *aap; gint slen; tcp = (ActiveTCP *) data; for (list = inet_list; list; list = list->next) { in = (InetData *) list->data; active_tcp = &in->tcp; if (tcp->family == AF_INET) { ap = (char *)&tcp->remote_addr; aap = (char *)&active_tcp->remote_addr; slen = sizeof(struct in_addr); } #if defined(INET6) else if (tcp->family == AF_INET6) { ap = (char *)&tcp->remote_addr6; aap = (char *)&active_tcp->remote_addr6; slen = sizeof(struct in6_addr); } #endif else return; if ( memcmp(aap, ap, slen) == 0 && active_tcp->remote_port == tcp->remote_port && active_tcp->local_port == tcp->local_port ) { in->alive = TRUE; /* Old alive connection still alive */ return; } } inet_new = TRUE; in = g_new0(InetData, 1); in->tcp = *tcp; in->alive = TRUE; in->new_connection = TRUE; inet_list = g_list_append(inet_list, in); } static void update_inet(GkrellmdMonitor *mon, gboolean first_update) { GList *list; InetData *in; static gint check_tcp; if (!first_update && !GK.second_tick) return; if (first_update || check_tcp == 0) { gkrellm_free_glist_and_data(&inet_dead_list); inet_new = FALSE; for (list = inet_list; list; list = list->next) { in = (InetData *) list->data; in->alive = FALSE; in->new_connection = FALSE; } gkrellm_sys_inet_read_tcp_data(); for (list = inet_list; list; ) { in = (InetData *) list->data; if (!in->alive) { if (list == inet_list) inet_list = inet_list->next; list = g_list_remove(list, in); inet_dead_list = g_list_append(inet_dead_list, in); } else list = list->next; } if (inet_new || inet_dead_list) gkrellmd_need_serve(mon); } check_tcp = (check_tcp + 1) % _GK.inet_interval; } static void serve_inet_data(GkrellmdMonitor *mon, gboolean first_serve) { InetData *in; ActiveTCP *tcp; GList *list; gchar buf[128], *cp; #if defined(INET6) && defined(HAVE_GETADDRINFO) struct sockaddr_in6 sin6; char addrbuf[NI_MAXHOST]; #endif if (inet_new || first_serve) { gkrellmd_set_serve_name(mon, "inet"); for (list = inet_list; list; list = list->next) { in = (InetData *) list->data; tcp = &in->tcp; if ( tcp->family == AF_INET && (in->new_connection || first_serve) ) { cp = inet_ntoa(tcp->remote_addr); snprintf(buf, sizeof(buf), "+0 %x %s:%x\n", tcp->local_port, cp, tcp->remote_port); } #if defined(INET6) && defined(HAVE_GETADDRINFO) else if (tcp->family == AF_INET6 && (in->new_connection || first_serve)) { memset(&sin6, 0, sizeof(sin6)); memcpy(&sin6.sin6_addr, &tcp->remote_addr6, sizeof(struct in6_addr)); sin6.sin6_family = AF_INET6; #ifdef SIN6_LEN sin6.sin6_len = sizeof(struct sockaddr_in6); #endif if (getnameinfo((struct sockaddr *)&sin6, sizeof(struct sockaddr_in6), addrbuf, sizeof(addrbuf), NULL, 0, NI_NUMERICHOST|NI_WITHSCOPEID) != 0) continue; snprintf(buf, sizeof(buf), "+6 %x [%s]:%x\n", tcp->local_port, addrbuf, tcp->remote_port); } #endif else continue; gkrellmd_serve_data(mon, buf); } } if (!first_serve) { gkrellmd_set_serve_name(mon, "inet"); for (list = inet_dead_list; list; list = list->next) { in = (InetData *) list->data; tcp = &in->tcp; if (tcp->family == AF_INET) { cp = inet_ntoa(tcp->remote_addr); snprintf(buf, sizeof(buf), "-0 %x %s:%x\n", tcp->local_port, cp, tcp->remote_port); } #if defined(INET6) && defined(HAVE_GETADDRINFO) else if (tcp->family == AF_INET6) { memset(&sin6, 0, sizeof(sin6)); memcpy(&sin6.sin6_addr, &tcp->remote_addr6, sizeof(struct in6_addr)); sin6.sin6_family = AF_INET6; #ifdef SIN6_LEN sin6.sin6_len = sizeof(struct sockaddr_in6); #endif if (getnameinfo((struct sockaddr *)&sin6, sizeof(struct sockaddr_in6), addrbuf, sizeof(addrbuf), NULL, 0, NI_NUMERICHOST|NI_WITHSCOPEID) != 0) continue; snprintf(buf, sizeof(buf), "-6 %x [%s]:%x\n", tcp->local_port, addrbuf, tcp->remote_port); } #endif else continue; gkrellmd_serve_data(mon, buf); } } } static void serve_inet_setup(GkrellmdMonitor *mon) { GkrellmdClient *client = mon->privat->client; if (inet_unsupported) gkrellmd_send_to_client(client, "\ninet_unsupported\n"); } static GkrellmdMonitor inet_monitor = { "inet", update_inet, serve_inet_data, serve_inet_setup }; static GkrellmdMonitor * init_inet_monitor(void) { if (_GK.inet_interval > 0 && gkrellm_sys_inet_init()) return &inet_monitor; inet_unsupported = TRUE; return NULL; } /* ======================================================= */ #define TIMER_TYPE_NONE 0 #define TIMER_TYPE_PPP 1 #define TIMER_TYPE_IPPP 2 typedef struct { gchar *name; gboolean changed, up, up_prev, up_event, down_event; gboolean timed_changed; time_t up_time; gulong rx, tx; } NetData; static NetData *net_timer; static GList *net_list, *net_sys_list; static time_t net_timer0; static gint net_timer_type; static gboolean net_use_routed; gchar * gkrellm_net_mon_first(void) { gchar *name = NULL; net_sys_list = net_list; if (net_sys_list) { name = ((NetData *) (net_sys_list->data))->name; net_sys_list = net_sys_list->next; } return name; } gchar * gkrellm_net_mon_next(void) { gchar *name = NULL; if (net_sys_list) { name = ((NetData *) (net_sys_list->data))->name; net_sys_list = net_sys_list->next; } return name; } void gkrellm_net_use_routed(gboolean real_routed /* not applicable in server */) { net_use_routed = TRUE; } static NetData * net_new(gchar *name) { NetData *net; net = g_new0(NetData, 1); net->name = g_strdup(name); net_list = g_list_append(net_list, net); if (net_timer_type != TIMER_TYPE_NONE && !strcmp(_GK.net_timer, net->name)) net_timer = net; return net; } void gkrellm_net_assign_data(gchar *name, gulong rx, gulong tx) { GList *list; NetData *net; for (list = net_list; list; list = list->next) { net = (NetData *) list->data; if (!strcmp(net->name, name)) { if (net->rx != rx || net->tx != tx) net->changed = TRUE; else net->changed = FALSE; break; } } if (!list) net = net_new(name); if (GK.second_tick && !net_use_routed) net->up = TRUE; net->rx = rx; net->tx = tx; } void gkrellm_net_routed_event(gchar *name, gboolean routed) { GList *list; NetData *net; for (list = net_list; list; list = list->next) { net = (NetData *) list->data; if (!strcmp(net->name, name)) break; } if (!list) net = net_new(name); if (routed) net->up_event = TRUE; else net->down_event = TRUE; net->up = routed; } void gkrellm_net_add_timer_type_ppp(gchar *name) { if (!_GK.net_timer || !name) return; if (name && !strncmp(_GK.net_timer, name, strlen(name) - 1)) net_timer_type = TIMER_TYPE_PPP; } void gkrellm_net_add_timer_type_ippp(gchar *name) { if (!_GK.net_timer || !name) return; if (name && !strncmp(_GK.net_timer, name, strlen(name) - 1)) net_timer_type = TIMER_TYPE_IPPP; } void gkrellm_net_set_lock_directory(gchar *dir) { /* Not supported remotely */ } static void update_net(GkrellmdMonitor *mon, gboolean first_update) { GList *list; NetData *net; gint up_time = 0; if (GK.second_tick) { if (!net_use_routed) { for (list = net_list; list; list = list->next) { net = (NetData *) list->data; net->up_prev = net->up; net->up = FALSE; } } else gkrellm_sys_net_check_routes(); } gkrellm_sys_net_read_data(); if (GK.second_tick && !net_use_routed) { for (list = net_list; list; list = list->next) { net = (NetData *) list->data; if (net->up && !net->up_prev) net->up_event = TRUE; else if (!net->up && net->up_prev) net->down_event = TRUE; } } if (net_timer && GK.second_tick) { if (net_timer_type == TIMER_TYPE_PPP) { struct stat st; gchar buf[256]; if (net_timer->up_event) { snprintf(buf, sizeof(buf), "/var/run/%s.pid", net_timer->name); if (g_stat(buf, &st) == 0) net_timer0 = st.st_mtime; else time(&net_timer0); } if (net_timer->up) up_time = (int) (time(0) - net_timer0); } else if (net_timer_type == TIMER_TYPE_IPPP) { /* get all isdn status from its connect state because the | net_timer->up can be UP even with isdn line not connected. | Can't get time history if gkrellmd started after connects. */ static gboolean old_connected; gboolean connected; connected = gkrellm_sys_net_isdn_online(); if (connected && !old_connected) time(&net_timer0); /* New session just started */ old_connected = connected; up_time = (int) (time(0) - net_timer0); } if (up_time != net_timer->up_time) net_timer->timed_changed = TRUE; net_timer->up_time = up_time; } gkrellmd_need_serve(mon); /* serve func checks for changed */ } static void serve_net_data(GkrellmdMonitor *mon, gboolean first_serve) { NetData *net; GList *list; gchar buf[128]; gboolean fake_up_event; gkrellmd_set_serve_name(mon, "net"); for (list = net_list; list; list = list->next) { net = (NetData *) list->data; if (net->changed || first_serve) { snprintf(buf, sizeof(buf), "%s %lu %lu\n", net->name, net->rx, net->tx); gkrellmd_serve_data(mon, buf); } } /* Since the server transmits changes only, use the routed interface | to the client regardless if the sysdep code uses routed. */ if (GK.second_tick || first_serve) { gkrellmd_set_serve_name(mon, "net_routed"); for (list = net_list; list; list = list->next) { net = (NetData *) list->data; fake_up_event = (first_serve && net->up); if (net->up_event || net->down_event || fake_up_event) { snprintf(buf, sizeof(buf), "%s %d\n", net->name, fake_up_event ? TRUE : net->up_event); gkrellmd_serve_data(mon, buf); } if (mon->privat->client->last_client) net->up_event = net->down_event = FALSE; } } if (net_timer && GK.second_tick) { if (net_timer->timed_changed || first_serve) { gkrellmd_set_serve_name(mon, "net_timer"); snprintf(buf, sizeof(buf), "%s %d\n", net_timer->name, (gint)net_timer->up_time); gkrellmd_serve_data(mon, buf); } } } static void serve_net_setup(GkrellmdMonitor *mon) { GkrellmdClient *client = mon->privat->client; gchar buf[128]; /* The client <-> server link always uses routed mode, but the client | needs to know if server sysdep uses routed for config purposes. */ if (net_use_routed) gkrellmd_send_to_client(client, "\nnet_use_routed\n"); if (net_timer_type != TIMER_TYPE_NONE) { snprintf(buf, sizeof(buf), "\nnet_timer %s\n", _GK.net_timer); gkrellmd_send_to_client(client, buf); } } static GkrellmdMonitor net_monitor = { "net", update_net, serve_net_data, serve_net_setup }; static GkrellmdMonitor * init_net_monitor(void) { net_timer_type = TIMER_TYPE_NONE; if (gkrellm_sys_net_init()) return &net_monitor; return NULL; } /* ======================================================= */ struct { gboolean mem_changed; guint64 total, used, free, shared, buffers, cached; gboolean swap_changed; guint64 swap_total, swap_used; gulong swap_in, swap_out; } mem; void gkrellm_mem_assign_data(guint64 total, guint64 used, guint64 free, guint64 shared, guint64 buffers, guint64 cached) { if ( mem.total != total || mem.used != used || mem.free != free || mem.shared != shared || mem.buffers != buffers || mem.cached != cached ) { mem.total = total; mem.used = used; mem.free = free; mem.shared = shared; mem.buffers = buffers; mem.cached = cached; mem.mem_changed = TRUE; } } void gkrellm_swap_assign_data(guint64 total, guint64 used, gulong swap_in, gulong swap_out) { if ( mem.swap_total != total || mem.swap_used != used || mem.swap_in != swap_in || mem.swap_out != swap_out ) { mem.swap_total = total; mem.swap_used = used; mem.swap_in = swap_in; mem.swap_out = swap_out; mem.swap_changed = TRUE; } } static void update_mem(GkrellmdMonitor *mon, gboolean first_update) { mem.mem_changed = mem.swap_changed = FALSE; gkrellm_sys_swap_read_data(); if (first_update || GK.five_second_tick) gkrellm_sys_mem_read_data(); if (mem.mem_changed || mem.swap_changed) gkrellmd_need_serve(mon); } static void serve_mem_data(GkrellmdMonitor *mon, gboolean first_serve) { gchar buf[128]; if (mem.mem_changed || first_serve) { gkrellmd_set_serve_name(mon, "mem"); snprintf(buf, sizeof(buf), "%" PRIu64 " %" PRIu64 " %" PRIu64 " %" PRIu64 " %" PRIu64 " %" PRIu64 "\n", mem.total, mem.used, mem.free, mem.shared, mem.buffers, mem.cached); gkrellmd_serve_data(mon, buf); } if (mem.swap_changed || first_serve) { gkrellmd_set_serve_name(mon, "swap"); snprintf(buf, sizeof(buf), "%" PRIu64 " %" PRIu64 " %lu %lu\n", mem.swap_total, mem.swap_used, mem.swap_in, mem.swap_out); gkrellmd_serve_data(mon, buf); } } static GkrellmdMonitor mem_monitor = { "mem", update_mem, serve_mem_data, NULL }; static GkrellmdMonitor * init_mem_monitor(void) { if (!gkrellm_sys_mem_init()) return NULL; serveflag_done_list = g_list_append(serveflag_done_list, &mem.mem_changed); serveflag_done_list = g_list_append(serveflag_done_list,&mem.swap_changed); return &mem_monitor; } /* ======================================================= */ typedef struct { gboolean busy, deleted, is_mounted, is_nfs, changed; gchar *directory, *device, *type, *options; glong blocks, bavail, bfree, bsize; } Mount; static GList *mounts_list, *fstab_list; static gboolean nfs_check, fs_check, fs_need_serve, fstab_list_modified, mounts_list_modified, mounting_unsupported; static gchar *remote_fs_types[] = { "cifs", "nfs", "smbfs" }; void gkrellm_fs_setup_eject(gchar *eject_tray, gchar *close_tray, void (*eject_func)(), void (*close_func)()) { /* Not supported remotely */ } void gkrellm_fs_add_to_mounts_list(gchar *dir, gchar *dev, gchar *type) { GList *list; Mount *m; gint i; for (list = mounts_list; list; list = list->next) { m = (Mount *) list->data; if ( !strcmp(m->directory, dir) && !strcmp(m->device, dev) && !strcmp(m->type, type) ) break; } if (!list) { m = g_new0(Mount, 1); m->directory = g_strdup(dir); m->device = g_strdup(dev); m->type = g_strdup(type); mounts_list = g_list_append(mounts_list, m); mounts_list_modified = TRUE; serveflag_done_list = g_list_append(serveflag_done_list, &m->changed); for (i = 0; i < (sizeof(remote_fs_types) / sizeof(gchar *)); ++i) { if (!strcmp(m->type, remote_fs_types[i])) { m->is_nfs = TRUE; break; } } } m->is_mounted = TRUE; } void gkrellm_fs_add_to_fstab_list(gchar *dir, gchar *dev, gchar *type, gchar *opt) { Mount *m; m = g_new0(Mount, 1); m->directory = g_strdup(dir); m->device = g_strdup(dev); m->type = g_strdup(type); fstab_list = g_list_append(fstab_list, m); } void gkrellm_fs_assign_fsusage_data(gpointer pointer, glong blocks, glong bavail, glong bfree, glong bsize) { Mount *m = (Mount *) pointer; if ( m->blocks != blocks || m->bavail != bavail || m->bfree != bfree || m->bsize != bsize ) { m->blocks = blocks; m->bavail = bavail; m->bfree = bfree; m->bsize = bsize; m->changed = TRUE; } } void gkrellm_fs_mounting_unsupported(void) { mounting_unsupported = TRUE; } static void refresh_mounts_list(void) { GList *list; Mount *m; for (list = mounts_list; list; list = list->next) ((Mount *) list->data)->is_mounted = FALSE; gkrellm_sys_fs_get_mounts_list(); for (list = mounts_list; list; ) { m = (Mount *) list->data; if (!m->is_mounted) { if (list == mounts_list) mounts_list = mounts_list->next; list = g_list_remove_link(list, list); g_free(m->directory); g_free(m->device); g_free(m->type); serveflag_done_list = g_list_remove(serveflag_done_list, &m->changed); if (m->busy) m->deleted = TRUE; else g_free(m); mounts_list_modified = TRUE; } else list = list->next; } } static void refresh_fstab_list(void) { Mount *m; while (fstab_list) { m = (Mount *) fstab_list->data; g_free(m->directory); g_free(m->device); g_free(m->type); g_free(m); fstab_list = g_list_remove(fstab_list, fstab_list->data); } gkrellm_sys_fs_get_fstab_list(); fstab_list_modified = TRUE; } static gpointer get_fsusage_thread(void *data) { Mount *m = (Mount *) data; gkrellm_sys_fs_get_fsusage(m, m->directory); if (m->deleted) g_free(m); else { if (m->changed) fs_need_serve = TRUE; m->busy = FALSE; } return NULL; } static void update_fs(GkrellmdMonitor *mon, gboolean first_update) { GThread *gth; GList *list; Mount *m; static gint check_tick; if (fs_need_serve) /* Asynchronous change in fsusage thread? */ gkrellmd_need_serve(mon); fs_need_serve = FALSE; if (GK.second_tick) ++check_tick; fs_check = !(check_tick % _GK.fs_interval); if (_GK.nfs_interval > 0) nfs_check = !(check_tick % _GK.nfs_interval); else nfs_check = 0; if (!first_update && (!GK.second_tick || (!fs_check && !nfs_check))) return; refresh_mounts_list(); for (list = mounts_list; list; list = list->next) { m = (Mount *) list->data; if (fs_check && !m->is_nfs) gkrellm_sys_fs_get_fsusage(m, m->directory); else if (nfs_check && m->is_nfs && !m->busy) { m->busy = TRUE; gth = g_thread_new("get_fsusage", get_fsusage_thread, m); g_thread_unref(gth); } } if (first_update || gkrellm_sys_fs_fstab_modified()) refresh_fstab_list(); gkrellmd_need_serve(mon); } static void serve_fs_data(GkrellmdMonitor *mon, gboolean first_serve) { Mount *m; GList *list; gchar buf[128]; if (mounts_list_modified || first_serve) { gkrellmd_set_serve_name(mon, "fs_mounts"); gkrellmd_serve_data(mon, ".clear\n"); for (list = mounts_list; list; list = list->next) { m = (Mount *) list->data; snprintf(buf, sizeof(buf), "%s %s %s %ld %ld %ld %ld\n", m->directory, m->device, m->type, m->blocks, m->bavail, m->bfree, m->bsize); /*gkrellm_debug(DEBUG_SERVER, "Adding mount-line for %s to serve-data\n", m->directory);*/ gkrellmd_serve_data(mon, buf); } } else { gkrellmd_set_serve_name(mon, "fs"); for (list = mounts_list; list; list = list->next) { m = (Mount *) list->data; if (!m->changed) continue; snprintf(buf, sizeof(buf), "%s %s %ld %ld %ld %ld\n", m->directory, m->device, m->blocks, m->bavail, m->bfree, m->bsize); /*gkrellm_debug(DEBUG_SERVER, "Updating fs %s in serve-data\n", m->directory);*/ gkrellmd_serve_data(mon, buf); } } if (fstab_list_modified || first_serve) { gkrellmd_set_serve_name(mon, "fs_fstab"); gkrellmd_serve_data(mon, ".clear\n"); for (list = fstab_list; list; list = list->next) { m = (Mount *) list->data; snprintf(buf, sizeof(buf), "%s %s %s\n", m->directory, m->device, m->type); /*gkrellm_debug(DEBUG_SERVER, "Adding fstab-line for %s to serve-data\n", m->directory);*/ gkrellmd_serve_data(mon, buf); } } } static void serve_fs_setup(GkrellmdMonitor *mon) { GkrellmdClient *client = mon->privat->client; if (mounting_unsupported) gkrellmd_send_to_client(client, "\nmounting_unsupported\n"); } static GkrellmdMonitor fs_monitor = { "fs", update_fs, serve_fs_data, serve_fs_setup }; static GkrellmdMonitor * init_fs_monitor(void) { if (!gkrellm_sys_fs_init()) return NULL; serveflag_done_list = g_list_append(serveflag_done_list, &fstab_list_modified); serveflag_done_list = g_list_append(serveflag_done_list, &mounts_list_modified); return &fs_monitor; } /* ======================================================= */ typedef struct { gboolean changed, have_data; gint id; gboolean present, on_line, charging; gint percent; gint time_left; } Battery; static GList *battery_list; static Battery *composite_battery; static Battery * battery_nth(gint n) { Battery *bat; static gint n_batteries; if (n > 10) return NULL; if (n < 0) { if (!composite_battery) { bat = g_new0(Battery, 1); battery_list = g_list_prepend(battery_list, bat); bat->id = GKRELLM_BATTERY_COMPOSITE_ID; composite_battery = bat; serveflag_done_list = g_list_append(serveflag_done_list, &composite_battery->changed); } return composite_battery; } if (composite_battery) ++n; while ((bat = (Battery *)g_list_nth_data(battery_list, n)) == NULL) { bat = g_new0(Battery, 1); battery_list = g_list_append(battery_list, bat); bat->id = n_batteries++; serveflag_done_list = g_list_append(serveflag_done_list, &bat->changed); } return bat; } void gkrellm_battery_assign_data(gint id, gboolean present, gboolean on_line, gboolean charging, gint percent, gint time_left) { Battery *bat; bat = battery_nth(id); if (!bat) return; if ( present != bat->present || on_line != bat->on_line || charging != bat->charging || percent != bat->percent || time_left != bat->time_left ) { bat->present = present; bat->on_line = on_line; bat->charging = charging; bat->percent = percent; bat->time_left = time_left; bat->changed = TRUE; } bat->have_data = TRUE; } gint gkrellm_battery_full_cap_fallback() { return 5000; /* XXX Linux ACPI bug not handled by server */ } static void update_battery(GkrellmdMonitor *mon, gboolean first_update) { GList *list; Battery *bat; if (!first_update && !GK.five_second_tick) return; for (list = battery_list; list; list = list->next) { bat = (Battery *) list->data; bat->have_data = FALSE; bat->changed = FALSE; } gkrellm_sys_battery_read_data(); for (list = battery_list; list; list = list->next) { bat = (Battery *) list->data; if (!bat->have_data && bat->present) { bat->present = FALSE; bat->changed = TRUE; } if (bat->changed) gkrellmd_need_serve(mon); } } static void serve_battery_data(GkrellmdMonitor *mon, gboolean first_serve) { Battery *bat; GList *list; gchar buf[128]; gkrellmd_set_serve_name(mon, "battery"); for (list = battery_list; list; list = list->next) { bat = (Battery *) list->data; if ( (!bat->changed && !first_serve) || ( !gkrellmd_check_client_version(mon, 2,1,9) && bat->id > 0 ) ) continue; snprintf(buf, sizeof(buf), "%d %d %d %d %d %d\n", bat->present, bat->on_line, bat->charging, bat->percent, bat->time_left, bat->id); gkrellmd_serve_data(mon, buf); } } static void serve_battery_setup(GkrellmdMonitor *mon) { GkrellmdClient *client = mon->privat->client; gkrellm_sys_battery_read_data(); if (battery_list) gkrellmd_send_to_client(client, "\nbattery_available\n"); } static GkrellmdMonitor battery_monitor = { "battery", update_battery, serve_battery_data, serve_battery_setup }; static GkrellmdMonitor * init_battery_monitor(void) { if (!gkrellm_sys_battery_init()) return NULL; return &battery_monitor; } /* ======================================================= */ typedef struct { gboolean changed; gint type; gchar *path; /* Pathname to sensor data or device file */ gchar *id_name; /* These 4 are unique sensor identification */ gint id; /* of a particular sensor type */ gint iodev; /* One or any combination may be used. */ gint inter; gchar *vref; gchar *default_label; gint group; gfloat factor; gfloat offset; gfloat raw_value; } Sensor; static GList *sensors_list; static gboolean thread_busy, sensors_need_serve; static gpointer read_sensors(void *data) { GList *list; Sensor *sensor; gfloat tmp; gboolean need_serve = FALSE; for (list = sensors_list; list; list = list->next) { sensor = (Sensor *) list->data; tmp = sensor->raw_value; if (sensor->type == SENSOR_TEMPERATURE) gkrellm_sys_sensors_get_temperature(sensor->path, sensor->id, sensor->iodev, sensor->inter, &sensor->raw_value); else if (sensor->type == SENSOR_FAN) gkrellm_sys_sensors_get_fan(sensor->path, sensor->id, sensor->iodev, sensor->inter, &sensor->raw_value); else if (sensor->type == SENSOR_VOLTAGE) gkrellm_sys_sensors_get_voltage(sensor->path, sensor->id, sensor->iodev, sensor->inter, &sensor->raw_value); if (sensor->raw_value != tmp) { sensor->changed = TRUE; need_serve = TRUE; } else sensor->changed = FALSE; } thread_busy = FALSE; sensors_need_serve = need_serve; /* Thread, so set after data collected */ return NULL; } static void run_sensors_thread(void) { GThread *gth; if (thread_busy) return; thread_busy = TRUE; gth = g_thread_new("read_sensors", read_sensors, NULL); g_thread_unref(gth); } void gkrellm_sensors_config_migrate_connect(gboolean (*func)(), gint sysdep_version) { } void gkrellm_sensors_update_volt_order_base(void) { } void gkrellm_sensors_set_group(gpointer sr, gint group) { Sensor *sensor = (Sensor *) sr; if (sensor) sensor->group = group; } void gkrellm_sensors_sysdep_option(gchar *keyword, gchar *label, void (*func)()) { } /* A sensor within a type is uniquely identified by its id_name. | A sysdep interface may additionally use any of the triple integer | set (id, iodev, inter) for internal identification. | Monitor code here uses path to read the sensor values, but id_name is only | passed to the client since that is all that is needed for identification | (the client is no longer interfacing to sysdep code). */ gpointer gkrellm_sensors_add_sensor(gint type, gchar *sensor_path, gchar *id_name, gint id, gint iodev, gint inter, gfloat factor, gfloat offset, gchar *vref, gchar *default_label) { Sensor *sensor; if (!id_name || !*id_name || type < 0 || type > 2) return NULL; sensor = g_new0(Sensor, 1); sensor->id_name = g_strdup(id_name); if (sensor_path) sensor->path = g_strdup(sensor_path); else sensor->path = g_strdup(id_name); sensor->vref = g_strdup(vref ? vref : "NONE"); sensor->default_label = g_strdup(default_label ? default_label : "NONE"); sensor->factor = factor; sensor->offset = offset; sensor->type = type; sensor->id = id; sensor->iodev = iodev; sensor->inter = inter; sensors_list = g_list_append(sensors_list, sensor); return sensor; } static void update_sensors(GkrellmdMonitor *mon, gboolean first_update) { if (sensors_need_serve) /* Asynchronously set in thread */ gkrellmd_need_serve(mon); sensors_need_serve = FALSE; if (!GK.five_second_tick && !first_update) return; if (first_update) read_sensors(NULL); /* No thread on first read */ else run_sensors_thread(); } static void serve_sensors_data(GkrellmdMonitor *mon, gboolean first_serve) { Sensor *sr; GList *list; gchar buf[128]; gboolean sensor_disk_ok; gkrellmd_set_serve_name(mon, "sensors"); sensor_disk_ok = gkrellmd_check_client_version(mon, 2,2,0); for (list = sensors_list; list; list = list->next) { sr = (Sensor *) list->data; if (sr->group == SENSOR_GROUP_DISK && !sensor_disk_ok) continue; if (sr->changed || first_serve) { snprintf(buf, sizeof(buf), "%d \"%s\" %d %d %d %.2f\n", sr->type, sr->id_name, sr->id, sr->iodev, sr->inter, sr->raw_value); gkrellmd_serve_data(mon, buf); } } } static void serve_sensors_setup(GkrellmdMonitor *mon) { GkrellmdClient *client = mon->privat->client; GList *list; Sensor *s; gchar buf[256]; gboolean sensor_disk_ok; gkrellmd_send_to_client(client, "\n"); sensor_disk_ok = gkrellmd_check_client_version(mon, 2,2,0); for (list = sensors_list; list; list = list->next) { s = (Sensor *) list->data; if (s->group == SENSOR_GROUP_DISK && !sensor_disk_ok) continue; if (sensor_disk_ok) snprintf(buf, sizeof(buf), "%d \"%s\" %d %d %d %.4f %.4f \"%s\" \"%s\" %d\n", s->type, s->id_name, s->id, s->iodev, s->inter, s->factor, s->offset, s->vref, s->default_label, s->group); else snprintf(buf, sizeof(buf), "%d \"%s\" %d %d %d %.4f %.4f \"%s\" \"%s\"\n", s->type, s->id_name, s->id, s->iodev, s->inter, s->factor, s->offset, s->vref, s->default_label); gkrellmd_send_to_client(client, buf); } } static GkrellmdMonitor sensors_monitor = { "sensors", update_sensors, serve_sensors_data, serve_sensors_setup }; static GkrellmdMonitor * init_sensors_monitor(void) { if (!gkrellm_sys_sensors_init()) return NULL; return &sensors_monitor; } /* ======================================================= */ static time_t base_uptime, up_seconds; static gulong up_minutes = -1; void gkrellm_uptime_set_base_uptime(time_t base) { base_uptime = base; } static void update_uptime(GkrellmdMonitor *mon, gboolean first_update) { gint prev_up; if (GK.ten_second_tick || up_minutes < 0 || first_update) { prev_up = up_minutes; up_seconds = gkrellm_sys_uptime_read_uptime(); if (up_seconds > 0) up_minutes = (gint) (up_seconds / 60); else up_minutes = (gint)(time(0) - _GK.start_time + base_uptime) / 60; if (up_minutes != prev_up) gkrellmd_need_serve(mon); } } static void serve_uptime_data(GkrellmdMonitor *mon, gboolean first_serve) { gchar buf[128]; gkrellmd_set_serve_name(mon, "uptime"); snprintf(buf, sizeof(buf), "%lu\n", (gulong) up_minutes); gkrellmd_serve_data(mon, buf); } static GkrellmdMonitor uptime_monitor = { "uptime", update_uptime, serve_uptime_data, NULL }; static GkrellmdMonitor * init_uptime_monitor(void) { if (!gkrellm_sys_uptime_init()) return NULL; return &uptime_monitor; } /* ======================================================= */ static void send_time(GkrellmdClient *client) { struct tm *t; gchar buf[128]; t = &gkrellmd_current_tm; snprintf(buf, sizeof(buf), "