Ejemplo n.º 1
0
//! Returns only if requested by run_once = TRUE
//! Pointer to get updated config
int run_stats(int run_once, int execution_interval_sec, int (*update_config_fn)(void))
{
    LOGDEBUG("Starting stats loop with execution interval %d sec\n", execution_interval_sec);
    useconds_t start_time_us = 0;
    useconds_t execution_interval_us = execution_interval_sec * 1000 * 1000;
    useconds_t sleep_time_us = execution_interval_us;
    do {
        LOGTRACE("Sleeping for %d usec for next pass\n", sleep_time_us);
        usleep(sleep_time_us);
        start_time_us = time_usec();

        //update config
        if(update_config_fn) {
            LOGTRACE("Getting updated config\n");
            update_config_fn();
            LOGTRACE("Done getting updated config\n");
        }

        //Run internal stats sensor updates
        LOGTRACE("Executing internal stats sensor pass...not quite\n");
        //Don't return immediately on failure, run all internal sensors
        if(internal_sensor_pass(FALSE) != EUCA_OK) {
            LOGERROR("Error encountered during internal stats sensor run.\n");
        } else {
            LOGTRACE("Internal stats sensor pass completed successfully\n");
        }
        
        sleep_time_us = execution_interval_us - (time_usec() - start_time_us);
    } while(!run_once);

    LOGDEBUG("Returning from run_stats()\n");
    return EUCA_OK;
}
Ejemplo n.º 2
0
void
cpustats_read(struct cpustats *out)
{
        // On kernels prior to 2.6.37, this can take a long time on
        // large systems because updating IRQ counts is slow.  See
        //   https://lkml.org/lkml/2010/9/29/259

        int i;
        for (i = 0; i < cpustats_cpus; i++)
                out->cpus[i].online = false;

        out->online = out->max = 0;
        out->real = time_usec() * sysconf(_SC_CLK_TCK) / 1000000;

        if ((readn_str(cpustats_fd, cpustats_buf, cpustats_buf_size)) < 0)
                epanic("failed to read %s/stat", proc_path);

        char *pos = cpustats_buf;
        while (strncmp(pos, "cpu", 3) == 0) {
                pos += 3;

                struct cpustat *st;
                int cpu = -1;
                if (*pos == ' ') {
                        // Aggregate line
                        st = &out->avg;
                } else if (isdigit(*pos)) {
                        cpu = strtol(pos, &pos, 10);
                        if (cpu >= cpustats_cpus)
                                goto next;
                        st = &out->cpus[cpu];
                } else {
                        goto next;
                }

                // Earlier versions of Linux only reported user, nice,
                // sys, and idle.
                st->iowait = st->irq = st->softirq = 0;
                unsigned long long toss;
                if (sscanf(pos, " %llu %llu %llu %llu %llu %llu %llu",
                           &st->user, &st->nice, &st->sys, &toss,
                           &st->iowait, &st->irq, &st->softirq) < 4)
                        continue;
                st->online = true;
                if (cpu != -1)
                        out->online++;
                if (cpu > out->max)
                        out->max = cpu;

        next:
                // Go to the next line
                while (*pos && *pos != '\n')
                        pos++;
                if (*pos) pos++;
        }

        if ((lseek(cpustats_fd, 0, SEEK_SET)) < 0)
                epanic("failed to seek %s/stat", proc_path);
}
Ejemplo n.º 3
0
Archivo: time.c Proyecto: rcarbone/ark
/* Return a well formatted string with a time difference at millisecond resolution */
char * elapsed_time (struct timeval * start, struct timeval * stop)
{
  static char et [64];

  time_t elapsed = delta_time_in_milliseconds (stop, start);

  if (time_day (elapsed))
    sprintf (et, "%d days, %02d:%02d:%02d.%03ld",
	     time_day (elapsed), time_hour (elapsed), time_min (elapsed), time_sec (elapsed), time_usec (elapsed));
  else if (time_hour (elapsed))
    sprintf (et, "%02d:%02d:%02d.%03ld",
	     time_hour (elapsed), time_min (elapsed), time_sec (elapsed), time_usec (elapsed));
  else if (time_min (elapsed))
    sprintf (et, "%02d:%02d.%03ld", time_min (elapsed), time_sec (elapsed), time_usec (elapsed));
  else if (time_sec (elapsed))
    sprintf (et, "%d.%03d secs", time_sec (elapsed), time_msec (elapsed));
  else
    sprintf (et, "%3d msecs", time_msec (elapsed));

  return et;
}
Ejemplo n.º 4
0
void on_write(int fd, short ev, void *arg)
{
	ServerStats *server = (ServerStats *)arg;
	int write_len;
	
	write_len = write(server->fd_server, test_vars.string_test,
					  test_vars.string_length);
	
	/* update statistics */
	server->time = time_usec();
	server->requests++;
	server->sent_data += write_len;

	/* close the socket and delete the event once all data sent */
	if (server->requests == test_vars.repeat) {
		event_del(&server->ev_write);
	}
}
Ejemplo n.º 5
0
int get_socket(int connection)
{
	struct sockaddr_in addr;
    struct hostent *he;
	int sock_buf_size;
	
	/* create the socket */
    if ((srv_stats[connection].fd_server = socket(AF_INET, SOCK_STREAM, 0)) < 0)
        err(1, "socket");
	
    bzero((char *)&addr, sizeof(addr));
	
	/* resolve the hostname */
    if ((he = gethostbyname(test_vars.server)) == NULL)
        err(1, "gethostbyname");

    bcopy(he->h_addr, &addr.sin_addr, he->h_length);
    addr.sin_family = AF_INET;
    addr.sin_port = htons(test_vars.port);
		
	/* connect! */
    if (connect(srv_stats[connection].fd_server,
				(struct sockaddr *) &addr, sizeof(addr)) < 0) {
		warn("connect");
		return ERROR;
	}

	/* insert initial values for this connection */
	srv_stats[connection].time = time_usec();
	srv_stats[connection].local_port = get_local_Port(srv_stats[connection].fd_server);
	srv_stats[connection].requests = 0;
	srv_stats[connection].sent_data = 0;
	srv_stats[connection].recv_data = 0;
	srv_stats[connection].delay = 0;
	
	/* increase the buffer size */
	sock_buf_size = MAX_IOSIZE * 2;
	setsockopt(srv_stats[connection].fd_server, SOL_SOCKET, SO_SNDBUF,
			   &sock_buf_size, sizeof(sock_buf_size));
	setsockopt(srv_stats[connection].fd_server, SOL_SOCKET, SO_RCVBUF,
			   &sock_buf_size, sizeof(sock_buf_size));	

    return srv_stats[connection].fd_server;
}
Ejemplo n.º 6
0
void on_read(int fd, short ev, void *arg)
{
	ServerStats *server = (ServerStats *)arg;
	u_char buffer[MAX_IOSIZE];
	int read_len;
	
	read_len = read(server->fd_server, buffer, sizeof(buffer));
	
	/* update statistic */
	server->delay += time_usec() - server->time;
	server->recv_data += read_len;
	
	/* close the socket and delete the event once all data received */
	if (server->recv_data == (test_vars.repeat * test_vars.string_length)) {
		event_del(&server->ev_read);
		close(fd);

		/* exit the event loop when we have no more connections */
		if (--test_vars.open_conns == 0)
			event_loopexit(0);
		
		return;	
	}
}
Ejemplo n.º 7
0
void *proc_main(void *ptr)
{
    (void)ptr;

    info("PROC Plugin thread created with task id %d", gettid());

    if(pthread_setcanceltype(PTHREAD_CANCEL_DEFERRED, NULL) != 0)
        error("Cannot set pthread cancel type to DEFERRED.");

    if(pthread_setcancelstate(PTHREAD_CANCEL_ENABLE, NULL) != 0)
        error("Cannot set pthread cancel state to ENABLE.");

    // disable (by default) various interface that are not needed
    config_get_boolean("plugin:proc:/proc/net/dev:lo", "enabled", 0);
    config_get_boolean("plugin:proc:/proc/net/dev:fireqos_monitor", "enabled", 0);

    // when ZERO, attempt to do it
    int vdo_proc_net_dev            = !config_get_boolean("plugin:proc", "/proc/net/dev", 1);
    int vdo_proc_diskstats          = !config_get_boolean("plugin:proc", "/proc/diskstats", 1);
    int vdo_proc_net_snmp           = !config_get_boolean("plugin:proc", "/proc/net/snmp", 1);
    int vdo_proc_net_snmp6          = !config_get_boolean("plugin:proc", "/proc/net/snmp6", 1);
    int vdo_proc_net_netstat        = !config_get_boolean("plugin:proc", "/proc/net/netstat", 1);
    int vdo_proc_net_stat_conntrack = !config_get_boolean("plugin:proc", "/proc/net/stat/conntrack", 1);
    int vdo_proc_net_ip_vs_stats    = !config_get_boolean("plugin:proc", "/proc/net/ip_vs/stats", 1);
    int vdo_proc_net_stat_synproxy  = !config_get_boolean("plugin:proc", "/proc/net/stat/synproxy", 1);
    int vdo_proc_stat               = !config_get_boolean("plugin:proc", "/proc/stat", 1);
    int vdo_proc_meminfo            = !config_get_boolean("plugin:proc", "/proc/meminfo", 1);
    int vdo_proc_vmstat             = !config_get_boolean("plugin:proc", "/proc/vmstat", 1);
    int vdo_proc_net_rpc_nfs        = !config_get_boolean("plugin:proc", "/proc/net/rpc/nfs", 1);
    int vdo_proc_net_rpc_nfsd       = !config_get_boolean("plugin:proc", "/proc/net/rpc/nfsd", 1);
    int vdo_proc_sys_kernel_random_entropy_avail    = !config_get_boolean("plugin:proc", "/proc/sys/kernel/random/entropy_avail", 1);
    int vdo_proc_interrupts         = !config_get_boolean("plugin:proc", "/proc/interrupts", 1);
    int vdo_proc_softirqs           = !config_get_boolean("plugin:proc", "/proc/softirqs", 1);
    int vdo_proc_net_softnet_stat   = !config_get_boolean("plugin:proc", "/proc/net/softnet_stat", 1);
    int vdo_proc_loadavg            = !config_get_boolean("plugin:proc", "/proc/loadavg", 1);
    int vdo_ipc                     = !config_get_boolean("plugin:proc", "ipc", 1);
    int vdo_sys_kernel_mm_ksm       = !config_get_boolean("plugin:proc", "/sys/kernel/mm/ksm", 1);
    int vdo_cpu_netdata             = !config_get_boolean("plugin:proc", "netdata server resources", 1);

    // keep track of the time each module was called
    unsigned long long sutime_proc_net_dev = 0ULL;
    unsigned long long sutime_proc_diskstats = 0ULL;
    unsigned long long sutime_proc_net_snmp = 0ULL;
    unsigned long long sutime_proc_net_snmp6 = 0ULL;
    unsigned long long sutime_proc_net_netstat = 0ULL;
    unsigned long long sutime_proc_net_stat_conntrack = 0ULL;
    unsigned long long sutime_proc_net_ip_vs_stats = 0ULL;
    unsigned long long sutime_proc_net_stat_synproxy = 0ULL;
    unsigned long long sutime_proc_stat = 0ULL;
    unsigned long long sutime_proc_meminfo = 0ULL;
    unsigned long long sutime_proc_vmstat = 0ULL;
    unsigned long long sutime_proc_net_rpc_nfs = 0ULL;
    unsigned long long sutime_proc_net_rpc_nfsd = 0ULL;
    unsigned long long sutime_proc_sys_kernel_random_entropy_avail = 0ULL;
    unsigned long long sutime_proc_interrupts = 0ULL;
    unsigned long long sutime_proc_softirqs = 0ULL;
    unsigned long long sutime_proc_net_softnet_stat = 0ULL;
    unsigned long long sutime_proc_loadavg = 0ULL;
    unsigned long long sutime_ipc = 0ULL;
    unsigned long long sutime_sys_kernel_mm_ksm = 0ULL;

    unsigned long long step = rrd_update_every * 1000000ULL;
    for(;;) {
        unsigned long long now = time_usec();
        unsigned long long next = now - (now % step) + step;

        while(now < next) {
            sleep_usec(next - now);
            now = time_usec();
        }

        if(unlikely(netdata_exit)) break;

        // BEGIN -- the job to be done

        if(!vdo_sys_kernel_mm_ksm) {
            debug(D_PROCNETDEV_LOOP, "PROCNETDEV: calling do_sys_kernel_mm_ksm().");

            now = time_usec();
            vdo_sys_kernel_mm_ksm = do_sys_kernel_mm_ksm(rrd_update_every, (sutime_sys_kernel_mm_ksm > 0)?now - sutime_sys_kernel_mm_ksm:0ULL);
            sutime_sys_kernel_mm_ksm = now;
        }
        if(unlikely(netdata_exit)) break;

        if(!vdo_proc_loadavg) {
            debug(D_PROCNETDEV_LOOP, "PROCNETDEV: calling do_proc_loadavg().");
            now = time_usec();
            vdo_proc_loadavg = do_proc_loadavg(rrd_update_every, (sutime_proc_loadavg > 0)?now - sutime_proc_loadavg:0ULL);
            sutime_proc_loadavg = now;
        }
        if(unlikely(netdata_exit)) break;

        if(!vdo_ipc) {
            debug(D_PROCNETDEV_LOOP, "PROCNETDEV: calling do_ipc().");
            now = time_usec();
            vdo_ipc = do_ipc(rrd_update_every, (sutime_ipc > 0)?now - sutime_ipc:0ULL);
            sutime_ipc = now;
        }
        if(unlikely(netdata_exit)) break;

        if(!vdo_proc_interrupts) {
            debug(D_PROCNETDEV_LOOP, "PROCNETDEV: calling do_proc_interrupts().");
            now = time_usec();
            vdo_proc_interrupts = do_proc_interrupts(rrd_update_every, (sutime_proc_interrupts > 0)?now - sutime_proc_interrupts:0ULL);
            sutime_proc_interrupts = now;
        }
        if(unlikely(netdata_exit)) break;

        if(!vdo_proc_softirqs) {
            debug(D_PROCNETDEV_LOOP, "PROCNETDEV: calling do_proc_softirqs().");
            now = time_usec();
            vdo_proc_softirqs = do_proc_softirqs(rrd_update_every, (sutime_proc_softirqs > 0)?now - sutime_proc_softirqs:0ULL);
            sutime_proc_softirqs = now;
        }
        if(unlikely(netdata_exit)) break;

        if(!vdo_proc_net_softnet_stat) {
            debug(D_PROCNETDEV_LOOP, "PROCNETDEV: calling do_proc_net_softnet_stat().");
            now = time_usec();
            vdo_proc_net_softnet_stat = do_proc_net_softnet_stat(rrd_update_every, (sutime_proc_net_softnet_stat > 0)?now - sutime_proc_net_softnet_stat:0ULL);
            sutime_proc_net_softnet_stat = now;
        }
        if(unlikely(netdata_exit)) break;

        if(!vdo_proc_sys_kernel_random_entropy_avail) {
            debug(D_PROCNETDEV_LOOP, "PROCNETDEV: calling do_proc_sys_kernel_random_entropy_avail().");
            now = time_usec();
            vdo_proc_sys_kernel_random_entropy_avail = do_proc_sys_kernel_random_entropy_avail(rrd_update_every, (sutime_proc_sys_kernel_random_entropy_avail > 0)?now - sutime_proc_sys_kernel_random_entropy_avail:0ULL);
            sutime_proc_sys_kernel_random_entropy_avail = now;
        }
        if(unlikely(netdata_exit)) break;

        if(!vdo_proc_net_dev) {
            debug(D_PROCNETDEV_LOOP, "PROCNETDEV: calling do_proc_net_dev().");
            now = time_usec();
            vdo_proc_net_dev = do_proc_net_dev(rrd_update_every, (sutime_proc_net_dev > 0)?now - sutime_proc_net_dev:0ULL);
            sutime_proc_net_dev = now;
        }
        if(unlikely(netdata_exit)) break;

        if(!vdo_proc_diskstats) {
            debug(D_PROCNETDEV_LOOP, "PROCNETDEV: calling do_proc_diskstats().");
            now = time_usec();
            vdo_proc_diskstats = do_proc_diskstats(rrd_update_every, (sutime_proc_diskstats > 0)?now - sutime_proc_diskstats:0ULL);
            sutime_proc_diskstats = now;
        }
        if(unlikely(netdata_exit)) break;

        if(!vdo_proc_net_snmp) {
            debug(D_PROCNETDEV_LOOP, "PROCNETDEV: calling do_proc_net_snmp().");
            now = time_usec();
            vdo_proc_net_snmp = do_proc_net_snmp(rrd_update_every, (sutime_proc_net_snmp > 0)?now - sutime_proc_net_snmp:0ULL);
            sutime_proc_net_snmp = now;
        }
        if(unlikely(netdata_exit)) break;

        if(!vdo_proc_net_snmp6) {
            debug(D_PROCNETDEV_LOOP, "PROCNETDEV: calling do_proc_net_snmp6().");
            now = time_usec();
            vdo_proc_net_snmp6 = do_proc_net_snmp6(rrd_update_every, (sutime_proc_net_snmp6 > 0)?now - sutime_proc_net_snmp6:0ULL);
            sutime_proc_net_snmp6 = now;
        }
        if(unlikely(netdata_exit)) break;

        if(!vdo_proc_net_netstat) {
            debug(D_PROCNETDEV_LOOP, "PROCNETDEV: calling do_proc_net_netstat().");
            now = time_usec();
            vdo_proc_net_netstat = do_proc_net_netstat(rrd_update_every, (sutime_proc_net_netstat > 0)?now - sutime_proc_net_netstat:0ULL);
            sutime_proc_net_netstat = now;
        }
        if(unlikely(netdata_exit)) break;

        if(!vdo_proc_net_stat_conntrack) {
            debug(D_PROCNETDEV_LOOP, "PROCNETDEV: calling do_proc_net_stat_conntrack().");
            now = time_usec();
            vdo_proc_net_stat_conntrack = do_proc_net_stat_conntrack(rrd_update_every, (sutime_proc_net_stat_conntrack > 0)?now - sutime_proc_net_stat_conntrack:0ULL);
            sutime_proc_net_stat_conntrack = now;
        }
        if(unlikely(netdata_exit)) break;

        if(!vdo_proc_net_ip_vs_stats) {
            debug(D_PROCNETDEV_LOOP, "PROCNETDEV: calling vdo_proc_net_ip_vs_stats().");
            now = time_usec();
            vdo_proc_net_ip_vs_stats = do_proc_net_ip_vs_stats(rrd_update_every, (sutime_proc_net_ip_vs_stats > 0)?now - sutime_proc_net_ip_vs_stats:0ULL);
            sutime_proc_net_ip_vs_stats = now;
        }
        if(unlikely(netdata_exit)) break;

        if(!vdo_proc_net_stat_synproxy) {
            debug(D_PROCNETDEV_LOOP, "PROCNETDEV: calling vdo_proc_net_stat_synproxy().");
            now = time_usec();
            vdo_proc_net_stat_synproxy = do_proc_net_stat_synproxy(rrd_update_every, (sutime_proc_net_stat_synproxy > 0)?now - sutime_proc_net_stat_synproxy:0ULL);
            sutime_proc_net_stat_synproxy = now;
        }
        if(unlikely(netdata_exit)) break;

        if(!vdo_proc_stat) {
            debug(D_PROCNETDEV_LOOP, "PROCNETDEV: calling do_proc_stat().");
            now = time_usec();
            vdo_proc_stat = do_proc_stat(rrd_update_every, (sutime_proc_stat > 0)?now - sutime_proc_stat:0ULL);
            sutime_proc_stat = now;
        }
        if(unlikely(netdata_exit)) break;

        if(!vdo_proc_meminfo) {
            debug(D_PROCNETDEV_LOOP, "PROCNETDEV: calling vdo_proc_meminfo().");
            now = time_usec();
            vdo_proc_meminfo = do_proc_meminfo(rrd_update_every, (sutime_proc_meminfo > 0)?now - sutime_proc_meminfo:0ULL);
            sutime_proc_meminfo = now;
        }
        if(unlikely(netdata_exit)) break;

        if(!vdo_proc_vmstat) {
            debug(D_PROCNETDEV_LOOP, "PROCNETDEV: calling vdo_proc_vmstat().");
            now = time_usec();
            vdo_proc_vmstat = do_proc_vmstat(rrd_update_every, (sutime_proc_vmstat > 0)?now - sutime_proc_vmstat:0ULL);
            sutime_proc_vmstat = now;
        }
        if(unlikely(netdata_exit)) break;

        if(!vdo_proc_net_rpc_nfsd) {
            debug(D_PROCNETDEV_LOOP, "PROCNETDEV: calling do_proc_net_rpc_nfsd().");
            now = time_usec();
            vdo_proc_net_rpc_nfsd = do_proc_net_rpc_nfsd(rrd_update_every, (sutime_proc_net_rpc_nfsd > 0)?now - sutime_proc_net_rpc_nfsd:0ULL);
            sutime_proc_net_rpc_nfsd = now;
        }
        if(unlikely(netdata_exit)) break;

        if(!vdo_proc_net_rpc_nfs) {
            debug(D_PROCNETDEV_LOOP, "PROCNETDEV: calling do_proc_net_rpc_nfs().");
            now = time_usec();
            vdo_proc_net_rpc_nfs = do_proc_net_rpc_nfs(rrd_update_every, (sutime_proc_net_rpc_nfs > 0)?now - sutime_proc_net_rpc_nfs:0ULL);
            sutime_proc_net_rpc_nfs = now;
        }
        if(unlikely(netdata_exit)) break;

        // END -- the job is done

        // --------------------------------------------------------------------

        if(!vdo_cpu_netdata) {
            global_statistics_charts();
            registry_statistics();
        }
    }

    info("PROC thread exiting");

    pthread_exit(NULL);
    return NULL;
}
Ejemplo n.º 8
0
int main(int argc, char **argv)
{
    struct time_type time;
    ZOOM_connection *z;
    ZOOM_resultset *r;
    int *elc;
    struct event_line_t *els;
    ZOOM_options o;
    int i;
    int k;

    init_statics();

    read_params(argc, argv, &parameters);

    z = (ZOOM_connection *) xmalloc(sizeof(*z) * parameters.concurrent);
    r = (ZOOM_resultset *) xmalloc(sizeof(*r) * parameters.concurrent);
    elc = (int *) xmalloc(sizeof(*elc) * parameters.concurrent * parameters.repeat);
    els = (struct event_line_t *) xmalloc(
        sizeof(*els) * parameters.concurrent * parameters.repeat * 10);
    o = ZOOM_options_create();

    /* async mode */
    ZOOM_options_set (o, "async", "1");

    /* get first record of result set (using piggypack) */
    if (parameters.piggypack)
        ZOOM_options_set (o, "count", "1");

    /* set proxy */
    if (strlen(parameters.proxy))
        ZOOM_options_set (o, "proxy", parameters.proxy);


    /* preferred record syntax */
    if (0){
        ZOOM_options_set (o, "preferredRecordSyntax", "usmarc");
        ZOOM_options_set (o, "elementSetName", "F");
    }

    time_init(&time);
    /* repeat loop */
    for (k = 0; k < parameters.repeat; k++){

        /* progress zeroing */
        for (i = 0; i < 4096; i++){
            parameters.progress[i] = k * 5 -1;
        }

        /* connect to all concurrent connections*/
        for ( i = 0; i < parameters.concurrent; i++){
            /* set event count to zero */
            elc[k * parameters.concurrent + i] = 0;

            /* create connection - pass options (they are the same for all) */
            z[i] = ZOOM_connection_create(o);

            /* connect and init */
            ZOOM_connection_connect(z[i], parameters.host, 0);
        }
        /* search all */
        for (i = 0; i < parameters.concurrent; i++)
            r[i] = ZOOM_connection_search_pqf (z[i], parameters.query);

        /* network I/O. pass number of connections and array of connections */
        while ((i = ZOOM_event (parameters.concurrent, z))){
            int event = ZOOM_connection_last_event(z[i-1]);
            const char *errmsg;
            const char *addinfo;
            int error = 0;
            //int progress = zoom_progress[event];

            if (event == ZOOM_EVENT_SEND_DATA || event == ZOOM_EVENT_RECV_DATA)
                continue;

            time_stamp(&time);

            /* updating events and event list */
            error = ZOOM_connection_error(z[i-1] , &errmsg, &addinfo);
            if (error)
                parameters.progress[i] = zoom_progress[ZOOM_EVENT_UNKNOWN];
            //parameters.progress[i] = zoom_progress[ZOOM_EVENT_NONE];
            else if (event == ZOOM_EVENT_CONNECT)
                parameters.progress[i] = zoom_progress[event];
            else
                //parameters.progress[i] = zoom_progress[event];
                parameters.progress[i] += 1;

            update_events(elc, els,
                          k, i-1,
                          time_sec(&time), time_usec(&time),
                          parameters.progress[i],
                          event, zoom_events[event],
                          error, errmsg);
        }

        /* destroy connections */
        for (i = 0; i<parameters.concurrent; i++)
            {
                ZOOM_resultset_destroy (r[i]);
                ZOOM_connection_destroy (z[i]);
            }



    } /* for (k = 0; k < parameters.repeat; k++) repeat loop */

    /* output */

    if (parameters.gnuplot){
        printf("# gnuplot data and instruction file \n");
        printf("# gnuplot thisfile \n");
        printf("\n");
        printf("set title \"Z39.50 connection plot\"\n");
        printf("set xlabel \"Connection\"\n");
        printf("set ylabel \"Time Seconds\"\n");
        printf("set zlabel \"Progress\"\n");
        printf("set ticslevel 0\n");
        printf("set grid\n");
        printf("set pm3d\n");
        printf("splot '-' using ($1):($2):($3) t '' with points\n");
        printf("\n");
        printf("\n");
    }

    print_table_header();
    print_events(elc,  els, parameters.concurrent);

    if (parameters.gnuplot){
        printf("end\n");
        printf("pause -1 \"Hit ENTER to return\"\n");
    }

    /* destroy data structures and exit */
    xfree(z);
    xfree(r);
    xfree(elc);
    xfree(els);
    ZOOM_options_destroy(o);
    exit (0);
}
Ejemplo n.º 9
0
int main(void) {
	char *status;
	if((status = malloc(STATUS_LENGTH*sizeof(char))) == NULL){
		printf("Cannot allocate memory for status");
		return 0;
	}

	char *datetime = NULL;
	char state_bat[12];
	int bat1, energy_full; // bat2;

	int rem_hours = 0, rem_min = 0, rem_sec = 0;
	long rem_usec = 0;

	char *net_intf, *ip = NULL;

	if((net_intf = malloc(5*sizeof(char))) == NULL){
		printf("Cannot allocate memory for net_intf");
		return 0;
	}

	if((ip = malloc(100*sizeof(char))) == NULL){
		printf("Cannot allocate memory for ip");
		return 0;
	}

	char net_displ[50];

	long left_volume;
	long right_volume;

	int mem_used;
	int mem_available;

	float cpu_avg_freq;

	long usec1, usec2 = 0;
	struct timeval time1, time2;

	int connected = 0;

	int energy1, energy2, dummy = 0;

	int count = 0;

	char *mpc_vol, *mpc_state, *mpc_song = NULL;

	if((mpc_vol = malloc(3*sizeof(char))) == NULL){
		printf("Cannot allocate memory for mpc_vol");
		return 0;
	}

	if((mpc_state = malloc(5*sizeof(char))) == NULL){
		printf("Cannot allocate memory for mpc_state");
		return 0;
	}

	if((mpc_song = malloc(100*sizeof(char))) == NULL){
		printf("Cannot allocate memory for mpc_song");
		return 0;
	}

	if (!(dpy = XOpenDisplay(NULL))) {
		fprintf(stderr, "Cannot open display.\n");
		return 0;
	}

	strcpy(state_bat, "unknown");

	for (;;sleep(1)) {

		bat1 = getbattery(&dummy, &energy_full);

		connected = net(&net_intf, &ip);

		datetime = getdatetime();
		getvolume(&left_volume, &right_volume);

		getmemoryusage(&mem_available, &mem_used);
		getcpuusage(&cpu_avg_freq);

		if (connected == 1) sprintf(net_displ, "%s: %s", net_intf, ip);
		else sprintf(net_displ, "not connected");

		//mpc_stat(&mpc_vol, &mpc_state, &mpc_song);

		if (count == 0) {
			usec1 = time_usec(&time1);
			getbattery(&energy1, &energy_full);
			count++;
		} else if (count >= 5) {

			count = 0;

			usec2 = time_usec(&time2);
			getbattery(&energy2, &energy_full);

			if ((energy2 - energy1) < 0){
				rem_usec = ((float)(usec2-usec1))*(((float)(energy1+energy2))/((float)(2*(energy1-energy2))));
				strcpy(state_bat, "discharging");
			} else if ((energy2 - energy1) > 0) {
				rem_usec = (((float)(usec2-usec1))*((float)energy_full)/((float)(energy2-energy1)))*(1-(((float)(energy2+energy1))/((float)(2*energy_full))));
				strcpy(state_bat, "charging");
			} else if ( (energy2 == energy1) && bat1 >= 100) {
				rem_usec = 0;
				strcpy(state_bat, "charged");
			} else {
				rem_usec = 0;
				strcpy(state_bat, "unknown");
			}

			rem_hours = (int)(rem_usec/(1e6*60*60));
			rem_min = (int)((rem_usec/(1e6*60)) - rem_hours*60);
			rem_sec = (int)((rem_usec/(1e6)) - rem_hours*60*60 - rem_min*60);


			if ((bat1 < 15) && (strcmp(state_bat, "discharging") == 0)) {
				system("mplayer /home/andrea/.local/statusbar/sound/siren.mp3");
			}

		} else {
			count++;
		}

//		snprintf(status, STATUS_LENGTH,  "MPC: status: %s - song: %s | %s | volume left %i - right %i | Battery %d%% (%s %d h %d min %d s) | %s", mpc_state, mpc_song, net_displ, (int)left_volume, (int)right_volume, bat1, state_bat, rem_hours, rem_min, rem_sec, datetime);
		snprintf(status, STATUS_LENGTH,  "CPU (avg) %4.3f MHz | RAM used %d%% available %d%% | %s | volume left %i - right %i | Battery %d%% (%s %d h %d min %d s) | %s", cpu_avg_freq, mem_used, mem_available, net_displ, (int)left_volume, (int)right_volume, bat1, state_bat, rem_hours, rem_min, rem_sec, datetime);

		setstatus(status);
	}

	free(mpc_song);
	free(mpc_state);
	free(mpc_vol);
	free(net_intf);
	free(ip);
	free(datetime);
	free(status);
	XCloseDisplay(dpy);

	return 0;
}