static int stream_formatter_bin(FILE *pipe, void *data, metric_type type, char *name, void *value) {
#define STREAM_BIN(...) if (stream_bin_writer(pipe, ((struct timeval *)data)->tv_sec, __VA_ARGS__, name)) return 1;
#define STREAM_UINT(val) if (!fwrite(&val, sizeof(unsigned int), 1, pipe)) return 1;
timer_hist *t;
int i;
switch (type) {
case KEY_VAL:
STREAM_BIN(BIN_TYPE_KV, BIN_OUT_NO_TYPE, *(double*)value);
break;
case GAUGE:
STREAM_BIN(BIN_TYPE_GAUGE, BIN_OUT_NO_TYPE, ((gauge_t*)value)->value);
break;
case COUNTER:
STREAM_BIN(BIN_TYPE_COUNTER, BIN_OUT_SUM, counter_sum(value));
STREAM_BIN(BIN_TYPE_COUNTER, BIN_OUT_SUM_SQ, counter_squared_sum(value));
STREAM_BIN(BIN_TYPE_COUNTER, BIN_OUT_MEAN, counter_mean(value));
STREAM_BIN(BIN_TYPE_COUNTER, BIN_OUT_COUNT, counter_count(value));
STREAM_BIN(BIN_TYPE_COUNTER, BIN_OUT_STDDEV, counter_stddev(value));
STREAM_BIN(BIN_TYPE_COUNTER, BIN_OUT_MIN, counter_min(value));
STREAM_BIN(BIN_TYPE_COUNTER, BIN_OUT_MAX, counter_max(value));
break;
case SET:
STREAM_BIN(BIN_TYPE_SET, BIN_OUT_SUM, set_size(value));
break;
case TIMER:
t = (timer_hist*)value;
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_SUM, timer_sum(&t->tm));
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_SUM_SQ, timer_squared_sum(&t->tm));
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_MEAN, timer_mean(&t->tm));
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_COUNT, timer_count(&t->tm));
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_STDDEV, timer_stddev(&t->tm));
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_MIN, timer_min(&t->tm));
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_MAX, timer_max(&t->tm));
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_PCT | 50, timer_query(&t->tm, 0.5));
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_PCT | 95, timer_query(&t->tm, 0.95));
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_PCT | 99, timer_query(&t->tm, 0.99));
// Binary streaming for histograms
if (t->conf) {
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_HIST_FLOOR, t->conf->min_val);
STREAM_UINT(t->counts[0]);
for (i=0; i < t->conf->num_bins-2; i++) {
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_HIST_BIN, t->conf->min_val+(t->conf->bin_width*i));
STREAM_UINT(t->counts[i+1]);
}
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_HIST_CEIL, t->conf->max_val);
STREAM_UINT(t->counts[i+1]);
}
break;
default:
syslog(LOG_ERR, "Unknown metric type: %d", type);
break;
}
return 0;
}
/**
* Streaming callback to format our output
*/
static int stream_formatter(FILE *pipe, void *data, metric_type type, char *name, void *value) {
#define STREAM(...) if (fprintf(pipe, __VA_ARGS__, (long long)tv->tv_sec) < 0) return 1;
struct timeval *tv = data;
timer_hist *t;
int i;
switch (type) {
case KEY_VAL:
STREAM("%s|%f|%lld\n", name, *(double*)value);
break;
case GAUGE:
STREAM("%s|%f|%lld\n", name, ((gauge_t*)value)->value);
break;
case COUNTER:
STREAM("%s|%f|%lld\n", name, counter_sum(value));
break;
case SET:
STREAM("%s|%lld|%lld\n", name, set_size(value));
break;
case TIMER:
t = (timer_hist*)value;
STREAM("timers.%s.sum|%f|%lld\n", name, timer_sum(&t->tm));
STREAM("timers.%s.sum_sq|%f|%lld\n", name, timer_squared_sum(&t->tm));
STREAM("timers.%s.mean|%f|%lld\n", name, timer_mean(&t->tm));
STREAM("timers.%s.lower|%f|%lld\n", name, timer_min(&t->tm));
STREAM("timers.%s.upper|%f|%lld\n", name, timer_max(&t->tm));
STREAM("timers.%s.count|%lld|%lld\n", name, timer_count(&t->tm));
STREAM("timers.%s.stdev|%f|%lld\n", name, timer_stddev(&t->tm));
STREAM("timers.%s.median|%f|%lld\n", name, timer_query(&t->tm, 0.5));
STREAM("timers.%s.upper_90|%f|%lld\n", name, timer_query(&t->tm, 0.9));
STREAM("timers.%s.upper_95|%f|%lld\n", name, timer_query(&t->tm, 0.95));
STREAM("timers.%s.upper_99|%f|%lld\n", name, timer_query(&t->tm, 0.99));
// Stream the histogram values
if (t->conf) {
STREAM("%s.histogram.bin_<%0.2f|%u|%lld\n", name, t->conf->min_val, t->counts[0]);
for (i=0; i < t->conf->num_bins-2; i++) {
STREAM("%s.histogram.bin_%0.2f|%u|%lld\n", name, t->conf->min_val+(t->conf->bin_width*i), t->counts[i+1]);
}
STREAM("%s.histogram.bin_>%0.2f|%u|%lld\n", name, t->conf->max_val, t->counts[i+1]);
}
break;
default:
syslog(LOG_ERR, "Unknown metric type: %d", type);
break;
}
return 0;
}
static int stream_formatter_bin(FILE *pipe, void *data, metric_type type, char *name, void *value) {
#define STREAM_BIN(...) if (stream_bin_writer(pipe, ((struct timeval *)data)->tv_sec, __VA_ARGS__, name)) return 1;
#define STREAM_UINT(val) if (!fwrite(&val, sizeof(unsigned int), 1, pipe)) return 1;
timer_hist *t;
int i;
included_metrics_config* counters_config = &(GLOBAL_CONFIG->ext_counters_config);
switch (type) {
case KEY_VAL:
STREAM_BIN(BIN_TYPE_KV, BIN_OUT_NO_TYPE, *(double*)value);
break;
case GAUGE:
STREAM_BIN(BIN_TYPE_GAUGE, BIN_OUT_NO_TYPE, ((gauge_t*)value)->value);
break;
case COUNTER:
if (counters_config->sum) {
STREAM_BIN(BIN_TYPE_COUNTER, BIN_OUT_SUM, counter_sum(value));
}
if (counters_config->sum_sq) {
STREAM_BIN(BIN_TYPE_COUNTER, BIN_OUT_SUM_SQ, counter_squared_sum(value));
}
if (counters_config->mean) {
STREAM_BIN(BIN_TYPE_COUNTER, BIN_OUT_MEAN, counter_mean(value));
}
if (counters_config->count) {
STREAM_BIN(BIN_TYPE_COUNTER, BIN_OUT_COUNT, counter_count(value));
}
if (counters_config->stdev) {
STREAM_BIN(BIN_TYPE_COUNTER, BIN_OUT_STDDEV, counter_stddev(value));
}
if (counters_config->lower) {
STREAM_BIN(BIN_TYPE_COUNTER, BIN_OUT_MIN, counter_min(value));
}
if (counters_config->upper) {
STREAM_BIN(BIN_TYPE_COUNTER, BIN_OUT_MAX, counter_max(value));
}
if (counters_config->rate) {
STREAM_BIN(BIN_TYPE_COUNTER, BIN_OUT_RATE, counter_sum(value) / GLOBAL_CONFIG->flush_interval);
}
break;
case SET:
STREAM_BIN(BIN_TYPE_SET, BIN_OUT_SUM, set_size(value));
break;
case TIMER:
t = (timer_hist*)value;
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_SUM, timer_sum(&t->tm));
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_SUM_SQ, timer_squared_sum(&t->tm));
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_MEAN, timer_mean(&t->tm));
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_COUNT, timer_count(&t->tm));
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_STDDEV, timer_stddev(&t->tm));
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_MIN, timer_min(&t->tm));
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_MAX, timer_max(&t->tm));
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_RATE, timer_sum(&t->tm) / GLOBAL_CONFIG->flush_interval);
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_SAMPLE_RATE, (double)timer_count(&t->tm) / GLOBAL_CONFIG->flush_interval);
for (i=0; i < GLOBAL_CONFIG->num_quantiles; i++) {
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_PCT |
(int)(GLOBAL_CONFIG->quantiles[i] * 100),
timer_query(&t->tm, GLOBAL_CONFIG->quantiles[i]));
}
// Binary streaming for histograms
if (t->conf) {
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_HIST_FLOOR, t->conf->min_val);
STREAM_UINT(t->counts[0]);
for (i=0; i < t->conf->num_bins-2; i++) {
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_HIST_BIN, t->conf->min_val+(t->conf->bin_width*i));
STREAM_UINT(t->counts[i+1]);
}
STREAM_BIN(BIN_TYPE_TIMER, BIN_OUT_HIST_CEIL, t->conf->max_val);
STREAM_UINT(t->counts[i+1]);
}
break;
default:
syslog(LOG_ERR, "Unknown metric type: %d", type);
break;
}
return 0;
}
/**
* Streaming callback to format our output
*/
static int stream_formatter(FILE *pipe, void *data, metric_type type, char *name, void *value) {
#define STREAM(...) if (fprintf(pipe, __VA_ARGS__, (long long)tv->tv_sec) < 0) return 1;
struct config_time* ct = data;
struct timeval *tv = ct->tv;
timer_hist *t;
int i;
char *prefix = ct->global_config->prefixes_final[type];
switch (type) {
case KEY_VAL:
STREAM("%s%s|%f|%lld\n", prefix, name, *(double*)value);
break;
case GAUGE:
STREAM("%s%s|%f|%lld\n", prefix, name, ((gauge_t*)value)->value);
break;
case COUNTER:
if (ct->global_config->extended_counters) {
STREAM("%s%s.count|%" PRIu64 "|%lld\n", prefix, name, counter_count(value));
STREAM("%s%s.mean|%f|%lld\n", prefix, name, counter_mean(value));
STREAM("%s%s.stdev|%f|%lld\n", prefix, name, counter_stddev(value));
STREAM("%s%s.sum|%f|%lld\n", prefix, name, counter_sum(value));
STREAM("%s%s.sum_sq|%f|%lld\n", prefix, name, counter_squared_sum(value));
STREAM("%s%s.lower|%f|%lld\n", prefix, name, counter_min(value));
STREAM("%s%s.upper|%f|%lld\n", prefix, name, counter_max(value));
STREAM("%s%s.rate|%f|%lld\n", prefix, name, counter_sum(value) / ct->global_config->flush_interval);
} else {
STREAM("%s%s|%f|%lld\n", prefix, name, counter_sum(value));
}
break;
case SET:
STREAM("%s%s|%" PRIu64 "|%lld\n", prefix, name, set_size(value));
break;
case TIMER:
t = (timer_hist*)value;
STREAM("%s%s.sum|%f|%lld\n", prefix, name, timer_sum(&t->tm));
STREAM("%s%s.sum_sq|%f|%lld\n", prefix, name, timer_squared_sum(&t->tm));
STREAM("%s%s.mean|%f|%lld\n", prefix, name, timer_mean(&t->tm));
STREAM("%s%s.lower|%f|%lld\n", prefix, name, timer_min(&t->tm));
STREAM("%s%s.upper|%f|%lld\n", prefix, name, timer_max(&t->tm));
STREAM("%s%s.count|%" PRIu64 "|%lld\n", prefix, name, timer_count(&t->tm));
STREAM("%s%s.stdev|%f|%lld\n", prefix, name, timer_stddev(&t->tm));
for (i=0; i < ct->global_config->num_quantiles; i++) {
int percentile;
double quantile = ct->global_config->quantiles[i];
if (quantile == 0.5) {
STREAM("%s%s.median|%f|%lld\n", prefix, name, timer_query(&t->tm, 0.5));
}
if (to_percentile(quantile, &percentile)) {
syslog(LOG_ERR, "Invalid quantile: %lf", quantile);
break;
}
STREAM("%s%s.p%d|%f|%lld\n", prefix, name, percentile,
timer_query(&t->tm, quantile));
}
STREAM("%s%s.rate|%f|%lld\n", prefix, name, timer_sum(&t->tm) / ct->global_config->flush_interval);
STREAM("%s%s.sample_rate|%f|%lld\n", prefix, name, (double)timer_count(&t->tm) / ct->global_config->flush_interval);
// Stream the histogram values
if (t->conf) {
STREAM("%s%s.histogram.bin_<%0.2f|%u|%lld\n", prefix, name, t->conf->min_val, t->counts[0]);
for (i=0; i < t->conf->num_bins-2; i++) {
STREAM("%s%s.histogram.bin_%0.2f|%u|%lld\n", prefix, name, t->conf->min_val+(t->conf->bin_width*i), t->counts[i+1]);
}
STREAM("%s%s.histogram.bin_>%0.2f|%u|%lld\n", prefix, name, t->conf->max_val, t->counts[i+1]);
}
break;
default:
syslog(LOG_ERR, "Unknown metric type: %d", type);
break;
}
return 0;
}
/**
* Streaming callback to format our output
*/
static int stream_formatter(FILE *pipe, void *data, metric_type type, char *name, void *value) {
#define STREAM(...) if (fprintf(pipe, __VA_ARGS__, (long long)tv->tv_sec) < 0) return 1;
struct timeval *tv = data;
timer_hist *t;
int i;
char *prefix = GLOBAL_CONFIG->prefixes_final[type];
extended_counters_config* counters_config = &(GLOBAL_CONFIG->ext_counters_config);
switch (type) {
case KEY_VAL:
STREAM("%s%s|%f|%lld\n", prefix, name, *(double*)value);
break;
case GAUGE:
STREAM("%s%s|%f|%lld\n", prefix, name, ((gauge_t*)value)->value);
break;
case COUNTER:
if (GLOBAL_CONFIG->extended_counters) {
if (counters_config->count) {
STREAM("%s%s.count|%lld|%lld\n", prefix, name, counter_count(value));
}
if (counters_config->mean) {
STREAM("%s%s.mean|%f|%lld\n", prefix, name, counter_mean(value));
}
if (counters_config->stdev) {
STREAM("%s%s.stdev|%f|%lld\n", prefix, name, counter_stddev(value));
}
if (counters_config->sum) {
STREAM("%s%s.sum|%f|%lld\n", prefix, name, counter_sum(value));
}
if (counters_config->sum_sq) {
STREAM("%s%s.sum_sq|%f|%lld\n", prefix, name, counter_squared_sum(value));
}
if (counters_config->lower) {
STREAM("%s%s.lower|%f|%lld\n", prefix, name, counter_min(value));
}
if (counters_config->upper) {
STREAM("%s%s.upper|%f|%lld\n", prefix, name, counter_max(value));
}
if (counters_config->rate) {
STREAM("%s%s.rate|%f|%lld\n", prefix, name, counter_sum(value) / GLOBAL_CONFIG->flush_interval);
}
} else {
STREAM("%s%s|%f|%lld\n", prefix, name, counter_sum(value));
}
break;
case SET:
STREAM("%s%s|%lld|%lld\n", prefix, name, set_size(value));
break;
case TIMER:
t = (timer_hist*)value;
STREAM("%s%s.sum|%f|%lld\n", prefix, name, timer_sum(&t->tm));
STREAM("%s%s.sum_sq|%f|%lld\n", prefix, name, timer_squared_sum(&t->tm));
STREAM("%s%s.mean|%f|%lld\n", prefix, name, timer_mean(&t->tm));
STREAM("%s%s.lower|%f|%lld\n", prefix, name, timer_min(&t->tm));
STREAM("%s%s.upper|%f|%lld\n", prefix, name, timer_max(&t->tm));
STREAM("%s%s.count|%lld|%lld\n", prefix, name, timer_count(&t->tm));
STREAM("%s%s.stdev|%f|%lld\n", prefix, name, timer_stddev(&t->tm));
for (i=0; i < GLOBAL_CONFIG->num_quantiles; i++) {
if (GLOBAL_CONFIG->quantiles[i] == 0.5) {
STREAM("%s%s.median|%f|%lld\n", prefix, name, timer_query(&t->tm, 0.5));
}
STREAM("%s%s.p%0.0f|%f|%lld\n", prefix, name,
GLOBAL_CONFIG->quantiles[i] * 100,
timer_query(&t->tm, GLOBAL_CONFIG->quantiles[i]));
}
STREAM("%s%s.rate|%f|%lld\n", prefix, name, timer_sum(&t->tm) / GLOBAL_CONFIG->flush_interval);
STREAM("%s%s.sample_rate|%f|%lld\n", prefix, name, (double)timer_count(&t->tm) / GLOBAL_CONFIG->flush_interval);
// Stream the histogram values
if (t->conf) {
STREAM("%s%s.histogram.bin_<%0.2f|%u|%lld\n", prefix, name, t->conf->min_val, t->counts[0]);
for (i=0; i < t->conf->num_bins-2; i++) {
STREAM("%s%s.histogram.bin_%0.2f|%u|%lld\n", prefix, name, t->conf->min_val+(t->conf->bin_width*i), t->counts[i+1]);
}
STREAM("%s%s.histogram.bin_>%0.2f|%u|%lld\n", prefix, name, t->conf->max_val, t->counts[i+1]);
}
break;
default:
syslog(LOG_ERR, "Unknown metric type: %d", type);
break;
}
return 0;
}