i == BLOCK_STATE_COUNT - 1 ? '\n' : ',');
}
+static void show_ss_normal(struct thread_stat *ts, struct buf_output *out)
+{
+ char *p1, *p2;
+ unsigned long long bw_mean, iops_mean;
+ const int i2p = is_power_of_2(ts->kb_base);
+
+ if (!ts->ss_state)
+ return;
+
+ bw_mean = steadystate_bw_mean(ts);
+ iops_mean = steadystate_iops_mean(ts);
+
+ p1 = num2str(bw_mean / ts->kb_base, 6, ts->kb_base, i2p, ts->unit_base);
+ p2 = num2str(iops_mean, 6, 1, 0, 0);
+
+ log_buf(out, " steadystate : attained=%s, bw=%s/s, iops=%s, %s%s=%.3f%s\n",
+ ts->ss_state & __FIO_SS_ATTAINED ? "yes" : "no",
+ p1, p2,
+ ts->ss_state & __FIO_SS_IOPS ? "iops" : "bw",
+ ts->ss_state & __FIO_SS_SLOPE ? " slope": " mean dev",
+ ts->ss_criterion.u.f,
+ ts->ss_state & __FIO_SS_PCT ? "%" : "");
+
+ free(p1);
+ free(p2);
+}
+
static void show_thread_status_normal(struct thread_stat *ts,
struct group_run_stats *rs,
struct buf_output *out)
if (ts->nr_block_infos)
show_block_infos(ts->nr_block_infos, ts->block_infos,
ts->percentile_list, out);
+
+ if (ts->ss_dur)
+ show_ss_normal(ts, out);
}
static void show_ddir_status_terse(struct thread_stat *ts,
}
}
+ if (ts->ss_dur) {
+ struct json_object *data;
+ struct json_array *iops, *bw;
+ int i, j, k;
+ char ss_buf[64];
+
+ snprintf(ss_buf, sizeof(ss_buf), "%s%s:%f%s",
+ ts->ss_state & __FIO_SS_IOPS ? "iops" : "bw",
+ ts->ss_state & __FIO_SS_SLOPE ? "_slope" : "",
+ (float) ts->ss_limit.u.f,
+ ts->ss_state & __FIO_SS_PCT ? "%" : "");
+
+ tmp = json_create_object();
+ json_object_add_value_object(root, "steadystate", tmp);
+ json_object_add_value_string(tmp, "ss", ss_buf);
+ json_object_add_value_int(tmp, "duration", (int)ts->ss_dur);
+ json_object_add_value_int(tmp, "attained", (ts->ss_state & __FIO_SS_ATTAINED) > 0);
+
+ snprintf(ss_buf, sizeof(ss_buf), "%f%s", (float) ts->ss_criterion.u.f,
+ ts->ss_state & __FIO_SS_PCT ? "%" : "");
+ json_object_add_value_string(tmp, "criterion", ss_buf);
+ json_object_add_value_float(tmp, "max_deviation", ts->ss_deviation.u.f);
+ json_object_add_value_float(tmp, "slope", ts->ss_slope.u.f);
+
+ data = json_create_object();
+ json_object_add_value_object(tmp, "data", data);
+ bw = json_create_array();
+ iops = json_create_array();
+
+ /*
+ ** if ss was attained or the buffer is not full,
+ ** ss->head points to the first element in the list.
+ ** otherwise it actually points to the second element
+ ** in the list
+ */
+ if ((ts->ss_state & __FIO_SS_ATTAINED) || !(ts->ss_state & __FIO_SS_BUFFER_FULL))
+ j = ts->ss_head;
+ else
+ j = ts->ss_head == 0 ? ts->ss_dur - 1 : ts->ss_head - 1;
+ for (i = 0; i < ts->ss_dur; i++) {
+ k = (j + i) % ts->ss_dur;
+ json_array_add_value_int(bw, ts->ss_bw_data[k]);
+ json_array_add_value_int(iops, ts->ss_iops_data[k]);
+ }
+ json_object_add_value_int(data, "bw_mean", steadystate_bw_mean(ts));
+ json_object_add_value_int(data, "iops_mean", steadystate_iops_mean(ts));
+ json_object_add_value_array(data, "iops", iops);
+ json_object_add_value_array(data, "bw", bw);
+ }
+
return root;
}
ts->block_infos[k] = td->ts.block_infos[k];
sum_thread_stats(ts, &td->ts, idx == 1);
+
+ if (td->o.ss_dur) {
+ ts->ss_state = td->ss.state;
+ ts->ss_dur = td->ss.dur;
+ ts->ss_head = td->ss.head;
+ ts->ss_bw_data = td->ss.bw_data;
+ ts->ss_iops_data = td->ss.iops_data;
+ ts->ss_limit.u.f = td->ss.limit;
+ ts->ss_slope.u.f = td->ss.slope;
+ ts->ss_deviation.u.f = td->ss.deviation;
+ ts->ss_criterion.u.f = td->ss.criterion;
+ }
+ else
+ ts->ss_dur = ts->ss_state = 0;
}
for (i = 0; i < nr_ts; i++) {
* need to do.
*/
this_window = elapsed - iolog->avg_last;
- if (this_window < iolog->avg_msec) {
+ if (elapsed < iolog->avg_last)
+ return iolog->avg_last - elapsed;
+ else if (this_window < iolog->avg_msec) {
int diff = iolog->avg_msec - this_window;
if (inline_log(iolog) || diff > LOG_MSEC_SLACK)
add_clat_percentile_sample(ts, usec, ddir);
if (iolog && iolog->hist_msec) {
- struct io_hist *hw = &(iolog->hist_window[ddir]);
- (hw->samples)++;
+ struct io_hist *hw = &iolog->hist_window[ddir];
+
+ hw->samples++;
elapsed = mtime_since_now(&td->epoch);
- if (! hw->hist_last)
+ if (!hw->hist_last)
hw->hist_last = elapsed;
this_window = elapsed - hw->hist_last;
if (this_window >= iolog->hist_msec) {
+ unsigned int *io_u_plat;
+ unsigned int *dst;
+
/*
- * Make a byte-for-byte copy of the latency histogram stored in
- * td->ts.io_u_plat[ddir], recording it in a log sample. Note that
- * the matching call to free() is located in iolog.c after printing
- * this sample to the log file.
+ * Make a byte-for-byte copy of the latency histogram
+ * stored in td->ts.io_u_plat[ddir], recording it in a
+ * log sample. Note that the matching call to free() is
+ * located in iolog.c after printing this sample to the
+ * log file.
*/
- unsigned int *io_u_plat = (unsigned int *)(td->ts.io_u_plat[ddir]);
- unsigned int *dst = malloc(FIO_IO_U_PLAT_NR * sizeof(unsigned int));
- memcpy(dst, io_u_plat, FIO_IO_U_PLAT_NR * sizeof(unsigned int));
- __add_log_sample(iolog, (uint64_t)dst, ddir, bs, elapsed, offset);
+ io_u_plat = (unsigned int *) td->ts.io_u_plat[ddir];
+ dst = malloc(FIO_IO_U_PLAT_NR * sizeof(unsigned int));
+ memcpy(dst, io_u_plat,
+ FIO_IO_U_PLAT_NR * sizeof(unsigned int));
+ __add_log_sample(iolog, (unsigned long )dst, ddir, bs,
+ elapsed, offset);
/*
- * Update the last time we recorded as being now, minus any drift
- * in time we encountered before actually making the record.
+ * Update the last time we recorded as being now, minus
+ * any drift in time we encountered before actually
+ * making the record.
*/
hw->hist_last = elapsed - (this_window - iolog->hist_msec);
hw->samples = 0;
projects / fio.git / blobdiff