fprintf(f, "%s ", name);
fprintf(f, "m1 %s ", sprint_rate(sc->m1, b1));
- fprintf(f, "d %s ", sprint_usecs(sc->d, b1));
+ fprintf(f, "d %s ", sprint_time(tc_core_ktime2time(sc->d), b1));
fprintf(f, "m2 %s ", sprint_rate(sc->m2, b1));
}
usc = RTA_DATA(tb[TCA_HFSC_USC]);
}
-
+
if (rsc != NULL && fsc != NULL &&
memcmp(rsc, fsc, sizeof(*rsc)) == 0)
hfsc_print_sc(f, "sc", rsc);
return 0;
}
-
+
struct qdisc_util hfsc_qdisc_util = {
.id = "hfsc",
.parse_qopt = hfsc_parse_opt,
if (matches(*argv, "d") == 0) {
NEXT_ARG();
- if (get_usecs(&d, *argv) < 0) {
+ if (get_time(&d, *argv) < 0) {
explain1("d");
return -1;
}
return -1;
sc->m1 = m1;
- sc->d = d;
+ sc->d = tc_core_time2ktime(d);
sc->m2 = m2;
*argvp = argv;
if (matches(*argv, "dmax") == 0) {
NEXT_ARG();
- if (get_usecs(&dmax, *argv) < 0) {
+ if (get_time(&dmax, *argv) < 0) {
explain1("dmax");
return -1;
}
return -1;
}
- if (dmax != 0 && ceil(umax * 1000000.0 / dmax) > rate) {
+ if (dmax != 0 && ceil(1.0 * umax * TIME_UNITS_PER_SEC / dmax) > rate) {
/*
* concave curve, slope of first segment is umax/dmax,
* intersection is at dmax
*/
- sc->m1 = ceil(umax * 1000000.0 / dmax); /* in bps */
- sc->d = dmax;
+ sc->m1 = ceil(1.0 * umax * TIME_UNITS_PER_SEC / dmax); /* in bps */
+ sc->d = tc_core_time2ktime(dmax);
sc->m2 = rate;
} else {
/*
* is at dmax - umax / rate
*/
sc->m1 = 0;
- sc->d = ceil(dmax - umax * 1000000.0 / rate); /* in usec */
+ sc->d = tc_core_time2ktime(ceil(dmax - umax * TIME_UNITS_PER_SEC / rate));
sc->m2 = rate;
}