* 'master' of https://github.com/arbego/util-linux:
  Fixed wrongful time_t=long assumptions in hwclock.c and timeutils.c
  Changed int64_t casts to long long int casts
  Fixed format strings and type casts in hwclock to work with 64-bit time_t on 32-bit linux
This commit is contained in:
Karel Zak 2021-04-30 13:12:26 +02:00
commit 4e56c68abe
2 changed files with 63 additions and 59 deletions

View File

@ -24,6 +24,7 @@
#include <string.h>
#include <time.h>
#include <sys/time.h>
#include <inttypes.h>
#include "c.h"
#include "nls.h"
@ -438,14 +439,14 @@ static int format_iso_time(struct tm *tm, suseconds_t usec, int flags, char *buf
}
if (flags & ISO_DOTUSEC) {
len = snprintf(p, bufsz, ".%06ld", (long) usec);
len = snprintf(p, bufsz, ".%06"PRId64, (int64_t) usec);
if (len < 0 || (size_t) len > bufsz)
goto err;
bufsz -= len;
p += len;
} else if (flags & ISO_COMMAUSEC) {
len = snprintf(p, bufsz, ",%06ld", (long) usec);
len = snprintf(p, bufsz, ",%06"PRId64, (int64_t) usec);
if (len < 0 || (size_t) len > bufsz)
goto err;
bufsz -= len;
@ -480,7 +481,7 @@ int strtimeval_iso(struct timeval *tv, int flags, char *buf, size_t bufsz)
if (rc)
return format_iso_time(&tm, tv->tv_usec, flags, buf, bufsz);
warnx(_("time %ld is out of range."), tv->tv_sec);
warnx(_("time %"PRId64" is out of range."), (int64_t)(tv->tv_sec));
return -1;
}
@ -504,7 +505,7 @@ int strtime_iso(const time_t *t, int flags, char *buf, size_t bufsz)
if (rc)
return format_iso_time(&tm, 0, flags, buf, bufsz);
warnx(_("time %ld is out of range."), (long)t);
warnx(_("time %"PRId64" is out of range."), (int64_t)*t);
return -1;
}

View File

@ -74,6 +74,7 @@
#include <sys/syscall.h>
#include <time.h>
#include <unistd.h>
#include <inttypes.h>
#include "c.h"
#include "closestream.h"
@ -177,8 +178,8 @@ static struct timeval time_inc(struct timeval addend, double increment)
{
struct timeval newtime;
newtime.tv_sec = addend.tv_sec + (int)increment;
newtime.tv_usec = addend.tv_usec + (increment - (int)increment) * 1E6;
newtime.tv_sec = addend.tv_sec + (time_t)increment;
newtime.tv_usec = addend.tv_usec + (increment - (time_t)increment) * 1E6;
/*
* Now adjust it so that the microsecond value is between 0 and 1
@ -227,6 +228,8 @@ static int read_adjtime(const struct hwclock_control *ctl,
char line1[81]; /* String: first line of adjtime file */
char line2[81]; /* String: second line of adjtime file */
char line3[81]; /* String: third line of adjtime file */
int64_t last_adj_time;
int64_t last_calib_time;
if (access(ctl->adj_file_name, R_OK) != 0)
return EXIT_SUCCESS;
@ -246,12 +249,15 @@ static int read_adjtime(const struct hwclock_control *ctl,
fclose(adjfile);
sscanf(line1, "%lf %ld %lf",
&adjtime_p->drift_factor,
&adjtime_p->last_adj_time,
&adjtime_p->not_adjusted);
sscanf(line1, "%lf %"SCNd64" %lf",
&adjtime_p->drift_factor,
&last_adj_time,
&adjtime_p->not_adjusted);
sscanf(line2, "%ld", &adjtime_p->last_calib_time);
sscanf(line2, "%"SCNd64, &last_calib_time);
adjtime_p->last_adj_time = (time_t)last_adj_time;
adjtime_p->last_calib_time = (time_t)last_calib_time;
if (!strcmp(line3, "UTC\n")) {
adjtime_p->local_utc = UTC;
@ -266,11 +272,10 @@ static int read_adjtime(const struct hwclock_control *ctl,
}
if (ctl->verbose) {
printf(_
("Last drift adjustment done at %ld seconds after 1969\n"),
(long)adjtime_p->last_adj_time);
printf(_("Last calibration done at %ld seconds after 1969\n"),
(long)adjtime_p->last_calib_time);
printf(_("Last drift adjustment done at %"PRId64" seconds after 1969\n"),
(int64_t)adjtime_p->last_adj_time);
printf(_("Last calibration done at %"PRId64" seconds after 1969\n"),
(int64_t)adjtime_p->last_calib_time);
printf(_("Hardware clock is on %s time\n"),
(adjtime_p->local_utc ==
LOCAL) ? _("local") : (adjtime_p->local_utc ==
@ -354,11 +359,10 @@ mktime_tz(const struct hwclock_control *ctl, struct tm tm,
} else {
valid = 1;
if (ctl->verbose)
printf(_
("Hw clock time : %4d/%.2d/%.2d %.2d:%.2d:%.2d = "
"%ld seconds since 1969\n"), tm.tm_year + 1900,
printf(_("Hw clock time : %4d/%.2d/%.2d %.2d:%.2d:%.2d = "
"%"PRId64" seconds since 1969\n"), tm.tm_year + 1900,
tm.tm_mon + 1, tm.tm_mday, tm.tm_hour, tm.tm_min,
tm.tm_sec, (long)*systime_p);
tm.tm_sec, (int64_t)*systime_p);
}
return valid;
}
@ -381,8 +385,7 @@ read_hardware_clock(const struct hwclock_control *ctl,
return err;
if (ctl->verbose)
printf(_
("Time read from Hardware Clock: %4d/%.2d/%.2d %02d:%02d:%02d\n"),
printf(_("Time read from Hardware Clock: %4d/%.2d/%.2d %02d:%02d:%02d\n"),
tm.tm_year + 1900, tm.tm_mon + 1, tm.tm_mday, tm.tm_hour,
tm.tm_min, tm.tm_sec);
*valid_p = mktime_tz(ctl, tm, systime_p);
@ -410,9 +413,9 @@ set_hardware_clock(const struct hwclock_control *ctl, const time_t newtime)
if (ctl->verbose)
printf(_("Setting Hardware Clock to %.2d:%.2d:%.2d "
"= %ld seconds since 1969\n"),
"= %"PRId64" seconds since 1969\n"),
new_broken_time.tm_hour, new_broken_time.tm_min,
new_broken_time.tm_sec, (long)newtime);
new_broken_time.tm_sec, (int64_t)newtime);
if (!ctl->testing)
ur->set_hardware_clock(ctl, &new_broken_time);
@ -565,17 +568,17 @@ set_hardware_clock_exact(const struct hwclock_control *ctl,
if (ticksize < 0) {
if (ctl->verbose)
printf(_("time jumped backward %.6f seconds "
"to %ld.%06ld - retargeting\n"),
ticksize, nowsystime.tv_sec,
nowsystime.tv_usec);
"to %"PRId64".%06"PRId64" - retargeting\n"),
ticksize, (int64_t)nowsystime.tv_sec,
(int64_t)nowsystime.tv_usec);
/* The retarget is handled at the end of the loop. */
} else if (deltavstarget < 0) {
/* deltavstarget < 0 if current time < target time */
DBG(DELTA_VS_TARGET,
ul_debug("%ld.%06ld < %ld.%06ld (%.6f)",
nowsystime.tv_sec, nowsystime.tv_usec,
targetsystime.tv_sec,
targetsystime.tv_usec, deltavstarget));
ul_debug("%"PRId64".%06"PRId64" < %"PRId64".%06"PRId64" (%.6f)",
(int64_t)nowsystime.tv_sec, (int64_t)nowsystime.tv_usec,
(int64_t)targetsystime.tv_sec,
(int64_t)targetsystime.tv_usec, deltavstarget));
continue; /* not there yet - keep spinning */
} else if (deltavstarget <= target_time_tolerance_secs) {
/* Close enough to the target time; done waiting. */
@ -586,12 +589,12 @@ set_hardware_clock_exact(const struct hwclock_control *ctl,
* aim for the next opportunity.
*/
if (ctl->verbose)
printf(_("missed it - %ld.%06ld is too far "
"past %ld.%06ld (%.6f > %.6f)\n"),
nowsystime.tv_sec,
nowsystime.tv_usec,
targetsystime.tv_sec,
targetsystime.tv_usec,
printf(_("missed it - %"PRId64".%06"PRId64" is too far "
"past %"PRId64".%06"PRId64" (%.6f > %.6f)\n"),
(int64_t)nowsystime.tv_sec,
(int64_t)nowsystime.tv_usec,
(int64_t)targetsystime.tv_sec,
(int64_t)targetsystime.tv_usec,
deltavstarget,
target_time_tolerance_secs);
target_time_tolerance_secs += tolerance_incr_secs;
@ -613,14 +616,14 @@ set_hardware_clock_exact(const struct hwclock_control *ctl,
+ ceil(time_diff(nowsystime, refsystime)
- delay /* don't count this */);
if (ctl->verbose)
printf(_("%ld.%06ld is close enough to %ld.%06ld (%.6f < %.6f)\n"
"Set RTC to %ld (%ld + %d; refsystime = %ld.%06ld)\n"),
nowsystime.tv_sec, nowsystime.tv_usec,
targetsystime.tv_sec, targetsystime.tv_usec,
printf(_("%"PRId64".%06"PRId64" is close enough to %"PRId64".%06"PRId64" (%.6f < %.6f)\n"
"Set RTC to %"PRId64" (%"PRId64" + %d; refsystime = %"PRId64".%06"PRId64")\n"),
(int64_t)nowsystime.tv_sec, (int64_t)nowsystime.tv_usec,
(int64_t)targetsystime.tv_sec, (int64_t)targetsystime.tv_usec,
deltavstarget, target_time_tolerance_secs,
newhwtime, sethwtime,
(int)(newhwtime - sethwtime),
refsystime.tv_sec, refsystime.tv_usec);
(int64_t)newhwtime, (int64_t)sethwtime,
(int)((int64_t)newhwtime - (int64_t)sethwtime),
(int64_t)refsystime.tv_sec, (int64_t)refsystime.tv_usec);
set_hardware_clock(ctl, newhwtime);
}
@ -719,9 +722,9 @@ set_system_clock(const struct hwclock_control *ctl,
minuteswest);
if (ctl->hctosys)
printf(_("Calling settimeofday(%ld.%06ld, NULL) "
printf(_("Calling settimeofday(%"PRId64".%06"PRId64", NULL) "
"to set the System time.\n"),
newtime.tv_sec, newtime.tv_usec);
(int64_t)newtime.tv_sec, (int64_t)newtime.tv_usec);
}
if (!ctl->testing) {
@ -864,12 +867,12 @@ calculate_adjustment(const struct hwclock_control *ctl,
tdrift_p->tv_usec = (exact_adjustment -
(double)tdrift_p->tv_sec) * 1E6;
if (ctl->verbose) {
printf(P_("Time since last adjustment is %ld second\n",
"Time since last adjustment is %ld seconds\n",
(systime - last_time)),
(systime - last_time));
printf(_("Calculated Hardware Clock drift is %ld.%06ld seconds\n"),
tdrift_p->tv_sec, tdrift_p->tv_usec);
printf(P_("Time since last adjustment is %"PRId64" second\n",
"Time since last adjustment is %"PRId64" seconds\n",
((int64_t)systime - (int64_t)last_time)),
((int64_t)systime - (int64_t)last_time));
printf(_("Calculated Hardware Clock drift is %"PRId64".%06"PRId64" seconds\n"),
(int64_t)tdrift_p->tv_sec, (int64_t)tdrift_p->tv_usec);
}
}
@ -885,11 +888,11 @@ static int save_adjtime(const struct hwclock_control *ctl,
char *content; /* Stuff to write to disk file */
FILE *fp;
xasprintf(&content, "%f %ld %f\n%ld\n%s\n",
xasprintf(&content, "%f %"PRId64" %f\n%"PRId64"\n%s\n",
adjtime->drift_factor,
adjtime->last_adj_time,
(int64_t)adjtime->last_adj_time,
adjtime->not_adjusted,
adjtime->last_calib_time,
(int64_t)adjtime->last_calib_time,
(adjtime->local_utc == LOCAL) ? "LOCAL" : "UTC");
if (ctl->verbose){
@ -1031,8 +1034,8 @@ manipulate_clock(const struct hwclock_control *ctl, const time_t set_time,
hclocktime = time_inc(hclocktime, (double)
-(tdrift.tv_sec + tdrift.tv_usec / 1E6));
if (ctl->verbose) {
printf(_ ("Target date: %ld\n"), set_time);
printf(_ ("Predicted RTC: %ld\n"), hclocktime.tv_sec);
printf(_("Target date: %"PRId64"\n"), (int64_t)set_time);
printf(_("Predicted RTC: %"PRId64"\n"), (int64_t)hclocktime.tv_sec);
}
return display_time(hclocktime);
}
@ -1462,8 +1465,8 @@ int main(int argc, char **argv)
if (ctl.verbose) {
out_version();
printf(_("System Time: %ld.%06ld\n"),
startup_time.tv_sec, startup_time.tv_usec);
printf(_("System Time: %"PRId64".%06"PRId64"\n"),
(int64_t)startup_time.tv_sec, (int64_t)startup_time.tv_usec);
}
if (!ctl.systz && !ctl.predict)