backoff
timeo = backoff(timeo);
timeo = backoff(timeo);
timeo = backoff(timeo);
uint_t backoff = 0;
backoff = mutex_lock_backoff(0);
backoff = mutex_lock_backoff(backoff);
mutex_lock_delay(backoff);
default_lock_backoff(uint_t backoff)
if (backoff == 0) {
backoff = mutex_backoff_base;
return (backoff);
backoff <<= mutex_backoff_shift; /* increase backoff */
if (backoff > cap) {
backoff = mutex_backoff_base;
backoff = cap;
return (backoff);
default_lock_delay(uint_t backoff)
cur_backoff = (uint_t)(rnd % (backoff - mutex_backoff_base + 1)) +
uint_t backoff = 0; /* current backoff */
backoff = mutex_lock_backoff(0); /* set base backoff */
mutex_lock_delay(backoff); /* backoff delay */
backoff = mutex_lock_backoff(backoff);
backoff = mutex_lock_backoff(backoff);
backoff = mutex_lock_backoff(0);
backoff = mutex_lock_backoff(0);
uint_t backoff = 0; /* current backoff */
backoff = mutex_lock_backoff(0);
backoff = mutex_lock_backoff(backoff);
mutex_lock_delay(backoff);
uint_t backoff = 0; /* current backoff */
backoff = mutex_lock_backoff(0);
backoff = mutex_lock_backoff(backoff);
mutex_lock_delay(backoff);
uint_t backoff = 0;
backoff = rw_lock_backoff(backoff);
rw_lock_delay(backoff);
backoff = 0;
uint_t backoff = 0;
backoff = rw_lock_backoff(backoff);
rw_lock_delay(backoff);
backoff = 0;
uint_t backoff = 0;
backoff = rw_lock_backoff(backoff);
rw_lock_delay(backoff);
backoff = 0;
timout = backoff(timout);
int backoff;
backoff = csb->csb_npcyl + 1;
backoff = csb->csb_npcyl - 1;
(void) fdcseek(fcp, csb->csb_cmd[1], backoff);
plat_lock_delay(uint_t backoff)
if (backoff < 100) {
for (cnt = backoff;
cnt = backoff / OPL_BOFF_SLEEP;