* 'timers-for-linus-cleanups' of git://git.kernel.org/pub/scm/linux/kernel/git/tip/linux-2.6-tip:
avr32: Fix typo in read_persistent_clock()
sparc: Convert sparc to use read/update_persistent_clock
cris: Convert cris to use read/update_persistent_clock
m68k: Convert m68k to use read/update_persistent_clock
m32r: Convert m32r to use read/update_peristent_clock
blackfin: Convert blackfin to use read/update_persistent_clock
ia64: Convert ia64 to use read/update_persistent_clock
avr32: Convert avr32 to use read/update_persistent_clock
h8300: Convert h8300 to use read/update_persistent_clock
frv: Convert frv to use read/update_persistent_clock
mn10300: Convert mn10300 to use read/update_persistent_clock
alpha: Convert alpha to use read/update_persistent_clock
xtensa: Fix unnecessary setting of xtime
time: Clean up direct xtime usage in xen
bool
default y
+config GENERIC_CMOS_UPDATE
+ def_bool y
+
config ZONE_DMA
bool
default y
__u32 last_time;
/* ticks/cycle * 2^48 */
unsigned long scaled_ticks_per_cycle;
- /* last time the CMOS clock got updated */
- time_t last_rtc_update;
/* partial unused tick */
unsigned long partial_tick;
} state;
return result;
}
+int update_persistent_clock(struct timespec now)
+{
+ return set_rtc_mmss(now.tv_sec);
+}
+
+void read_persistent_clock(struct timespec *ts)
+{
+ unsigned int year, mon, day, hour, min, sec, epoch;
+
+ sec = CMOS_READ(RTC_SECONDS);
+ min = CMOS_READ(RTC_MINUTES);
+ hour = CMOS_READ(RTC_HOURS);
+ day = CMOS_READ(RTC_DAY_OF_MONTH);
+ mon = CMOS_READ(RTC_MONTH);
+ year = CMOS_READ(RTC_YEAR);
+
+ if (!(CMOS_READ(RTC_CONTROL) & RTC_DM_BINARY) || RTC_ALWAYS_BCD) {
+ sec = bcd2bin(sec);
+ min = bcd2bin(min);
+ hour = bcd2bin(hour);
+ day = bcd2bin(day);
+ mon = bcd2bin(mon);
+ year = bcd2bin(year);
+ }
+
+ /* PC-like is standard; used for year >= 70 */
+ epoch = 1900;
+ if (year < 20)
+ epoch = 2000;
+ else if (year >= 20 && year < 48)
+ /* NT epoch */
+ epoch = 1980;
+ else if (year >= 48 && year < 70)
+ /* Digital UNIX epoch */
+ epoch = 1952;
+
+ printk(KERN_INFO "Using epoch = %d\n", epoch);
+
+ if ((year += epoch) < 1970)
+ year += 100;
+
+ ts->tv_sec = mktime(year, mon, day, hour, min, sec);
+}
+
+
+
/*
* timer_interrupt() needs to keep up the real-time clock,
* as well as call the "do_timer()" routine every clocktick
if (nticks)
do_timer(nticks);
- /*
- * If we have an externally synchronized Linux clock, then update
- * CMOS clock accordingly every ~11 minutes. Set_rtc_mmss() has to be
- * called as close as possible to 500 ms before the new second starts.
- */
- if (ntp_synced()
- && xtime.tv_sec > state.last_rtc_update + 660
- && xtime.tv_nsec >= 500000 - ((unsigned) TICK_SIZE) / 2
- && xtime.tv_nsec <= 500000 + ((unsigned) TICK_SIZE) / 2) {
- int tmp = set_rtc_mmss(xtime.tv_sec);
- state.last_rtc_update = xtime.tv_sec - (tmp ? 600 : 0);
- }
-
write_sequnlock(&xtime_lock);
#ifndef CONFIG_SMP
void __init
time_init(void)
{
- unsigned int year, mon, day, hour, min, sec, cc1, cc2, epoch;
+ unsigned int cc1, cc2;
unsigned long cycle_freq, tolerance;
long diff;
bogomips yet, but this is close on a 500Mhz box. */
__delay(1000000);
- sec = CMOS_READ(RTC_SECONDS);
- min = CMOS_READ(RTC_MINUTES);
- hour = CMOS_READ(RTC_HOURS);
- day = CMOS_READ(RTC_DAY_OF_MONTH);
- mon = CMOS_READ(RTC_MONTH);
- year = CMOS_READ(RTC_YEAR);
-
- if (!(CMOS_READ(RTC_CONTROL) & RTC_DM_BINARY) || RTC_ALWAYS_BCD) {
- sec = bcd2bin(sec);
- min = bcd2bin(min);
- hour = bcd2bin(hour);
- day = bcd2bin(day);
- mon = bcd2bin(mon);
- year = bcd2bin(year);
- }
-
- /* PC-like is standard; used for year >= 70 */
- epoch = 1900;
- if (year < 20)
- epoch = 2000;
- else if (year >= 20 && year < 48)
- /* NT epoch */
- epoch = 1980;
- else if (year >= 48 && year < 70)
- /* Digital UNIX epoch */
- epoch = 1952;
-
- printk(KERN_INFO "Using epoch = %d\n", epoch);
-
- if ((year += epoch) < 1970)
- year += 100;
-
- xtime.tv_sec = mktime(year, mon, day, hour, min, sec);
- xtime.tv_nsec = 0;
-
- wall_to_monotonic.tv_sec -= xtime.tv_sec;
- wall_to_monotonic.tv_nsec = 0;
if (HZ > (1<<16)) {
extern void __you_loose (void);
state.last_time = cc1;
state.scaled_ticks_per_cycle
= ((unsigned long) HZ << FIX_SHIFT) / cycle_freq;
- state.last_rtc_update = 0;
state.partial_tick = 0L;
/* Startup the timer source. */
.set_mode = comparator_mode,
};
+void read_persistent_clock(struct timespec *ts)
+{
+ ts->tv_sec = mktime(2007, 1, 1, 0, 0, 0);
+ ts->tv_nsec = 0;
+}
+
void __init time_init(void)
{
unsigned long counter_hz;
int ret;
- xtime.tv_sec = mktime(2007, 1, 1, 0, 0, 0);
- xtime.tv_nsec = 0;
-
- set_normalized_timespec(&wall_to_monotonic,
- -xtime.tv_sec, -xtime.tv_nsec);
-
/* figure rate for counter */
counter_hz = clk_get_rate(boot_cpu_data.clk);
counter.mult = clocksource_hz2mult(counter_hz, counter.shift);
#endif /* CONFIG_TICKSOURCE_CORETMR */
-void __init time_init(void)
+void read_persistent_clock(struct timespec *ts)
{
time_t secs_since_1970 = (365 * 37 + 9) * 24 * 60 * 60; /* 1 Jan 2007 */
+ ts->tv_sec = secs_since_1970;
+ ts->tv_nsec = 0;
+}
+
+void __init time_init(void)
+{
#ifdef CONFIG_RTC_DRV_BFIN
/* [#2663] hack to filter junk RTC values that would cause
}
#endif
- /* Initialize xtime. From now on, xtime is updated with timer interrupts */
- xtime.tv_sec = secs_since_1970;
- xtime.tv_nsec = 0;
- set_normalized_timespec(&wall_to_monotonic, -xtime.tv_sec, -xtime.tv_nsec);
-
bfin_cs_cycles_init();
bfin_cs_gptimer0_init();
}
#endif
-static inline int set_rtc_mmss(unsigned long nowtime)
-{
- return 0;
-}
-
/*
* timer_interrupt() needs to keep up the real-time clock,
* as well as call the "do_timer()" routine every clocktick
#endif
irqreturn_t timer_interrupt(int irq, void *dummy)
{
- /* last time the cmos clock got updated */
- static long last_rtc_update;
-
write_seqlock(&xtime_lock);
do_timer(1);
-
- /*
- * If we have an externally synchronized Linux clock, then update
- * CMOS clock accordingly every ~11 minutes. Set_rtc_mmss() has to be
- * called as close as possible to 500 ms before the new second starts.
- */
- if (ntp_synced() &&
- xtime.tv_sec > last_rtc_update + 660 &&
- (xtime.tv_nsec / NSEC_PER_USEC) >=
- 500000 - ((unsigned)TICK_SIZE) / 2
- && (xtime.tv_nsec / NSEC_PER_USEC) <=
- 500000 + ((unsigned)TICK_SIZE) / 2) {
- if (set_rtc_mmss(xtime.tv_sec) == 0)
- last_rtc_update = xtime.tv_sec;
- else
- /* Do it again in 60s. */
- last_rtc_update = xtime.tv_sec - 600;
- }
write_sequnlock(&xtime_lock);
#ifdef CONFIG_IPIPE
return IRQ_HANDLED;
}
-void __init time_init(void)
+void read_persistent_clock(struct timespec *ts)
{
time_t secs_since_1970 = (365 * 37 + 9) * 24 * 60 * 60; /* 1 Jan 2007 */
+ ts->tv_sec = secs_since_1970;
+ ts->tv_nsec = 0;
+}
+void __init time_init(void)
+{
#ifdef CONFIG_RTC_DRV_BFIN
/* [#2663] hack to filter junk RTC values that would cause
* userspace to have to deal with time values greater than
}
#endif
- /* Initialize xtime. From now on, xtime is updated with timer interrupts */
- xtime.tv_sec = secs_since_1970;
- xtime.tv_nsec = 0;
-
- wall_to_monotonic.tv_sec = -xtime.tv_sec;
-
time_sched_init(timer_interrupt);
}
config GENERIC_TIME
def_bool y
+config GENERIC_CMOS_UPDATE
+ def_bool y
+
config ARCH_USES_GETTIMEOFFSET
def_bool y
/* it will make jiffies at 96 hz instead of 100 hz though */
#undef USE_CASCADE_TIMERS
-extern void update_xtime_from_cmos(void);
extern int set_rtc_mmss(unsigned long nowtime);
extern int have_rtc;
#endif
}
-/* last time the cmos clock got updated */
-static long last_rtc_update = 0;
/*
* timer_interrupt() needs to keep up the real-time clock,
do_timer(1);
cris_do_profile(regs); /* Save profiling information */
-
- /*
- * If we have an externally synchronized Linux clock, then update
- * CMOS clock accordingly every ~11 minutes. Set_rtc_mmss() has to be
- * called as close as possible to 500 ms before the new second starts.
- *
- * The division here is not time critical since it will run once in
- * 11 minutes
- */
- if (ntp_synced() &&
- xtime.tv_sec > last_rtc_update + 660 &&
- (xtime.tv_nsec / 1000) >= 500000 - (tick_nsec / 1000) / 2 &&
- (xtime.tv_nsec / 1000) <= 500000 + (tick_nsec / 1000) / 2) {
- if (set_rtc_mmss(xtime.tv_sec) == 0)
- last_rtc_update = xtime.tv_sec;
- else
- last_rtc_update = xtime.tv_sec - 600; /* do it again in 60 s */
- }
return IRQ_HANDLED;
}
*/
loops_per_usec = 50;
- if(RTC_INIT() < 0) {
- /* no RTC, start at 1980 */
- xtime.tv_sec = 0;
- xtime.tv_nsec = 0;
+ if(RTC_INIT() < 0)
have_rtc = 0;
- } else {
- /* get the current time */
+ else
have_rtc = 1;
- update_xtime_from_cmos();
- }
-
- /*
- * Initialize wall_to_monotonic such that adding it to xtime will yield zero, the
- * tv_nsec field must be normalized (i.e., 0 <= nsec < NSEC_PER_SEC).
- */
- set_normalized_timespec(&wall_to_monotonic, -xtime.tv_sec, -xtime.tv_nsec);
/* Setup the etrax timers
* Base frequency is 25000 hz, divider 250 -> 100 HZ
#endif
};
-extern void update_xtime_from_cmos(void);
extern int set_rtc_mmss(unsigned long nowtime);
extern int have_rtc;
#endif
}
-/* Last time the cmos clock got updated. */
-static long last_rtc_update = 0;
-
/*
* timer_interrupt() needs to keep up the real-time clock,
* as well as call the "do_timer()" routine every clocktick.
/* Call the real timer interrupt handler */
do_timer(1);
-
- /*
- * If we have an externally synchronized Linux clock, then update
- * CMOS clock accordingly every ~11 minutes. Set_rtc_mmss() has to be
- * called as close as possible to 500 ms before the new second starts.
- *
- * The division here is not time critical since it will run once in
- * 11 minutes
- */
- if ((time_status & STA_UNSYNC) == 0 &&
- xtime.tv_sec > last_rtc_update + 660 &&
- (xtime.tv_nsec / 1000) >= 500000 - (tick_nsec / 1000) / 2 &&
- (xtime.tv_nsec / 1000) <= 500000 + (tick_nsec / 1000) / 2) {
- if (set_rtc_mmss(xtime.tv_sec) == 0)
- last_rtc_update = xtime.tv_sec;
- else
- /* Do it again in 60 s */
- last_rtc_update = xtime.tv_sec - 600;
- }
return IRQ_HANDLED;
}
*/
loops_per_usec = 50;
- if(RTC_INIT() < 0) {
- /* No RTC, start at 1980 */
- xtime.tv_sec = 0;
- xtime.tv_nsec = 0;
+ if(RTC_INIT() < 0)
have_rtc = 0;
- } else {
- /* Get the current time */
+ else
have_rtc = 1;
- update_xtime_from_cmos();
- }
-
- /*
- * Initialize wall_to_monotonic such that adding it to
- * xtime will yield zero, the tv_nsec field must be normalized
- * (i.e., 0 <= nsec < NSEC_PER_SEC).
- */
- set_normalized_timespec(&wall_to_monotonic, -xtime.tv_sec, -xtime.tv_nsec);
/* Start CPU local timer. */
cris_timer_init();
get_cmos_time(void)
{
unsigned int year, mon, day, hour, min, sec;
+ if(!have_rtc)
+ return 0;
sec = CMOS_READ(RTC_SECONDS);
min = CMOS_READ(RTC_MINUTES);
return mktime(year, mon, day, hour, min, sec);
}
-/* update xtime from the CMOS settings. used when /dev/rtc gets a SET_TIME.
- * TODO: this doesn't reset the fancy NTP phase stuff as do_settimeofday does.
- */
-void
-update_xtime_from_cmos(void)
+int update_persistent_clock(struct timespec now)
{
- if(have_rtc) {
- xtime.tv_sec = get_cmos_time();
- xtime.tv_nsec = 0;
- }
+ return set_rtc_mmss(now.tv_sec);
}
+void read_persistent_clock(struct timespec *ts)
+{
+ ts->tv_sec = get_cmos_time();
+ ts->tv_nsec = 0;
+}
+
+
extern void cris_profile_sample(struct pt_regs* regs);
void
.name = "timer",
};
-static inline int set_rtc_mmss(unsigned long nowtime)
-{
- return -1;
-}
-
/*
* timer_interrupt() needs to keep up the real-time clock,
* as well as call the "do_timer()" routine every clocktick
*/
static irqreturn_t timer_interrupt(int irq, void *dummy)
{
- /* last time the cmos clock got updated */
- static long last_rtc_update = 0;
-
profile_tick(CPU_PROFILING);
/*
* Here we are in the timer irq handler. We just have irqs locally
do_timer(1);
- /*
- * If we have an externally synchronized Linux clock, then update
- * CMOS clock accordingly every ~11 minutes. Set_rtc_mmss() has to be
- * called as close as possible to 500 ms before the new second starts.
- */
- if (ntp_synced() &&
- xtime.tv_sec > last_rtc_update + 660 &&
- (xtime.tv_nsec / 1000) >= 500000 - ((unsigned) TICK_SIZE) / 2 &&
- (xtime.tv_nsec / 1000) <= 500000 + ((unsigned) TICK_SIZE) / 2
- ) {
- if (set_rtc_mmss(xtime.tv_sec) == 0)
- last_rtc_update = xtime.tv_sec;
- else
- last_rtc_update = xtime.tv_sec - 600; /* do it again in 60 s */
- }
-
#ifdef CONFIG_HEARTBEAT
static unsigned short n;
n++;
__set_TCSR_DATA(0, base >> 8);
}
-void time_init(void)
+
+void read_persistent_clock(struct timespec *ts)
{
unsigned int year, mon, day, hour, min, sec;
if ((year += 1900) < 1970)
year += 100;
- xtime.tv_sec = mktime(year, mon, day, hour, min, sec);
- xtime.tv_nsec = 0;
+ ts->tv_sec = mktime(year, mon, day, hour, min, sec);
+ ts->tv_nsec = 0;
+}
+void time_init(void)
+{
/* install scheduling interrupt handler */
setup_irq(IRQ_CPU_TIMER0, &timer_irq);
update_process_times(user_mode(get_irq_regs()));
}
-void __init time_init(void)
+void read_persistent_clock(struct timespec *ts)
{
unsigned int year, mon, day, hour, min, sec;
#endif
if ((year += 1900) < 1970)
year += 100;
- xtime.tv_sec = mktime(year, mon, day, hour, min, sec);
- xtime.tv_nsec = 0;
+ ts->tv_sec = mktime(year, mon, day, hour, min, sec);
+ ts->tv_nsec = 0;
+}
+
+void __init time_init(void)
+{
h8300_timer_setup();
}
}
module_init(rtc_init);
+void read_persistent_clock(struct timespec *ts)
+{
+ efi_gettimeofday(ts);
+}
+
void __init
time_init (void)
{
register_percpu_irq(IA64_TIMER_VECTOR, &timer_irqaction);
- efi_gettimeofday(&xtime);
ia64_init_itm();
-
- /*
- * Initialize wall_to_monotonic such that adding it to xtime will yield zero, the
- * tv_nsec field must be normalized (i.e., 0 <= nsec < NSEC_PER_SEC).
- */
- set_normalized_timespec(&wall_to_monotonic, -xtime.tv_sec, -xtime.tv_nsec);
}
/*
return elapsed_time * 1000;
}
-/*
- * In order to set the CMOS clock precisely, set_rtc_mmss has to be
- * called 500 ms after the second nowtime has started, because when
- * nowtime is written into the registers of the CMOS clock, it will
- * jump to the next second precisely 500 ms later. Check the Motorola
- * MC146818A or Dallas DS12887 data sheet for details.
- *
- * BUG: This routine does not handle hour overflow properly; it just
- * sets the minutes. Usually you won't notice until after reboot!
- */
-static inline int set_rtc_mmss(unsigned long nowtime)
-{
- return 0;
-}
-
-/* last time the cmos clock got updated */
-static long last_rtc_update = 0;
-
/*
* timer_interrupt() needs to keep up the real-time clock,
* as well as call the "do_timer()" routine every clocktick
#ifndef CONFIG_SMP
update_process_times(user_mode(get_irq_regs()));
#endif
- /*
- * If we have an externally synchronized Linux clock, then update
- * CMOS clock accordingly every ~11 minutes. Set_rtc_mmss() has to be
- * called as close as possible to 500 ms before the new second starts.
- */
- write_seqlock(&xtime_lock);
- if (ntp_synced()
- && xtime.tv_sec > last_rtc_update + 660
- && (xtime.tv_nsec / 1000) >= 500000 - ((unsigned)TICK_SIZE) / 2
- && (xtime.tv_nsec / 1000) <= 500000 + ((unsigned)TICK_SIZE) / 2)
- {
- if (set_rtc_mmss(xtime.tv_sec) == 0)
- last_rtc_update = xtime.tv_sec;
- else /* do it again in 60 s */
- last_rtc_update = xtime.tv_sec - 600;
- }
- write_sequnlock(&xtime_lock);
/* As we return to user mode fire off the other CPU schedulers..
this is basically because we don't yet share IRQ's around.
This message is rigged to be safe on the 386 - basically it's
.name = "MFT2",
};
-void __init time_init(void)
+void read_persistent_clock(struct timespec *ts)
{
unsigned int epoch, year, mon, day, hour, min, sec;
epoch = 1952;
year += epoch;
- xtime.tv_sec = mktime(year, mon, day, hour, min, sec);
- xtime.tv_nsec = (INITIAL_JIFFIES % HZ) * (NSEC_PER_SEC / HZ);
- set_normalized_timespec(&wall_to_monotonic,
- -xtime.tv_sec, -xtime.tv_nsec);
+ ts->tv_sec = mktime(year, mon, day, hour, min, sec);
+ ts->tv_nsec = (INITIAL_JIFFIES % HZ) * (NSEC_PER_SEC / HZ);
+}
+
+void __init time_init(void)
+{
#if defined(CONFIG_CHIP_M32102) || defined(CONFIG_CHIP_XNUX2) \
|| defined(CONFIG_CHIP_VDEC2) || defined(CONFIG_CHIP_M32700) \
|| defined(CONFIG_CHIP_OPSP) || defined(CONFIG_CHIP_M32104)
return IRQ_HANDLED;
}
-void __init time_init(void)
+void read_persistent_clock(struct timespec *ts)
{
struct rtc_time time;
+ ts->tv_sec = 0;
+ ts->tv_nsec = 0;
if (mach_hwclk) {
mach_hwclk(0, &time);
if ((time.tm_year += 1900) < 1970)
time.tm_year += 100;
- xtime.tv_sec = mktime(time.tm_year, time.tm_mon, time.tm_mday,
+ ts->tv_sec = mktime(time.tm_year, time.tm_mon, time.tm_mday,
time.tm_hour, time.tm_min, time.tm_sec);
- xtime.tv_nsec = 0;
}
- wall_to_monotonic.tv_sec = -xtime.tv_sec;
+}
+void __init time_init(void)
+{
mach_sched_init(timer_interrupt);
}
config GENERIC_CALIBRATE_DELAY
def_bool y
+config GENERIC_CMOS_UPDATE
+ def_bool y
+
config GENERIC_FIND_NEXT_BIT
def_bool y
/* time for RTC to update itself in ioclks */
static unsigned long mn10300_rtc_update_period;
-/*
- * read the current RTC time
- */
-unsigned long __init get_initial_rtc_time(void)
+void read_persistent_clock(struct timespec *ts)
{
struct rtc_time tm;
get_rtc_time(&tm);
- return mktime(tm.tm_year, tm.tm_mon, tm.tm_mday,
+ ts->tv_sec = mktime(tm.tm_year, tm.tm_mon, tm.tm_mday,
tm.tm_hour, tm.tm_min, tm.tm_sec);
+ ts->tv_nsec = 0;
}
/*
return retval;
}
-void check_rtc_time(void)
+int update_persistent_clock(struct timespec now)
{
- /* the RTC clock just finished ticking over again this second
- * - if we have an externally synchronized Linux clock, then update
- * RTC clock accordingly every ~11 minutes. set_rtc_mmss() has to be
- * called as close as possible to 500 ms before the new second starts.
- */
- if ((time_status & STA_UNSYNC) == 0 &&
- xtime.tv_sec > last_rtc_update + 660 &&
- xtime.tv_nsec / 1000 >= 500000 - ((unsigned) TICK_SIZE) / 2 &&
- xtime.tv_nsec / 1000 <= 500000 + ((unsigned) TICK_SIZE) / 2
- ) {
- if (set_rtc_mmss(xtime.tv_sec) == 0)
- last_rtc_update = xtime.tv_sec;
- else
- /* do it again in 60s */
- last_rtc_update = xtime.tv_sec - 600;
- }
+ return set_rtc_mms(now.tv_sec);
}
/*
/* advance the kernel's time tracking system */
profile_tick(CPU_PROFILING);
do_timer(1);
- check_rtc_time();
}
write_sequnlock(&xtime_lock);
" (calibrated against RTC)\n",
MN10300_TSCCLK / 1000000, (MN10300_TSCCLK / 10000) % 100);
- xtime.tv_sec = get_initial_rtc_time();
- xtime.tv_nsec = 0;
-
mn10300_last_tsc = TMTSCBC;
/* use timer 0 & 1 cascaded to tick at as close to HZ as possible */
config GENERIC_CMOS_UPDATE
bool
- default y if SPARC64
+ default y
config GENERIC_CLOCKEVENTS
bool
u32 (*do_arch_gettimeoffset)(void);
+int update_persistent_clock(struct timespec now)
+{
+ return set_rtc_mmss(now.tv_sec);
+}
+
/*
* timer_interrupt() needs to keep up the real-time clock,
* as well as call the "do_timer()" routine every clocktick
static irqreturn_t timer_interrupt(int dummy, void *dev_id)
{
- /* last time the cmos clock got updated */
- static long last_rtc_update;
-
#ifndef CONFIG_SMP
profile_tick(CPU_PROFILING);
#endif
do_timer(1);
- /* Determine when to update the Mostek clock. */
- if (ntp_synced() &&
- xtime.tv_sec > last_rtc_update + 660 &&
- (xtime.tv_nsec / 1000) >= 500000 - ((unsigned) TICK_SIZE) / 2 &&
- (xtime.tv_nsec / 1000) <= 500000 + ((unsigned) TICK_SIZE) / 2) {
- if (set_rtc_mmss(xtime.tv_sec) == 0)
- last_rtc_update = xtime.tv_sec;
- else
- last_rtc_update = xtime.tv_sec - 600; /* do it again in 60 s */
- }
write_sequnlock(&xtime_lock);
#ifndef CONFIG_SMP
__init void xen_time_init(void)
{
int cpu = smp_processor_id();
+ struct timespec tp;
clocksource_register(&xen_clocksource);
}
/* Set initial system time with full resolution */
- xen_read_wallclock(&xtime);
- set_normalized_timespec(&wall_to_monotonic,
- -xtime.tv_sec, -xtime.tv_nsec);
+ xen_read_wallclock(&tp);
+ do_settimeofday(&tp);
setup_force_cpu_cap(X86_FEATURE_TSC);
void __init time_init(void)
{
- /* FIXME: xtime&wall_to_monotonic are set in timekeeping_init. */
- read_persistent_clock(&xtime);
- set_normalized_timespec(&wall_to_monotonic,
- -xtime.tv_sec, -xtime.tv_nsec);
-
#ifdef CONFIG_XTENSA_CALIBRATE_CCOUNT
printk("Calibrating CPU frequency ");
platform_calibrate_ccount();
git.openpandora.org / pandora-kernel.git / commitdiff