All,
This patch changes the NTP variable names from time_* to ntp_* further
clarifying their use.
Any comments or feedback would be greatly appreciated.
thanks
-john
linux-2.6.13-rc3_timeofday-ntp-part9_B4.patch
============================================
diff --git a/arch/cris/kernel/time.c b/arch/cris/kernel/time.c
--- a/arch/cris/kernel/time.c
+++ b/arch/cris/kernel/time.c
@@ -68,11 +68,11 @@ void do_gettimeofday(struct timeval *tv)
}
/*
- * If time_adjust is negative then NTP is slowing the clock
+ * If ntp_adjtime_offset is negative then NTP is slowing the clock
* so make sure not to go into next possible interval.
* Better to lose some accuracy than have time go backwards..
*/
- if (unlikely(time_adjust < 0) && usec > tickadj)
+ if (unlikely(ntp_adjtime_offset < 0) && usec > tickadj)
usec = tickadj;
sec = xtime.tv_sec;
diff --git a/arch/frv/kernel/time.c b/arch/frv/kernel/time.c
--- a/arch/frv/kernel/time.c
+++ b/arch/frv/kernel/time.c
@@ -166,11 +166,11 @@ void do_gettimeofday(struct timeval *tv)
lost = jiffies - wall_jiffies;
/*
- * If time_adjust is negative then NTP is slowing the clock
+ * If ntp_adjtime_offset is negative then NTP is slowing the
clock
* so make sure not to go into next possible interval.
* Better to lose some accuracy than have time go backwards..
*/
- if (unlikely(time_adjust < 0)) {
+ if (unlikely(ntp_adjtime_offset < 0)) {
max_ntp_tick = (USEC_PER_SEC / HZ) - tickadj;
usec = min(usec, max_ntp_tick);
diff --git a/arch/i386/kernel/time.c b/arch/i386/kernel/time.c
--- a/arch/i386/kernel/time.c
+++ b/arch/i386/kernel/time.c
@@ -142,11 +142,11 @@ void do_gettimeofday(struct timeval *tv)
lost = jiffies - wall_jiffies;
/*
- * If time_adjust is negative then NTP is slowing the clock
+ * If ntp_adjtime_offset is negative then NTP is slowing the
clock
* so make sure not to go into next possible interval.
* Better to lose some accuracy than have time go backwards..
*/
- if (unlikely(time_adjust < 0)) {
+ if (unlikely(ntp_adjtime_offset < 0)) {
max_ntp_tick = (USEC_PER_SEC / HZ) - tickadj;
usec = min(usec, max_ntp_tick);
diff --git a/arch/m32r/kernel/time.c b/arch/m32r/kernel/time.c
--- a/arch/m32r/kernel/time.c
+++ b/arch/m32r/kernel/time.c
@@ -122,11 +122,11 @@ void do_gettimeofday(struct timeval *tv)
lost = jiffies - wall_jiffies;
/*
- * If time_adjust is negative then NTP is slowing the clock
+ * If ntp_adjtime_offset is negative then NTP is slowing the
clock
* so make sure not to go into next possible interval.
* Better to lose some accuracy than have time go backwards..
*/
- if (unlikely(time_adjust < 0)) {
+ if (unlikely(ntp_adjtime_offset < 0)) {
usec = min(usec, max_ntp_tick);
if (lost)
usec += lost * max_ntp_tick;
diff --git a/arch/mips/kernel/time.c b/arch/mips/kernel/time.c
--- a/arch/mips/kernel/time.c
+++ b/arch/mips/kernel/time.c
@@ -171,11 +171,11 @@ void do_gettimeofday(struct timeval *tv)
lost = jiffies - wall_jiffies;
/*
- * If time_adjust is negative then NTP is slowing the clock
+ * If ntp_adjtime_offset is negative then NTP is slowing the
clock
* so make sure not to go into next possible interval.
* Better to lose some accuracy than have time go backwards..
*/
- if (unlikely(time_adjust < 0)) {
+ if (unlikely(ntp_adjtime_offset < 0)) {
usec = min(usec, max_ntp_tick);
if (lost)
diff --git a/arch/ppc64/kernel/time.c b/arch/ppc64/kernel/time.c
--- a/arch/ppc64/kernel/time.c
+++ b/arch/ppc64/kernel/time.c
@@ -355,7 +355,7 @@ int timer_interrupt(struct pt_regs * reg
timer_sync_xtime(lpaca->next_jiffy_update_tb);
timer_check_rtc();
write_sequnlock(&xtime_lock);
- if ( adjusting_time && (time_adjust == 0) )
+ if ( adjusting_time && (ntp_adjtime_offset == 0) )
ppc_adjtimex();
}
lpaca->next_jiffy_update_tb += tb_ticks_per_jiffy;
@@ -582,7 +582,7 @@ void __init time_init(void)
systemcfg->stamp_xsec = xtime.tv_sec * XSEC_PER_SEC;
systemcfg->tb_to_xs = tb_to_xs;
- time_freq = 0;
+ ntp_freq = 0;
xtime.tv_nsec = 0;
last_rtc_update = xtime.tv_sec;
@@ -599,7 +599,7 @@ void __init time_init(void)
* to microseconds to keep do_gettimeofday synchronized
* with ntpd.
*
- * Use the time_adjust, time_freq and time_offset computed by adjtimex to
+ * Use the ntp_adjtime_offset, ntp_freq and ntp_offset computed by adjtimex to
* adjust the frequency.
*/
@@ -617,32 +617,32 @@ void ppc_adjtimex(void)
long singleshot_ppm = 0;
/* Compute parts per million frequency adjustment to accomplish the
time adjustment
- implied by time_offset to be applied over the elapsed time indicated
by time_constant.
- Use SHIFT_USEC to get it into the same units as time_freq. */
- if ( time_offset < 0 ) {
- ltemp = -time_offset;
+ implied by ntp_offset to be applied over the elapsed time indicated
by ntp_constant.
+ Use SHIFT_USEC to get it into the same units as ntp_freq. */
+ if ( ntp_offset < 0 ) {
+ ltemp = -ntp_offset;
ltemp <<= SHIFT_USEC - SHIFT_UPDATE;
- ltemp >>= SHIFT_KG + time_constant;
+ ltemp >>= SHIFT_KG + ntp_constant;
ltemp = -ltemp;
}
else {
- ltemp = time_offset;
+ ltemp = ntp_offset;
ltemp <<= SHIFT_USEC - SHIFT_UPDATE;
- ltemp >>= SHIFT_KG + time_constant;
+ ltemp >>= SHIFT_KG + ntp_constant;
}
/* If there is a single shot time adjustment in progress */
- if ( time_adjust ) {
+ if ( ntp_adjtime_offset ) {
#ifdef DEBUG_PPC_ADJTIMEX
printk("ppc_adjtimex: ");
if ( adjusting_time == 0 )
printk("starting ");
- printk("single shot time_adjust = %ld\n", time_adjust);
+ printk("single shot ntp_adjtime_offset = %ld\n",
ntp_adjtime_offset);
#endif
adjusting_time = 1;
- /* Compute parts per million frequency adjustment to match
time_adjust */
+ /* Compute parts per million frequency adjustment to match
ntp_adjtime_offset */
singleshot_ppm = tickadj * HZ;
/*
* The adjustment should be tickadj*HZ to match the code in
@@ -650,21 +650,21 @@ void ppc_adjtimex(void)
* large. 3/4 of tickadj*HZ seems about right
*/
singleshot_ppm -= singleshot_ppm / 4;
- /* Use SHIFT_USEC to get it into the same units as time_freq */
+ /* Use SHIFT_USEC to get it into the same units as ntp_freq */
singleshot_ppm <<= SHIFT_USEC;
- if ( time_adjust < 0 )
+ if ( ntp_adjtime_offset < 0 )
singleshot_ppm = -singleshot_ppm;
}
else {
#ifdef DEBUG_PPC_ADJTIMEX
if ( adjusting_time )
- printk("ppc_adjtimex: ending single shot
time_adjust\n");
+ printk("ppc_adjtimex: ending single shot
ntp_adjtime_offset\n");
#endif
adjusting_time = 0;
}
/* Add up all of the frequency adjustments */
- delta_freq = time_freq + ltemp + singleshot_ppm;
+ delta_freq = ntp_freq + ltemp + singleshot_ppm;
/* Compute a new value for tb_ticks_per_sec based on the frequency
adjustment */
den = 1000000 * (1 << (SHIFT_USEC - 8));
@@ -678,7 +678,7 @@ void ppc_adjtimex(void)
}
#ifdef DEBUG_PPC_ADJTIMEX
- printk("ppc_adjtimex: ltemp = %ld, time_freq = %ld, singleshot_ppm =
%ld\n", ltemp, time_freq, singleshot_ppm);
+ printk("ppc_adjtimex: ltemp = %ld, ntp_freq = %ld, singleshot_ppm =
%ld\n", ltemp, ntp_freq, singleshot_ppm);
printk("ppc_adjtimex: tb_ticks_per_sec - base = %ld new = %ld\n",
tb_ticks_per_sec, new_tb_ticks_per_sec);
#endif
diff --git a/arch/sparc/kernel/pcic.c b/arch/sparc/kernel/pcic.c
--- a/arch/sparc/kernel/pcic.c
+++ b/arch/sparc/kernel/pcic.c
@@ -783,11 +783,11 @@ static void pci_do_gettimeofday(struct t
lost = jiffies - wall_jiffies;
/*
- * If time_adjust is negative then NTP is slowing the clock
+ * If ntp_adjtime_offset is negative then NTP is slowing the
clock
* so make sure not to go into next possible interval.
* Better to lose some accuracy than have time go backwards..
*/
- if (unlikely(time_adjust < 0)) {
+ if (unlikely(ntp_adjtime_offset < 0)) {
usec = min(usec, max_ntp_tick);
if (lost)
diff --git a/arch/sparc/kernel/time.c b/arch/sparc/kernel/time.c
--- a/arch/sparc/kernel/time.c
+++ b/arch/sparc/kernel/time.c
@@ -492,11 +492,11 @@ void do_gettimeofday(struct timeval *tv)
lost = jiffies - wall_jiffies;
/*
- * If time_adjust is negative then NTP is slowing the clock
+ * If ntp_adjtime_offset is negative then NTP is slowing the
clock
* so make sure not to go into next possible interval.
* Better to lose some accuracy than have time go backwards..
*/
- if (unlikely(time_adjust < 0)) {
+ if (unlikely(ntp_adjtime_offset < 0)) {
usec = min(usec, max_ntp_tick);
if (lost)
diff --git a/include/linux/ntp.h b/include/linux/ntp.h
--- a/include/linux/ntp.h
+++ b/include/linux/ntp.h
@@ -20,9 +20,9 @@ int ntp_synced(void);
* these variables cannot be made static just yet
*/
extern int tickadj;
-extern long time_offset;
-extern long time_freq;
-extern long time_adjust;
-extern long time_constant;
+extern long ntp_offset;
+extern long ntp_freq;
+extern long ntp_adjtime_offset;
+extern long ntp_constant;
#endif
diff --git a/kernel/ntp.c b/kernel/ntp.c
--- a/kernel/ntp.c
+++ b/kernel/ntp.c
@@ -47,26 +47,28 @@
/* Don't completely fail for HZ > 500. */
int tickadj = 500/HZ ? : 1; /* microsecs */
-
-/*
- * phase-lock loop variables
- */
-/* TIME_ERROR prevents overwriting the CMOS clock */
-static int time_state = TIME_OK; /* clock synchronization status
*/
-static int time_status = STA_UNSYNC; /* clock status bits */
-long time_offset; /* time adjustment (us) */
-long time_constant = 2; /* pll time constant */
-static long time_tolerance = MAXFREQ; /* frequency tolerance (ppm) */
-static long time_precision = 1; /* clock precision (us) */
-static long time_maxerror = NTP_PHASE_LIMIT; /* maximum error (us) */
-static long time_esterror = NTP_PHASE_LIMIT; /* estimated error (us) */
-static long time_phase; /* phase offset (scaled us) */
-long time_freq = (((NSEC_PER_SEC + HZ/2) % HZ - HZ/2) << SHIFT_USEC) /
NSEC_PER_USEC;
- /* frequency offset (scaled ppm) */
+static long time_phase; /* phase offset (scaled us) */
static long time_adj; /* tick adjust (scaled 1 / HZ) */
-static long time_reftime; /* time at last adjustment (s)
*/
-long time_adjust;
-static long time_next_adjust;
+
+/* Chapter 5: Kernel Variables [RFC 1589 pg. 28] */
+/* 5.1 Interface Variables */
+static int ntp_status = STA_UNSYNC; /* status */
+long ntp_offset; /* usec */
+long ntp_constant = 2; /* ntp magic? */
+static long ntp_maxerror = NTP_PHASE_LIMIT; /* usec */
+static long ntp_esterror = NTP_PHASE_LIMIT; /* usec */
+static const long ntp_tolerance = MAXFREQ; /* shifted ppm */
+static const long ntp_precision = 1; /* constant */
+
+/* 5.2 Phase-Lock Loop Variables */
+long ntp_freq; /* shifted ppm */
+static long ntp_reftime; /* sec */
+
+/* Extra values */
+static int ntp_state = TIME_OK; /* leapsecond state */
+long ntp_adjtime_offset;
+static long ntp_next_adjtime_offset;
+
#define SEC_PER_DAY 86400
@@ -92,10 +94,10 @@ int ntp_advance(unsigned long interval_n
interval_sum -= NSEC_PER_SEC;
/* Bump the maxerror field */
- time_maxerror += time_tolerance >> SHIFT_USEC;
- if ( time_maxerror > NTP_PHASE_LIMIT ) {
- time_maxerror = NTP_PHASE_LIMIT;
- time_status |= STA_UNSYNC;
+ ntp_maxerror += shiftR(ntp_tolerance, SHIFT_USEC);
+ if (ntp_maxerror > NTP_PHASE_LIMIT) {
+ ntp_maxerror = NTP_PHASE_LIMIT;
+ ntp_status |= STA_UNSYNC;
}
/*
@@ -107,16 +109,16 @@ int ntp_advance(unsigned long interval_n
* the adjustment over not more than the number of
* seconds between updates.
*/
- next_adj = time_offset;
- if (!(time_status & STA_FLL))
- next_adj = shiftR(next_adj, SHIFT_KG + time_constant);
+ next_adj = ntp_offset;
+ if (!(ntp_status & STA_FLL))
+ next_adj = shiftR(next_adj, SHIFT_KG + ntp_constant);
next_adj = min(next_adj, (MAXPHASE / MINSEC) << SHIFT_UPDATE);
next_adj = max(next_adj, -(MAXPHASE / MINSEC) << SHIFT_UPDATE);
- time_offset -= next_adj;
+ ntp_offset -= next_adj;
time_adj = next_adj << (SHIFT_SCALE - SHIFT_HZ - SHIFT_UPDATE);
- time_adj += shiftR(time_freq, (SHIFT_USEC + SHIFT_HZ -
SHIFT_SCALE));
+ time_adj += shiftR(ntp_freq, (SHIFT_USEC + SHIFT_HZ -
SHIFT_SCALE));
#if HZ == 100
/* Compensate for (HZ==100) != (1 << SHIFT_HZ).
@@ -136,23 +138,23 @@ int ntp_advance(unsigned long interval_n
}
- if ( (time_adjust_step = time_adjust) != 0 ) {
+ if ( (time_adjust_step = ntp_adjtime_offset) != 0 ) {
/* We are doing an adjtime thing.
*
* Prepare time_adjust_step to be within bounds.
- * Note that a positive time_adjust means we want the clock
+ * Note that a positive ntp_adjtime_offset means we want the clock
* to run faster.
*
* Limit the amount of the step to be in the range
* -tickadj .. +tickadj
*/
- if (time_adjust > tickadj)
+ if (ntp_adjtime_offset > tickadj)
time_adjust_step = tickadj;
- else if (time_adjust < -tickadj)
+ else if (ntp_adjtime_offset < -tickadj)
time_adjust_step = -tickadj;
/* Reduce by this step the amount of time left */
- time_adjust -= time_adjust_step;
+ ntp_adjtime_offset -= time_adjust_step;
}
delta_nsec = time_adjust_step * 1000;
@@ -172,9 +174,9 @@ int ntp_advance(unsigned long interval_n
}
/* Changes by adjtime() do not take effect till next tick. */
- if (time_next_adjust != 0) {
- time_adjust = time_next_adjust;
- time_next_adjust = 0;
+ if (ntp_next_adjtime_offset != 0) {
+ ntp_adjtime_offset = ntp_next_adjtime_offset;
+ ntp_next_adjtime_offset = 0;
}
return delta_nsec;
@@ -197,51 +199,51 @@ static int ntp_hardupdate(long offset, s
long current_offset, interval;
ret = 0;
- if (!(time_status & STA_PLL))
+ if (!(ntp_status & STA_PLL))
return ret;
current_offset = offset;
/* Make sure offset is bounded by MAXPHASE */
current_offset = min(current_offset, MAXPHASE);
current_offset = max(current_offset, -MAXPHASE);
- time_offset = current_offset << SHIFT_UPDATE;
+ ntp_offset = current_offset << SHIFT_UPDATE;
- if (time_status & STA_FREQHOLD || time_reftime == 0)
- time_reftime = tv.tv_sec;
+ if (ntp_status & STA_FREQHOLD || ntp_reftime == 0)
+ ntp_reftime = tv.tv_sec;
/* calculate seconds since last call to hardupdate */
- interval = tv.tv_sec - time_reftime;
- time_reftime = tv.tv_sec;
+ interval = tv.tv_sec - ntp_reftime;
+ ntp_reftime = tv.tv_sec;
/*
* Select whether the frequency is to be controlled
* and in which mode (PLL or FLL). Clamp to the operating
* range. Ugly multiply/divide should be replaced someday.
*/
- if ((time_status & STA_FLL) && (interval >= MINSEC)) {
+ if ((ntp_status & STA_FLL) && (interval >= MINSEC)) {
long offset_ppm;
- offset_ppm = time_offset / interval;
+ offset_ppm = ntp_offset / interval;
offset_ppm <<= (SHIFT_USEC - SHIFT_UPDATE);
- time_freq += shiftR(offset_ppm, SHIFT_KH);
+ ntp_freq += shiftR(offset_ppm, SHIFT_KH);
- } else if ((time_status & STA_PLL) && (interval < MAXSEC)) {
+ } else if ((ntp_status & STA_PLL) && (interval < MAXSEC)) {
long damping, offset_ppm;
offset_ppm = offset * interval;
- damping = (2 * time_constant) + SHIFT_KF - SHIFT_USEC;
+ damping = (2 * ntp_constant) + SHIFT_KF - SHIFT_USEC;
- time_freq += shiftR(offset_ppm, damping);
+ ntp_freq += shiftR(offset_ppm, damping);
} else { /* calibration interval out of bounds (p. 12) */
ret = TIME_ERROR;
}
- /* bound time_freq */
- time_freq = min(time_freq, time_tolerance);
- time_freq = max(time_freq, -time_tolerance);
+ /* bound ntp_freq */
+ ntp_freq = min(ntp_freq, ntp_tolerance);
+ ntp_freq = max(ntp_freq, -ntp_tolerance);
return ret;
}
@@ -297,34 +299,34 @@ int ntp_adjtimex(struct timex *txc)
return -EINVAL;
write_seqlock_irq(&xtime_lock);
- result = time_state; /* mostly `TIME_OK' */
+ result = ntp_state; /* mostly `TIME_OK' */
/* Save for later - semantics of adjtime is to return old value */
- save_adjust = time_next_adjust ? time_next_adjust : time_adjust;
+ save_adjust = ntp_next_adjtime_offset ? ntp_next_adjtime_offset :
ntp_adjtime_offset;
/* If there are input parameters, then process them */
if (txc->modes & ADJ_STATUS) /* only set allowed bits */
- time_status = (txc->status & ~STA_RONLY) |
- (time_status & STA_RONLY);
+ ntp_status = (txc->status & ~STA_RONLY) |
+ (ntp_status & STA_RONLY);
if (txc->modes & ADJ_FREQUENCY)
- time_freq = txc->freq;
+ ntp_freq = txc->freq;
if (txc->modes & ADJ_MAXERROR)
- time_maxerror = txc->maxerror;
+ ntp_maxerror = txc->maxerror;
if (txc->modes & ADJ_ESTERROR)
- time_esterror = txc->esterror;
+ ntp_esterror = txc->esterror;
if (txc->modes & ADJ_TIMECONST)
- time_constant = txc->constant;
+ ntp_constant = txc->constant;
if (txc->modes & ADJ_OFFSET) {
if (txc->modes == ADJ_OFFSET_SINGLESHOT) {
/* adjtime() is independent from ntp_adjtime() */
- if ((time_next_adjust = txc->offset) == 0)
- time_adjust = 0;
+ if ((ntp_next_adjtime_offset = txc->offset) == 0)
+ ntp_adjtime_offset = 0;
} else if (ntp_hardupdate(txc->offset, xtime))
result = TIME_ERROR;
}
@@ -334,23 +336,22 @@ int ntp_adjtimex(struct timex *txc)
tick_nsec = TICK_USEC_TO_NSEC(tick_usec);
}
- if ((time_status & (STA_UNSYNC|STA_CLOCKERR)) != 0)
+ if ((ntp_status & (STA_UNSYNC|STA_CLOCKERR)) != 0)
result = TIME_ERROR;
/* write kernel state to user timex values*/
-
if ((txc->modes & ADJ_OFFSET_SINGLESHOT) == ADJ_OFFSET_SINGLESHOT)
txc->offset = save_adjust;
- else {
- txc->offset = shiftR(time_offset, SHIFT_UPDATE);
- }
- txc->freq = time_freq;
- txc->maxerror = time_maxerror;
- txc->esterror = time_esterror;
- txc->status = time_status;
- txc->constant = time_constant;
- txc->precision = time_precision;
- txc->tolerance = time_tolerance;
+ else
+ txc->offset = shiftR(ntp_offset, SHIFT_UPDATE);
+
+ txc->freq = ntp_freq;
+ txc->maxerror = ntp_maxerror;
+ txc->esterror = ntp_esterror;
+ txc->status = ntp_status;
+ txc->constant = ntp_constant;
+ txc->precision = ntp_precision;
+ txc->tolerance = ntp_tolerance;
txc->tick = tick_usec;
/* PPS is not implemented, so these are zero */
@@ -387,12 +388,12 @@ int ntp_leapsecond(struct timespec now)
*/
static time_t leaptime = 0;
- switch (time_state) {
+ switch (ntp_state) {
case TIME_OK:
- if (time_status & STA_INS)
- time_state = TIME_INS;
- else if (time_status & STA_DEL)
- time_state = TIME_DEL;
+ if (ntp_status & STA_INS)
+ ntp_state = TIME_INS;
+ else if (ntp_status & STA_DEL)
+ ntp_state = TIME_DEL;
/* calculate end of today (23:59:59)*/
leaptime = now.tv_sec + SEC_PER_DAY -
@@ -402,7 +403,7 @@ int ntp_leapsecond(struct timespec now)
case TIME_INS:
/* Once we are at (or past) leaptime, insert the second */
if (now.tv_sec >= leaptime) {
- time_state = TIME_OOP;
+ ntp_state = TIME_OOP;
printk(KERN_NOTICE "Clock: inserting leap second
23:59:60 UTC\n");
return -1;
}
@@ -411,7 +412,7 @@ int ntp_leapsecond(struct timespec now)
case TIME_DEL:
/* Once we are at (or past) leaptime, delete the second */
if (now.tv_sec >= leaptime) {
- time_state = TIME_WAIT;
+ ntp_state = TIME_WAIT;
printk(KERN_NOTICE "Clock: deleting leap second
23:59:59 UTC\n");
return 1;
}
@@ -420,12 +421,12 @@ int ntp_leapsecond(struct timespec now)
case TIME_OOP:
/* Wait for the end of the leap second*/
if (now.tv_sec > (leaptime + 1))
- time_state = TIME_WAIT;
+ ntp_state = TIME_WAIT;
break;
case TIME_WAIT:
- if (!(time_status & (STA_INS | STA_DEL)))
- time_state = TIME_OK;
+ if (!(ntp_status & (STA_INS | STA_DEL)))
+ ntp_state = TIME_OK;
}
return 0;
@@ -439,10 +440,10 @@ int ntp_leapsecond(struct timespec now)
*/
void ntp_clear(void)
{
- time_adjust = 0; /* stop active adjtime() */
- time_status |= STA_UNSYNC;
- time_maxerror = NTP_PHASE_LIMIT;
- time_esterror = NTP_PHASE_LIMIT;
+ ntp_next_adjtime_offset = 0; /* stop active adjtime() */
+ ntp_status |= STA_UNSYNC;
+ ntp_maxerror = NTP_PHASE_LIMIT;
+ ntp_esterror = NTP_PHASE_LIMIT;
}
/**
@@ -451,6 +452,6 @@ void ntp_clear(void)
*/
int ntp_synced(void)
{
- return !(time_status & STA_UNSYNC);
+ return !(ntp_status & STA_UNSYNC);
}
-
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