From 4bf07f6562a01a488877e05267808da7147f44a5 Mon Sep 17 00:00:00 2001 From: Ingo Molnar Date: Mon, 22 Mar 2021 22:39:03 +0100 Subject: timekeeping, clocksource: Fix various typos in comments Fix ~56 single-word typos in timekeeping & clocksource code comments. Signed-off-by: Ingo Molnar Cc: Thomas Gleixner Cc: John Stultz Cc: Stephen Boyd Cc: Daniel Lezcano Cc: linux-kernel@vger.kernel.org --- drivers/clocksource/clksrc-dbx500-prcmu.c | 8 ++++---- drivers/clocksource/dw_apb_timer_of.c | 2 +- drivers/clocksource/hyperv_timer.c | 2 +- drivers/clocksource/timer-atmel-tcb.c | 4 ++-- drivers/clocksource/timer-fsl-ftm.c | 2 +- drivers/clocksource/timer-microchip-pit64b.c | 2 +- drivers/clocksource/timer-of.c | 4 ++-- drivers/clocksource/timer-ti-dm-systimer.c | 2 +- drivers/clocksource/timer-vf-pit.c | 2 +- include/linux/clocksource.h | 2 +- include/linux/timex.h | 2 +- kernel/time/alarmtimer.c | 6 +++--- kernel/time/clocksource.c | 4 ++-- kernel/time/hrtimer.c | 18 +++++++++--------- kernel/time/jiffies.c | 2 +- kernel/time/ntp.c | 2 +- kernel/time/posix-cpu-timers.c | 6 +++--- kernel/time/tick-broadcast-hrtimer.c | 2 +- kernel/time/tick-broadcast.c | 4 ++-- kernel/time/tick-oneshot.c | 2 +- kernel/time/tick-sched.c | 2 +- kernel/time/tick-sched.h | 2 +- kernel/time/time.c | 2 +- kernel/time/timekeeping.c | 10 +++++----- kernel/time/timer.c | 4 ++-- kernel/time/vsyscall.c | 2 +- tools/testing/selftests/timers/clocksource-switch.c | 4 ++-- tools/testing/selftests/timers/leap-a-day.c | 2 +- tools/testing/selftests/timers/leapcrash.c | 4 ++-- tools/testing/selftests/timers/threadtest.c | 2 +- 30 files changed, 56 insertions(+), 56 deletions(-) diff --git a/drivers/clocksource/clksrc-dbx500-prcmu.c b/drivers/clocksource/clksrc-dbx500-prcmu.c index 996900d017c6..2fc93e46cea3 100644 --- a/drivers/clocksource/clksrc-dbx500-prcmu.c +++ b/drivers/clocksource/clksrc-dbx500-prcmu.c @@ -18,7 +18,7 @@ #define RATE_32K 32768 -#define TIMER_MODE_CONTINOUS 0x1 +#define TIMER_MODE_CONTINUOUS 0x1 #define TIMER_DOWNCOUNT_VAL 0xffffffff #define PRCMU_TIMER_REF 0 @@ -55,13 +55,13 @@ static int __init clksrc_dbx500_prcmu_init(struct device_node *node) /* * The A9 sub system expects the timer to be configured as - * a continous looping timer. + * a continuous looping timer. * The PRCMU should configure it but if it for some reason * don't we do it here. */ if (readl(clksrc_dbx500_timer_base + PRCMU_TIMER_MODE) != - TIMER_MODE_CONTINOUS) { - writel(TIMER_MODE_CONTINOUS, + TIMER_MODE_CONTINUOUS) { + writel(TIMER_MODE_CONTINUOUS, clksrc_dbx500_timer_base + PRCMU_TIMER_MODE); writel(TIMER_DOWNCOUNT_VAL, clksrc_dbx500_timer_base + PRCMU_TIMER_REF); diff --git a/drivers/clocksource/dw_apb_timer_of.c b/drivers/clocksource/dw_apb_timer_of.c index 42e7e43b8fcd..2b2c3b586987 100644 --- a/drivers/clocksource/dw_apb_timer_of.c +++ b/drivers/clocksource/dw_apb_timer_of.c @@ -38,7 +38,7 @@ static int __init timer_get_base_and_rate(struct device_node *np, } /* - * Not all implementations use a periphal clock, so don't panic + * Not all implementations use a peripheral clock, so don't panic * if it's not present */ pclk = of_clk_get_by_name(np, "pclk"); diff --git a/drivers/clocksource/hyperv_timer.c b/drivers/clocksource/hyperv_timer.c index 269a691bd2c4..a02b0a224807 100644 --- a/drivers/clocksource/hyperv_timer.c +++ b/drivers/clocksource/hyperv_timer.c @@ -457,7 +457,7 @@ void __init hv_init_clocksource(void) { /* * Try to set up the TSC page clocksource. If it succeeds, we're - * done. Otherwise, set up the MSR clocksoruce. At least one of + * done. Otherwise, set up the MSR clocksource. At least one of * these will always be available except on very old versions of * Hyper-V on x86. In that case we won't have a Hyper-V * clocksource, but Linux will still run with a clocksource based diff --git a/drivers/clocksource/timer-atmel-tcb.c b/drivers/clocksource/timer-atmel-tcb.c index 787dbebbb432..27af17c99590 100644 --- a/drivers/clocksource/timer-atmel-tcb.c +++ b/drivers/clocksource/timer-atmel-tcb.c @@ -455,9 +455,9 @@ static int __init tcb_clksrc_init(struct device_node *node) tcaddr = tc.regs; if (bits == 32) { - /* use apropriate function to read 32 bit counter */ + /* use appropriate function to read 32 bit counter */ clksrc.read = tc_get_cycles32; - /* setup ony channel 0 */ + /* setup only channel 0 */ tcb_setup_single_chan(&tc, best_divisor_idx); tc_sched_clock = tc_sched_clock_read32; tc_delay_timer.read_current_timer = tc_delay_timer_read32; diff --git a/drivers/clocksource/timer-fsl-ftm.c b/drivers/clocksource/timer-fsl-ftm.c index 12a2ed7cfaff..93f336ec875a 100644 --- a/drivers/clocksource/timer-fsl-ftm.c +++ b/drivers/clocksource/timer-fsl-ftm.c @@ -116,7 +116,7 @@ static int ftm_set_next_event(unsigned long delta, * to the MOD register latches the value into a buffer. The MOD * register is updated with the value of its write buffer with * the following scenario: - * a, the counter source clock is diabled. + * a, the counter source clock is disabled. */ ftm_counter_disable(priv->clkevt_base); diff --git a/drivers/clocksource/timer-microchip-pit64b.c b/drivers/clocksource/timer-microchip-pit64b.c index ab623b25a47b..cfa4ec7ef396 100644 --- a/drivers/clocksource/timer-microchip-pit64b.c +++ b/drivers/clocksource/timer-microchip-pit64b.c @@ -237,7 +237,7 @@ static void __init mchp_pit64b_pres_compute(u32 *pres, u32 clk_rate, break; } - /* Use the bigest prescaler if we didn't match one. */ + /* Use the biggest prescaler if we didn't match one. */ if (*pres == MCHP_PIT64B_PRES_MAX) *pres = MCHP_PIT64B_PRES_MAX - 1; } diff --git a/drivers/clocksource/timer-of.c b/drivers/clocksource/timer-of.c index 572da477c6d3..529cc6a51cdb 100644 --- a/drivers/clocksource/timer-of.c +++ b/drivers/clocksource/timer-of.c @@ -211,10 +211,10 @@ out_fail: } /** - * timer_of_cleanup - release timer_of ressources + * timer_of_cleanup - release timer_of resources * @to: timer_of structure * - * Release the ressources that has been used in timer_of_init(). + * Release the resources that has been used in timer_of_init(). * This function should be called in init error cases */ void __init timer_of_cleanup(struct timer_of *to) diff --git a/drivers/clocksource/timer-ti-dm-systimer.c b/drivers/clocksource/timer-ti-dm-systimer.c index 33b3e8aa2cc5..614c8380f3e9 100644 --- a/drivers/clocksource/timer-ti-dm-systimer.c +++ b/drivers/clocksource/timer-ti-dm-systimer.c @@ -589,7 +589,7 @@ static int __init dmtimer_clockevent_init(struct device_node *np) "always-on " : "", t->rate, np->parent); clockevents_config_and_register(dev, t->rate, - 3, /* Timer internal resynch latency */ + 3, /* Timer internal resync latency */ 0xffffffff); if (of_machine_is_compatible("ti,am33xx") || diff --git a/drivers/clocksource/timer-vf-pit.c b/drivers/clocksource/timer-vf-pit.c index 1a86a4e7e344..911c92146eca 100644 --- a/drivers/clocksource/timer-vf-pit.c +++ b/drivers/clocksource/timer-vf-pit.c @@ -136,7 +136,7 @@ static int __init pit_clockevent_init(unsigned long rate, int irq) /* * The value for the LDVAL register trigger is calculated as: * LDVAL trigger = (period / clock period) - 1 - * The pit is a 32-bit down count timer, when the conter value + * The pit is a 32-bit down count timer, when the counter value * reaches 0, it will generate an interrupt, thus the minimal * LDVAL trigger value is 1. And then the min_delta is * minimal LDVAL trigger value + 1, and the max_delta is full 32-bit. diff --git a/include/linux/clocksource.h b/include/linux/clocksource.h index 86d143db6523..a247b089ca78 100644 --- a/include/linux/clocksource.h +++ b/include/linux/clocksource.h @@ -70,7 +70,7 @@ struct module; * @mark_unstable: Optional function to inform the clocksource driver that * the watchdog marked the clocksource unstable * @tick_stable: Optional function called periodically from the watchdog - * code to provide stable syncrhonization points + * code to provide stable synchronization points * @wd_list: List head to enqueue into the watchdog list (internal) * @cs_last: Last clocksource value for clocksource watchdog * @wd_last: Last watchdog value corresponding to @cs_last diff --git a/include/linux/timex.h b/include/linux/timex.h index 9c2e54faf9b7..059b18eb1f1f 100644 --- a/include/linux/timex.h +++ b/include/linux/timex.h @@ -133,7 +133,7 @@ /* * kernel variables - * Note: maximum error = NTP synch distance = dispersion + delay / 2; + * Note: maximum error = NTP sync distance = dispersion + delay / 2; * estimated error = NTP dispersion. */ extern unsigned long tick_usec; /* USER_HZ period (usec) */ diff --git a/kernel/time/alarmtimer.c b/kernel/time/alarmtimer.c index 98d7a15e8cf6..e9af8fae0bfb 100644 --- a/kernel/time/alarmtimer.c +++ b/kernel/time/alarmtimer.c @@ -2,13 +2,13 @@ /* * Alarmtimer interface * - * This interface provides a timer which is similarto hrtimers, + * This interface provides a timer which is similar to hrtimers, * but triggers a RTC alarm if the box is suspend. * * This interface is influenced by the Android RTC Alarm timer * interface. * - * Copyright (C) 2010 IBM Corperation + * Copyright (C) 2010 IBM Corporation * * Author: John Stultz */ @@ -811,7 +811,7 @@ static long __sched alarm_timer_nsleep_restart(struct restart_block *restart) /** * alarm_timer_nsleep - alarmtimer nanosleep * @which_clock: clockid - * @flags: determins abstime or relative + * @flags: determines abstime or relative * @tsreq: requested sleep time (abs or rel) * * Handles clock_nanosleep calls against _ALARM clockids diff --git a/kernel/time/clocksource.c b/kernel/time/clocksource.c index cce484a2cc7c..1d1a61371b5a 100644 --- a/kernel/time/clocksource.c +++ b/kernel/time/clocksource.c @@ -38,7 +38,7 @@ * calculated mult and shift factors. This guarantees that no 64bit * overflow happens when the input value of the conversion is * multiplied with the calculated mult factor. Larger ranges may - * reduce the conversion accuracy by chosing smaller mult and shift + * reduce the conversion accuracy by choosing smaller mult and shift * factors. */ void @@ -518,7 +518,7 @@ static void clocksource_suspend_select(bool fallback) * the suspend time when resuming system. * * This function is called late in the suspend process from timekeeping_suspend(), - * that means processes are freezed, non-boot cpus and interrupts are disabled + * that means processes are frozen, non-boot cpus and interrupts are disabled * now. It is therefore possible to start the suspend timer without taking the * clocksource mutex. */ diff --git a/kernel/time/hrtimer.c b/kernel/time/hrtimer.c index 788b9d137de4..30b356c93c78 100644 --- a/kernel/time/hrtimer.c +++ b/kernel/time/hrtimer.c @@ -683,7 +683,7 @@ hrtimer_force_reprogram(struct hrtimer_cpu_base *cpu_base, int skip_equal) * T1 is removed, so this code is called and would reprogram * the hardware to 5s from now. Any hrtimer_start after that * will not reprogram the hardware due to hang_detected being - * set. So we'd effectivly block all timers until the T2 event + * set. So we'd effectively block all timers until the T2 event * fires. */ if (!__hrtimer_hres_active(cpu_base) || cpu_base->hang_detected) @@ -1019,7 +1019,7 @@ static void __remove_hrtimer(struct hrtimer *timer, * cpu_base->next_timer. This happens when we remove the first * timer on a remote cpu. No harm as we never dereference * cpu_base->next_timer. So the worst thing what can happen is - * an superflous call to hrtimer_force_reprogram() on the + * an superfluous call to hrtimer_force_reprogram() on the * remote cpu later on if the same timer gets enqueued again. */ if (reprogram && timer == cpu_base->next_timer) @@ -1212,7 +1212,7 @@ static void hrtimer_cpu_base_unlock_expiry(struct hrtimer_cpu_base *base) * The counterpart to hrtimer_cancel_wait_running(). * * If there is a waiter for cpu_base->expiry_lock, then it was waiting for - * the timer callback to finish. Drop expiry_lock and reaquire it. That + * the timer callback to finish. Drop expiry_lock and reacquire it. That * allows the waiter to acquire the lock and make progress. */ static void hrtimer_sync_wait_running(struct hrtimer_cpu_base *cpu_base, @@ -1398,7 +1398,7 @@ static void __hrtimer_init(struct hrtimer *timer, clockid_t clock_id, int base; /* - * On PREEMPT_RT enabled kernels hrtimers which are not explicitely + * On PREEMPT_RT enabled kernels hrtimers which are not explicitly * marked for hard interrupt expiry mode are moved into soft * interrupt context for latency reasons and because the callbacks * can invoke functions which might sleep on RT, e.g. spin_lock(). @@ -1430,7 +1430,7 @@ static void __hrtimer_init(struct hrtimer *timer, clockid_t clock_id, * hrtimer_init - initialize a timer to the given clock * @timer: the timer to be initialized * @clock_id: the clock to be used - * @mode: The modes which are relevant for intitialization: + * @mode: The modes which are relevant for initialization: * HRTIMER_MODE_ABS, HRTIMER_MODE_REL, HRTIMER_MODE_ABS_SOFT, * HRTIMER_MODE_REL_SOFT * @@ -1487,7 +1487,7 @@ EXPORT_SYMBOL_GPL(hrtimer_active); * insufficient for that. * * The sequence numbers are required because otherwise we could still observe - * a false negative if the read side got smeared over multiple consequtive + * a false negative if the read side got smeared over multiple consecutive * __run_hrtimer() invocations. */ @@ -1588,7 +1588,7 @@ static void __hrtimer_run_queues(struct hrtimer_cpu_base *cpu_base, ktime_t now, * minimizing wakeups, not running timers at the * earliest interrupt after their soft expiration. * This allows us to avoid using a Priority Search - * Tree, which can answer a stabbing querry for + * Tree, which can answer a stabbing query for * overlapping intervals and instead use the simple * BST we already have. * We don't add extra wakeups by delaying timers that @@ -1822,7 +1822,7 @@ static void __hrtimer_init_sleeper(struct hrtimer_sleeper *sl, clockid_t clock_id, enum hrtimer_mode mode) { /* - * On PREEMPT_RT enabled kernels hrtimers which are not explicitely + * On PREEMPT_RT enabled kernels hrtimers which are not explicitly * marked for hard interrupt expiry mode are moved into soft * interrupt context either for latency reasons or because the * hrtimer callback takes regular spinlocks or invokes other @@ -1835,7 +1835,7 @@ static void __hrtimer_init_sleeper(struct hrtimer_sleeper *sl, * the same CPU. That causes a latency spike due to the wakeup of * a gazillion threads. * - * OTOH, priviledged real-time user space applications rely on the + * OTOH, privileged real-time user space applications rely on the * low latency of hard interrupt wakeups. If the current task is in * a real-time scheduling class, mark the mode for hard interrupt * expiry. diff --git a/kernel/time/jiffies.c b/kernel/time/jiffies.c index a5cffe2a1770..a492e4da69ba 100644 --- a/kernel/time/jiffies.c +++ b/kernel/time/jiffies.c @@ -44,7 +44,7 @@ static u64 jiffies_read(struct clocksource *cs) * the timer interrupt frequency HZ and it suffers * inaccuracies caused by missed or lost timer * interrupts and the inability for the timer - * interrupt hardware to accuratly tick at the + * interrupt hardware to accurately tick at the * requested HZ value. It is also not recommended * for "tick-less" systems. */ diff --git a/kernel/time/ntp.c b/kernel/time/ntp.c index 5247afd7f345..406dccb79c2b 100644 --- a/kernel/time/ntp.c +++ b/kernel/time/ntp.c @@ -544,7 +544,7 @@ static inline bool rtc_tv_nsec_ok(unsigned long set_offset_nsec, struct timespec64 *to_set, const struct timespec64 *now) { - /* Allowed error in tv_nsec, arbitarily set to 5 jiffies in ns. */ + /* Allowed error in tv_nsec, arbitrarily set to 5 jiffies in ns. */ const unsigned long TIME_SET_NSEC_FUZZ = TICK_NSEC * 5; struct timespec64 delay = {.tv_sec = -1, .tv_nsec = set_offset_nsec}; diff --git a/kernel/time/posix-cpu-timers.c b/kernel/time/posix-cpu-timers.c index a71758e34e45..b145e6835e34 100644 --- a/kernel/time/posix-cpu-timers.c +++ b/kernel/time/posix-cpu-timers.c @@ -279,7 +279,7 @@ void thread_group_sample_cputime(struct task_struct *tsk, u64 *samples) * @tsk: Task for which cputime needs to be started * @samples: Storage for time samples * - * The thread group cputime accouting is avoided when there are no posix + * The thread group cputime accounting is avoided when there are no posix * CPU timers armed. Before starting a timer it's required to check whether * the time accounting is active. If not, a full update of the atomic * accounting store needs to be done and the accounting enabled. @@ -390,7 +390,7 @@ static int posix_cpu_timer_create(struct k_itimer *new_timer) /* * If posix timer expiry is handled in task work context then * timer::it_lock can be taken without disabling interrupts as all - * other locking happens in task context. This requires a seperate + * other locking happens in task context. This requires a separate * lock class key otherwise regular posix timer expiry would record * the lock class being taken in interrupt context and generate a * false positive warning. @@ -1216,7 +1216,7 @@ static void handle_posix_cpu_timers(struct task_struct *tsk) check_process_timers(tsk, &firing); /* - * The above timer checks have updated the exipry cache and + * The above timer checks have updated the expiry cache and * because nothing can have queued or modified timers after * sighand lock was taken above it is guaranteed to be * consistent. So the next timer interrupt fastpath check diff --git a/kernel/time/tick-broadcast-hrtimer.c b/kernel/time/tick-broadcast-hrtimer.c index b5a65e212df2..797eb93103ad 100644 --- a/kernel/time/tick-broadcast-hrtimer.c +++ b/kernel/time/tick-broadcast-hrtimer.c @@ -53,7 +53,7 @@ static int bc_set_next(ktime_t expires, struct clock_event_device *bc) * reasons. * * Each caller tries to arm the hrtimer on its own CPU, but if the - * hrtimer callbback function is currently running, then + * hrtimer callback function is currently running, then * hrtimer_start() cannot move it and the timer stays on the CPU on * which it is assigned at the moment. * diff --git a/kernel/time/tick-broadcast.c b/kernel/time/tick-broadcast.c index 5a23829372c7..6ec7855ab88d 100644 --- a/kernel/time/tick-broadcast.c +++ b/kernel/time/tick-broadcast.c @@ -157,7 +157,7 @@ static void tick_device_setup_broadcast_func(struct clock_event_device *dev) } /* - * Check, if the device is disfunctional and a place holder, which + * Check, if the device is dysfunctional and a placeholder, which * needs to be handled by the broadcast device. */ int tick_device_uses_broadcast(struct clock_event_device *dev, int cpu) @@ -391,7 +391,7 @@ void tick_broadcast_control(enum tick_broadcast_mode mode) * - the broadcast device exists * - the broadcast device is not a hrtimer based one * - the broadcast device is in periodic mode to - * avoid a hickup during switch to oneshot mode + * avoid a hiccup during switch to oneshot mode */ if (bc && !(bc->features & CLOCK_EVT_FEAT_HRTIMER) && tick_broadcast_device.mode == TICKDEV_MODE_PERIODIC) diff --git a/kernel/time/tick-oneshot.c b/kernel/time/tick-oneshot.c index f9745d47425a..475ecceda768 100644 --- a/kernel/time/tick-oneshot.c +++ b/kernel/time/tick-oneshot.c @@ -45,7 +45,7 @@ int tick_program_event(ktime_t expires, int force) } /** - * tick_resume_onshot - resume oneshot mode + * tick_resume_oneshot - resume oneshot mode */ void tick_resume_oneshot(void) { diff --git a/kernel/time/tick-sched.c b/kernel/time/tick-sched.c index e10a4af88737..128735e3e77e 100644 --- a/kernel/time/tick-sched.c +++ b/kernel/time/tick-sched.c @@ -751,7 +751,7 @@ static ktime_t tick_nohz_next_event(struct tick_sched *ts, int cpu) * Aside of that check whether the local timer softirq is * pending. If so its a bad idea to call get_next_timer_interrupt() * because there is an already expired timer, so it will request - * immeditate expiry, which rearms the hardware timer with a + * immediate expiry, which rearms the hardware timer with a * minimal delta which brings us back to this place * immediately. Lather, rinse and repeat... */ diff --git a/kernel/time/tick-sched.h b/kernel/time/tick-sched.h index 4fb06527cf64..d952ae393423 100644 --- a/kernel/time/tick-sched.h +++ b/kernel/time/tick-sched.h @@ -29,7 +29,7 @@ enum tick_nohz_mode { * @inidle: Indicator that the CPU is in the tick idle mode * @tick_stopped: Indicator that the idle tick has been stopped * @idle_active: Indicator that the CPU is actively in the tick idle mode; - * it is resetted during irq handling phases. + * it is reset during irq handling phases. * @do_timer_lst: CPU was the last one doing do_timer before going idle * @got_idle_tick: Tick timer function has run with @inidle set * @last_tick: Store the last tick expiry time when the tick diff --git a/kernel/time/time.c b/kernel/time/time.c index 3985b2b32d08..29923b20e0e4 100644 --- a/kernel/time/time.c +++ b/kernel/time/time.c @@ -571,7 +571,7 @@ EXPORT_SYMBOL(__usecs_to_jiffies); /* * The TICK_NSEC - 1 rounds up the value to the next resolution. Note * that a remainder subtract here would not do the right thing as the - * resolution values don't fall on second boundries. I.e. the line: + * resolution values don't fall on second boundaries. I.e. the line: * nsec -= nsec % TICK_NSEC; is NOT a correct resolution rounding. * Note that due to the small error in the multiplier here, this * rounding is incorrect for sufficiently large values of tv_nsec, but diff --git a/kernel/time/timekeeping.c b/kernel/time/timekeeping.c index 6aee5768c86f..77bafd8c8df2 100644 --- a/kernel/time/timekeeping.c +++ b/kernel/time/timekeeping.c @@ -596,14 +596,14 @@ EXPORT_SYMBOL_GPL(ktime_get_real_fast_ns); * careful cache layout of the timekeeper because the sequence count and * struct tk_read_base would then need two cache lines instead of one. * - * Access to the time keeper clock source is disabled accross the innermost + * Access to the time keeper clock source is disabled across the innermost * steps of suspend/resume. The accessors still work, but the timestamps * are frozen until time keeping is resumed which happens very early. * * For regular suspend/resume there is no observable difference vs. sched * clock, but it might affect some of the nasty low level debug printks. * - * OTOH, access to sched clock is not guaranteed accross suspend/resume on + * OTOH, access to sched clock is not guaranteed across suspend/resume on * all systems either so it depends on the hardware in use. * * If that turns out to be a real problem then this could be mitigated by @@ -899,7 +899,7 @@ ktime_t ktime_get_coarse_with_offset(enum tk_offsets offs) EXPORT_SYMBOL_GPL(ktime_get_coarse_with_offset); /** - * ktime_mono_to_any() - convert mononotic time to any other time + * ktime_mono_to_any() - convert monotonic time to any other time * @tmono: time to convert. * @offs: which offset to use */ @@ -1948,7 +1948,7 @@ static __always_inline void timekeeping_apply_adjustment(struct timekeeper *tk, * xtime_nsec_1 = offset + xtime_nsec_2 * Which gives us: * xtime_nsec_2 = xtime_nsec_1 - offset - * Which simplfies to: + * Which simplifies to: * xtime_nsec -= offset */ if ((mult_adj > 0) && (tk->tkr_mono.mult + mult_adj < mult_adj)) { @@ -2336,7 +2336,7 @@ static int timekeeping_validate_timex(const struct __kernel_timex *txc) /* * Validate if a timespec/timeval used to inject a time - * offset is valid. Offsets can be postive or negative, so + * offset is valid. Offsets can be positive or negative, so * we don't check tv_sec. The value of the timeval/timespec * is the sum of its fields,but *NOTE*: * The field tv_usec/tv_nsec must always be non-negative and diff --git a/kernel/time/timer.c b/kernel/time/timer.c index f475f1a027c8..d111adf4a0cb 100644 --- a/kernel/time/timer.c +++ b/kernel/time/timer.c @@ -894,7 +894,7 @@ static inline void forward_timer_base(struct timer_base *base) /* * No need to forward if we are close enough below jiffies. * Also while executing timers, base->clk is 1 offset ahead - * of jiffies to avoid endless requeuing to current jffies. + * of jiffies to avoid endless requeuing to current jiffies. */ if ((long)(jnow - base->clk) < 1) return; @@ -1271,7 +1271,7 @@ static inline void timer_base_unlock_expiry(struct timer_base *base) * The counterpart to del_timer_wait_running(). * * If there is a waiter for base->expiry_lock, then it was waiting for the - * timer callback to finish. Drop expiry_lock and reaquire it. That allows + * timer callback to finish. Drop expiry_lock and reacquire it. That allows * the waiter to acquire the lock and make progress. */ static void timer_sync_wait_running(struct timer_base *base) diff --git a/kernel/time/vsyscall.c b/kernel/time/vsyscall.c index 88e6b8ed6ca5..f0d5062d9cbc 100644 --- a/kernel/time/vsyscall.c +++ b/kernel/time/vsyscall.c @@ -108,7 +108,7 @@ void update_vsyscall(struct timekeeper *tk) /* * If the current clocksource is not VDSO capable, then spare the - * update of the high reolution parts. + * update of the high resolution parts. */ if (clock_mode != VDSO_CLOCKMODE_NONE) update_vdso_data(vdata, tk); diff --git a/tools/testing/selftests/timers/clocksource-switch.c b/tools/testing/selftests/timers/clocksource-switch.c index bfc974b4572d..ef8eb3604595 100644 --- a/tools/testing/selftests/timers/clocksource-switch.c +++ b/tools/testing/selftests/timers/clocksource-switch.c @@ -3,7 +3,7 @@ * (C) Copyright IBM 2012 * Licensed under the GPLv2 * - * NOTE: This is a meta-test which quickly changes the clocksourc and + * NOTE: This is a meta-test which quickly changes the clocksource and * then uses other tests to detect problems. Thus this test requires * that the inconsistency-check and nanosleep tests be present in the * same directory it is run from. @@ -134,7 +134,7 @@ int main(int argv, char **argc) return -1; } - /* Check everything is sane before we start switching asyncrhonously */ + /* Check everything is sane before we start switching asynchronously */ for (i = 0; i < count; i++) { printf("Validating clocksource %s\n", clocksource_list[i]); if (change_clocksource(clocksource_list[i])) { diff --git a/tools/testing/selftests/timers/leap-a-day.c b/tools/testing/selftests/timers/leap-a-day.c index 19e46ed5dfb5..23eb398c8140 100644 --- a/tools/testing/selftests/timers/leap-a-day.c +++ b/tools/testing/selftests/timers/leap-a-day.c @@ -5,7 +5,7 @@ * Licensed under the GPLv2 * * This test signals the kernel to insert a leap second - * every day at midnight GMT. This allows for stessing the + * every day at midnight GMT. This allows for stressing the * kernel's leap-second behavior, as well as how well applications * handle the leap-second discontinuity. * diff --git a/tools/testing/selftests/timers/leapcrash.c b/tools/testing/selftests/timers/leapcrash.c index dc80728ed191..f70802c5dd0d 100644 --- a/tools/testing/selftests/timers/leapcrash.c +++ b/tools/testing/selftests/timers/leapcrash.c @@ -4,10 +4,10 @@ * (C) Copyright 2013, 2015 Linaro Limited * Licensed under the GPL * - * This test demonstrates leapsecond deadlock that is possibe + * This test demonstrates leapsecond deadlock that is possible * on kernels from 2.6.26 to 3.3. * - * WARNING: THIS WILL LIKELY HARDHANG SYSTEMS AND MAY LOSE DATA + * WARNING: THIS WILL LIKELY HARD HANG SYSTEMS AND MAY LOSE DATA * RUN AT YOUR OWN RISK! * To build: * $ gcc leapcrash.c -o leapcrash -lrt diff --git a/tools/testing/selftests/timers/threadtest.c b/tools/testing/selftests/timers/threadtest.c index cf3e48919874..80aed4bf06fb 100644 --- a/tools/testing/selftests/timers/threadtest.c +++ b/tools/testing/selftests/timers/threadtest.c @@ -76,7 +76,7 @@ void checklist(struct timespec *list, int size) /* The shared thread shares a global list * that each thread fills while holding the lock. - * This stresses clock syncronization across cpus. + * This stresses clock synchronization across cpus. */ void *shared_thread(void *arg) { -- cgit v1.2.3