* The QEMU clock as a clocksource primitive.
*/
-static cycle_t
+static u64
qemu_cs_read(struct clocksource *cs)
{
return qemu_get_vmtime();
* use this method when WTINT is in use.
*/
-static cycle_t read_rpcc(struct clocksource *cs)
+static u64 read_rpcc(struct clocksource *cs)
{
return rpcc();
}
/*
* clocksource
*/
-static cycle_t read_cycles(struct clocksource *cs)
+static u64 read_cycles(struct clocksource *cs)
{
struct timer_s *t = &timers[TID_CLOCKSOURCE];
return ret;
}
-cycle_t ep93xx_clocksource_read(struct clocksource *c)
+u64 ep93xx_clocksource_read(struct clocksource *c)
{
u64 ret;
ret = readl(EP93XX_TIMER4_VALUE_LOW);
ret |= ((u64) (readl(EP93XX_TIMER4_VALUE_HIGH) & 0xff) << 32);
- return (cycle_t) ret;
+ return (u64) ret;
}
static int ep93xx_clkevt_set_next_event(unsigned long next,
#include "common.h"
-static cycle_t cksrc_dc21285_read(struct clocksource *cs)
+static u64 cksrc_dc21285_read(struct clocksource *cs)
{
return cs->mask - *CSR_TIMER2_VALUE;
}
* clocksource
*/
-static cycle_t ixp4xx_clocksource_read(struct clocksource *c)
+static u64 ixp4xx_clocksource_read(struct clocksource *c)
{
return *IXP4XX_OSTS;
}
.set_state_oneshot = timer_set_shutdown,
};
-static cycle_t clksrc_read(struct clocksource *cs)
+static u64 clksrc_read(struct clocksource *cs)
{
return timer_read();
}
/*
* clocksource
*/
-static cycle_t clocksource_read_cycles(struct clocksource *cs)
+static u64 clocksource_read_cycles(struct clocksource *cs)
{
- return (cycle_t)__omap_dm_timer_read_counter(&clksrc,
+ return (u64)__omap_dm_timer_read_counter(&clksrc,
OMAP_TIMER_NONPOSTED);
}
/*
* IOP clocksource (free-running timer 1).
*/
-static cycle_t notrace iop_clocksource_read(struct clocksource *unused)
+static u64 notrace iop_clocksource_read(struct clocksource *unused)
{
return 0xffffffffu - read_tcr1();
}
static bool disable_cpu_idle_poll;
-static cycle_t read_cycle_count(struct clocksource *cs)
+static u64 read_cycle_count(struct clocksource *cs)
{
- return (cycle_t)sysreg_read(COUNT);
+ return (u64)sysreg_read(COUNT);
}
/*
#if defined(CONFIG_CYCLES_CLOCKSOURCE)
-static notrace cycle_t bfin_read_cycles(struct clocksource *cs)
+static notrace u64 bfin_read_cycles(struct clocksource *cs)
{
#ifdef CONFIG_CPU_FREQ
return __bfin_cycles_off + (get_cycles() << __bfin_cycles_mod);
enable_gptimers(TIMER0bit);
}
-static cycle_t bfin_read_gptimer0(struct clocksource *cs)
+static u64 bfin_read_gptimer0(struct clocksource *cs)
{
return bfin_read_TIMER0_COUNTER();
}
static u32 sched_clock_multiplier;
#define SCHED_CLOCK_SHIFT 16
-static cycle_t tsc_read(struct clocksource *cs)
+static u64 tsc_read(struct clocksource *cs)
{
return get_cycles();
}
/* Look for "TCX0" for related constants. */
static __iomem struct adsp_hw_timer_struct *rtos_timer;
-static cycle_t timer_get_cycles(struct clocksource *cs)
+static u64 timer_get_cycles(struct clocksource *cs)
{
- return (cycle_t) __vmgettime();
+ return (u64) __vmgettime();
}
static struct clocksource hexagon_clocksource = {
static void __iomem *cyclone_mc;
-static cycle_t read_cyclone(struct clocksource *cs)
+static u64 read_cyclone(struct clocksource *cs)
{
- return (cycle_t)readq((void __iomem *)cyclone_mc);
+ return (u64)readq((void __iomem *)cyclone_mc);
}
static struct clocksource clocksource_cyclone = {
seqcount_t seq;
struct timespec wall_time;
struct timespec monotonic_time;
- cycle_t clk_mask;
+ u64 clk_mask;
u32 clk_mult;
u32 clk_shift;
void *clk_fsys_mmio;
- cycle_t clk_cycle_last;
+ u64 clk_cycle_last;
} ____cacheline_aligned;
struct itc_jitter_data_t {
int itc_jitter;
- cycle_t itc_lastcycle;
+ u64 itc_lastcycle;
} ____cacheline_aligned;
#include "fsyscall_gtod_data.h"
-static cycle_t itc_get_cycles(struct clocksource *cs);
+static u64 itc_get_cycles(struct clocksource *cs);
struct fsyscall_gtod_data_t fsyscall_gtod_data;
}
}
-static cycle_t itc_get_cycles(struct clocksource *cs)
+static u64 itc_get_cycles(struct clocksource *cs)
{
unsigned long lcycle, now, ret;
}
void update_vsyscall_old(struct timespec *wall, struct timespec *wtm,
- struct clocksource *c, u32 mult, cycle_t cycle_last)
+ struct clocksource *c, u32 mult, u64 cycle_last)
{
write_seqcount_begin(&fsyscall_gtod_data.seq);
extern unsigned long sn_rtc_cycles_per_second;
-static cycle_t read_sn2(struct clocksource *cs)
+static u64 read_sn2(struct clocksource *cs)
{
- return (cycle_t)readq(RTC_COUNTER_ADDR);
+ return (u64)readq(RTC_COUNTER_ADDR);
}
static struct clocksource clocksource_sn2 = {
/***************************************************************************/
-static cycle_t m68328_read_clk(struct clocksource *cs)
+static u64 m68328_read_clk(struct clocksource *cs)
{
unsigned long flags;
u32 cycles;
#define DMA_DTMR_CLK_DIV_16 (2 << 1)
#define DMA_DTMR_ENABLE (1 << 0)
-static cycle_t cf_dt_get_cycles(struct clocksource *cs)
+static u64 cf_dt_get_cycles(struct clocksource *cs)
{
return __raw_readl(DTCN0);
}
/***************************************************************************/
-static cycle_t pit_read_clk(struct clocksource *cs)
+static u64 pit_read_clk(struct clocksource *cs)
{
unsigned long flags;
u32 cycles;
.handler = mcfslt_tick,
};
-static cycle_t mcfslt_read_clk(struct clocksource *cs)
+static u64 mcfslt_read_clk(struct clocksource *cs)
{
unsigned long flags;
u32 cycles, scnt;
/***************************************************************************/
-static cycle_t mcftmr_read_clk(struct clocksource *cs)
+static u64 mcftmr_read_clk(struct clocksource *cs)
{
unsigned long flags;
u32 cycles;
return read_fn(timer_baseaddr + TCR1);
}
-static cycle_t xilinx_read(struct clocksource *cs)
+static u64 xilinx_read(struct clocksource *cs)
{
/* reading actual value of timer 1 */
- return (cycle_t)xilinx_clock_read();
+ return (u64)xilinx_clock_read();
}
static struct timecounter xilinx_tc = {
.cc = NULL,
};
-static cycle_t xilinx_cc_read(const struct cyclecounter *cc)
+static u64 xilinx_cc_read(const struct cyclecounter *cc)
{
return xilinx_read(NULL);
}
/* 32kHz clock enabled and detected */
#define CNTR_OK (SYS_CNTRL_E0 | SYS_CNTRL_32S)
-static cycle_t au1x_counter1_read(struct clocksource *cs)
+static u64 au1x_counter1_read(struct clocksource *cs)
{
return alchemy_rdsys(AU1000_SYS_RTCREAD);
}
local_irq_restore(flags);
}
-static cycle_t octeon_cvmcount_read(struct clocksource *cs)
+static u64 octeon_cvmcount_read(struct clocksource *cs)
{
return read_c0_cvmcount();
}
static uint16_t jz4740_jiffies_per_tick;
-static cycle_t jz4740_clocksource_read(struct clocksource *cs)
+static u64 jz4740_clocksource_read(struct clocksource *cs)
{
return jz4740_timer_get_count(TIMER_CLOCKSOURCE);
}
struct txx9_tmr_reg __iomem *tmrptr;
};
-static cycle_t txx9_cs_read(struct clocksource *cs)
+static u64 txx9_cs_read(struct clocksource *cs)
{
struct txx9_clocksource *txx9_cs =
container_of(cs, struct txx9_clocksource, cs);
#include <asm/sibyte/sb1250.h>
-static cycle_t bcm1480_hpt_read(struct clocksource *cs)
+static u64 bcm1480_hpt_read(struct clocksource *cs)
{
- return (cycle_t) __raw_readq(IOADDR(A_SCD_ZBBUS_CYCLE_COUNT));
+ return (u64) __raw_readq(IOADDR(A_SCD_ZBBUS_CYCLE_COUNT));
}
struct clocksource bcm1480_clocksource = {
#include <asm/dec/ioasic.h>
#include <asm/dec/ioasic_addrs.h>
-static cycle_t dec_ioasic_hpt_read(struct clocksource *cs)
+static u64 dec_ioasic_hpt_read(struct clocksource *cs)
{
return ioasic_read(IO_REG_FCTR);
}
#include <asm/time.h>
-static cycle_t c0_hpt_read(struct clocksource *cs)
+static u64 c0_hpt_read(struct clocksource *cs)
{
return read_c0_count();
}
* The HPT is free running from SB1250_HPT_VALUE down to 0 then starts over
* again.
*/
-static inline cycle_t sb1250_hpt_get_cycles(void)
+static inline u64 sb1250_hpt_get_cycles(void)
{
unsigned int count;
void __iomem *addr;
return SB1250_HPT_VALUE - count;
}
-static cycle_t sb1250_hpt_read(struct clocksource *cs)
+static u64 sb1250_hpt_read(struct clocksource *cs)
{
return sb1250_hpt_get_cycles();
}
ls1x_pwmtimer_restart();
}
-static cycle_t ls1x_clocksource_read(struct clocksource *cs)
+static u64 ls1x_clocksource_read(struct clocksource *cs)
{
unsigned long flags;
int count;
raw_spin_unlock_irqrestore(&ls1x_timer_lock, flags);
- return (cycle_t) (jifs * ls1x_jiffies_per_tick) + count;
+ return (u64) (jifs * ls1x_jiffies_per_tick) + count;
}
static struct clocksource ls1x_clocksource = {
* to just read by itself. So use jiffies to emulate a free
* running counter:
*/
-static cycle_t mfgpt_read(struct clocksource *cs)
+static u64 mfgpt_read(struct clocksource *cs)
{
unsigned long flags;
int count;
raw_spin_unlock_irqrestore(&mfgpt_lock, flags);
- return (cycle_t) (jifs * COMPARE) + count;
+ return (u64) (jifs * COMPARE) + count;
}
static struct clocksource clocksource_mfgpt = {
pr_info("hpet clock event device register\n");
}
-static cycle_t hpet_read_counter(struct clocksource *cs)
+static u64 hpet_read_counter(struct clocksource *cs)
{
- return (cycle_t)hpet_read(HPET_COUNTER);
+ return (u64)hpet_read(HPET_COUNTER);
}
static void hpet_suspend(struct clocksource *cs)
unsigned int count, start;
unsigned char secs1, secs2, ctrl;
int secs;
- cycle_t giccount = 0, gicstart = 0;
+ u64 giccount = 0, gicstart = 0;
#if defined(CONFIG_KVM_GUEST) && CONFIG_KVM_GUEST_TIMER_FREQ
mips_hpt_frequency = CONFIG_KVM_GUEST_TIMER_FREQ * 1000000;
return IRQ_TIMER;
}
-static cycle_t nlm_get_pic_timer(struct clocksource *cs)
+static u64 nlm_get_pic_timer(struct clocksource *cs)
{
uint64_t picbase = nlm_get_node(0)->picbase;
return ~nlm_pic_read_timer(picbase, PIC_CLOCK_TIMER);
}
-static cycle_t nlm_get_pic_timer32(struct clocksource *cs)
+static u64 nlm_get_pic_timer32(struct clocksource *cs)
{
uint64_t picbase = nlm_get_node(0)->picbase;
setup_irq(irq, &hub_rt_irqaction);
}
-static cycle_t hub_rt_read(struct clocksource *cs)
+static u64 hub_rt_read(struct clocksource *cs)
{
return REMOTE_HUB_L(cputonasid(0), PI_RT_COUNT);
}
#include <asm/timex.h>
#include "internal.h"
-static cycle_t mn10300_read(struct clocksource *cs)
+static u64 mn10300_read(struct clocksource *cs)
{
return read_timestamp_counter();
}
return count;
}
-static cycle_t nios2_timer_read(struct clocksource *cs)
+static u64 nios2_timer_read(struct clocksource *cs)
{
struct nios2_clocksource *nios2_cs = to_nios2_clksource(cs);
unsigned long flags;
* is 32 bits wide and runs at the CPU clock frequency.
*/
-static cycle_t openrisc_timer_read(struct clocksource *cs)
+static u64 openrisc_timer_read(struct clocksource *cs)
{
- return (cycle_t) mfspr(SPR_TTCR);
+ return (u64) mfspr(SPR_TTCR);
}
static struct clocksource openrisc_timer = {
/* clock source code */
-static cycle_t notrace read_cr16(struct clocksource *cs)
+static u64 notrace read_cr16(struct clocksource *cs)
{
return get_cycles();
}
#include <linux/clockchips.h>
#include <linux/timekeeper_internal.h>
-static cycle_t rtc_read(struct clocksource *);
+static u64 rtc_read(struct clocksource *);
static struct clocksource clocksource_rtc = {
.name = "rtc",
.rating = 400,
.read = rtc_read,
};
-static cycle_t timebase_read(struct clocksource *);
+static u64 timebase_read(struct clocksource *);
static struct clocksource clocksource_timebase = {
.name = "timebase",
.rating = 400,
}
/* clocksource code */
-static cycle_t rtc_read(struct clocksource *cs)
+static u64 rtc_read(struct clocksource *cs)
{
- return (cycle_t)get_rtc();
+ return (u64)get_rtc();
}
-static cycle_t timebase_read(struct clocksource *cs)
+static u64 timebase_read(struct clocksource *cs)
{
- return (cycle_t)get_tb();
+ return (u64)get_tb();
}
void update_vsyscall_old(struct timespec *wall_time, struct timespec *wtm,
- struct clocksource *clock, u32 mult, cycle_t cycle_last)
+ struct clocksource *clock, u32 mult, u64 cycle_last)
{
u64 new_tb_to_xs, new_stamp_xsec;
u32 frac_sec;
}
dec_nsec = (vcpu->arch.dec_expires - now) * NSEC_PER_SEC
/ tb_ticks_per_sec;
- hrtimer_start(&vcpu->arch.dec_timer, ktime_set(0, dec_nsec),
- HRTIMER_MODE_REL);
+ hrtimer_start(&vcpu->arch.dec_timer, dec_nsec, HRTIMER_MODE_REL);
vcpu->arch.timer_running = 1;
}
smp_wmb(); /* insure spu event buffer updates are written */
/* don't want events intermingled... */
- kt = ktime_set(0, profiling_interval);
+ kt = profiling_interval;
if (!spu_prof_running)
goto stop;
hrtimer_forward(timer, timer->base->get_time(), kt);
ktime_t kt;
pr_debug("timer resolution: %lu\n", TICK_NSEC);
- kt = ktime_set(0, profiling_interval);
+ kt = profiling_interval;
hrtimer_init(&timer, CLOCK_MONOTONIC, HRTIMER_MODE_REL);
hrtimer_set_expires(&timer, kt);
timer.function = profile_spus;
tod_to_timeval(clock - TOD_UNIX_EPOCH, ts);
}
-static cycle_t read_tod_clock(struct clocksource *cs)
+static u64 read_tod_clock(struct clocksource *cs)
{
unsigned long long now, adj;
return 0;
__set_cpu_idle(vcpu);
- hrtimer_start(&vcpu->arch.ckc_timer, ktime_set (0, sltime) , HRTIMER_MODE_REL);
+ hrtimer_start(&vcpu->arch.ckc_timer, sltime, HRTIMER_MODE_REL);
VCPU_EVENT(vcpu, 4, "enabled wait: %llu ns", sltime);
no_timer:
srcu_read_unlock(&vcpu->kvm->srcu, vcpu->srcu_idx);
return offset;
}
-static cycle_t timer_cs_read(struct clocksource *cs)
+static u64 timer_cs_read(struct clocksource *cs)
{
unsigned int seq, offset;
u64 cycles;
}
EXPORT_SYMBOL(udelay);
-static cycle_t clocksource_tick_read(struct clocksource *cs)
+static u64 clocksource_tick_read(struct clocksource *cs)
{
return tick_ops->get_tick();
}
return IRQ_HANDLED;
}
-static cycle_t timer_read(struct clocksource *cs)
+static u64 timer_read(struct clocksource *cs)
{
return os_nsecs() / TIMER_MULTIPLIER;
}
.set_state_oneshot = puv3_osmr0_shutdown,
};
-static cycle_t puv3_read_oscr(struct clocksource *cs)
+static u64 puv3_read_oscr(struct clocksource *cs)
{
return readl(OST_OSCR);
}
return (const struct pvclock_vsyscall_time_info *)&pvclock_page;
}
-static notrace cycle_t vread_pvclock(int *mode)
+static notrace u64 vread_pvclock(int *mode)
{
const struct pvclock_vcpu_time_info *pvti = &get_pvti0()->pvti;
- cycle_t ret;
+ u64 ret;
u64 last;
u32 version;
}
#endif
-notrace static cycle_t vread_tsc(void)
+notrace static u64 vread_tsc(void)
{
- cycle_t ret = (cycle_t)rdtsc_ordered();
+ u64 ret = (u64)rdtsc_ordered();
u64 last = gtod->cycle_last;
if (likely(ret >= last))
spinlock_t pvclock_gtod_sync_lock;
bool use_master_clock;
u64 master_kernel_ns;
- cycle_t master_cycle_now;
+ u64 master_cycle_now;
struct delayed_work kvmclock_update_work;
struct delayed_work kvmclock_sync_work;
#endif
/* some helper functions for xen and kvm pv clock sources */
-cycle_t pvclock_clocksource_read(struct pvclock_vcpu_time_info *src);
+u64 pvclock_clocksource_read(struct pvclock_vcpu_time_info *src);
u8 pvclock_read_flags(struct pvclock_vcpu_time_info *src);
void pvclock_set_flags(u8 flags);
unsigned long pvclock_tsc_khz(struct pvclock_vcpu_time_info *src);
}
static __always_inline
-cycle_t __pvclock_read_cycles(const struct pvclock_vcpu_time_info *src,
- u64 tsc)
+u64 __pvclock_read_cycles(const struct pvclock_vcpu_time_info *src, u64 tsc)
{
u64 delta = tsc - src->tsc_timestamp;
- cycle_t offset = pvclock_scale_delta(delta, src->tsc_to_system_mul,
+ u64 offset = pvclock_scale_delta(delta, src->tsc_to_system_mul,
src->tsc_shift);
return src->system_time + offset;
}
return rdtsc();
}
-extern struct system_counterval_t convert_art_to_tsc(cycle_t art);
+extern struct system_counterval_t convert_art_to_tsc(u64 art);
extern void tsc_init(void);
extern void mark_tsc_unstable(char *reason);
unsigned seq;
int vclock_mode;
- cycle_t cycle_last;
- cycle_t mask;
+ u64 cycle_last;
+ u64 mask;
u32 mult;
u32 shift;
static int apbt_clocksource_register(void)
{
u64 start, now;
- cycle_t t1;
+ u64 t1;
/* Start the counter, use timer 2 as source, timer 0/1 for event */
dw_apb_clocksource_start(clocksource_apbt);
{
int i, scale;
u64 old, new;
- cycle_t t1, t2;
+ u64 t1, t2;
unsigned long khz = 0;
u32 loop, shift;
return 0;
}
-static cycle_t read_hv_clock(struct clocksource *arg)
+static u64 read_hv_clock(struct clocksource *arg)
{
- cycle_t current_tick;
+ u64 current_tick;
/*
* Read the partition counter to get the current tick count. This count
* is set to 0 when the partition is created and is incremented in
{ .lock = __ARCH_SPIN_LOCK_UNLOCKED, },
};
-static cycle_t read_hpet(struct clocksource *cs)
+static u64 read_hpet(struct clocksource *cs)
{
unsigned long flags;
union hpet_lock old, new;
* Read HPET directly if in NMI.
*/
if (in_nmi())
- return (cycle_t)hpet_readl(HPET_COUNTER);
+ return (u64)hpet_readl(HPET_COUNTER);
/*
* Read the current state of the lock and HPET value atomically.
WRITE_ONCE(hpet.value, new.value);
arch_spin_unlock(&hpet.lock);
local_irq_restore(flags);
- return (cycle_t)new.value;
+ return (u64)new.value;
}
local_irq_restore(flags);
new.lockval = READ_ONCE(hpet.lockval);
} while ((new.value == old.value) && arch_spin_is_locked(&new.lock));
- return (cycle_t)new.value;
+ return (u64)new.value;
}
#else
/*
* For UP or 32-bit.
*/
-static cycle_t read_hpet(struct clocksource *cs)
+static u64 read_hpet(struct clocksource *cs)
{
- return (cycle_t)hpet_readl(HPET_COUNTER);
+ return (u64)hpet_readl(HPET_COUNTER);
}
#endif
static int hpet_clocksource_register(void)
{
u64 start, now;
- cycle_t t1;
+ u64 t1;
/* Start the counter */
hpet_restart_counter();
static int kvmclock __ro_after_init = 1;
static int msr_kvm_system_time = MSR_KVM_SYSTEM_TIME;
static int msr_kvm_wall_clock = MSR_KVM_WALL_CLOCK;
-static cycle_t kvm_sched_clock_offset;
+static u64 kvm_sched_clock_offset;
static int parse_no_kvmclock(char *arg)
{
return -1;
}
-static cycle_t kvm_clock_read(void)
+static u64 kvm_clock_read(void)
{
struct pvclock_vcpu_time_info *src;
- cycle_t ret;
+ u64 ret;
int cpu;
preempt_disable_notrace();
return ret;
}
-static cycle_t kvm_clock_get_cycles(struct clocksource *cs)
+static u64 kvm_clock_get_cycles(struct clocksource *cs)
{
return kvm_clock_read();
}
-static cycle_t kvm_sched_clock_read(void)
+static u64 kvm_sched_clock_read(void)
{
return kvm_clock_read() - kvm_sched_clock_offset;
}
return flags & valid_flags;
}
-cycle_t pvclock_clocksource_read(struct pvclock_vcpu_time_info *src)
+u64 pvclock_clocksource_read(struct pvclock_vcpu_time_info *src)
{
unsigned version;
- cycle_t ret;
+ u64 ret;
u64 last;
u8 flags;
* checking the result of read_tsc() - cycle_last for being negative.
* That works because CLOCKSOURCE_MASK(64) does not mask out any bit.
*/
-static cycle_t read_tsc(struct clocksource *cs)
+static u64 read_tsc(struct clocksource *cs)
{
- return (cycle_t)rdtsc_ordered();
+ return (u64)rdtsc_ordered();
}
/*
/*
* Convert ART to TSC given numerator/denominator found in detect_art()
*/
-struct system_counterval_t convert_art_to_tsc(cycle_t art)
+struct system_counterval_t convert_art_to_tsc(u64 art)
{
u64 tmp, res, rem;
now = ktime_get();
remaining = ktime_sub(apic->lapic_timer.target_expiration, now);
if (ktime_to_ns(remaining) < 0)
- remaining = ktime_set(0, 0);
+ remaining = 0;
ns = mod_64(ktime_to_ns(remaining), apic->lapic_timer.period);
tmcct = div64_u64(ns,
apic->lapic_timer.tscdeadline = 0;
if (apic_lvtt_oneshot(apic)) {
apic->lapic_timer.tscdeadline = 0;
- apic->lapic_timer.target_expiration = ktime_set(0, 0);
+ apic->lapic_timer.target_expiration = 0;
}
atomic_set(&apic->lapic_timer.pending, 0);
}
struct { /* extract of a clocksource struct */
int vclock_mode;
- cycle_t cycle_last;
- cycle_t mask;
+ u64 cycle_last;
+ u64 mask;
u32 mult;
u32 shift;
} clock;
#ifdef CONFIG_X86_64
-static cycle_t read_tsc(void)
+static u64 read_tsc(void)
{
- cycle_t ret = (cycle_t)rdtsc_ordered();
+ u64 ret = (u64)rdtsc_ordered();
u64 last = pvclock_gtod_data.clock.cycle_last;
if (likely(ret >= last))
return last;
}
-static inline u64 vgettsc(cycle_t *cycle_now)
+static inline u64 vgettsc(u64 *cycle_now)
{
long v;
struct pvclock_gtod_data *gtod = &pvclock_gtod_data;
return v * gtod->clock.mult;
}
-static int do_monotonic_boot(s64 *t, cycle_t *cycle_now)
+static int do_monotonic_boot(s64 *t, u64 *cycle_now)
{
struct pvclock_gtod_data *gtod = &pvclock_gtod_data;
unsigned long seq;
}
/* returns true if host is using tsc clocksource */
-static bool kvm_get_time_and_clockread(s64 *kernel_ns, cycle_t *cycle_now)
+static bool kvm_get_time_and_clockread(s64 *kernel_ns, u64 *cycle_now)
{
/* checked again under seqlock below */
if (pvclock_gtod_data.clock.vclock_mode != VCLOCK_TSC)
* If we can't use the TSC, the kernel falls back to our lower-priority
* "lguest_clock", where we read the time value given to us by the Host.
*/
-static cycle_t lguest_clock_read(struct clocksource *cs)
+static u64 lguest_clock_read(struct clocksource *cs)
{
unsigned long sec, nsec;
#define RTC_NAME "sgi_rtc"
-static cycle_t uv_read_rtc(struct clocksource *cs);
+static u64 uv_read_rtc(struct clocksource *cs);
static int uv_rtc_next_event(unsigned long, struct clock_event_device *);
static int uv_rtc_shutdown(struct clock_event_device *evt);
.name = RTC_NAME,
.rating = 299,
.read = uv_read_rtc,
- .mask = (cycle_t)UVH_RTC_REAL_TIME_CLOCK_MASK,
+ .mask = (u64)UVH_RTC_REAL_TIME_CLOCK_MASK,
.flags = CLOCK_SOURCE_IS_CONTINUOUS,
};
* cachelines of it's own page. This allows faster simultaneous reads
* from a given socket.
*/
-static cycle_t uv_read_rtc(struct clocksource *cs)
+static u64 uv_read_rtc(struct clocksource *cs)
{
unsigned long offset;
else
offset = (uv_blade_processor_id() * L1_CACHE_BYTES) % PAGE_SIZE;
- return (cycle_t)uv_read_local_mmr(UVH_RTC | offset);
+ return (u64)uv_read_local_mmr(UVH_RTC | offset);
}
/*
return pvclock_tsc_khz(info);
}
-cycle_t xen_clocksource_read(void)
+u64 xen_clocksource_read(void)
{
struct pvclock_vcpu_time_info *src;
- cycle_t ret;
+ u64 ret;
preempt_disable_notrace();
src = &__this_cpu_read(xen_vcpu)->time;
return ret;
}
-static cycle_t xen_clocksource_get_cycles(struct clocksource *cs)
+static u64 xen_clocksource_get_cycles(struct clocksource *cs)
{
return xen_clocksource_read();
}
void xen_setup_timer(int cpu);
void xen_setup_runstate_info(int cpu);
void xen_teardown_timer(int cpu);
-cycle_t xen_clocksource_read(void);
+u64 xen_clocksource_read(void);
void xen_setup_cpu_clockevents(void);
void __init xen_init_time_ops(void);
void __init xen_hvm_init_time_ops(void);
unsigned long ccount_freq; /* ccount Hz */
EXPORT_SYMBOL(ccount_freq);
-static cycle_t ccount_read(struct clocksource *cs)
+static u64 ccount_read(struct clocksource *cs)
{
- return (cycle_t)get_ccount();
+ return (u64)get_ccount();
}
static u64 notrace ccount_sched_clock_read(void)
* This will be replaced with the stats tracking code, using
* 'avg_completion_time / 2' as the pre-sleep target.
*/
- kt = ktime_set(0, nsecs);
+ kt = nsecs;
mode = HRTIMER_MODE_REL;
hrtimer_init_on_stack(&hs.timer, CLOCK_MONOTONIC, mode);
static ktime_t initcall_debug_start(struct device *dev)
{
- ktime_t calltime = ktime_set(0, 0);
+ ktime_t calltime = 0;
if (pm_print_times_enabled) {
pr_info("calling %s+ @ %i, parent: %s\n",
active_time = ktime_sub(now, ws->last_time);
total_time = ktime_add(total_time, active_time);
- if (active_time.tv64 > max_time.tv64)
+ if (active_time > max_time)
max_time = active_time;
if (ws->autosleep_enabled)
prevent_sleep_time = ktime_add(prevent_sleep_time,
ktime_sub(now, ws->start_prevent_time));
} else {
- active_time = ktime_set(0, 0);
+ active_time = 0;
}
seq_printf(m, "%-12s\t%lu\t\t%lu\t\t%lu\t\t%lu\t\t%lld\t\t%lld\t\t%lld\t\t%lld\t\t%lld\n",
static void null_cmd_end_timer(struct nullb_cmd *cmd)
{
- ktime_t kt = ktime_set(0, completion_nsec);
+ ktime_t kt = completion_nsec;
hrtimer_start(&cmd->timer, kt, HRTIMER_MODE_REL);
}
#ifdef CONFIG_IA64
static void __iomem *hpet_mctr;
-static cycle_t read_hpet(struct clocksource *cs)
+static u64 read_hpet(struct clocksource *cs)
{
- return (cycle_t)read_counter((void __iomem *)hpet_mctr);
+ return (u64)read_counter((void __iomem *)hpet_mctr);
}
static struct clocksource clocksource_hpet = {
return v2;
}
-static cycle_t acpi_pm_read(struct clocksource *cs)
+static u64 acpi_pm_read(struct clocksource *cs)
{
- return (cycle_t)read_pmtmr();
+ return (u64)read_pmtmr();
}
static struct clocksource clocksource_acpi_pm = {
.name = "acpi_pm",
.rating = 200,
.read = acpi_pm_read,
- .mask = (cycle_t)ACPI_PM_MASK,
+ .mask = (u64)ACPI_PM_MASK,
.flags = CLOCK_SOURCE_IS_CONTINUOUS,
};
}
__setup("acpi_pm_good", acpi_pm_good_setup);
-static cycle_t acpi_pm_read_slow(struct clocksource *cs)
+static u64 acpi_pm_read_slow(struct clocksource *cs)
{
- return (cycle_t)acpi_pm_read_verified();
+ return (u64)acpi_pm_read_verified();
}
static inline void acpi_pm_need_workaround(void)
*/
static int verify_pmtmr_rate(void)
{
- cycle_t value1, value2;
+ u64 value1, value2;
unsigned long count, delta;
mach_prepare_counter();
static int __init init_acpi_pm_clocksource(void)
{
- cycle_t value1, value2;
+ u64 value1, value2;
unsigned int i, j = 0;
if (!pmtmr_ioport)
#ifdef CONFIG_ARC_TIMERS_64BIT
-static cycle_t arc_read_gfrc(struct clocksource *cs)
+static u64 arc_read_gfrc(struct clocksource *cs)
{
unsigned long flags;
u32 l, h;
local_irq_restore(flags);
- return (((cycle_t)h) << 32) | l;
+ return (((u64)h) << 32) | l;
}
static struct clocksource arc_counter_gfrc = {
#define AUX_RTC_LOW 0x104
#define AUX_RTC_HIGH 0x105
-static cycle_t arc_read_rtc(struct clocksource *cs)
+static u64 arc_read_rtc(struct clocksource *cs)
{
unsigned long status;
u32 l, h;
status = read_aux_reg(AUX_RTC_CTRL);
} while (!(status & _BITUL(31)));
- return (((cycle_t)h) << 32) | l;
+ return (((u64)h) << 32) | l;
}
static struct clocksource arc_counter_rtc = {
* 32bit TIMER1 to keep counting monotonically and wraparound
*/
-static cycle_t arc_read_timer1(struct clocksource *cs)
+static u64 arc_read_timer1(struct clocksource *cs)
{
- return (cycle_t) read_aux_reg(ARC_REG_TIMER1_CNT);
+ return (u64) read_aux_reg(ARC_REG_TIMER1_CNT);
}
static struct clocksource arc_counter_timer1 = {
*/
u64 (*arch_timer_read_counter)(void) = arch_counter_get_cntvct;
-static cycle_t arch_counter_read(struct clocksource *cs)
+static u64 arch_counter_read(struct clocksource *cs)
{
return arch_timer_read_counter();
}
-static cycle_t arch_counter_read_cc(const struct cyclecounter *cc)
+static u64 arch_counter_read_cc(const struct cyclecounter *cc)
{
return arch_timer_read_counter();
}
return 0;
}
-static cycle_t gt_clocksource_read(struct clocksource *cs)
+static u64 gt_clocksource_read(struct clocksource *cs)
{
return gt_counter_read();
}
*
* returns: Current timer counter register value
**/
-static cycle_t __ttc_clocksource_read(struct clocksource *cs)
+static u64 __ttc_clocksource_read(struct clocksource *cs)
{
struct ttc_timer *timer = &to_ttc_timer_clksrc(cs)->ttc;
- return (cycle_t)readl_relaxed(timer->base_addr +
+ return (u64)readl_relaxed(timer->base_addr +
TTC_COUNT_VAL_OFFSET);
}
static void __iomem *clksrc_dbx500_timer_base;
-static cycle_t notrace clksrc_dbx500_prcmu_read(struct clocksource *cs)
+static u64 notrace clksrc_dbx500_prcmu_read(struct clocksource *cs)
{
void __iomem *base = clksrc_dbx500_timer_base;
u32 count, count2;
dw_apb_clocksource_read(dw_cs);
}
-static cycle_t __apbt_read_clocksource(struct clocksource *cs)
+static u64 __apbt_read_clocksource(struct clocksource *cs)
{
u32 current_count;
struct dw_apb_clocksource *dw_cs =
current_count = apbt_readl_relaxed(&dw_cs->timer,
APBTMR_N_CURRENT_VALUE);
- return (cycle_t)~current_count;
+ return (u64)~current_count;
}
static void apbt_restart_clocksource(struct clocksource *cs)
*
* @dw_cs: The clocksource to read.
*/
-cycle_t dw_apb_clocksource_read(struct dw_apb_clocksource *dw_cs)
+u64 dw_apb_clocksource_read(struct dw_apb_clocksource *dw_cs)
{
- return (cycle_t)~apbt_readl(&dw_cs->timer, APBTMR_N_CURRENT_VALUE);
+ return (u64)~apbt_readl(&dw_cs->timer, APBTMR_N_CURRENT_VALUE);
}
clk_disable_unprepare(p->clk);
}
-static cycle_t em_sti_count(struct em_sti_priv *p)
+static u64 em_sti_count(struct em_sti_priv *p)
{
- cycle_t ticks;
+ u64 ticks;
unsigned long flags;
/* the STI hardware buffers the 48-bit count, but to
* Always read STI_COUNT_H before STI_COUNT_L.
*/
raw_spin_lock_irqsave(&p->lock, flags);
- ticks = (cycle_t)(em_sti_read(p, STI_COUNT_H) & 0xffff) << 32;
+ ticks = (u64)(em_sti_read(p, STI_COUNT_H) & 0xffff) << 32;
ticks |= em_sti_read(p, STI_COUNT_L);
raw_spin_unlock_irqrestore(&p->lock, flags);
return ticks;
}
-static cycle_t em_sti_set_next(struct em_sti_priv *p, cycle_t next)
+static u64 em_sti_set_next(struct em_sti_priv *p, u64 next)
{
unsigned long flags;
return container_of(cs, struct em_sti_priv, cs);
}
-static cycle_t em_sti_clocksource_read(struct clocksource *cs)
+static u64 em_sti_clocksource_read(struct clocksource *cs)
{
return em_sti_count(cs_to_em_sti(cs));
}
struct clock_event_device *ced)
{
struct em_sti_priv *p = ced_to_em_sti(ced);
- cycle_t next;
+ u64 next;
int safe;
next = em_sti_set_next(p, em_sti_count(p) + delta);
hi2 = readl_relaxed(reg_base + EXYNOS4_MCT_G_CNT_U);
} while (hi != hi2);
- return ((cycle_t)hi << 32) | lo;
+ return ((u64)hi << 32) | lo;
}
/**
return readl_relaxed(reg_base + EXYNOS4_MCT_G_CNT_L);
}
-static cycle_t exynos4_frc_read(struct clocksource *cs)
+static u64 exynos4_frc_read(struct clocksource *cs)
{
return exynos4_read_count_32();
}
static void exynos4_mct_comp0_start(bool periodic, unsigned long cycles)
{
unsigned int tcon;
- cycle_t comp_cycle;
+ u64 comp_cycle;
tcon = readl_relaxed(reg_base + EXYNOS4_MCT_G_TCON);
return container_of(cs, struct timer16_priv, cs);
}
-static cycle_t timer16_clocksource_read(struct clocksource *cs)
+static u64 timer16_clocksource_read(struct clocksource *cs)
{
struct timer16_priv *p = cs_to_priv(cs);
unsigned long raw, value;
return container_of(cs, struct tpu_priv, cs);
}
-static cycle_t tpu_clocksource_read(struct clocksource *cs)
+static u64 tpu_clocksource_read(struct clocksource *cs)
{
struct tpu_priv *p = cs_to_priv(cs);
unsigned long flags;
* to just read by itself. So use jiffies to emulate a free
* running counter:
*/
-static cycle_t i8253_read(struct clocksource *cs)
+static u64 i8253_read(struct clocksource *cs)
{
static int old_count;
static u32 old_jifs;
count = (PIT_LATCH - 1) - count;
- return (cycle_t)(jifs * PIT_LATCH) + count;
+ return (u64)(jifs * PIT_LATCH) + count;
}
static struct clocksource i8253_cs = {
return seclo * NSEC_PER_SEC + nsec;
}
-static cycle_t jcore_clocksource_read(struct clocksource *cs)
+static u64 jcore_clocksource_read(struct clocksource *cs)
{
return jcore_sched_clock_read();
}
return 0;
}
-static cycle_t metag_clocksource_read(struct clocksource *cs)
+static u64 metag_clocksource_read(struct clocksource *cs)
{
return __core_reg_get(TXTIMER);
}
return 0;
}
-static cycle_t gic_hpt_read(struct clocksource *cs)
+static u64 gic_hpt_read(struct clocksource *cs)
{
return gic_read_count();
}
return container_of(c, struct clocksource_mmio, clksrc);
}
-cycle_t clocksource_mmio_readl_up(struct clocksource *c)
+u64 clocksource_mmio_readl_up(struct clocksource *c)
{
- return (cycle_t)readl_relaxed(to_mmio_clksrc(c)->reg);
+ return (u64)readl_relaxed(to_mmio_clksrc(c)->reg);
}
-cycle_t clocksource_mmio_readl_down(struct clocksource *c)
+u64 clocksource_mmio_readl_down(struct clocksource *c)
{
- return ~(cycle_t)readl_relaxed(to_mmio_clksrc(c)->reg) & c->mask;
+ return ~(u64)readl_relaxed(to_mmio_clksrc(c)->reg) & c->mask;
}
-cycle_t clocksource_mmio_readw_up(struct clocksource *c)
+u64 clocksource_mmio_readw_up(struct clocksource *c)
{
- return (cycle_t)readw_relaxed(to_mmio_clksrc(c)->reg);
+ return (u64)readw_relaxed(to_mmio_clksrc(c)->reg);
}
-cycle_t clocksource_mmio_readw_down(struct clocksource *c)
+u64 clocksource_mmio_readw_down(struct clocksource *c)
{
- return ~(cycle_t)readw_relaxed(to_mmio_clksrc(c)->reg) & c->mask;
+ return ~(u64)readw_relaxed(to_mmio_clksrc(c)->reg) & c->mask;
}
/**
*/
int __init clocksource_mmio_init(void __iomem *base, const char *name,
unsigned long hz, int rating, unsigned bits,
- cycle_t (*read)(struct clocksource *))
+ u64 (*read)(struct clocksource *))
{
struct clocksource_mmio *cs;
HW_TIMROT_TIMCTRLn(0) + STMP_OFFSET_REG_CLR);
}
-static cycle_t timrotv1_get_cycles(struct clocksource *cs)
+static u64 timrotv1_get_cycles(struct clocksource *cs)
{
return ~((__raw_readl(mxs_timrot_base + HW_TIMROT_TIMCOUNTn(1))
& 0xffff0000) >> 16);
static void __iomem *source_base;
-static notrace cycle_t msm_read_timer_count(struct clocksource *cs)
+static notrace u64 msm_read_timer_count(struct clocksource *cs)
{
return readl_relaxed(source_base + TIMER_COUNT_VAL);
}
samsung_time_start(pwm.source_id, true);
}
-static cycle_t notrace samsung_clocksource_read(struct clocksource *c)
+static u64 notrace samsung_clocksource_read(struct clocksource *c)
{
return ~readl_relaxed(pwm.source_reg);
}
/* The base timer frequency, * 27 if selected */
#define HRT_FREQ 1000000
-static cycle_t read_hrt(struct clocksource *cs)
+static u64 read_hrt(struct clocksource *cs)
{
/* Read the timer value */
- return (cycle_t) inl(scx200_cb_base + SCx200_TIMER_OFFSET);
+ return (u64) inl(scx200_cb_base + SCx200_TIMER_OFFSET);
}
static struct clocksource cs_hrt = {
return container_of(cs, struct sh_cmt_channel, cs);
}
-static cycle_t sh_cmt_clocksource_read(struct clocksource *cs)
+static u64 sh_cmt_clocksource_read(struct clocksource *cs)
{
struct sh_cmt_channel *ch = cs_to_sh_cmt(cs);
unsigned long flags, raw;
return container_of(cs, struct sh_tmu_channel, cs);
}
-static cycle_t sh_tmu_clocksource_read(struct clocksource *cs)
+static u64 sh_tmu_clocksource_read(struct clocksource *cs)
{
struct sh_tmu_channel *ch = cs_to_sh_tmu(cs);
static void __iomem *tcaddr;
-static cycle_t tc_get_cycles(struct clocksource *cs)
+static u64 tc_get_cycles(struct clocksource *cs)
{
unsigned long flags;
u32 lower, upper;
return (upper << 16) | lower;
}
-static cycle_t tc_get_cycles32(struct clocksource *cs)
+static u64 tc_get_cycles32(struct clocksource *cs)
{
return __raw_readl(tcaddr + ATMEL_TC_REG(0, CV));
}
writel(value, base + 0x20 * gpt_id + offset);
}
-static cycle_t notrace
+static u64 notrace
pistachio_clocksource_read_cycles(struct clocksource *cs)
{
struct pistachio_clocksource *pcs = to_pistachio_clocksource(cs);
counter = gpt_readl(pcs->base, TIMER_CURRENT_VALUE, 0);
raw_spin_unlock_irqrestore(&pcs->lock, flags);
- return (cycle_t)~counter;
+ return (u64)~counter;
}
static u64 notrace pistachio_read_sched_clock(void)
}
/* read 64-bit timer counter */
-static cycle_t sirfsoc_timer_read(struct clocksource *cs)
+static u64 sirfsoc_timer_read(struct clocksource *cs)
{
u64 cycles;
* Clocksource: just a monotonic counter of MCK/16 cycles.
* We don't care whether or not PIT irqs are enabled.
*/
-static cycle_t read_pit_clk(struct clocksource *cs)
+static u64 read_pit_clk(struct clocksource *cs)
{
struct pit_data *data = clksrc_to_pit_data(cs);
unsigned long flags;
return IRQ_NONE;
}
-static cycle_t read_clk32k(struct clocksource *cs)
+static u64 read_clk32k(struct clocksource *cs)
{
return read_CRTR();
}
return 0;
}
-static cycle_t nps_clksrc_read(struct clocksource *clksrc)
+static u64 nps_clksrc_read(struct clocksource *clksrc)
{
int cluster = raw_smp_processor_id() >> NPS_CLUSTER_OFFSET;
- return (cycle_t)ioread32be(nps_msu_reg_low_addr[cluster]);
+ return (u64)ioread32be(nps_msu_reg_low_addr[cluster]);
}
static int __init nps_setup_clocksource(struct device_node *node)
}
/* read 64-bit timer counter */
-static cycle_t notrace sirfsoc_timer_read(struct clocksource *cs)
+static u64 notrace sirfsoc_timer_read(struct clocksource *cs)
{
u64 cycles;
return IRQ_HANDLED;
}
-static cycle_t sun5i_clksrc_read(struct clocksource *clksrc)
+static u64 sun5i_clksrc_read(struct clocksource *clksrc)
{
struct sun5i_timer_clksrc *cs = to_sun5i_timer_clksrc(clksrc);
return container_of(cs, struct ti_32k, cs);
}
-static cycle_t notrace ti_32k_read_cycles(struct clocksource *cs)
+static u64 notrace ti_32k_read_cycles(struct clocksource *cs)
{
struct ti_32k *ti = to_ti_32k(cs);
- return (cycle_t)readl_relaxed(ti->counter);
+ return (u64)readl_relaxed(ti->counter);
}
static struct ti_32k ti_32k_timer = {
static void __iomem *regbase;
-static cycle_t vt8500_timer_read(struct clocksource *cs)
+static u64 vt8500_timer_read(struct clocksource *cs)
{
int loops = msecs_to_loops(10);
writel(3, regbase + TIMER_CTRL_VAL);
struct clock_event_device *evt)
{
int loops = msecs_to_loops(10);
- cycle_t alarm = clocksource.read(&clocksource) + cycles;
+ u64 alarm = clocksource.read(&clocksource) + cycles;
while ((readl(regbase + TIMER_AS_VAL) & TIMER_MATCH_W_ACTIVE)
&& --loops)
cpu_relax();
int dst_cnt;
int i;
ktime_t ktime, start, diff;
- ktime_t filltime = ktime_set(0, 0);
- ktime_t comparetime = ktime_set(0, 0);
+ ktime_t filltime = 0;
+ ktime_t comparetime = 0;
s64 runtime = 0;
unsigned long long total_len = 0;
u8 align = 0;
drm_handle_vblank(ddev, amdgpu_crtc->crtc_id);
dce_virtual_pageflip(adev, amdgpu_crtc->crtc_id);
- hrtimer_start(vblank_timer, ktime_set(0, DCE_VIRTUAL_VBLANK_PERIOD),
+ hrtimer_start(vblank_timer, DCE_VIRTUAL_VBLANK_PERIOD,
HRTIMER_MODE_REL);
return HRTIMER_NORESTART;
hrtimer_init(&adev->mode_info.crtcs[crtc]->vblank_timer,
CLOCK_MONOTONIC, HRTIMER_MODE_REL);
hrtimer_set_expires(&adev->mode_info.crtcs[crtc]->vblank_timer,
- ktime_set(0, DCE_VIRTUAL_VBLANK_PERIOD));
+ DCE_VIRTUAL_VBLANK_PERIOD);
adev->mode_info.crtcs[crtc]->vblank_timer.function =
dce_virtual_vblank_timer_handle;
hrtimer_start(&adev->mode_info.crtcs[crtc]->vblank_timer,
- ktime_set(0, DCE_VIRTUAL_VBLANK_PERIOD), HRTIMER_MODE_REL);
+ DCE_VIRTUAL_VBLANK_PERIOD, HRTIMER_MODE_REL);
} else if (!state && adev->mode_info.crtcs[crtc]->vsync_timer_enabled) {
DRM_DEBUG("Disable software vsync timer\n");
hrtimer_cancel(&adev->mode_info.crtcs[crtc]->vblank_timer);
{
d->wake_count++;
hrtimer_start_range_ns(&d->timer,
- ktime_set(0, NSEC_PER_MSEC),
+ NSEC_PER_MSEC,
NSEC_PER_MSEC,
HRTIMER_MODE_REL);
}
__set_current_state(intr ? TASK_INTERRUPTIBLE :
TASK_UNINTERRUPTIBLE);
- kt = ktime_set(0, sleep_time);
+ kt = sleep_time;
schedule_hrtimeout(&kt, HRTIMER_MODE_REL);
sleep_time *= 2;
if (sleep_time > NSEC_PER_MSEC)
}
drm_flip_work_commit(&tilcdc_crtc->unref_work, priv->wq);
- tilcdc_crtc->last_vblank = ktime_set(0, 0);
+ tilcdc_crtc->last_vblank = 0;
tilcdc_crtc->enabled = false;
mutex_unlock(&tilcdc_crtc->enable_lock);
EXPORT_SYMBOL_GPL(hv_do_hypercall);
#ifdef CONFIG_X86_64
-static cycle_t read_hv_clock_tsc(struct clocksource *arg)
+static u64 read_hv_clock_tsc(struct clocksource *arg)
{
- cycle_t current_tick;
+ u64 current_tick;
struct ms_hyperv_tsc_page *tsc_pg = hv_context.tsc_page;
if (tsc_pg->tsc_sequence != 0) {
*/
while (1) {
- cycle_t tmp;
+ u64 tmp;
u32 sequence = tsc_pg->tsc_sequence;
u64 cur_tsc;
u64 scale = tsc_pg->tsc_scale;
static int hv_ce_set_next_event(unsigned long delta,
struct clock_event_device *evt)
{
- cycle_t current_tick;
+ u64 current_tick;
WARN_ON(!clockevent_state_oneshot(evt));
return -EINVAL;
info->sampling_frequency = val;
- info->period = ktime_set(0, NSEC_PER_SEC / val);
+ info->period = NSEC_PER_SEC / val;
return len;
}
trig_info->timer.function = iio_hrtimer_trig_handler;
trig_info->sampling_frequency = HRTIMER_DEFAULT_SAMPLING_FREQUENCY;
- trig_info->period = ktime_set(0, NSEC_PER_SEC /
- trig_info->sampling_frequency);
+ trig_info->period = NSEC_PER_SEC / trig_info->sampling_frequency;
ret = iio_trigger_register(trig_info->swt.trigger);
if (ret)
RESERVE + BIN1_PULSE - BIN0_PULSE) /* frame sync .. */
w->counter = 0;
- hrtimer_start(&w->timer, ktime_set(0, BIN_SAMPLE), HRTIMER_MODE_REL);
+ hrtimer_start(&w->timer, BIN_SAMPLE, HRTIMER_MODE_REL);
}
static enum hrtimer_restart timer_handler(struct hrtimer
}
#ifdef CONFIG_CLKSRC_MIPS_GIC
-cycle_t gic_read_count(void)
+u64 gic_read_count(void)
{
unsigned int hi, hi2, lo;
if (mips_cm_is64)
- return (cycle_t)gic_read(GIC_REG(SHARED, GIC_SH_COUNTER));
+ return (u64)gic_read(GIC_REG(SHARED, GIC_SH_COUNTER));
do {
hi = gic_read32(GIC_REG(SHARED, GIC_SH_COUNTER_63_32));
hi2 = gic_read32(GIC_REG(SHARED, GIC_SH_COUNTER_63_32));
} while (hi2 != hi);
- return (((cycle_t) hi) << 32) + lo;
+ return (((u64) hi) << 32) + lo;
}
unsigned int gic_get_count_width(void)
return bits;
}
-void gic_write_compare(cycle_t cnt)
+void gic_write_compare(u64 cnt)
{
if (mips_cm_is64) {
gic_write(GIC_REG(VPE_LOCAL, GIC_VPE_COMPARE), cnt);
}
}
-void gic_write_cpu_compare(cycle_t cnt, int cpu)
+void gic_write_cpu_compare(u64 cnt, int cpu)
{
unsigned long flags;
local_irq_restore(flags);
}
-cycle_t gic_read_compare(void)
+u64 gic_read_compare(void)
{
unsigned int hi, lo;
if (mips_cm_is64)
- return (cycle_t)gic_read(GIC_REG(VPE_LOCAL, GIC_VPE_COMPARE));
+ return (u64)gic_read(GIC_REG(VPE_LOCAL, GIC_VPE_COMPARE));
hi = gic_read32(GIC_REG(VPE_LOCAL, GIC_VPE_COMPARE_HI));
lo = gic_read32(GIC_REG(VPE_LOCAL, GIC_VPE_COMPARE_LO));
- return (((cycle_t) hi) << 32) + lo;
+ return (((u64) hi) << 32) + lo;
}
void gic_start_count(void)
if (!err && (chan->txdone_method & TXDONE_BY_POLL))
/* kick start the timer immediately to avoid delays */
- hrtimer_start(&chan->mbox->poll_hrt, ktime_set(0, 0),
- HRTIMER_MODE_REL);
+ hrtimer_start(&chan->mbox->poll_hrt, 0, HRTIMER_MODE_REL);
}
static void tx_tick(struct mbox_chan *chan, int r)
struct dmxdev_filter *filter,
struct dmxdev_feed *feed)
{
- ktime_t timeout = ktime_set(0, 0);
+ ktime_t timeout = 0;
struct dmx_pes_filter_params *para = &filter->params.pes;
dmx_output_t otype;
int ret;
struct cx88_IR *ir = container_of(timer, struct cx88_IR, timer);
cx88_ir_handle_key(ir);
- missed = hrtimer_forward_now(&ir->timer,
- ktime_set(0, ir->polling * 1000000));
+ missed = hrtimer_forward_now(&ir->timer, ir->polling * 1000000);
if (missed > 1)
ir_dprintk("Missed ticks %ld\n", missed - 1);
if (ir->polling) {
hrtimer_init(&ir->timer, CLOCK_MONOTONIC, HRTIMER_MODE_REL);
ir->timer.function = cx88_ir_work;
- hrtimer_start(&ir->timer,
- ktime_set(0, ir->polling * 1000000),
+ hrtimer_start(&ir->timer, ir->polling * 1000000,
HRTIMER_MODE_REL);
}
if (ir->sampling) {
pt3_proc_dma(adap);
- delay = ktime_set(0, PT3_FETCH_DELAY * NSEC_PER_MSEC);
+ delay = PT3_FETCH_DELAY * NSEC_PER_MSEC;
set_current_state(TASK_UNINTERRUPTIBLE);
freezable_schedule_hrtimeout_range(&delay,
PT3_FETCH_DELAY_DELTA * NSEC_PER_MSEC,
now = timer->base->get_time();
- } while (hrtimer_get_expires_tv64(timer) < now.tv64);
+ } while (hrtimer_get_expires_tv64(timer) < now);
return HRTIMER_RESTART;
end:
ovf = 0x100000000ULL * 16;
do_div(ovf, card->pdat->freq ?: 16);
- card->ts_overflow = ktime_add_us(ktime_set(0, 0), ovf);
+ card->ts_overflow = ktime_add_us(0, ovf);
}
ktime_t softing_raw2ktime(struct softing *card, u32 raw)
open_candev(netdev);
if (dev != netdev) {
/* notify other busses on the restart */
- softing_netdev_rx(netdev, &msg, ktime_set(0, 0));
+ softing_netdev_rx(netdev, &msg, 0);
++priv->can.can_stats.restarts;
}
netif_wake_queue(netdev);
/* a dead bus has no overflows */
continue;
++netdev->stats.rx_over_errors;
- softing_netdev_rx(netdev, &msg, ktime_set(0, 0));
+ softing_netdev_rx(netdev, &msg, 0);
}
/* prepare for other use */
memset(&msg, 0, sizeof(msg));
#include "xgbe.h"
#include "xgbe-common.h"
-static cycle_t xgbe_cc_read(const struct cyclecounter *cc)
+static u64 xgbe_cc_read(const struct cyclecounter *cc)
{
struct xgbe_prv_data *pdata = container_of(cc,
struct xgbe_prv_data,
}
/* Read the PHC */
-static cycle_t bnx2x_cyclecounter_read(const struct cyclecounter *cc)
+static u64 bnx2x_cyclecounter_read(const struct cyclecounter *cc)
{
struct bnx2x *bp = container_of(cc, struct bnx2x, cyclecounter);
int port = BP_PORT(bp);
if (!netif_running(priv->net_dev))
return HRTIMER_NORESTART;
- hrtimer_forward_now(timer, ktime_set(0, polling_frequency));
+ hrtimer_forward_now(timer, polling_frequency);
return HRTIMER_RESTART;
}
hrtimer_init(&priv->hrtimer, CLOCK_MONOTONIC, HRTIMER_MODE_REL);
priv->hrtimer.function = ec_bhf_timer_fun;
- hrtimer_start(&priv->hrtimer, ktime_set(0, polling_frequency),
- HRTIMER_MODE_REL);
+ hrtimer_start(&priv->hrtimer, polling_frequency, HRTIMER_MODE_REL);
return 0;
* cyclecounter structure used to construct a ns counter from the
* arbitrary fixed point registers
*/
-static cycle_t fec_ptp_read(const struct cyclecounter *cc)
+static u64 fec_ptp_read(const struct cyclecounter *cc)
{
struct fec_enet_private *fep =
container_of(cc, struct fec_enet_private, cc);
/**
* e1000e_sanitize_systim - sanitize raw cycle counter reads
* @hw: pointer to the HW structure
- * @systim: cycle_t value read, sanitized and returned
+ * @systim: time value read, sanitized and returned
*
* Errata for 82574/82583 possible bad bits read from SYSTIMH/L:
* check to see that the time is incrementing at a reasonable
* rate and is a multiple of incvalue.
**/
-static cycle_t e1000e_sanitize_systim(struct e1000_hw *hw, cycle_t systim)
+static u64 e1000e_sanitize_systim(struct e1000_hw *hw, u64 systim)
{
u64 time_delta, rem, temp;
- cycle_t systim_next;
+ u64 systim_next;
u32 incvalue;
int i;
incvalue = er32(TIMINCA) & E1000_TIMINCA_INCVALUE_MASK;
for (i = 0; i < E1000_MAX_82574_SYSTIM_REREADS; i++) {
/* latch SYSTIMH on read of SYSTIML */
- systim_next = (cycle_t)er32(SYSTIML);
- systim_next |= (cycle_t)er32(SYSTIMH) << 32;
+ systim_next = (u64)er32(SYSTIML);
+ systim_next |= (u64)er32(SYSTIMH) << 32;
time_delta = systim_next - systim;
temp = time_delta;
* e1000e_cyclecounter_read - read raw cycle counter (used by time counter)
* @cc: cyclecounter structure
**/
-static cycle_t e1000e_cyclecounter_read(const struct cyclecounter *cc)
+static u64 e1000e_cyclecounter_read(const struct cyclecounter *cc)
{
struct e1000_adapter *adapter = container_of(cc, struct e1000_adapter,
cc);
struct e1000_hw *hw = &adapter->hw;
u32 systimel, systimeh;
- cycle_t systim;
+ u64 systim;
/* SYSTIMH latching upon SYSTIML read does not work well.
* This means that if SYSTIML overflows after we read it but before
* we read SYSTIMH, the value of SYSTIMH has been incremented and we
systimel = systimel_2;
}
}
- systim = (cycle_t)systimel;
- systim |= (cycle_t)systimeh << 32;
+ systim = (u64)systimel;
+ systim |= (u64)systimeh << 32;
if (adapter->flags2 & FLAG2_CHECK_SYSTIM_OVERFLOW)
systim = e1000e_sanitize_systim(hw, systim);
unsigned long flags;
int i;
u32 tsync_ctrl;
- cycle_t dev_cycles;
- cycle_t sys_cycles;
+ u64 dev_cycles;
+ u64 sys_cycles;
tsync_ctrl = er32(TSYNCTXCTL);
tsync_ctrl |= E1000_TSYNCTXCTL_START_SYNC |
static void igb_ptp_tx_hwtstamp(struct igb_adapter *adapter);
/* SYSTIM read access for the 82576 */
-static cycle_t igb_ptp_read_82576(const struct cyclecounter *cc)
+static u64 igb_ptp_read_82576(const struct cyclecounter *cc)
{
struct igb_adapter *igb = container_of(cc, struct igb_adapter, cc);
struct e1000_hw *hw = &igb->hw;
}
/* SYSTIM read access for the 82580 */
-static cycle_t igb_ptp_read_82580(const struct cyclecounter *cc)
+static u64 igb_ptp_read_82580(const struct cyclecounter *cc)
{
struct igb_adapter *igb = container_of(cc, struct igb_adapter, cc);
struct e1000_hw *hw = &igb->hw;
* result of SYSTIME is 32bits of "billions of cycles" and 32 bits of
* "cycles", rather than seconds and nanoseconds.
*/
-static cycle_t ixgbe_ptp_read_X550(const struct cyclecounter *hw_cc)
+static u64 ixgbe_ptp_read_X550(const struct cyclecounter *hw_cc)
{
struct ixgbe_adapter *adapter =
container_of(hw_cc, struct ixgbe_adapter, hw_cc);
* cyclecounter structure used to construct a ns counter from the
* arbitrary fixed point registers
*/
-static cycle_t ixgbe_ptp_read_82599(const struct cyclecounter *cc)
+static u64 ixgbe_ptp_read_82599(const struct cyclecounter *cc)
{
struct ixgbe_adapter *adapter =
container_of(cc, struct ixgbe_adapter, hw_cc);
if (!port_pcpu->timer_scheduled) {
port_pcpu->timer_scheduled = true;
- interval = ktime_set(0, MVPP2_TXDONE_HRTIMER_PERIOD_NS);
+ interval = MVPP2_TXDONE_HRTIMER_PERIOD_NS;
hrtimer_start(&port_pcpu->tx_done_timer, interval,
HRTIMER_MODE_REL_PINNED);
}
/* mlx4_en_read_clock - read raw cycle counter (to be used by time counter)
*/
-static cycle_t mlx4_en_read_clock(const struct cyclecounter *tc)
+static u64 mlx4_en_read_clock(const struct cyclecounter *tc)
{
struct mlx4_en_dev *mdev =
container_of(tc, struct mlx4_en_dev, cycles);
io_mapping_free(mlx4_priv(dev)->bf_mapping);
}
-cycle_t mlx4_read_clock(struct mlx4_dev *dev)
+u64 mlx4_read_clock(struct mlx4_dev *dev)
{
u32 clockhi, clocklo, clockhi1;
- cycle_t cycles;
+ u64 cycles;
int i;
struct mlx4_priv *priv = mlx4_priv(dev);
hwts->hwtstamp = ns_to_ktime(nsec);
}
-static cycle_t mlx5e_read_internal_timer(const struct cyclecounter *cc)
+static u64 mlx5e_read_internal_timer(const struct cyclecounter *cc)
{
struct mlx5e_tstamp *tstamp = container_of(cc, struct mlx5e_tstamp,
cycles);
return mlx5_cmd_exec(dev, in, sizeof(in), out, sizeof(out));
}
-cycle_t mlx5_read_internal_timer(struct mlx5_core_dev *dev)
+u64 mlx5_read_internal_timer(struct mlx5_core_dev *dev)
{
u32 timer_h, timer_h1, timer_l;
if (timer_h != timer_h1) /* wrap around */
timer_l = ioread32be(&dev->iseg->internal_timer_l);
- return (cycle_t)timer_l | (cycle_t)timer_h1 << 32;
+ return (u64)timer_l | (u64)timer_h1 << 32;
}
static int mlx5_irq_set_affinity_hint(struct mlx5_core_dev *mdev, int i)
int mlx5_destroy_scheduling_element_cmd(struct mlx5_core_dev *dev, u8 hierarchy,
u32 element_id);
int mlx5_wait_for_vf_pages(struct mlx5_core_dev *dev);
-cycle_t mlx5_read_internal_timer(struct mlx5_core_dev *dev);
+u64 mlx5_read_internal_timer(struct mlx5_core_dev *dev);
u32 mlx5_get_msix_vec(struct mlx5_core_dev *dev, int vecidx);
struct mlx5_eq *mlx5_eqn2eq(struct mlx5_core_dev *dev, int eqn);
void mlx5_cq_tasklet_cb(unsigned long data);
return type == match ? 0 : -1;
}
-static cycle_t cpts_systim_read(const struct cyclecounter *cc)
+static u64 cpts_systim_read(const struct cyclecounter *cc)
{
u64 val = 0;
struct cpts_event *event;
&info->mpipe[instance].tx_wake[priv->echannel];
hrtimer_start(&tx_wake->timer,
- ktime_set(0, TX_TIMER_DELAY_USEC * 1000UL),
+ TX_TIMER_DELAY_USEC * 1000UL,
HRTIMER_MODE_REL_PINNED);
}
if (!info->egress_timer_scheduled) {
hrtimer_start(&info->egress_timer,
- ktime_set(0, EGRESS_TIMER_DELAY_USEC * 1000UL),
+ EGRESS_TIMER_DELAY_USEC * 1000UL,
HRTIMER_MODE_REL_PINNED);
info->egress_timer_scheduled = true;
}
case STATE_TRX_OFF:
switch (ctx->to_state) {
case STATE_RX_AACK_ON:
- tim = ktime_set(0, c->t_off_to_aack * NSEC_PER_USEC);
+ tim = c->t_off_to_aack * NSEC_PER_USEC;
/* state change from TRX_OFF to RX_AACK_ON to do a
* calibration, we need to reset the timeout for the
* next one.
goto change;
case STATE_TX_ARET_ON:
case STATE_TX_ON:
- tim = ktime_set(0, c->t_off_to_tx_on * NSEC_PER_USEC);
+ tim = c->t_off_to_tx_on * NSEC_PER_USEC;
/* state change from TRX_OFF to TX_ON or ARET_ON to do
* a calibration, we need to reset the timeout for the
* next one.
* to TX_ON or TRX_OFF.
*/
if (!force) {
- tim = ktime_set(0, (c->t_frame + c->t_p_ack) *
- NSEC_PER_USEC);
+ tim = (c->t_frame + c->t_p_ack) * NSEC_PER_USEC;
goto change;
}
break;
case STATE_P_ON:
switch (ctx->to_state) {
case STATE_TRX_OFF:
- tim = ktime_set(0, c->t_reset_to_off * NSEC_PER_USEC);
+ tim = c->t_reset_to_off * NSEC_PER_USEC;
goto change;
default:
break;
/* start timer, if not already started */
if (!(hrtimer_active(&ctx->tx_timer) || atomic_read(&ctx->stop)))
hrtimer_start(&ctx->tx_timer,
- ktime_set(0, ctx->timer_interval),
+ ctx->timer_interval,
HRTIMER_MODE_REL);
}
if (rt2800usb_txstatus_pending(rt2x00dev)) {
/* Read register after 1 ms */
hrtimer_start(&rt2x00dev->txstatus_timer,
- ktime_set(0, TXSTATUS_READ_INTERVAL),
+ TXSTATUS_READ_INTERVAL,
HRTIMER_MODE_REL);
return false;
}
/* Read TX_STA_FIFO register after 2 ms */
hrtimer_start(&rt2x00dev->txstatus_timer,
- ktime_set(0, 2*TXSTATUS_READ_INTERVAL),
+ 2 * TXSTATUS_READ_INTERVAL,
HRTIMER_MODE_REL);
}
static ktime_t fixup_debug_start(struct pci_dev *dev,
void (*fn)(struct pci_dev *dev))
{
- ktime_t calltime = ktime_set(0, 0);
+ ktime_t calltime = 0;
dev_dbg(&dev->dev, "calling %pF\n", fn);
if (initcall_debug) {
if (err)
goto err_free_keymap;
- last_pressed = ktime_set(0, 0);
+ last_pressed = 0;
return 0;
static void ltc2952_poweroff_default(struct ltc2952_poweroff *data)
{
- data->wde_interval = ktime_set(0, 300L*1E6L);
+ data->wde_interval = 300L * 1E6L;
data->trigger_delay = ktime_set(2, 500L*1E6L);
hrtimer_init(&data->timer_trigger, CLOCK_MONOTONIC, HRTIMER_MODE_REL);
rtc_timer_remove(rtc, &rtc->aie_timer);
rtc->aie_timer.node.expires = rtc_tm_to_ktime(alarm->time);
- rtc->aie_timer.period = ktime_set(0, 0);
+ rtc->aie_timer.period = 0;
if (alarm->enabled)
err = rtc_timer_enqueue(rtc, &rtc->aie_timer);
return err;
rtc->aie_timer.node.expires = rtc_tm_to_ktime(alarm->time);
- rtc->aie_timer.period = ktime_set(0, 0);
+ rtc->aie_timer.period = 0;
/* Alarm has to be enabled & in the future for us to enqueue it */
- if (alarm->enabled && (rtc_tm_to_ktime(now).tv64 <
- rtc->aie_timer.node.expires.tv64)) {
+ if (alarm->enabled && (rtc_tm_to_ktime(now) <
+ rtc->aie_timer.node.expires)) {
rtc->aie_timer.enabled = 1;
timerqueue_add(&rtc->timerqueue, &rtc->aie_timer.node);
int count;
rtc = container_of(timer, struct rtc_device, pie_timer);
- period = ktime_set(0, NSEC_PER_SEC/rtc->irq_freq);
+ period = NSEC_PER_SEC / rtc->irq_freq;
count = hrtimer_forward_now(timer, period);
rtc_handle_legacy_irq(rtc, count, RTC_PF);
return -1;
if (enabled) {
- ktime_t period = ktime_set(0, NSEC_PER_SEC / rtc->irq_freq);
+ ktime_t period = NSEC_PER_SEC / rtc->irq_freq;
hrtimer_start(&rtc->pie_timer, period, HRTIMER_MODE_REL);
}
/* Skip over expired timers */
while (next) {
- if (next->expires.tv64 >= now.tv64)
+ if (next->expires >= now)
break;
next = timerqueue_iterate_next(next);
}
__rtc_read_time(rtc, &tm);
now = rtc_tm_to_ktime(tm);
while ((next = timerqueue_getnext(&rtc->timerqueue))) {
- if (next->expires.tv64 > now.tv64)
+ if (next->expires > now)
break;
/* expire timer */
case AP_WAIT_TIMEOUT:
spin_lock_bh(&ap_poll_timer_lock);
if (!hrtimer_is_queued(&ap_poll_timer)) {
- hr_time = ktime_set(0, poll_timeout);
+ hr_time = poll_timeout;
hrtimer_forward_now(&ap_poll_timer, hr_time);
hrtimer_restart(&ap_poll_timer);
}
time > 120000000000ULL)
return -EINVAL;
poll_timeout = time;
- hr_time = ktime_set(0, poll_timeout);
+ hr_time = poll_timeout;
spin_lock_bh(&ap_poll_timer_lock);
hrtimer_cancel(&ap_poll_timer);
if (!vscsi->rsp_q_timer.started) {
if (vscsi->rsp_q_timer.timer_pops <
MAX_TIMER_POPS) {
- kt = ktime_set(0, WAIT_NANO_SECONDS);
+ kt = WAIT_NANO_SECONDS;
} else {
/*
* slide the timeslice if the maximum
jiffies_to_timespec(delta_jiff, &ts);
kt = ktime_set(ts.tv_sec, ts.tv_nsec);
} else
- kt = ktime_set(0, sdebug_ndelay);
+ kt = sdebug_ndelay;
if (NULL == sd_dp) {
sd_dp = kzalloc(sizeof(*sd_dp), GFP_ATOMIC);
if (NULL == sd_dp)
if (!hba->outstanding_reqs && scaling->is_busy_started) {
scaling->tot_busy_t += ktime_to_us(ktime_sub(ktime_get(),
scaling->busy_start_t));
- scaling->busy_start_t = ktime_set(0, 0);
+ scaling->busy_start_t = 0;
scaling->is_busy_started = false;
}
}
scaling->busy_start_t = ktime_get();
scaling->is_busy_started = true;
} else {
- scaling->busy_start_t = ktime_set(0, 0);
+ scaling->busy_start_t = 0;
scaling->is_busy_started = false;
}
spin_unlock_irqrestore(hba->host->host_lock, flags);
ktime_set(timer_sec, timer_nsec));
ci->enabled_otg_timer_bits |= (1 << t);
if ((ci->next_otg_timer == NUM_OTG_FSM_TIMERS) ||
- (ci->hr_timeouts[ci->next_otg_timer].tv64 >
- ci->hr_timeouts[t].tv64)) {
+ (ci->hr_timeouts[ci->next_otg_timer] >
+ ci->hr_timeouts[t])) {
ci->next_otg_timer = t;
hrtimer_start_range_ns(&ci->otg_fsm_hrtimer,
ci->hr_timeouts[t], NSEC_PER_MSEC,
for_each_set_bit(cur_timer, &enabled_timer_bits,
NUM_OTG_FSM_TIMERS) {
if ((next_timer == NUM_OTG_FSM_TIMERS) ||
- (ci->hr_timeouts[next_timer].tv64 <
- ci->hr_timeouts[cur_timer].tv64))
+ (ci->hr_timeouts[next_timer] <
+ ci->hr_timeouts[cur_timer]))
next_timer = cur_timer;
}
}
now = ktime_get();
for_each_set_bit(cur_timer, &enabled_timer_bits, NUM_OTG_FSM_TIMERS) {
- if (now.tv64 >= ci->hr_timeouts[cur_timer].tv64) {
+ if (now >= ci->hr_timeouts[cur_timer]) {
ci->enabled_otg_timer_bits &= ~(1 << cur_timer);
if (otg_timer_handlers[cur_timer])
ret = otg_timer_handlers[cur_timer](ci);
} else {
if ((next_timer == NUM_OTG_FSM_TIMERS) ||
- (ci->hr_timeouts[cur_timer].tv64 <
- ci->hr_timeouts[next_timer].tv64))
+ (ci->hr_timeouts[cur_timer] <
+ ci->hr_timeouts[next_timer]))
next_timer = cur_timer;
}
}
}
/* Delay the timer. */
- hrtimer_start(&ncm->task_timer,
- ktime_set(0, TX_TIMEOUT_NSECS),
+ hrtimer_start(&ncm->task_timer, TX_TIMEOUT_NSECS,
HRTIMER_MODE_REL);
/* Add the datagram position entries */
ktime_t *timeout = &ehci->hr_timeouts[event];
if (resched)
- *timeout = ktime_add(ktime_get(),
- ktime_set(0, event_delays_ns[event]));
+ *timeout = ktime_add(ktime_get(), event_delays_ns[event]);
ehci->enabled_hrtimer_events |= (1 << event);
/* Track only the lowest-numbered pending event */
*/
now = ktime_get();
for_each_set_bit(e, &events, EHCI_HRTIMER_NUM_EVENTS) {
- if (now.tv64 >= ehci->hr_timeouts[e].tv64)
+ if (now >= ehci->hr_timeouts[e])
event_handlers[e](ehci);
else
ehci_enable_event(ehci, e, false);
ktime_t *timeout = &fotg210->hr_timeouts[event];
if (resched)
- *timeout = ktime_add(ktime_get(),
- ktime_set(0, event_delays_ns[event]));
+ *timeout = ktime_add(ktime_get(), event_delays_ns[event]);
fotg210->enabled_hrtimer_events |= (1 << event);
/* Track only the lowest-numbered pending event */
*/
now = ktime_get();
for_each_set_bit(e, &events, FOTG210_HRTIMER_NUM_EVENTS) {
- if (now.tv64 >= fotg210->hr_timeouts[e].tv64)
+ if (now >= fotg210->hr_timeouts[e])
event_handlers[e](fotg210);
else
fotg210_enable_event(fotg210, e, false);
if (!list_empty(&controller->early_tx_list) &&
!hrtimer_is_queued(&controller->early_tx)) {
ret = HRTIMER_RESTART;
- hrtimer_forward_now(&controller->early_tx,
- ktime_set(0, 20 * NSEC_PER_USEC));
+ hrtimer_forward_now(&controller->early_tx, 20 * NSEC_PER_USEC);
}
spin_unlock_irqrestore(&musb->lock, flags);
unsigned long usecs = cppi41_channel->total_len / 10;
hrtimer_start_range_ns(&controller->early_tx,
- ktime_set(0, usecs * NSEC_PER_USEC),
- 20 * NSEC_PER_USEC,
- HRTIMER_MODE_REL);
+ usecs * NSEC_PER_USEC,
+ 20 * NSEC_PER_USEC,
+ HRTIMER_MODE_REL);
}
out:
struct io_event __user *event,
struct timespec __user *timeout)
{
- ktime_t until = { .tv64 = KTIME_MAX };
+ ktime_t until = KTIME_MAX;
long ret = 0;
if (timeout) {
* the ringbuffer empty. So in practice we should be ok, but it's
* something to be aware of when touching this code.
*/
- if (until.tv64 == 0)
+ if (until == 0)
aio_read_events(ctx, min_nr, nr, event, &ret);
else
wait_event_interruptible_hrtimeout(ctx->wait,
void dlm_scan_waiters(struct dlm_ls *ls)
{
struct dlm_lkb *lkb;
- ktime_t zero = ktime_set(0, 0);
s64 us;
s64 debug_maxus = 0;
u32 debug_scanned = 0;
mutex_lock(&ls->ls_waiters_mutex);
list_for_each_entry(lkb, &ls->ls_waiters, lkb_wait_reply) {
- if (ktime_equal(lkb->lkb_wait_time, zero))
+ if (!lkb->lkb_wait_time)
continue;
debug_scanned++;
if (us < dlm_config.ci_waitwarn_us)
continue;
- lkb->lkb_wait_time = zero;
+ lkb->lkb_wait_time = 0;
debug_expired++;
if (us > debug_maxus)
gl->gl_target = LM_ST_UNLOCKED;
gl->gl_demote_state = LM_ST_EXCLUSIVE;
gl->gl_ops = glops;
- gl->gl_dstamp = ktime_set(0, 0);
+ gl->gl_dstamp = 0;
preempt_disable();
/* We use the global stats to estimate the initial per-glock stats */
gl->gl_stats = this_cpu_ptr(sdp->sd_lkstats)->lkstats[glops->go_type];
struct nfs4_ff_layoutstat *layoutstat,
ktime_t now)
{
- static const ktime_t notime = {0};
s64 report_interval = FF_LAYOUTSTATS_REPORT_INTERVAL;
struct nfs4_flexfile_layout *ffl = FF_LAYOUT_FROM_HDR(mirror->layout);
nfs4_ff_start_busy_timer(&layoutstat->busy_timer, now);
- if (ktime_equal(mirror->start_time, notime))
+ if (!mirror->start_time)
mirror->start_time = now;
if (mirror->report_interval != 0)
report_interval = (s64)mirror->report_interval * 1000LL;
mlog(ML_HEARTBEAT,
"start = %lld, end = %lld, msec = %u, ret = %d\n",
- before_hb.tv64, after_hb.tv64, elapsed_msec, ret);
+ before_hb, after_hb, elapsed_msec, ret);
if (!kthread_should_stop() &&
elapsed_msec < reg->hr_timeout_ms) {
/*
* This gets called when the timer event triggers. We set the "expired"
* flag, but we do not re-arm the timer (in case it's necessary,
- * tintv.tv64 != 0) until the timer is accessed.
+ * tintv != 0) until the timer is accessed.
*/
static void timerfd_triggered(struct timerfd_ctx *ctx)
{
*/
void timerfd_clock_was_set(void)
{
- ktime_t moffs = ktime_mono_to_real((ktime_t){ .tv64 = 0 });
+ ktime_t moffs = ktime_mono_to_real(0);
struct timerfd_ctx *ctx;
unsigned long flags;
if (!ctx->might_cancel)
continue;
spin_lock_irqsave(&ctx->wqh.lock, flags);
- if (ctx->moffs.tv64 != moffs.tv64) {
- ctx->moffs.tv64 = KTIME_MAX;
+ if (ctx->moffs != moffs) {
+ ctx->moffs = KTIME_MAX;
ctx->ticks++;
wake_up_locked(&ctx->wqh);
}
static bool timerfd_canceled(struct timerfd_ctx *ctx)
{
- if (!ctx->might_cancel || ctx->moffs.tv64 != KTIME_MAX)
+ if (!ctx->might_cancel || ctx->moffs != KTIME_MAX)
return false;
- ctx->moffs = ktime_mono_to_real((ktime_t){ .tv64 = 0 });
+ ctx->moffs = ktime_mono_to_real(0);
return true;
}
else
remaining = hrtimer_expires_remaining_adjusted(&ctx->t.tmr);
- return remaining.tv64 < 0 ? ktime_set(0, 0): remaining;
+ return remaining < 0 ? 0: remaining;
}
static int timerfd_setup(struct timerfd_ctx *ctx, int flags,
ctx->t.tmr.function = timerfd_tmrproc;
}
- if (texp.tv64 != 0) {
+ if (texp != 0) {
if (isalarm(ctx)) {
if (flags & TFD_TIMER_ABSTIME)
alarm_start(&ctx->t.alarm, texp);
if (ctx->ticks) {
ticks = ctx->ticks;
- if (ctx->expired && ctx->tintv.tv64) {
+ if (ctx->expired && ctx->tintv) {
/*
- * If tintv.tv64 != 0, this is a periodic timer that
+ * If tintv != 0, this is a periodic timer that
* needs to be re-armed. We avoid doing it in the timer
* callback to avoid DoS attacks specifying a very
* short timer period.
else
hrtimer_init(&ctx->t.tmr, clockid, HRTIMER_MODE_ABS);
- ctx->moffs = ktime_mono_to_real((ktime_t){ .tv64 = 0 });
+ ctx->moffs = ktime_mono_to_real(0);
ufd = anon_inode_getfd("[timerfd]", &timerfd_fops, ctx,
O_RDWR | (flags & TFD_SHARED_FCNTL_FLAGS));
* We do not update "ticks" and "expired" since the timer will be
* re-programmed again in the following timerfd_setup() call.
*/
- if (ctx->expired && ctx->tintv.tv64) {
+ if (ctx->expired && ctx->tintv) {
if (isalarm(ctx))
alarm_forward_now(&ctx->t.alarm, ctx->tintv);
else
ctx = f.file->private_data;
spin_lock_irq(&ctx->wqh.lock);
- if (ctx->expired && ctx->tintv.tv64) {
+ if (ctx->expired && ctx->tintv) {
ctx->expired = 0;
if (isalarm(ctx)) {
struct arch_timer_kvm {
/* Virtual offset */
- cycle_t cntvoff;
+ u64 cntvoff;
};
struct arch_timer_cpu {
/* Registers: control register, timer value */
u32 cntv_ctl; /* Saved/restored */
- cycle_t cntv_cval; /* Saved/restored */
+ u64 cntv_cval; /* Saved/restored */
/*
* Anything that is not used directly from assembly code goes
* structure.
*/
struct clocksource {
- cycle_t (*read)(struct clocksource *cs);
- cycle_t mask;
+ u64 (*read)(struct clocksource *cs);
+ u64 mask;
u32 mult;
u32 shift;
u64 max_idle_ns;
#ifdef CONFIG_CLOCKSOURCE_WATCHDOG
/* Watchdog related data, used by the framework */
struct list_head wd_list;
- cycle_t cs_last;
- cycle_t wd_last;
+ u64 cs_last;
+ u64 wd_last;
#endif
struct module *owner;
};
#define CLOCK_SOURCE_RESELECT 0x100
/* simplify initialization of mask field */
-#define CLOCKSOURCE_MASK(bits) (cycle_t)((bits) < 64 ? ((1ULL<<(bits))-1) : -1)
+#define CLOCKSOURCE_MASK(bits) (u64)((bits) < 64 ? ((1ULL<<(bits))-1) : -1)
static inline u32 clocksource_freq2mult(u32 freq, u32 shift_constant, u64 from)
{
*
* XXX - This could use some mult_lxl_ll() asm optimization
*/
-static inline s64 clocksource_cyc2ns(cycle_t cycles, u32 mult, u32 shift)
+static inline s64 clocksource_cyc2ns(u64 cycles, u32 mult, u32 shift)
{
return ((u64) cycles * mult) >> shift;
}
extern int timekeeping_notify(struct clocksource *clock);
-extern cycle_t clocksource_mmio_readl_up(struct clocksource *);
-extern cycle_t clocksource_mmio_readl_down(struct clocksource *);
-extern cycle_t clocksource_mmio_readw_up(struct clocksource *);
-extern cycle_t clocksource_mmio_readw_down(struct clocksource *);
+extern u64 clocksource_mmio_readl_up(struct clocksource *);
+extern u64 clocksource_mmio_readl_down(struct clocksource *);
+extern u64 clocksource_mmio_readw_up(struct clocksource *);
+extern u64 clocksource_mmio_readw_down(struct clocksource *);
extern int clocksource_mmio_init(void __iomem *, const char *,
- unsigned long, int, unsigned, cycle_t (*)(struct clocksource *));
+ unsigned long, int, unsigned, u64 (*)(struct clocksource *));
extern int clocksource_i8253_init(void);
unsigned long freq);
void dw_apb_clocksource_register(struct dw_apb_clocksource *dw_cs);
void dw_apb_clocksource_start(struct dw_apb_clocksource *dw_cs);
-cycle_t dw_apb_clocksource_read(struct dw_apb_clocksource *dw_cs);
+u64 dw_apb_clocksource_read(struct dw_apb_clocksource *dw_cs);
#endif /* __DW_APB_TIMER_H__ */
#ifndef _LINUX_FUTEX_H
#define _LINUX_FUTEX_H
+#include <linux/ktime.h>
#include <uapi/linux/futex.h>
struct inode;
struct mm_struct;
struct task_struct;
-union ktime;
-long do_futex(u32 __user *uaddr, int op, u32 val, union ktime *timeout,
+long do_futex(u32 __user *uaddr, int op, u32 val, ktime_t *timeout,
u32 __user *uaddr2, u32 val2, u32 val3);
extern int
static inline void hrtimer_set_expires_tv64(struct hrtimer *timer, s64 tv64)
{
- timer->node.expires.tv64 = tv64;
- timer->_softexpires.tv64 = tv64;
+ timer->node.expires = tv64;
+ timer->_softexpires = tv64;
}
static inline void hrtimer_add_expires(struct hrtimer *timer, ktime_t time)
static inline s64 hrtimer_get_expires_tv64(const struct hrtimer *timer)
{
- return timer->node.expires.tv64;
+ return timer->node.expires;
}
static inline s64 hrtimer_get_softexpires_tv64(const struct hrtimer *timer)
{
- return timer->_softexpires.tv64;
+ return timer->_softexpires;
}
static inline s64 hrtimer_get_expires_ns(const struct hrtimer *timer)
* this resolution values.
*/
# define HIGH_RES_NSEC 1
-# define KTIME_HIGH_RES (ktime_t) { .tv64 = HIGH_RES_NSEC }
+# define KTIME_HIGH_RES (HIGH_RES_NSEC)
# define MONOTONIC_RES_NSEC HIGH_RES_NSEC
# define KTIME_MONOTONIC_RES KTIME_HIGH_RES
* hrtimer_start_range_ns() to prevent short timeouts.
*/
if (IS_ENABLED(CONFIG_TIME_LOW_RES) && timer->is_rel)
- rem.tv64 -= hrtimer_resolution;
+ rem -= hrtimer_resolution;
return rem;
}
unsigned long gic_addrspace_size, unsigned int cpu_vec,
unsigned int irqbase);
extern void gic_clocksource_init(unsigned int);
-extern cycle_t gic_read_count(void);
+extern u64 gic_read_count(void);
extern unsigned int gic_get_count_width(void);
-extern cycle_t gic_read_compare(void);
-extern void gic_write_compare(cycle_t cnt);
-extern void gic_write_cpu_compare(cycle_t cnt, int cpu);
+extern u64 gic_read_compare(void);
+extern void gic_write_compare(u64 cnt);
+extern void gic_write_cpu_compare(u64 cnt, int cpu);
extern void gic_start_count(void);
extern void gic_stop_count(void);
extern int gic_get_c0_compare_int(void);
#include <linux/time.h>
#include <linux/jiffies.h>
-/*
- * ktime_t:
- *
- * A single 64-bit variable is used to store the hrtimers
- * internal representation of time values in scalar nanoseconds. The
- * design plays out best on 64-bit CPUs, where most conversions are
- * NOPs and most arithmetic ktime_t operations are plain arithmetic
- * operations.
- *
- */
-union ktime {
- s64 tv64;
-};
-
-typedef union ktime ktime_t; /* Kill this */
+/* Nanosecond scalar representation for kernel time values */
+typedef s64 ktime_t;
/**
* ktime_set - Set a ktime_t variable from a seconds/nanoseconds value
static inline ktime_t ktime_set(const s64 secs, const unsigned long nsecs)
{
if (unlikely(secs >= KTIME_SEC_MAX))
- return (ktime_t){ .tv64 = KTIME_MAX };
+ return KTIME_MAX;
- return (ktime_t) { .tv64 = secs * NSEC_PER_SEC + (s64)nsecs };
+ return secs * NSEC_PER_SEC + (s64)nsecs;
}
/* Subtract two ktime_t variables. rem = lhs -rhs: */
-#define ktime_sub(lhs, rhs) \
- ({ (ktime_t){ .tv64 = (lhs).tv64 - (rhs).tv64 }; })
+#define ktime_sub(lhs, rhs) ((lhs) - (rhs))
/* Add two ktime_t variables. res = lhs + rhs: */
-#define ktime_add(lhs, rhs) \
- ({ (ktime_t){ .tv64 = (lhs).tv64 + (rhs).tv64 }; })
+#define ktime_add(lhs, rhs) ((lhs) + (rhs))
/*
* Same as ktime_add(), but avoids undefined behaviour on overflow; however,
* this means that you must check the result for overflow yourself.
*/
-#define ktime_add_unsafe(lhs, rhs) \
- ({ (ktime_t){ .tv64 = (u64) (lhs).tv64 + (rhs).tv64 }; })
+#define ktime_add_unsafe(lhs, rhs) ((u64) (lhs) + (rhs))
/*
* Add a ktime_t variable and a scalar nanosecond value.
* res = kt + nsval:
*/
-#define ktime_add_ns(kt, nsval) \
- ({ (ktime_t){ .tv64 = (kt).tv64 + (nsval) }; })
+#define ktime_add_ns(kt, nsval) ((kt) + (nsval))
/*
* Subtract a scalar nanosecod from a ktime_t variable
* res = kt - nsval:
*/
-#define ktime_sub_ns(kt, nsval) \
- ({ (ktime_t){ .tv64 = (kt).tv64 - (nsval) }; })
+#define ktime_sub_ns(kt, nsval) ((kt) - (nsval))
/* convert a timespec to ktime_t format: */
static inline ktime_t timespec_to_ktime(struct timespec ts)
}
/* Map the ktime_t to timespec conversion to ns_to_timespec function */
-#define ktime_to_timespec(kt) ns_to_timespec((kt).tv64)
+#define ktime_to_timespec(kt) ns_to_timespec((kt))
/* Map the ktime_t to timespec conversion to ns_to_timespec function */
-#define ktime_to_timespec64(kt) ns_to_timespec64((kt).tv64)
+#define ktime_to_timespec64(kt) ns_to_timespec64((kt))
/* Map the ktime_t to timeval conversion to ns_to_timeval function */
-#define ktime_to_timeval(kt) ns_to_timeval((kt).tv64)
+#define ktime_to_timeval(kt) ns_to_timeval((kt))
/* Convert ktime_t to nanoseconds - NOP in the scalar storage format: */
-#define ktime_to_ns(kt) ((kt).tv64)
-
-
-/**
- * ktime_equal - Compares two ktime_t variables to see if they are equal
- * @cmp1: comparable1
- * @cmp2: comparable2
- *
- * Compare two ktime_t variables.
- *
- * Return: 1 if equal.
- */
-static inline int ktime_equal(const ktime_t cmp1, const ktime_t cmp2)
-{
- return cmp1.tv64 == cmp2.tv64;
-}
+#define ktime_to_ns(kt) (kt)
/**
* ktime_compare - Compares two ktime_t variables for less, greater or equal
*/
static inline int ktime_compare(const ktime_t cmp1, const ktime_t cmp2)
{
- if (cmp1.tv64 < cmp2.tv64)
+ if (cmp1 < cmp2)
return -1;
- if (cmp1.tv64 > cmp2.tv64)
+ if (cmp1 > cmp2)
return 1;
return 0;
}
*/
BUG_ON(div < 0);
if (__builtin_constant_p(div) && !(div >> 32)) {
- s64 ns = kt.tv64;
+ s64 ns = kt;
u64 tmp = ns < 0 ? -ns : ns;
do_div(tmp, div);
* so catch them on 64bit as well.
*/
WARN_ON(div < 0);
- return kt.tv64 / div;
+ return kt / div;
}
#endif
static inline __must_check bool ktime_to_timespec_cond(const ktime_t kt,
struct timespec *ts)
{
- if (kt.tv64) {
+ if (kt) {
*ts = ktime_to_timespec(kt);
return true;
} else {
static inline __must_check bool ktime_to_timespec64_cond(const ktime_t kt,
struct timespec64 *ts)
{
- if (kt.tv64) {
+ if (kt) {
*ts = ktime_to_timespec64(kt);
return true;
} else {
* this resolution values.
*/
#define LOW_RES_NSEC TICK_NSEC
-#define KTIME_LOW_RES (ktime_t){ .tv64 = LOW_RES_NSEC }
+#define KTIME_LOW_RES (LOW_RES_NSEC)
static inline ktime_t ns_to_ktime(u64 ns)
{
- static const ktime_t ktime_zero = { .tv64 = 0 };
-
- return ktime_add_ns(ktime_zero, ns);
+ return ns;
}
static inline ktime_t ms_to_ktime(u64 ms)
{
- static const ktime_t ktime_zero = { .tv64 = 0 };
-
- return ktime_add_ms(ktime_zero, ms);
+ return ms * NSEC_PER_MSEC;
}
# include <linux/timekeeping.h>
int mlx4_FLOW_STEERING_IB_UC_QP_RANGE(struct mlx4_dev *dev, u32 min_range_qpn,
u32 max_range_qpn);
-cycle_t mlx4_read_clock(struct mlx4_dev *dev);
+u64 mlx4_read_clock(struct mlx4_dev *dev);
struct mlx4_active_ports {
DECLARE_BITMAP(ports, MLX4_MAX_PORTS);
static inline ktime_t net_invalid_timestamp(void)
{
- return ktime_set(0, 0);
+ return 0;
}
struct sk_buff *skb_clone_sk(struct sk_buff *skb);
static inline ktime_t tick_nohz_get_sleep_length(void)
{
- ktime_t len = { .tv64 = NSEC_PER_SEC/HZ };
-
- return len;
+ return NSEC_PER_SEC / HZ;
}
static inline u64 get_cpu_idle_time_us(int cpu, u64 *unused) { return -1; }
static inline u64 get_cpu_iowait_time_us(int cpu, u64 *unused) { return -1; }
#include <linux/types.h>
/* simplify initialization of mask field */
-#define CYCLECOUNTER_MASK(bits) (cycle_t)((bits) < 64 ? ((1ULL<<(bits))-1) : -1)
+#define CYCLECOUNTER_MASK(bits) (u64)((bits) < 64 ? ((1ULL<<(bits))-1) : -1)
/**
* struct cyclecounter - hardware abstraction for a free running counter
* @shift: cycle to nanosecond divisor (power of two)
*/
struct cyclecounter {
- cycle_t (*read)(const struct cyclecounter *cc);
- cycle_t mask;
+ u64 (*read)(const struct cyclecounter *cc);
+ u64 mask;
u32 mult;
u32 shift;
};
*/
struct timecounter {
const struct cyclecounter *cc;
- cycle_t cycle_last;
+ u64 cycle_last;
u64 nsec;
u64 mask;
u64 frac;
* @frac: pointer to storage for the fractional nanoseconds.
*/
static inline u64 cyclecounter_cyc2ns(const struct cyclecounter *cc,
- cycle_t cycles, u64 mask, u64 *frac)
+ u64 cycles, u64 mask, u64 *frac)
{
u64 ns = (u64) cycles;
* in the past.
*/
extern u64 timecounter_cyc2time(struct timecounter *tc,
- cycle_t cycle_tstamp);
+ u64 cycle_tstamp);
#endif
*/
struct tk_read_base {
struct clocksource *clock;
- cycle_t (*read)(struct clocksource *cs);
- cycle_t mask;
- cycle_t cycle_last;
+ u64 (*read)(struct clocksource *cs);
+ u64 mask;
+ u64 cycle_last;
u32 mult;
u32 shift;
u64 xtime_nsec;
struct timespec64 raw_time;
/* The following members are for timekeeping internal use */
- cycle_t cycle_interval;
+ u64 cycle_interval;
u64 xtime_interval;
s64 xtime_remainder;
u32 raw_interval;
extern void update_vsyscall_old(struct timespec *ts, struct timespec *wtm,
struct clocksource *c, u32 mult,
- cycle_t cycle_last);
+ u64 cycle_last);
extern void update_vsyscall_tz(void);
#else
* @cs_was_changed_seq: The sequence number of clocksource change events
*/
struct system_time_snapshot {
- cycle_t cycles;
+ u64 cycles;
ktime_t real;
ktime_t raw;
unsigned int clock_was_set_seq;
* timekeeping code to verify comparibility of two cycle values
*/
struct system_counterval_t {
- cycle_t cycles;
+ u64 cycles;
struct clocksource *cs;
};
typedef void (*rcu_callback_t)(struct rcu_head *head);
typedef void (*call_rcu_func_t)(struct rcu_head *head, rcu_callback_t func);
-/* clocksource cycle base type */
-typedef u64 cycle_t;
-
#endif /* __ASSEMBLY__ */
#endif /* _LINUX_TYPES_H */
hrtimer_init_on_stack(&__t.timer, CLOCK_MONOTONIC, \
HRTIMER_MODE_REL); \
hrtimer_init_sleeper(&__t, current); \
- if ((timeout).tv64 != KTIME_MAX) \
+ if ((timeout) != KTIME_MAX) \
hrtimer_start_range_ns(&__t.timer, timeout, \
current->timer_slack_ns, \
HRTIMER_MODE_REL); \
static inline int red_is_idling(const struct red_vars *v)
{
- return v->qidlestart.tv64 != 0;
+ return v->qidlestart != 0;
}
static inline void red_start_of_idle_period(struct red_vars *v)
static inline void red_end_of_idle_period(struct red_vars *v)
{
- v->qidlestart.tv64 = 0;
+ v->qidlestart = 0;
}
static inline void red_restart(struct red_vars *v)
*/
if (sock_flag(sk, SOCK_RCVTSTAMP) ||
(sk->sk_tsflags & SOF_TIMESTAMPING_RX_SOFTWARE) ||
- (kt.tv64 && sk->sk_tsflags & SOF_TIMESTAMPING_SOFTWARE) ||
- (hwtstamps->hwtstamp.tv64 &&
+ (kt && sk->sk_tsflags & SOF_TIMESTAMPING_SOFTWARE) ||
+ (hwtstamps->hwtstamp &&
(sk->sk_tsflags & SOF_TIMESTAMPING_RAW_HARDWARE)))
__sock_recv_timestamp(msg, sk, skb);
else
),
TP_fast_assign(
- __entry->expires = expires.tv64;
+ __entry->expires = expires;
__entry->alarm_type = flag;
),
TP_fast_assign(
__entry->alarm = alarm;
__entry->alarm_type = alarm->type;
- __entry->expires = alarm->node.expires.tv64;
- __entry->now = now.tv64;
+ __entry->expires = alarm->node.expires;
+ __entry->now = now;
),
TP_printk("alarmtimer:%p type:%s expires:%llu now:%llu",
TP_fast_assign(
__entry->hrtimer = hrtimer;
__entry->function = hrtimer->function;
- __entry->expires = hrtimer_get_expires(hrtimer).tv64;
- __entry->softexpires = hrtimer_get_softexpires(hrtimer).tv64;
+ __entry->expires = hrtimer_get_expires(hrtimer);
+ __entry->softexpires = hrtimer_get_softexpires(hrtimer);
),
TP_printk("hrtimer=%p function=%pf expires=%llu softexpires=%llu",
__entry->hrtimer, __entry->function,
- (unsigned long long)ktime_to_ns((ktime_t) {
- .tv64 = __entry->expires }),
- (unsigned long long)ktime_to_ns((ktime_t) {
- .tv64 = __entry->softexpires }))
+ (unsigned long long) __entry->expires,
+ (unsigned long long) __entry->softexpires)
);
/**
TP_fast_assign(
__entry->hrtimer = hrtimer;
- __entry->now = now->tv64;
+ __entry->now = *now;
__entry->function = hrtimer->function;
),
TP_printk("hrtimer=%p function=%pf now=%llu", __entry->hrtimer, __entry->function,
- (unsigned long long)ktime_to_ns((ktime_t) { .tv64 = __entry->now }))
- );
+ (unsigned long long) __entry->now)
+);
DECLARE_EVENT_CLASS(hrtimer_class,
restart->fn = futex_wait_restart;
restart->futex.uaddr = uaddr;
restart->futex.val = val;
- restart->futex.time = abs_time->tv64;
+ restart->futex.time = *abs_time;
restart->futex.bitset = bitset;
restart->futex.flags = flags | FLAGS_HAS_TIMEOUT;
ktime_t t, *tp = NULL;
if (restart->futex.flags & FLAGS_HAS_TIMEOUT) {
- t.tv64 = restart->futex.time;
+ t = restart->futex.time;
tp = &t;
}
restart->fn = do_no_restart_syscall;
* yield - it could be a while.
*/
if (unlikely(queued)) {
- ktime_t to = ktime_set(0, NSEC_PER_SEC/HZ);
+ ktime_t to = NSEC_PER_SEC / HZ;
set_current_state(TASK_UNINTERRUPTIBLE);
schedule_hrtimeout(&to, HRTIMER_MODE_REL);
struct hrtimer *tmr = &tsk->signal->real_timer;
if (!hrtimer_is_queued(tmr) &&
- tsk->signal->it_real_incr.tv64 != 0) {
+ tsk->signal->it_real_incr != 0) {
hrtimer_forward(tmr, tmr->base->get_time(),
tsk->signal->it_real_incr);
hrtimer_restart(tmr);
int do_sigtimedwait(const sigset_t *which, siginfo_t *info,
const struct timespec *ts)
{
- ktime_t *to = NULL, timeout = { .tv64 = KTIME_MAX };
+ ktime_t *to = NULL, timeout = KTIME_MAX;
struct task_struct *tsk = current;
sigset_t mask = *which;
int sig, ret = 0;
spin_lock_irq(&tsk->sighand->siglock);
sig = dequeue_signal(tsk, &mask, info);
- if (!sig && timeout.tv64) {
+ if (!sig && timeout) {
/*
* None ready, temporarily unblock those we're interested
* while we are sleeping in so that we'll be awakened when
min = freezer_delta;
expires = freezer_expires;
type = freezer_alarmtype;
- freezer_delta = ktime_set(0, 0);
+ freezer_delta = 0;
spin_unlock_irqrestore(&freezer_delta_lock, flags);
rtc = alarmtimer_get_rtcdev();
if (!next)
continue;
delta = ktime_sub(next->expires, base->gettime());
- if (!min.tv64 || (delta.tv64 < min.tv64)) {
+ if (!min || (delta < min)) {
expires = next->expires;
min = delta;
type = i;
}
}
- if (min.tv64 == 0)
+ if (min == 0)
return 0;
if (ktime_to_ns(min) < 2 * NSEC_PER_SEC) {
now = ktime_add(now, min);
/* Set alarm, if in the past reject suspend briefly to handle */
- ret = rtc_timer_start(rtc, &rtctimer, now, ktime_set(0, 0));
+ ret = rtc_timer_start(rtc, &rtctimer, now, 0);
if (ret < 0)
__pm_wakeup_event(ws, MSEC_PER_SEC);
return ret;
delta = ktime_sub(absexp, base->gettime());
spin_lock_irqsave(&freezer_delta_lock, flags);
- if (!freezer_delta.tv64 || (delta.tv64 < freezer_delta.tv64)) {
+ if (!freezer_delta || (delta < freezer_delta)) {
freezer_delta = delta;
freezer_expires = absexp;
freezer_alarmtype = type;
delta = ktime_sub(now, alarm->node.expires);
- if (delta.tv64 < 0)
+ if (delta < 0)
return 0;
- if (unlikely(delta.tv64 >= interval.tv64)) {
+ if (unlikely(delta >= interval)) {
s64 incr = ktime_to_ns(interval);
overrun = ktime_divns(delta, incr);
alarm->node.expires = ktime_add_ns(alarm->node.expires,
incr*overrun);
- if (alarm->node.expires.tv64 > now.tv64)
+ if (alarm->node.expires > now)
return overrun;
/*
* This (and the ktime_add() below) is the
}
/* Re-add periodic timers */
- if (ptr->it.alarm.interval.tv64) {
+ if (ptr->it.alarm.interval) {
ptr->it_overrun += alarm_forward(alarm, now,
ptr->it.alarm.interval);
result = ALARMTIMER_RESTART;
rem = ktime_sub(exp, alarm_bases[type].gettime());
- if (rem.tv64 <= 0)
+ if (rem <= 0)
return 0;
rmt = ktime_to_timespec(rem);
struct alarm alarm;
int ret = 0;
- exp.tv64 = restart->nanosleep.expires;
+ exp = restart->nanosleep.expires;
alarm_init(&alarm, type, alarmtimer_nsleep_wakeup);
if (alarmtimer_do_nsleep(&alarm, exp))
restart = ¤t->restart_block;
restart->fn = alarm_timer_nsleep_restart;
restart->nanosleep.clockid = type;
- restart->nanosleep.expires = exp.tv64;
+ restart->nanosleep.expires = exp;
restart->nanosleep.rmtp = rmtp;
ret = -ERESTART_RESTARTBLOCK;
void clockevents_shutdown(struct clock_event_device *dev)
{
clockevents_switch_state(dev, CLOCK_EVT_STATE_SHUTDOWN);
- dev->next_event.tv64 = KTIME_MAX;
+ dev->next_event = KTIME_MAX;
}
/**
if (dev->min_delta_ns >= MIN_DELTA_LIMIT) {
printk_deferred(KERN_WARNING
"CE: Reprogramming failure. Giving up\n");
- dev->next_event.tv64 = KTIME_MAX;
+ dev->next_event = KTIME_MAX;
return -ETIME;
}
int64_t delta;
int rc;
- if (unlikely(expires.tv64 < 0)) {
+ if (unlikely(expires < 0)) {
WARN_ON_ONCE(1);
return -ETIME;
}
static void clocksource_watchdog(unsigned long data)
{
struct clocksource *cs;
- cycle_t csnow, wdnow, cslast, wdlast, delta;
+ u64 csnow, wdnow, cslast, wdlast, delta;
int64_t wd_nsec, cs_nsec;
int next_cpu, reset_pending;
return 0;
expires = ktime_sub(hrtimer_get_expires(timer), new_base->offset);
- return expires.tv64 <= new_base->cpu_base->expires_next.tv64;
+ return expires <= new_base->cpu_base->expires_next;
#else
return 0;
#endif
* We use KTIME_SEC_MAX here, the maximum timeout which we can
* return to user space in a timespec:
*/
- if (res.tv64 < 0 || res.tv64 < lhs.tv64 || res.tv64 < rhs.tv64)
+ if (res < 0 || res < lhs || res < rhs)
res = ktime_set(KTIME_SEC_MAX, 0);
return res;
static ktime_t __hrtimer_get_next_event(struct hrtimer_cpu_base *cpu_base)
{
struct hrtimer_clock_base *base = cpu_base->clock_base;
- ktime_t expires, expires_next = { .tv64 = KTIME_MAX };
unsigned int active = cpu_base->active_bases;
+ ktime_t expires, expires_next = KTIME_MAX;
hrtimer_update_next_timer(cpu_base, NULL);
for (; active; base++, active >>= 1) {
next = timerqueue_getnext(&base->active);
timer = container_of(next, struct hrtimer, node);
expires = ktime_sub(hrtimer_get_expires(timer), base->offset);
- if (expires.tv64 < expires_next.tv64) {
+ if (expires < expires_next) {
expires_next = expires;
hrtimer_update_next_timer(cpu_base, timer);
}
* the clock bases so the result might be negative. Fix it up
* to prevent a false positive in clockevents_program_event().
*/
- if (expires_next.tv64 < 0)
- expires_next.tv64 = 0;
+ if (expires_next < 0)
+ expires_next = 0;
return expires_next;
}
#endif
expires_next = __hrtimer_get_next_event(cpu_base);
- if (skip_equal && expires_next.tv64 == cpu_base->expires_next.tv64)
+ if (skip_equal && expires_next == cpu_base->expires_next)
return;
- cpu_base->expires_next.tv64 = expires_next.tv64;
+ cpu_base->expires_next = expires_next;
/*
* If a hang was detected in the last timer interrupt then we
* CLOCK_REALTIME timer might be requested with an absolute
* expiry time which is less than base->offset. Set it to 0.
*/
- if (expires.tv64 < 0)
- expires.tv64 = 0;
+ if (expires < 0)
+ expires = 0;
- if (expires.tv64 >= cpu_base->expires_next.tv64)
+ if (expires >= cpu_base->expires_next)
return;
/* Update the pointer to the next expiring timer */
*/
static inline void hrtimer_init_hres(struct hrtimer_cpu_base *base)
{
- base->expires_next.tv64 = KTIME_MAX;
+ base->expires_next = KTIME_MAX;
base->hres_active = 0;
}
delta = ktime_sub(now, hrtimer_get_expires(timer));
- if (delta.tv64 < 0)
+ if (delta < 0)
return 0;
if (WARN_ON(timer->state & HRTIMER_STATE_ENQUEUED))
return 0;
- if (interval.tv64 < hrtimer_resolution)
- interval.tv64 = hrtimer_resolution;
+ if (interval < hrtimer_resolution)
+ interval = hrtimer_resolution;
- if (unlikely(delta.tv64 >= interval.tv64)) {
+ if (unlikely(delta >= interval)) {
s64 incr = ktime_to_ns(interval);
orun = ktime_divns(delta, incr);
hrtimer_add_expires_ns(timer, incr * orun);
- if (hrtimer_get_expires_tv64(timer) > now.tv64)
+ if (hrtimer_get_expires_tv64(timer) > now)
return orun;
/*
* This (and the ktime_add() below) is the
*/
timer->is_rel = mode & HRTIMER_MODE_REL;
if (timer->is_rel)
- tim = ktime_add_safe(tim, ktime_set(0, hrtimer_resolution));
+ tim = ktime_add_safe(tim, hrtimer_resolution);
#endif
return tim;
}
raw_spin_lock_irqsave(&cpu_base->lock, flags);
if (!__hrtimer_hres_active(cpu_base))
- expires = __hrtimer_get_next_event(cpu_base).tv64;
+ expires = __hrtimer_get_next_event(cpu_base);
raw_spin_unlock_irqrestore(&cpu_base->lock, flags);
* are right-of a not yet expired timer, because that
* timer will have to trigger a wakeup anyway.
*/
- if (basenow.tv64 < hrtimer_get_softexpires_tv64(timer))
+ if (basenow < hrtimer_get_softexpires_tv64(timer))
break;
__run_hrtimer(cpu_base, base, timer, &basenow);
BUG_ON(!cpu_base->hres_active);
cpu_base->nr_events++;
- dev->next_event.tv64 = KTIME_MAX;
+ dev->next_event = KTIME_MAX;
raw_spin_lock(&cpu_base->lock);
entry_time = now = hrtimer_update_base(cpu_base);
* timers which run their callback and need to be requeued on
* this CPU.
*/
- cpu_base->expires_next.tv64 = KTIME_MAX;
+ cpu_base->expires_next = KTIME_MAX;
__hrtimer_run_queues(cpu_base, now);
cpu_base->hang_detected = 1;
raw_spin_unlock(&cpu_base->lock);
delta = ktime_sub(now, entry_time);
- if ((unsigned int)delta.tv64 > cpu_base->max_hang_time)
- cpu_base->max_hang_time = (unsigned int) delta.tv64;
+ if ((unsigned int)delta > cpu_base->max_hang_time)
+ cpu_base->max_hang_time = (unsigned int) delta;
/*
* Limit it to a sensible value as we enforce a longer
* delay. Give the CPU at least 100ms to catch up.
*/
- if (delta.tv64 > 100 * NSEC_PER_MSEC)
+ if (delta > 100 * NSEC_PER_MSEC)
expires_next = ktime_add_ns(now, 100 * NSEC_PER_MSEC);
else
expires_next = ktime_add(now, delta);
ktime_t rem;
rem = hrtimer_expires_remaining(timer);
- if (rem.tv64 <= 0)
+ if (rem <= 0)
return 0;
rmt = ktime_to_timespec(rem);
* Optimize when a zero timeout value is given. It does not
* matter whether this is an absolute or a relative time.
*/
- if (expires && !expires->tv64) {
+ if (expires && *expires == 0) {
__set_current_state(TASK_RUNNING);
return 0;
}
* then we return 0 - which is correct.
*/
if (hrtimer_active(timer)) {
- if (rem.tv64 <= 0)
- rem.tv64 = NSEC_PER_USEC;
+ if (rem <= 0)
+ rem = NSEC_PER_USEC;
} else
- rem.tv64 = 0;
+ rem = 0;
return ktime_to_timeval(rem);
}
goto again;
}
expires = timeval_to_ktime(value->it_value);
- if (expires.tv64 != 0) {
+ if (expires != 0) {
tsk->signal->it_real_incr =
timeval_to_ktime(value->it_interval);
hrtimer_start(timer, expires, HRTIMER_MODE_REL);
} else
- tsk->signal->it_real_incr.tv64 = 0;
+ tsk->signal->it_real_incr = 0;
trace_itimer_state(ITIMER_REAL, value, 0);
spin_unlock_irq(&tsk->sighand->siglock);
#define JIFFIES_SHIFT 8
#endif
-static cycle_t jiffies_read(struct clocksource *cs)
+static u64 jiffies_read(struct clocksource *cs)
{
- return (cycle_t) jiffies;
+ return (u64) jiffies;
}
static struct clocksource clocksource_jiffies = {
if ((time_state == TIME_INS) && (time_status & STA_INS))
return ktime_set(ntp_next_leap_sec, 0);
- ret.tv64 = KTIME_MAX;
+ ret = KTIME_MAX;
return ret;
}
{
struct hrtimer *timer = &timr->it.real.timer;
- if (timr->it.real.interval.tv64 == 0)
+ if (timr->it.real.interval == 0)
return;
timr->it_overrun += (unsigned int) hrtimer_forward(timer,
timr = container_of(timer, struct k_itimer, it.real.timer);
spin_lock_irqsave(&timr->it_lock, flags);
- if (timr->it.real.interval.tv64 != 0)
+ if (timr->it.real.interval != 0)
si_private = ++timr->it_requeue_pending;
if (posix_timer_event(timr, si_private)) {
* we will not get a call back to restart it AND
* it should be restarted.
*/
- if (timr->it.real.interval.tv64 != 0) {
+ if (timr->it.real.interval != 0) {
ktime_t now = hrtimer_cb_get_time(timer);
/*
*/
#ifdef CONFIG_HIGH_RES_TIMERS
{
- ktime_t kj = ktime_set(0, NSEC_PER_SEC / HZ);
+ ktime_t kj = NSEC_PER_SEC / HZ;
- if (timr->it.real.interval.tv64 < kj.tv64)
+ if (timr->it.real.interval < kj)
now = ktime_add(now, kj);
}
#endif
iv = timr->it.real.interval;
/* interval timer ? */
- if (iv.tv64)
+ if (iv)
cur_setting->it_interval = ktime_to_timespec(iv);
else if (!hrtimer_active(timer) &&
(timr->it_sigev_notify & ~SIGEV_THREAD_ID) != SIGEV_NONE)
* timer move the expiry time forward by intervals, so
* expiry is > now.
*/
- if (iv.tv64 && (timr->it_requeue_pending & REQUEUE_PENDING ||
- (timr->it_sigev_notify & ~SIGEV_THREAD_ID) == SIGEV_NONE))
+ if (iv && (timr->it_requeue_pending & REQUEUE_PENDING ||
+ (timr->it_sigev_notify & ~SIGEV_THREAD_ID) == SIGEV_NONE))
timr->it_overrun += (unsigned int) hrtimer_forward(timer, now, iv);
remaining = __hrtimer_expires_remaining_adjusted(timer, now);
/* Return 0 only, when the timer is expired and not pending */
- if (remaining.tv64 <= 0) {
+ if (remaining <= 0) {
/*
* A single shot SIGEV_NONE timer must return 0, when
* it is expired !
common_timer_get(timr, old_setting);
/* disable the timer */
- timr->it.real.interval.tv64 = 0;
+ timr->it.real.interval = 0;
/*
* careful here. If smp we could be in the "fire" routine which will
* be spinning as we hold the lock. But this is ONLY an SMP issue.
static int common_timer_del(struct k_itimer *timer)
{
- timer->it.real.interval.tv64 = 0;
+ timer->it.real.interval = 0;
if (hrtimer_try_to_cancel(&timer->it.real.timer) < 0)
return TIMER_RETRY;
ce_broadcast_hrtimer.event_handler(&ce_broadcast_hrtimer);
if (clockevent_state_oneshot(&ce_broadcast_hrtimer))
- if (ce_broadcast_hrtimer.next_event.tv64 != KTIME_MAX)
+ if (ce_broadcast_hrtimer.next_event != KTIME_MAX)
return HRTIMER_RESTART;
return HRTIMER_NORESTART;
bool bc_local;
raw_spin_lock(&tick_broadcast_lock);
- dev->next_event.tv64 = KTIME_MAX;
- next_event.tv64 = KTIME_MAX;
+ dev->next_event = KTIME_MAX;
+ next_event = KTIME_MAX;
cpumask_clear(tmpmask);
now = ktime_get();
/* Find all expired events */
for_each_cpu(cpu, tick_broadcast_oneshot_mask) {
td = &per_cpu(tick_cpu_device, cpu);
- if (td->evtdev->next_event.tv64 <= now.tv64) {
+ if (td->evtdev->next_event <= now) {
cpumask_set_cpu(cpu, tmpmask);
/*
* Mark the remote cpu in the pending mask, so
* timer in tick_broadcast_oneshot_control().
*/
cpumask_set_cpu(cpu, tick_broadcast_pending_mask);
- } else if (td->evtdev->next_event.tv64 < next_event.tv64) {
- next_event.tv64 = td->evtdev->next_event.tv64;
+ } else if (td->evtdev->next_event < next_event) {
+ next_event = td->evtdev->next_event;
next_cpu = cpu;
}
}
* - There are pending events on sleeping CPUs which were not
* in the event mask
*/
- if (next_event.tv64 != KTIME_MAX)
+ if (next_event != KTIME_MAX)
tick_broadcast_set_event(dev, next_cpu, next_event);
raw_spin_unlock(&tick_broadcast_lock);
{
if (!(bc->features & CLOCK_EVT_FEAT_HRTIMER))
return 0;
- if (bc->next_event.tv64 == KTIME_MAX)
+ if (bc->next_event == KTIME_MAX)
return 0;
return bc->bound_on == cpu ? -EBUSY : 0;
}
if (bc->features & CLOCK_EVT_FEAT_HRTIMER) {
if (broadcast_needs_cpu(bc, smp_processor_id()))
return;
- if (dev->next_event.tv64 < bc->next_event.tv64)
+ if (dev->next_event < bc->next_event)
return;
}
clockevents_switch_state(dev, CLOCK_EVT_STATE_SHUTDOWN);
*/
if (cpumask_test_cpu(cpu, tick_broadcast_force_mask)) {
ret = -EBUSY;
- } else if (dev->next_event.tv64 < bc->next_event.tv64) {
+ } else if (dev->next_event < bc->next_event) {
tick_broadcast_set_event(bc, cpu, dev->next_event);
/*
* In case of hrtimer broadcasts the
/*
* Bail out if there is no next event.
*/
- if (dev->next_event.tv64 == KTIME_MAX)
+ if (dev->next_event == KTIME_MAX)
goto out;
/*
* If the pending bit is not set, then we are
* nohz fixups.
*/
now = ktime_get();
- if (dev->next_event.tv64 <= now.tv64) {
+ if (dev->next_event <= now) {
cpumask_set_cpu(cpu, tick_broadcast_force_mask);
goto out;
}
tick_next_period);
tick_broadcast_set_event(bc, cpu, tick_next_period);
} else
- bc->next_event.tv64 = KTIME_MAX;
+ bc->next_event = KTIME_MAX;
} else {
/*
* The first cpu which switches to oneshot mode sets
struct clock_event_device *newdev, int cpu,
const struct cpumask *cpumask)
{
- ktime_t next_event;
void (*handler)(struct clock_event_device *) = NULL;
+ ktime_t next_event = 0;
/*
* First device setup ?
else
tick_do_timer_cpu = TICK_DO_TIMER_NONE;
tick_next_period = ktime_get();
- tick_period = ktime_set(0, NSEC_PER_SEC / HZ);
+ tick_period = NSEC_PER_SEC / HZ;
}
/*
{
struct clock_event_device *dev = __this_cpu_read(tick_cpu_device.evtdev);
- if (unlikely(expires.tv64 == KTIME_MAX)) {
+ if (unlikely(expires == KTIME_MAX)) {
/*
* We don't need the clock event device any more, stop it.
*/
* Do a quick check without holding jiffies_lock:
*/
delta = ktime_sub(now, last_jiffies_update);
- if (delta.tv64 < tick_period.tv64)
+ if (delta < tick_period)
return;
/* Reevaluate with jiffies_lock held */
write_seqlock(&jiffies_lock);
delta = ktime_sub(now, last_jiffies_update);
- if (delta.tv64 >= tick_period.tv64) {
+ if (delta >= tick_period) {
delta = ktime_sub(delta, tick_period);
last_jiffies_update = ktime_add(last_jiffies_update,
tick_period);
/* Slow path for long timeouts */
- if (unlikely(delta.tv64 >= tick_period.tv64)) {
+ if (unlikely(delta >= tick_period)) {
s64 incr = ktime_to_ns(tick_period);
ticks = ktime_divns(delta, incr);
write_seqlock(&jiffies_lock);
/* Did we start the jiffies update yet ? */
- if (last_jiffies_update.tv64 == 0)
+ if (last_jiffies_update == 0)
last_jiffies_update = tick_next_period;
period = last_jiffies_update;
write_sequnlock(&jiffies_lock);
/* Read jiffies and the time when jiffies were updated last */
do {
seq = read_seqbegin(&jiffies_lock);
- basemono = last_jiffies_update.tv64;
+ basemono = last_jiffies_update;
basejiff = jiffies;
} while (read_seqretry(&jiffies_lock, seq));
ts->last_jiffies = basejiff;
*/
delta = next_tick - basemono;
if (delta <= (u64)TICK_NSEC) {
- tick.tv64 = 0;
+ tick = 0;
/*
* Tell the timer code that the base is not idle, i.e. undo
expires = KTIME_MAX;
expires = min_t(u64, expires, next_tick);
- tick.tv64 = expires;
+ tick = expires;
/* Skip reprogram of event if its not changed */
- if (ts->tick_stopped && (expires == dev->next_event.tv64))
+ if (ts->tick_stopped && (expires == dev->next_event))
goto out;
/*
}
if (unlikely(ts->nohz_mode == NOHZ_MODE_INACTIVE)) {
- ts->sleep_length = (ktime_t) { .tv64 = NSEC_PER_SEC/HZ };
+ ts->sleep_length = NSEC_PER_SEC / HZ;
return false;
}
ts->idle_calls++;
expires = tick_nohz_stop_sched_tick(ts, now, cpu);
- if (expires.tv64 > 0LL) {
+ if (expires > 0LL) {
ts->idle_sleeps++;
ts->idle_expires = expires;
}
struct pt_regs *regs = get_irq_regs();
ktime_t now = ktime_get();
- dev->next_event.tv64 = KTIME_MAX;
+ dev->next_event = KTIME_MAX;
tick_sched_do_timer(now);
tick_sched_handle(ts, regs);
*/
static u64 timecounter_read_delta(struct timecounter *tc)
{
- cycle_t cycle_now, cycle_delta;
+ u64 cycle_now, cycle_delta;
u64 ns_offset;
/* read cycle counter: */
* time previous to the time stored in the cycle counter.
*/
static u64 cc_cyc2ns_backwards(const struct cyclecounter *cc,
- cycle_t cycles, u64 mask, u64 frac)
+ u64 cycles, u64 mask, u64 frac)
{
u64 ns = (u64) cycles;
}
u64 timecounter_cyc2time(struct timecounter *tc,
- cycle_t cycle_tstamp)
+ u64 cycle_tstamp)
{
u64 delta = (cycle_tstamp - tc->cycle_last) & tc->cc->mask;
u64 nsec = tc->nsec, frac = tc->frac;
*/
set_normalized_timespec64(&tmp, -tk->wall_to_monotonic.tv_sec,
-tk->wall_to_monotonic.tv_nsec);
- WARN_ON_ONCE(tk->offs_real.tv64 != timespec64_to_ktime(tmp).tv64);
+ WARN_ON_ONCE(tk->offs_real != timespec64_to_ktime(tmp));
tk->wall_to_monotonic = wtm;
set_normalized_timespec64(&tmp, -wtm.tv_sec, -wtm.tv_nsec);
tk->offs_real = timespec64_to_ktime(tmp);
#ifdef CONFIG_DEBUG_TIMEKEEPING
#define WARNING_FREQ (HZ*300) /* 5 minute rate-limiting */
-static void timekeeping_check_update(struct timekeeper *tk, cycle_t offset)
+static void timekeeping_check_update(struct timekeeper *tk, u64 offset)
{
- cycle_t max_cycles = tk->tkr_mono.clock->max_cycles;
+ u64 max_cycles = tk->tkr_mono.clock->max_cycles;
const char *name = tk->tkr_mono.clock->name;
if (offset > max_cycles) {
}
}
-static inline cycle_t timekeeping_get_delta(struct tk_read_base *tkr)
+static inline u64 timekeeping_get_delta(struct tk_read_base *tkr)
{
struct timekeeper *tk = &tk_core.timekeeper;
- cycle_t now, last, mask, max, delta;
+ u64 now, last, mask, max, delta;
unsigned int seq;
/*
return delta;
}
#else
-static inline void timekeeping_check_update(struct timekeeper *tk, cycle_t offset)
+static inline void timekeeping_check_update(struct timekeeper *tk, u64 offset)
{
}
-static inline cycle_t timekeeping_get_delta(struct tk_read_base *tkr)
+static inline u64 timekeeping_get_delta(struct tk_read_base *tkr)
{
- cycle_t cycle_now, delta;
+ u64 cycle_now, delta;
/* read clocksource */
cycle_now = tkr->read(tkr->clock);
*/
static void tk_setup_internals(struct timekeeper *tk, struct clocksource *clock)
{
- cycle_t interval;
+ u64 interval;
u64 tmp, ntpinterval;
struct clocksource *old_clock;
if (tmp == 0)
tmp = 1;
- interval = (cycle_t) tmp;
+ interval = (u64) tmp;
tk->cycle_interval = interval;
/* Go back from cycles -> shifted ns */
static inline u32 arch_gettimeoffset(void) { return 0; }
#endif
-static inline u64 timekeeping_delta_to_ns(struct tk_read_base *tkr,
- cycle_t delta)
+static inline u64 timekeeping_delta_to_ns(struct tk_read_base *tkr, u64 delta)
{
u64 nsec;
static inline u64 timekeeping_get_ns(struct tk_read_base *tkr)
{
- cycle_t delta;
+ u64 delta;
delta = timekeeping_get_delta(tkr);
return timekeeping_delta_to_ns(tkr, delta);
}
-static inline u64 timekeeping_cycles_to_ns(struct tk_read_base *tkr,
- cycle_t cycles)
+static inline u64 timekeeping_cycles_to_ns(struct tk_read_base *tkr, u64 cycles)
{
- cycle_t delta;
+ u64 delta;
/* calculate the delta since the last update_wall_time */
delta = clocksource_delta(cycles, tkr->cycle_last, tkr->mask);
EXPORT_SYMBOL_GPL(ktime_get_boot_fast_ns);
/* Suspend-time cycles value for halted fast timekeeper. */
-static cycle_t cycles_at_suspend;
+static u64 cycles_at_suspend;
-static cycle_t dummy_clock_read(struct clocksource *cs)
+static u64 dummy_clock_read(struct clocksource *cs)
{
return cycles_at_suspend;
}
static inline void tk_update_leap_state(struct timekeeper *tk)
{
tk->next_leap_ktime = ntp_get_next_leap();
- if (tk->next_leap_ktime.tv64 != KTIME_MAX)
+ if (tk->next_leap_ktime != KTIME_MAX)
/* Convert to monotonic time */
tk->next_leap_ktime = ktime_sub(tk->next_leap_ktime, tk->offs_real);
}
static void timekeeping_forward_now(struct timekeeper *tk)
{
struct clocksource *clock = tk->tkr_mono.clock;
- cycle_t cycle_now, delta;
+ u64 cycle_now, delta;
u64 nsec;
cycle_now = tk->tkr_mono.read(clock);
ktime_t base_real;
u64 nsec_raw;
u64 nsec_real;
- cycle_t now;
+ u64 now;
WARN_ON_ONCE(timekeeping_suspended);
* interval is partial_history_cycles.
*/
static int adjust_historical_crosststamp(struct system_time_snapshot *history,
- cycle_t partial_history_cycles,
- cycle_t total_history_cycles,
+ u64 partial_history_cycles,
+ u64 total_history_cycles,
bool discontinuity,
struct system_device_crosststamp *ts)
{
/*
* cycle_between - true if test occurs chronologically between before and after
*/
-static bool cycle_between(cycle_t before, cycle_t test, cycle_t after)
+static bool cycle_between(u64 before, u64 test, u64 after)
{
if (test > before && test < after)
return true;
{
struct system_counterval_t system_counterval;
struct timekeeper *tk = &tk_core.timekeeper;
- cycle_t cycles, now, interval_start;
+ u64 cycles, now, interval_start;
unsigned int clock_was_set_seq = 0;
ktime_t base_real, base_raw;
u64 nsec_real, nsec_raw;
* current interval
*/
if (do_interp) {
- cycle_t partial_history_cycles, total_history_cycles;
+ u64 partial_history_cycles, total_history_cycles;
bool discontinuity;
/*
struct clocksource *clock = tk->tkr_mono.clock;
unsigned long flags;
struct timespec64 ts_new, ts_delta;
- cycle_t cycle_now;
+ u64 cycle_now;
sleeptime_injected = false;
read_persistent_clock64(&ts_new);
*
* Returns the unconsumed cycles.
*/
-static cycle_t logarithmic_accumulation(struct timekeeper *tk, cycle_t offset,
- u32 shift,
- unsigned int *clock_set)
+static u64 logarithmic_accumulation(struct timekeeper *tk, u64 offset,
+ u32 shift, unsigned int *clock_set)
{
- cycle_t interval = tk->cycle_interval << shift;
+ u64 interval = tk->cycle_interval << shift;
u64 raw_nsecs;
/* If the offset is smaller than a shifted interval, do nothing */
{
struct timekeeper *real_tk = &tk_core.timekeeper;
struct timekeeper *tk = &shadow_timekeeper;
- cycle_t offset;
+ u64 offset;
int shift = 0, maxshift;
unsigned int clock_set = 0;
unsigned long flags;
}
/* Handle leapsecond insertion adjustments */
- if (unlikely(base.tv64 >= tk->next_leap_ktime.tv64))
+ if (unlikely(base >= tk->next_leap_ktime))
*offs_real = ktime_sub(tk->offs_real, ktime_set(1, 0));
} while (read_seqcount_retry(&tk_core.seq, seq));
#endif
#ifdef CONFIG_CLOCKSOURCE_VALIDATE_LAST_CYCLE
-static inline cycle_t clocksource_delta(cycle_t now, cycle_t last, cycle_t mask)
+static inline u64 clocksource_delta(u64 now, u64 last, u64 mask)
{
- cycle_t ret = (now - last) & mask;
+ u64 ret = (now - last) & mask;
/*
* Prevent time going backwards by checking the MSB of mask in
return ret & ~(mask >> 1) ? 0 : ret;
}
#else
-static inline cycle_t clocksource_delta(cycle_t now, cycle_t last, cycle_t mask)
+static inline u64 clocksource_delta(u64 now, u64 last, u64 mask)
{
return (now - last) & mask;
}
}
}
-static cycle_t ftrace_update_time;
+static u64 ftrace_update_time;
unsigned long ftrace_update_tot_cnt;
static inline int ops_traces_mod(struct ftrace_ops *ops)
{
struct ftrace_page *pg;
struct dyn_ftrace *p;
- cycle_t start, stop;
+ u64 start, stop;
unsigned long update_cnt = 0;
unsigned long rec_flags = 0;
int i;
}
__setup("tp_printk", set_tracepoint_printk);
-unsigned long long ns2usecs(cycle_t nsec)
+unsigned long long ns2usecs(u64 nsec)
{
nsec += 500;
do_div(nsec, 1000);
return read;
}
-static cycle_t buffer_ftrace_now(struct trace_buffer *buf, int cpu)
+static u64 buffer_ftrace_now(struct trace_buffer *buf, int cpu)
{
u64 ts;
return ts;
}
-cycle_t ftrace_now(int cpu)
+u64 ftrace_now(int cpu)
{
return buffer_ftrace_now(&global_trace.trace_buffer, cpu);
}
unsigned long policy;
unsigned long rt_priority;
unsigned long skipped_entries;
- cycle_t preempt_timestamp;
+ u64 preempt_timestamp;
pid_t pid;
kuid_t uid;
char comm[TASK_COMM_LEN];
struct trace_array *tr;
struct ring_buffer *buffer;
struct trace_array_cpu __percpu *data;
- cycle_t time_start;
+ u64 time_start;
int cpu;
};
}
#endif /* CONFIG_STACKTRACE */
-extern cycle_t ftrace_now(int cpu);
+extern u64 ftrace_now(int cpu);
extern void trace_find_cmdline(int pid, char comm[]);
extern void trace_event_follow_fork(struct trace_array *tr, bool enable);
#endif /* CONFIG_FTRACE_STARTUP_TEST */
extern void *head_page(struct trace_array_cpu *data);
-extern unsigned long long ns2usecs(cycle_t nsec);
+extern unsigned long long ns2usecs(u64 nsec);
extern int
trace_vbprintk(unsigned long ip, const char *fmt, va_list args);
extern int
/*
* Should this new latency be reported/recorded?
*/
-static bool report_latency(struct trace_array *tr, cycle_t delta)
+static bool report_latency(struct trace_array *tr, u64 delta)
{
if (tracing_thresh) {
if (delta < tracing_thresh)
unsigned long parent_ip,
int cpu)
{
- cycle_t T0, T1, delta;
+ u64 T0, T1, delta;
unsigned long flags;
int pc;
/*
* Should this new latency be reported/recorded?
*/
-static bool report_latency(struct trace_array *tr, cycle_t delta)
+static bool report_latency(struct trace_array *tr, u64 delta)
{
if (tracing_thresh) {
if (delta < tracing_thresh)
struct task_struct *prev, struct task_struct *next)
{
struct trace_array_cpu *data;
- cycle_t T0, T1, delta;
+ u64 T0, T1, delta;
unsigned long flags;
long disabled;
int cpu;
while (*p) {
parent = *p;
ptr = rb_entry(parent, struct timerqueue_node, node);
- if (node->expires.tv64 < ptr->expires.tv64)
+ if (node->expires < ptr->expires)
p = &(*p)->rb_left;
else
p = &(*p)->rb_right;
rb_link_node(&node->node, parent, p);
rb_insert_color(&node->node, &head->head);
- if (!head->next || node->expires.tv64 < head->next->expires.tv64) {
+ if (!head->next || node->expires < head->next->expires) {
head->next = node;
return true;
}
seq_printf(m, "%c ", (op->flags & RX_CHECK_DLC) ? 'd' : ' ');
- if (op->kt_ival1.tv64)
+ if (op->kt_ival1)
seq_printf(m, "timeo=%lld ",
(long long)ktime_to_us(op->kt_ival1));
- if (op->kt_ival2.tv64)
+ if (op->kt_ival2)
seq_printf(m, "thr=%lld ",
(long long)ktime_to_us(op->kt_ival2));
else
seq_printf(m, "[%u] ", op->nframes);
- if (op->kt_ival1.tv64)
+ if (op->kt_ival1)
seq_printf(m, "t1=%lld ",
(long long)ktime_to_us(op->kt_ival1));
- if (op->kt_ival2.tv64)
+ if (op->kt_ival2)
seq_printf(m, "t2=%lld ",
(long long)ktime_to_us(op->kt_ival2));
static void bcm_tx_start_timer(struct bcm_op *op)
{
- if (op->kt_ival1.tv64 && op->count)
+ if (op->kt_ival1 && op->count)
hrtimer_start(&op->timer,
ktime_add(ktime_get(), op->kt_ival1),
HRTIMER_MODE_ABS);
- else if (op->kt_ival2.tv64)
+ else if (op->kt_ival2)
hrtimer_start(&op->timer,
ktime_add(ktime_get(), op->kt_ival2),
HRTIMER_MODE_ABS);
struct bcm_op *op = (struct bcm_op *)data;
struct bcm_msg_head msg_head;
- if (op->kt_ival1.tv64 && (op->count > 0)) {
+ if (op->kt_ival1 && (op->count > 0)) {
op->count--;
if (!op->count && (op->flags & TX_COUNTEVT)) {
}
bcm_can_tx(op);
- } else if (op->kt_ival2.tv64)
+ } else if (op->kt_ival2)
bcm_can_tx(op);
bcm_tx_start_timer(op);
lastdata->flags |= (RX_RECV|RX_THR);
/* throttling mode inactive ? */
- if (!op->kt_ival2.tv64) {
+ if (!op->kt_ival2) {
/* send RX_CHANGED to the user immediately */
bcm_rx_changed(op, lastdata);
return;
return;
/* first reception with enabled throttling mode */
- if (!op->kt_lastmsg.tv64)
+ if (!op->kt_lastmsg)
goto rx_changed_settime;
/* got a second frame inside a potential throttle period? */
if (op->flags & RX_NO_AUTOTIMER)
return;
- if (op->kt_ival1.tv64)
+ if (op->kt_ival1)
hrtimer_start(&op->timer, op->kt_ival1, HRTIMER_MODE_REL);
}
return HRTIMER_RESTART;
} else {
/* rearm throttle handling */
- op->kt_lastmsg = ktime_set(0, 0);
+ op->kt_lastmsg = 0;
return HRTIMER_NORESTART;
}
}
op->kt_ival2 = bcm_timeval_to_ktime(msg_head->ival2);
/* disable an active timer due to zero values? */
- if (!op->kt_ival1.tv64 && !op->kt_ival2.tv64)
+ if (!op->kt_ival1 && !op->kt_ival2)
hrtimer_cancel(&op->timer);
}
op->kt_ival2 = bcm_timeval_to_ktime(msg_head->ival2);
/* disable an active timer due to zero value? */
- if (!op->kt_ival1.tv64)
+ if (!op->kt_ival1)
hrtimer_cancel(&op->timer);
/*
* In any case cancel the throttle timer, flush
* potentially blocked msgs and reset throttle handling
*/
- op->kt_lastmsg = ktime_set(0, 0);
+ op->kt_lastmsg = 0;
hrtimer_cancel(&op->thrtimer);
bcm_rx_thr_flush(op, 1);
}
- if ((op->flags & STARTTIMER) && op->kt_ival1.tv64)
+ if ((op->flags & STARTTIMER) && op->kt_ival1)
hrtimer_start(&op->timer, op->kt_ival1,
HRTIMER_MODE_REL);
}
/* clear the skb timestamp if not configured the other way */
if (!(gwj->flags & CGW_FLAGS_CAN_SRC_TSTAMP))
- nskb->tstamp.tv64 = 0;
+ nskb->tstamp = 0;
/* send to netdevice */
if (can_send(nskb, gwj->flags & CGW_FLAGS_CAN_ECHO))
static inline void net_timestamp_set(struct sk_buff *skb)
{
- skb->tstamp.tv64 = 0;
+ skb->tstamp = 0;
if (static_key_false(&netstamp_needed))
__net_timestamp(skb);
}
#define net_timestamp_check(COND, SKB) \
if (static_key_false(&netstamp_needed)) { \
- if ((COND) && !(SKB)->tstamp.tv64) \
+ if ((COND) && !(SKB)->tstamp) \
__net_timestamp(SKB); \
} \
*/
void skb_scrub_packet(struct sk_buff *skb, bool xnet)
{
- skb->tstamp.tv64 = 0;
+ skb->tstamp = 0;
skb->pkt_type = PACKET_HOST;
skb->skb_iif = 0;
skb->ignore_df = 0;
skb_shinfo(skb)->gso_size = tcp_skb_mss(skb);
/* Our usage of tstamp should remain private */
- skb->tstamp.tv64 = 0;
+ skb->tstamp = 0;
/* Cleanup our debris for IP stacks */
memset(skb->cb, 0, max(sizeof(struct inet_skb_parm),
#endif
/* Do not fool tcpdump (if any), clean our debris */
- skb->tstamp.tv64 = 0;
+ skb->tstamp = 0;
return skb;
}
EXPORT_SYMBOL(tcp_make_synack);
ipv6h->saddr = hao->addr;
hao->addr = tmp_addr;
- if (skb->tstamp.tv64 == 0)
+ if (skb->tstamp == 0)
__net_timestamp(skb);
return true;
int allow = 0;
spin_lock_bh(&mip6_report_rl.lock);
- if (!ktime_equal(mip6_report_rl.stamp, stamp) ||
+ if (mip6_report_rl.stamp != stamp ||
mip6_report_rl.iif != iif ||
!ipv6_addr_equal(&mip6_report_rl.src, src) ||
!ipv6_addr_equal(&mip6_report_rl.dst, dst)) {
rc = skb_copy_datagram_msg(skb, sizeof(struct ipxhdr), msg, copied);
if (rc)
goto out_free;
- if (skb->tstamp.tv64)
+ if (skb->tstamp)
sk->sk_stamp = skb->tstamp;
if (sipx) {
if (skb->len > max_sifs_size)
hrtimer_start(&local->ifs_timer,
- ktime_set(0, hw->phy->lifs_period * NSEC_PER_USEC),
+ hw->phy->lifs_period * NSEC_PER_USEC,
HRTIMER_MODE_REL);
else
hrtimer_start(&local->ifs_timer,
- ktime_set(0, hw->phy->sifs_period * NSEC_PER_USEC),
+ hw->phy->sifs_period * NSEC_PER_USEC,
HRTIMER_MODE_REL);
} else {
ieee802154_wake_queue(hw);
/* set conntrack timestamp, if enabled. */
tstamp = nf_conn_tstamp_find(ct);
if (tstamp) {
- if (skb->tstamp.tv64 == 0)
+ if (skb->tstamp == 0)
__net_timestamp(skb);
tstamp->start = ktime_to_ns(skb->tstamp);
goto nla_put_failure;
}
- if (skb->tstamp.tv64) {
+ if (skb->tstamp) {
struct nfulnl_msg_packet_timestamp ts;
struct timespec64 kts = ktime_to_timespec64(skb->tstamp);
ts.sec = cpu_to_be64(kts.tv_sec);
+ nla_total_size(sizeof(u_int32_t)) /* skbinfo */
+ nla_total_size(sizeof(u_int32_t)); /* cap_len */
- if (entskb->tstamp.tv64)
+ if (entskb->tstamp)
size += nla_total_size(sizeof(struct nfqnl_msg_packet_timestamp));
size += nfqnl_get_bridge_size(entry);
if (nfqnl_put_bridge(entry, skb) < 0)
goto nla_put_failure;
- if (entskb->tstamp.tv64) {
+ if (entskb->tstamp) {
struct nfqnl_msg_packet_timestamp ts;
struct timespec64 kts = ktime_to_timespec64(entskb->tstamp);
* may happen that the same packet matches both rules if
* it arrived at the right moment before 13:00.
*/
- if (skb->tstamp.tv64 == 0)
+ if (skb->tstamp == 0)
__net_timestamp((struct sk_buff *)skb);
stamp = ktime_to_ns(skb->tstamp);
if (delay) {
ktime_t time;
- time = ktime_set(0, 0);
+ time = 0;
time = ktime_add_ns(time, PSCHED_TICKS2NS(now + delay));
hrtimer_start(&q->delay_timer, time, HRTIMER_MODE_ABS_PINNED);
}
* from the network (tstamp will be updated).
*/
if (G_TC_FROM(skb->tc_verd) & AT_INGRESS)
- skb->tstamp.tv64 = 0;
+ skb->tstamp = 0;
#endif
if (q->qdisc) {
*/
peer->rto = msecs_to_jiffies(net->sctp.rto_initial);
- peer->last_time_heard = ktime_set(0, 0);
+ peer->last_time_heard = 0;
peer->last_time_ecne_reduced = jiffies;
peer->param_flags = SPP_HB_DISABLE |
/* Race occurred between timestamp enabling and packet
receiving. Fill in the current time for now. */
- if (need_software_tstamp && skb->tstamp.tv64 == 0)
+ if (need_software_tstamp && skb->tstamp == 0)
__net_timestamp(skb);
if (need_software_tstamp) {
}
len = svc_addr_len(svc_addr(rqstp));
rqstp->rq_addrlen = len;
- if (skb->tstamp.tv64 == 0) {
+ if (skb->tstamp == 0) {
skb->tstamp = ktime_get_real();
/* Don't enable netstamp, sunrpc doesn't
need that much accuracy */
if (x->curlft.bytes >= x->lft.hard_byte_limit ||
x->curlft.packets >= x->lft.hard_packet_limit) {
x->km.state = XFRM_STATE_EXPIRED;
- tasklet_hrtimer_start(&x->mtimer, ktime_set(0, 0), HRTIMER_MODE_REL);
+ tasklet_hrtimer_start(&x->mtimer, 0, HRTIMER_MODE_REL);
return -EINVAL;
}
/* calculate the drift */
delta = ktime_sub(hrt->base->get_time(), hrtimer_get_expires(hrt));
- if (delta.tv64 > 0)
+ if (delta > 0)
ticks += ktime_divns(delta, ticks * resolution);
snd_timer_interrupt(stime->timer, ticks);
atomic_set(&chip->timer_active, 1);
chip->thalf = 0;
- hrtimer_start(&pcsp_chip.timer, ktime_set(0, 0), HRTIMER_MODE_REL);
+ hrtimer_start(&pcsp_chip.timer, 0, HRTIMER_MODE_REL);
return 0;
}
snd_rawmidi_transmit_ack(substream, port->consume_bytes);
else if (!rcode_is_permanent_error(rcode))
/* To start next transaction immediately for recovery. */
- port->next_ktime = ktime_set(0, 0);
+ port->next_ktime = 0;
else
/* Don't continue processing. */
port->error = true;
if (port->consume_bytes <= 0) {
/* Do it in next chance, immediately. */
if (port->consume_bytes == 0) {
- port->next_ktime = ktime_set(0, 0);
+ port->next_ktime = 0;
schedule_work(&port->work);
} else {
/* Fatal error. */
port->addr = addr;
port->fill = fill;
port->idling = true;
- port->next_ktime = ktime_set(0, 0);
+ port->next_ktime = 0;
port->error = false;
INIT_WORK(&port->work, midi_port_work);
}
EXPORT_SYMBOL_GPL(snd_hdac_stream_set_params);
-static cycle_t azx_cc_read(const struct cyclecounter *cc)
+static u64 azx_cc_read(const struct cyclecounter *cc)
{
struct hdac_stream *azx_dev = container_of(cc, struct hdac_stream, cc);
}
static void azx_timecounter_init(struct hdac_stream *azx_dev,
- bool force, cycle_t last)
+ bool force, u64 last)
{
struct timecounter *tc = &azx_dev->tc;
struct cyclecounter *cc = &azx_dev->cc;
struct snd_pcm_runtime *runtime = azx_dev->substream->runtime;
struct hdac_stream *s;
bool inited = false;
- cycle_t cycle_last = 0;
+ u64 cycle_last = 0;
int i = 0;
list_for_each_entry(s, &bus->stream_list, list) {
static void dac_audio_set_rate(struct snd_sh_dac *chip)
{
- chip->wakeups_per_second = ktime_set(0, 1000000000 / chip->rate);
+ chip->wakeups_per_second = 1000000000 / chip->rate;
}
vcpu->arch.timer_cpu.active_cleared_last = false;
}
-static cycle_t kvm_phys_timer_read(void)
+static u64 kvm_phys_timer_read(void)
{
return timecounter->cc->read(timecounter->cc);
}
static u64 kvm_timer_compute_delta(struct kvm_vcpu *vcpu)
{
- cycle_t cval, now;
+ u64 cval, now;
cval = vcpu->arch.timer_cpu.cntv_cval;
now = kvm_phys_timer_read() - vcpu->kvm->arch.timer.cntvoff;
bool kvm_timer_should_fire(struct kvm_vcpu *vcpu)
{
struct arch_timer_cpu *timer = &vcpu->arch.timer_cpu;
- cycle_t cval, now;
+ u64 cval, now;
if (!kvm_timer_irq_can_fire(vcpu))
return false;
projects / mirror_ubuntu-artful-kernel.git / commitdiff