CYCLES_PER_SECOND
__entry->second = cycles / CYCLES_PER_SECOND;
__entry->cycle = cycles % CYCLES_PER_SECOND;
#define TICKS_PER_SECOND (TICKS_PER_CYCLE * CYCLES_PER_SECOND)
queue_size = DIV_ROUND_UP(CYCLES_PER_SECOND * events_per_buffer,
idle_irq_interval = DIV_ROUND_UP(CYCLES_PER_SECOND * events_per_period,
unsigned int cycle_lo = (cycle % CYCLES_PER_SECOND) & 0x0f;
return (((tstamp >> 13) & 0x07) * CYCLES_PER_SECOND) + (tstamp & 0x1fff);
if (cycle >= OHCI_SECOND_MODULUS * CYCLES_PER_SECOND)
cycle -= OHCI_SECOND_MODULUS * CYCLES_PER_SECOND;
minuend += OHCI_SECOND_MODULUS * CYCLES_PER_SECOND;
else if (lval < rval && rval - lval < OHCI_SECOND_MODULUS * CYCLES_PER_SECOND / 2)
#define TICKS_PER_SECOND (TICKS_PER_CYCLE * CYCLES_PER_SECOND)
cache->tx_cycle_count = (cache->tx_cycle_count + 1) % CYCLES_PER_SECOND;
p->cache->tx_cycle_count = (s->domain->processing_cycle.tx_start % CYCLES_PER_SECOND);
cache->rx_cycle_count = (cache->rx_cycle_count + 1) % CYCLES_PER_SECOND;
p->cache->rx_cycle_count = (s->domain->processing_cycle.rx_start % CYCLES_PER_SECOND);