func (m *MicroTime) ProtoMicroTime() *Timestamp {
	if m == nil {
		return &Timestamp{}
	}

	// truncate precision to microseconds to match JSON marshaling/unmarshaling
	truncatedNanoseconds := time.Duration(m.Time.Nanosecond()).Truncate(time.Microsecond)
	return &Timestamp{
		Seconds: m.Time.Unix(),
		Nanos:   int32(truncatedNanoseconds),
	}
}

// Size implements the protobuf marshalling interface.

  }

  public void testElapsed_micros() {
    stopwatch.start();
    ticker.advance(999);
    assertEquals(0, stopwatch.elapsed(MICROSECONDS));
    ticker.advance(1);
    assertEquals(1, stopwatch.elapsed(MICROSECONDS));
  }

  public void testElapsed_millis() {
    stopwatch.start();
    ticker.advance(999999);
    assertEquals(0, stopwatch.elapsed(MILLISECONDS));

      return MILLISECONDS;
    }
    if (MICROSECONDS.convert(nanos, NANOSECONDS) > 0) {
      return MICROSECONDS;
    }
    return NANOSECONDS;
  }

  private static String abbreviate(TimeUnit unit) {
    switch (unit) {
      case NANOSECONDS:
        return "ns";
      case MICROSECONDS:
        return "\u03bcs"; // μs
      case MILLISECONDS:
        return "ms";

limitations under the License.
*/

package kuberuntime

import (
	"k8s.io/kubernetes/pkg/kubelet/cm"
	"math"
)

const (
	milliCPUToCPU = 1000

	// 100000 microseconds is equivalent to 100ms
	quotaPeriod = 100000
	// 1000 microseconds is equivalent to 1ms
	// defined here:
	// https://github.com/torvalds/linux/blob/cac03ac368fabff0122853de2422d4e17a32de08/kernel/sched/core.c#L10546
	minQuotaPeriod = 1000
)

}

// MicrosToDuration converts the given microseconds to a time.Duration.
func MicrosToDuration(micros int64) time.Duration {
	return time.Duration(micros) * time.Microsecond
}

// DurationToMicros converts the given duration to microseconds.
func DurationToMicros(d time.Duration) int64 {
	return int64(d / time.Microsecond)

      return MILLISECONDS;
    }
    if (MICROSECONDS.convert(nanos, NANOSECONDS) > 0) {
      return MICROSECONDS;
    }
    return NANOSECONDS;
  }

  private static String abbreviate(TimeUnit unit) {
    switch (unit) {
      case NANOSECONDS:
        return "ns";
      case MICROSECONDS:
        return "\u03bcs"; // μs
      case MILLISECONDS:
        return "ms";

 * for information on the behaviour of the algorithm.
 *
 * <p>On Intel Core2 2.66, on 1000 bytes, fingerprint2011 takes 0.9 microseconds compared to
 * fingerprint at 4.0 microseconds and md5 at 4.5 microseconds.
 *
 * <p>Note to maintainers: This implementation relies on signed arithmetic being bit-wise equivalent
 * to unsigned arithmetic in all cases except:
 *
 * <ul>

 * for information on the behaviour of the algorithm.
 *
 * <p>On Intel Core2 2.66, on 1000 bytes, fingerprint2011 takes 0.9 microseconds compared to
 * fingerprint at 4.0 microseconds and md5 at 4.5 microseconds.
 *
 * <p>Note to maintainers: This implementation relies on signed arithmetic being bit-wise equivalent
 * to unsigned arithmetic in all cases except:
 *
 * <ul>

	}

	delay, ok := res.Value().(uint64)
	if !ok {
		return 0, fmt.Errorf("InhibitDelayMaxUSec from logind is not a uint64 as expected")
	}

	// InhibitDelayMaxUSec is in microseconds
	duration := time.Duration(delay) * time.Microsecond
	return duration, nil
}

// InhibitShutdown creates an systemd inhibitor by calling logind's Inhibt() and returns the inhibitor lock

message XlaJitCompilationActivity {
  string cluster_name = 1;

  // The number of time this cluster has been compiled.
  int32 compile_count = 2;

  // Microseconds spent in the individual compilation being reported.
  int64 compile_time_us = 3;

  // Total microseconds spent in (re-)compiling this cluster so far.
  int64 cumulative_compile_time_us = 4;

  // Whether a persistent compilation cache entry was used.