nowFn:    func() time.Time { return timeFn(1, 20) },
			expected: true,
		},
		{
			name: "progressDeadlineSeconds: 10s, now - started => 00:01:20 - 00:01:11 => 9s",

			d:        deployment(apps.DeploymentProgressing, v1.ConditionTrue, "", &ten, timeFn(1, 11)),
			nowFn:    func() time.Time { return timeFn(1, 20) },
			expected: false,
		},
		{

	return when
}

// check runs any timers in ts that are ready.
// If now is not 0 it is the current time.
// It returns the passed time or the current time if now was passed as 0.
// and the time when the next timer should run or 0 if there is no next timer,
// and reports whether it ran any timers.
// If the time when the next timer should run is not 0,
// it is always larger than the returned time.

type Timer interface {
	// C returns a channel that will receive a struct{} each time the timer fires.
	// The channel should not be waited on after Stop() is invoked. It is allowed
	// to cache the returned value of C() for the lifetime of the Timer.
	C() <-chan time.Time
	// Next is invoked by wait functions to signal timers that the next interval
	// should begin. You may only use Next() if you have drained the channel C().

     * and are therefore not synchronized with {@link #clock()} or the system wall clock.
     *
     * System.nanoTime() does not consider time elapsed while the system is in hibernation.
     * Therefore, timers effectively measure the elapsed time, of which the system was awake.
     */
    public static Timer startTimer() {
        return new DefaultTimer(TimeSource.SYSTEM);
    }

//
// This is the common loop construct for all polling in the wait package.
func loopConditionUntilContext(ctx context.Context, t Timer, immediate, sliding bool, condition ConditionWithContextFunc) error {
	defer t.Stop()

	var timeCh <-chan time.Time
	doneCh := ctx.Done()

	if !sliding {
		timeCh = t.C()
	}

	// if immediate is true the condition is
	// guaranteed to be executed at least once,

//
// Programs using times should typically store and pass them as values,
// not pointers. That is, time variables and struct fields should be of
// type [time.Time], not *time.Time.
//
// A Time value can be used by multiple goroutines simultaneously except
// that the methods [Time.GobDecode], [Time.UnmarshalBinary], [Time.UnmarshalJSON] and
// [Time.UnmarshalText] are not concurrency-safe.
//

 */

package org.gradle.internal.time;

public interface Timer {

    /**
     * @return A human-consumable description of the elapsed time.
     */
    String getElapsed();

    /**
     * Return the elapsed time in ms. Returned value is always >= 0.
     * @return The elapsed time, in ms.
     */
    long getElapsedMillis();

    /**
     * Restart this timer. Sets elapsed time to zero.
     */

	}
	return false
}

// Unix returns the local time corresponding to the given Unix time
// by wrapping time.Unix.
func Unix(sec int64, nsec int64) Time {
	return Time{time.Unix(sec, nsec)}
}

// Rfc3339Copy returns a copy of the Time at second-level precision.
func (t Time) Rfc3339Copy() Time {
	copied, _ := time.Parse(time.RFC3339, t.Format(time.RFC3339))
	return Time{copied}
}

		})
	}
}

type timerWrapper struct {
	timer   clock.Timer
	resets  []time.Duration
	onReset func(d time.Duration)
}

func (w *timerWrapper) C() <-chan time.Time { return w.timer.C() }
func (w *timerWrapper) Stop() bool          { return w.timer.Stop() }
func (w *timerWrapper) Reset(d time.Duration) bool {
	w.resets = append(w.resets, d)
	b := w.timer.Reset(d)
	if w.onReset != nil {
		w.onReset(d)
	}

	}
	timeEnd, ok := parsed.Meta["TimeEnd"]
	if !ok {
		return time.Time{}, time.Time{}, fmt.Errorf("missing counter metadata for TimeEnd")
	}
	end, err = time.Parse(time.RFC3339, timeEnd)
	if err != nil {
		return time.Time{}, time.Time{}, fmt.Errorf("failed to parse TimeEnd: %v", err)
	}
	return begin, end, nil
}

// avoid parsing count files multiple times
type parsedCache struct {
	mu sync.Mutex