continue
			}

			// Steal timers from p2. This call to checkTimers is the only place
			// where we might hold a lock on a different P's timers. We do this
			// once on the last pass before checking runnext because stealing
			// from the other P's runnext should be the last resort, so if there
			// are timers to steal do that first.
			//
			// We only check timers on one of the stealing iterations because

        failure.assertHasErrorOutput('Read timed out')
    }

    @Issue('https://github.com/gradle/gradle-private/issues/3032')
    def "does not leak credentials when download times out"() {
        given:
        server.expect(server.head("/$TEST_DISTRIBUTION_URL"))

	if err != nil {
		t.Fatalf("unable to make pipe: %v", err)
	}
	var once sync.Once
	defer once.Do(func() { stop() })
	timer := time.AfterFunc(time.Minute, func() {
		once.Do(func() {
			t.Error("test timed out; terminating pipe")
			stop()
		})
	})
	defer timer.Stop()
	f(t, c1, c2)
}

// testBasicIO tests that the data sent on c1 is properly received on c2.

	if err := json.Unmarshal(recorder.Body.Bytes(), &data); err != nil {
		t.Fatal(err)
	}
	return data
}

func sumExecutionTime(data format.Data) (sum time.Duration) {
	for _, e := range data.Events {
		sum += time.Duration(e.Dur) * time.Microsecond
	}
	return
}

func getTestTrace(t *testing.T, testPath string) *parsedTrace {
	t.Helper()

	in.pos = pos
	var partial totalUtil
	if time != util[pos].Time {
		partial = totalUtilOf(util[pos].Util, time-util[pos].Time)
	}
	return in.u.sums[pos] + partial
}

// next returns the smallest time t' > time of a change in the
// utilization function.
func (in *integrator) next(time int64) int64 {
	for _, u := range in.u.util[in.pos:] {
		if u.Time > time {
			return u.Time
		}
	}
	return 1<<63 - 1
}

func (b *batchCursor) compare(a *batchCursor) int {
	return cmp.Compare(b.ev.time, a.ev.time)
}

// readTimedBaseEvent reads out the raw event data from b
// into e. It does not try to interpret the arguments
// but it does validate that the event is a regular
// event with a timestamp (vs. a structural event).
//
// It requires that the event its reading be timed, which must
// be the case for every event in a plain EventBatch.

	lockRetryMinInterval = 250 * time.Millisecond
	if lri := env.Get("_MINIO_LOCK_RETRY_INTERVAL", ""); lri != "" {
		v, err := strconv.Atoi(lri)
		if err != nil {
			panic(err)
		}
		lockRetryMinInterval = time.Duration(v) * time.Millisecond
	}

	lockRetryBackOff = backoffWait(
		lockRetryMinInterval,
		100*time.Millisecond,
		5*time.Second,
	)
}

		Args: []string{"freq"},
	},
	EvExperimentalBatch: event.Spec{
		Name:    "ExperimentalBatch",
		Args:    []string{"exp", "gen", "m", "time"},
		HasData: true, // Easier to represent for raw readers.
	},

	// "Timed" Events.
	EvProcsChange: event.Spec{
		Name:         "ProcsChange",
		Args:         []string{"dt", "procs_value", "stack"},
		IsTimedEvent: true,
		StackIDs:     []int{2},
	},
	EvProcStart: event.Spec{

	}},

	{"Truncate", func(t1, t2 Time) bool { return t1.Truncate(Hour).Equal(t2.Truncate(Hour)) }},
	{"Round", func(t1, t2 Time) bool { return t1.Round(Hour).Equal(t2.Round(Hour)) }},

	{"== Time{}", func(t1, t2 Time) bool { return (t1 == Time{}) == (t2 == Time{}) }},
}

func TestDefaultLoc(t *testing.T) {
	// Verify that all of Time's methods behave identically if loc is set to
	// nil or UTC.

					return fmt.Errorf("missing Kubernetes Gateway CRDs need to be installed before applying a waypoint: %s", err)
				}
				return err
			}
			if waitReady {
				startTime := time.Now()
				ticker := time.NewTicker(1 * time.Second)
				defer ticker.Stop()
				for range ticker.C {
					programmed := false