// Regression test for #55160.
//
// The issue is that the parser reads ahead to the first batch of the
// next generation to find generation boundaries, but if it finds an
// error, it needs to delay handling that error until later. Previously
// it would handle that error immediately and a totally valid generation
// would be skipped for parsing and rejected because of an error in a
// batch in the following generation.
//

	gracePeriod := time.Duration((graceRatio) * float64(secretLifeTime))
	delay := time.Until(secret.ExpireTime.Add(-gracePeriod))
	if delay < 0 {
		delay = 0
	}
	return delay
}

func (sc *SecretManagerClient) registerSecret(item security.SecretItem) {
	delay := rotateTime(item, sc.configOptions.SecretRotationGracePeriodRatio)

	w.WriteHeader(200)
}

func TestAudit(t *testing.T) {
	shortRunningPath := "/api/v1/namespaces/default/pods/foo"
	longRunningPath := "/api/v1/namespaces/default/pods?watch=true"

	delay := 500 * time.Millisecond

	for _, test := range []struct {
		desc       string
		path       string
		verb       string
		auditID    string
		omitStages []auditinternal.Stage

      "FINE: Q10000 finished run in   0 µs: task",
    )
  }

  /** Repeat with a delay of 200 but schedule with a delay of 50. The schedule wins. */
  @Test fun executeScheduledEarlierReplacesRepeatedLater() {
    val task =
      object : Task("task") {
        val schedules = mutableListOf(50.µs)
        val delays = mutableListOf(200.µs, -1)

        override fun runOnce(): Long {

	// Ed: Go fmt.
	// Sam: Go fmt who?
	// Ed: Go fmt yourself!
	// json.Delim: ]
}

// This example uses RawMessage to delay parsing part of a JSON message.
func ExampleRawMessage_unmarshal() {
	type Color struct {
		Space string
		Point json.RawMessage // delay parsing until we know the color space
	}
	type RGB struct {
		R uint8
		G uint8
		B uint8
	}
	type YCbCr struct {
		Y  uint8

				rnglistsBase, _ = cu.Val(AttrRnglistsBase).(int64)
			} else if a.tag == TagCompileUnit {
				delay = append(delay, delayed{i, off, formRnglistx})
				break
			}

			val = resolveRnglistx(uint64(rnglistsBase), off)
		}

		e.Field[i].Val = val
	}
	if b.err != nil {
		return nil
	}

	for _, del := range delay {
		switch del.fmt {
		case formAddrx:
			addrBase, _ := e.Val(AttrAddrBase).(int64)

					if checkErr != nil {
						return checkErr
					}

					if exist {
						return fmt.Errorf("fail to delete iop")
					}

					return nil
				}, retry.Timeout(deletionTimeout), retry.Delay(retryDelay))
			})

			// For negative casse, use default profile, ingressgateway alway connect to istiod
			// deletion will fail
			t.NewSubTest("delete-iop-fail").Run(func(t framework.TestContext) {

	ctx.Helper()
	if len(GetClientInstances()) == 0 {
		ctx.Fatal("there is no client")
	}
	cltInstance := GetClientInstances()[0]

	defaultOptions := []retry.Option{retry.Delay(100 * time.Millisecond), retry.Timeout(200 * time.Second)}
	httpOpts := echo.CallOptions{
		To: GetTarget(),
		Port: echo.Port{
			Name: "http",
		},
		HTTP: echo.HTTP{
			Path:   "/path",
			Method: "GET",

	// so reads are allowed when holding either of the two mutexes.
	//
	// The delay argument is nanotime() - t.when, meaning the delay in ns between
	// when the timer should have gone off and now. Normally that amount is
	// small enough not to matter, but for channel timers that are fed lazily,
	// the delay can be arbitrarily long; package time subtracts it out to make

			},
			attemptsExpected: 1,
			expectedIntervals: func(t *testing.T, delays []time.Duration, delaysRequested []time.Duration) {
				if reflect.DeepEqual(delays, []time.Duration{time.Second}) {
					return
				}
				if !reflect.DeepEqual(delays, delaysRequested) {
					t.Fatalf("sliding non-immediate should have equal delays: %v", cmp.Diff(delays, delaysRequested))
				}
			},
		},
	}