if err != nil {
		panic(err)
	}

	round := []time.Duration{
		time.Nanosecond,
		time.Microsecond,
		time.Millisecond,
		time.Second,
		2 * time.Second,
		time.Minute,
		10 * time.Minute,
		time.Hour,
	}

	for _, r := range round {
		fmt.Printf("d.Round(%6s) = %s\n", r, d.Round(r).String())
	}
	// Output:
	// d.Round(   1ns) = 1h15m30.918273645s
	// d.Round(   1µs) = 1h15m30.918274s

		if ip.IsValid() && ip.Next().IsValid() && ip.Next().Prev() != ip {
			t.Errorf(".Next.Prev did not round trip: ip=%q .next=%q .next.prev=%q", ip, ip.Next(), ip.Next().Prev())
		}
		if ip.IsValid() && ip.Prev().IsValid() && ip.Prev().Next() != ip {
			t.Errorf(".Prev.Next did not round trip: ip=%q .prev=%q .prev.next=%q", ip, ip.Prev(), ip.Prev().Next())
		}

		port, err := ParseAddrPort(s)
		if err == nil {

			prec = len(d.mant)
		}
	} else {
		// round appropriately
		switch fmt {
		case 'e', 'E':
			// one digit before and number of digits after decimal point
			d.round(1 + prec)
		case 'f':
			// number of digits before and after decimal point
			d.round(d.exp + prec)
		case 'g', 'G':
			if prec == 0 {
				prec = 1
			}
			d.round(prec)
		}
	}

	// 3) read digits out and format

//	    })
//	}
func GlobalNonRoundTrippableTypes() sets.String {
	return sets.NewString(globalNonRoundTrippableTypes.List()...)
}

// RoundTripTypesWithoutProtobuf applies the round-trip test to all round-trippable Kinds
// in the scheme.  It will skip all the GroupVersionKinds in the skip list.

				cpuUserVal := math.Round(ts.User/tot*100*100) / 100
				updateResourceMetrics(cpuSubsystem, cpuUser, cpuUserVal, labels, false)
				cpuSystemVal := math.Round(ts.System/tot*100*100) / 100
				updateResourceMetrics(cpuSubsystem, cpuSystem, cpuSystemVal, labels, false)
				cpuIdleVal := math.Round(ts.Idle/tot*100*100) / 100

		case 'f':
			prec = max(digs.nd-digs.dp, 0)
		case 'g', 'G':
			prec = digs.nd
		}
	} else {
		// Round appropriately.
		switch fmt {
		case 'e', 'E':
			d.Round(prec + 1)
		case 'f':
			d.Round(d.dp + prec)
		case 'g', 'G':
			if prec == 0 {
				prec = 1
			}
			d.Round(prec)
		}
		digs = decimalSlice{d: d.d[:], nd: d.nd, dp: d.dp}
	}

		}
		rightShift(a, uint(-k))
	}
}

// If we chop a at nd digits, should we round up?
func shouldRoundUp(a *decimal, nd int) bool {
	if nd < 0 || nd >= a.nd {
		return false
	}
	if a.d[nd] == '5' && nd+1 == a.nd { // exactly halfway - round to even
		// if we truncated, a little higher than what's recorded - always round up
		if a.trunc {
			return true
		}
		return nd > 0 && (a.d[nd-1]-'0')%2 != 0
	}

	for m >= max {
		a, b := m/10, m%10
		m = a
		trimmed++
		if b > 5 {
			roundUp = true
		} else if b < 5 {
			roundUp = false
		} else { // b == 5
			// round up if there are trailing digits,
			// or if the new value of m is odd (round-to-even convention)
			roundUp = trunc || m&1 == 1
		}
		if b != 0 {
			trunc = true
		}
	}
	if roundUp {
		m++
	}
	if m >= max {

    %clamp_min = "tf.Minimum"(%clamp_max, %i8_max) : (tensor<*xf32>, tensor<f32>) -> tensor<*xf32>
    %round = "tf.Round"(%clamp_min) : (tensor<*xf32>) -> tensor<*xf32>
    %cast = "tf.Cast"(%round) {Truncate = false} : (tensor<*xf32>) -> tensor<*xi8>
    func.return %cast : tensor<*xi8>
  }

  // Requantizes and applies quantized Relu by clipping.

			return apierrors.NewInternalError(err)
		}

		t := time.Now()
		round := 0
		if reinvokeCtx.IsReinvoke() {
			round = 1
		}

		annotator := newWebhookAnnotator(versionedAttr, round, i, hook.Name, invocation.Webhook.GetConfigurationName())
		changed, err := a.callAttrMutatingHook(ctx, hook, invocation, versionedAttr, annotator, o, round, i)