// if rate<1 treat as unknown and skip scaling.
		return count, size
	}

	avgSize := float64(size) / float64(count)
	scale := 1 / (1 - math.Exp(-avgSize/float64(rate)))

	return int64(float64(count) * scale), int64(float64(size) * scale)

	}
	var totalScan struct {
		got, want uint64
	}
	var cpu struct {
		gcAssist    float64
		gcDedicated float64
		gcIdle      float64
		gcPause     float64
		gcTotal     float64

		idle float64
		user float64

		scavengeAssist float64
		scavengeBg     float64
		scavengeTotal  float64

		total float64
	}
	for i := range samples {
		kind := samples[i].Value.Kind()

	for _, t := range tgts {
		labels := []string{nameL, t.String(), endpointL, t.Endpoint()}
		m.Set(webhookFailedMessages, float64(t.Stats().FailedMessages), labels...)
		m.Set(webhookQueueLength, float64(t.Stats().QueueLength), labels...)
		m.Set(webhookTotalMessages, float64(t.Stats().TotalMessages), labels...)
	}

	return nil

		name := ""
		if int(stat.typ) >= len(specs) {
			name = fmt.Sprintf("<unknown (%d)>", stat.typ)
		} else {
			name = specs[stat.typ].Name
		}
		bytesPct := float64(stat.bytes) / float64(cr.bytesRead) * 100
		countPct := float64(stat.count) / float64(eventsRead) * 100
		fmt.Fprintf(w, "%s\t%d\t%.2f%%\t%d\t%.2f%%\n", name, stat.bytes, bytesPct, stat.count, countPct)
	}
	w.Flush()
	return nil
}

	snapshotcov func() float64
}

// registerCover2 is invoked during "go test -cover" runs.
// It is used to record a 'tear down' function
// (to be called when the test is complete) and the coverage mode.
func registerCover2(mode string, tearDown func(coverprofile string, gocoverdir string) (string, error), snapcov func() float64) {
	if mode == "" {
		return
	}
	cover2.mode = mode

	audit := logger.CurrentStats()
	for id, st := range audit {
		labels := []string{targetID, id}
		m.Set(auditFailedMessages, float64(st.FailedMessages), labels...)
		m.Set(auditTargetQueueLength, float64(st.QueueLength), labels...)
		m.Set(auditTotalMessages, float64(st.TotalMessages), labels...)
	}

	return nil

	slices.Sort(pauses)
	var total uint64
	for _, ns := range pauses {
		total += ns
	}
	// ns/op for this benchmark is average STW time.
	b.ReportMetric(float64(total)/float64(b.N), "ns/op")
	b.ReportMetric(float64(pauses[len(pauses)*95/100]), "p95-ns/STW")
	b.ReportMetric(float64(pauses[len(pauses)*50/100]), "p50-ns/STW")
}

func BenchmarkPoolExpensiveNew(b *testing.B) {
	// Populate a pool with items that are expensive to construct

	if err != nil {
		return 0, fmt.Errorf("invalid value for IntOrString: %v", err)
	}
	if isPercent {
		if roundUp {
			value = int(math.Ceil(float64(value) * (float64(total)) / 100))
		} else {
			value = int(math.Floor(float64(value) * (float64(total)) / 100))
		}
	}
	return value, nil
}

// GetValueFromIntOrPercent was deprecated in favor of

// separate type primarily to distinguish it from mean utilization,
// which is also a float64.
type totalUtil float64

func totalUtilOf(meanUtil float64, dur int64) totalUtil {
	return totalUtil(meanUtil * float64(dur))
}

// mean returns the mean utilization over dur.
func (u totalUtil) mean(dur time.Duration) float64 {
	return float64(u) / float64(dur)
}

// An MMUCurve is the minimum mutator utilization curve across

		`package main
import "fmt"
func main() {
	freezing := FToC(-18)
	fmt.Println(freezing, Boiling) }
`,
		`package main
import "fmt"
type Celsius float64
func (c Celsius) String() string { return fmt.Sprintf("%g°C", c) }
func FToC(f float64) Celsius { return Celsius(f - 32 / 9 * 5) }
const Boiling Celsius = 100
func Unused() { {}; {{ var x int; _ = x }} } // make sure empty block scopes get printed
`,
	} {