return true
			}
		}
		return false
	}
}

// Details for the measured bandwidth
type Details struct {
	LimitInBytesPerSecond            int64   `json:"limitInBits"`
	CurrentBandwidthInBytesPerSecond float64 `json:"currentBandwidth"`
}

// BucketBandwidthReport captures the details for all buckets.
type BucketBandwidthReport struct {
	BucketStats map[BucketOptions]Details `json:"bucketStats,omitempty"`
}

}

// SetHistogramValues - sets values for the given MetricName using the provided map of
// range to value.
func SetHistogramValues[V uint64 | int64 | float64](m MetricValues, name MetricName, values map[string]V, labels ...string) {
	for rng, val := range values {
		m.Set(name, float64(val), append(labels, rangeL, rng)...)
	}
}

// MetricsLoaderFn - represents a function to load metrics from the
// metricsCache.
//

pkg flag, method (*FlagSet) Name() string
pkg flag, method (*FlagSet) Output() io.Writer
pkg html/template, type Srcset string
pkg math, func Erfcinv(float64) float64
pkg math, func Erfinv(float64) float64
pkg math, func Round(float64) float64
pkg math, func RoundToEven(float64) float64
pkg math/big, const MaxBase = 62
pkg math/big, method (*Float) Sqrt(*Float) *Float
pkg math/big, method (*Int) CmpAbs(*Int) int

			ri.Bucket = ""
			ri.Object = ""
			ri.Objects = 0
			ri.BytesFailed = 0
			ri.BytesTransferred = 0
			retry = true // indicate we are retrying..
			time.Sleep(delay + time.Duration(rnd.Float64()*float64(delay)))
			continue
		}

		break
	}

	return nil
}

// toObjectInfo converts minio.ObjectInfo to ObjectInfo

)

// ISO8601Format converts time 't' into ISO8601 time format expected in AWS S3 spec.
//
// This function is needed to avoid a Go's float64 precision bug, where Go avoids
// padding the extra '0' before the timezone.
func ISO8601Format(t time.Time) string {
	value := t.Format(iso8601TimeFormat)
	if len(value) < len(iso8601TimeFormat) {

	// Run the site resync metrics load in a loop
	for {
		if err := sm.load(ctx, newObjectLayerFn()); err == nil {
			<-ctx.Done()
			return
		}
		duration := time.Duration(r.Float64() * float64(time.Second*10))
		if duration < time.Second {
			// Make sure to sleep at least a second to avoid high CPU ticks.
			duration = time.Second
		}
		time.Sleep(duration)
	}
}

		ctx, done := context.WithTimeout(ctx, drwMutexUnlockCallTimeout)
		defer done()
		for !releaseAll(ctx, dm.clnt, tolerance, owner, &locks, isReadLock, restClnts, dm.Names...) {
			time.Sleep(time.Duration(dm.rng.Float64() * float64(dm.lockRetryMinInterval)))
			if time.Since(started) > dm.clnt.Timeouts.UnlockCall {
				return
			}
		}
	}()
}

// RUnlock releases a read lock held on dm.
//

func (d *Decoder) number() (float64, error) {
	d.scratch.reset()

	var (
		c       = d.cur()
		n       float64
		isFloat bool
	)

	// digits first
	switch {
	case c == '0':
		d.scratch.add(c)
		c = d.next()
	case '1' <= c && c <= '9':
		for ; c >= '0' && c <= '9'; c = d.next() {
			n = 10*n + float64(c-'0')
			d.scratch.add(c)
		}
	}

	b.ReportAllocs()
	// the actual benchmark for PutObjectPart starts here. Reset the benchmark timer.
	b.ResetTimer()
	for i := 0; i < b.N; i++ {
		// insert the object.
		totalPartsNR := int(math.Ceil(float64(objSize) / float64(partSize)))
		for j := 0; j < totalPartsNR; j++ {
			if j < totalPartsNR-1 {
				textPartData = textData[j*partSize : (j+1)*partSize-1]
			} else {
				textPartData = textData[j*partSize:]
			}

	}
	return
}

func TestLabelPods(t *testing.T) {
	tests := []struct {
		name       string
		client     kube.Client
		config     config.RepairConfig
		wantLabels map[string]string
		wantCount  float64
		wantTags   map[string]string
	}{
		{
			name:   "No broken pods",
			client: fakeClient(workingPod, workingPodDiedPreviously),
			config: config.RepairConfig{