}

						splitDataShards := make([]byte, len(splitFilled[0]))
						for _, sh := range splitFilled {
							for i, v := range sh {
								splitDataShards[i] += v
							}
						}
						var hist [256]int
						for _, v := range splitDataShards {
							hist[v]++
						}

						for _, v := range hist[m.data-hasParity : m.shards] {
							if attempt > 0 {
								break
							}

	for name, value := range httpStats.CurrentS3Requests.APIStats {
		m.Set(apiRequestsInFlightTotal, float64(value), "name", name, "type", "s3")
	}
	for name, value := range httpStats.TotalS3Requests.APIStats {
		m.Set(apiRequestsTotal, float64(value), "name", name, "type", "s3")
	}
	for name, value := range httpStats.TotalS3Errors.APIStats {

rgba(0, 123, 255, 0.25);\n}\n\n.custom-range.custom-range-primary::-webkit-slider-thumb {\n  background-color: #007bff;\n}\n\n.custom-range.custom-range-primary::-webkit-slider-thumb:active {\n  background-color: #b3d7ff;\n}\n\n.custom-range.custom-range-primary::-moz-range-thumb {\n  background-color: #007bff;\n}\n\n.custom-range.custom-range-primary::-moz-range-thumb:active {\n  background-color: #b3d7ff;\n}\n\n.custom-range.custom-range-primary::-ms-thumb {\n  background-color: #007bff;\n}\n\n.cu...

	newReplLatency.UploadHistogram = rl.UploadHistogram.Merge(other.UploadHistogram)
	return
}

// Get upload latency of each object size range
func (rl ReplicationLatency) getUploadLatency() (ret map[string]uint64) {
	ret = make(map[string]uint64)
	avg := rl.UploadHistogram.GetAvgData()
	for k, v := range avg {
		// Convert nanoseconds to milliseconds
		ret[sizeTagToString(k)] = uint64(v.avg() / time.Millisecond)
	}
	return
}

			return nil, err
		}
	}

	healBuckets.Range(func(_ string, volInfo VolInfo) bool {
		bi := BucketInfo{
			Name:    volInfo.Name,
			Created: volInfo.Created,
		}
		if vi, ok := deletedBuckets.Load(volInfo.Name); ok {
			bi.Deleted = vi.Created
		}
		buckets = append(buckets, bi)
		return true
	})

	deletedBuckets.Range(func(_ string, v VolInfo) bool {

    /**
     * Determines whether the specified version is contained within this range.
     *
     * @param version the version to test, must not be {@code null}
     * @return {@code true} if this range contains the specified version, {@code false} otherwise
     */
    boolean contains(@Nonnull Version version);

    /**
     * Returns the upper boundary of this range, or {@code null} if none.
     */
    @Nullable

func TestEqualNearPageBoundary(t *testing.T) {
	t.Parallel()
	b := dangerousSlice(t)
	for i := range b {
		b[i] = 'A'
	}
	for i := 0; i <= len(b); i++ {
		Equal(b[:i], b[len(b)-i:])
		Equal(b[len(b)-i:], b[:i])
	}
}

func TestIndexByteNearPageBoundary(t *testing.T) {
	t.Parallel()
	b := dangerousSlice(t)
	for i := range b {
		idx := IndexByte(b[i:], 1)
		if idx != -1 {

			t.Fatal(err)
		}
		vers = append(vers, xl.versions)
	}
	for _, v2 := range vers {
		for _, ver := range v2 {
			b, _ := json.Marshal(ver.header)
			t.Log(string(b))
			var x xlMetaV2Version
			_, _ = x.unmarshalV(0, ver.meta)
			b, _ = json.Marshal(x)
			t.Log(string(b), x.getSignature())
		}
	}

	for i := range vers {
		t.Run(fmt.Sprintf("non-strict-q%d", i), func(t *testing.T) {

   * {@code to}] for all {@code i} in the range [{@code requiredFrom}, {@code requiredTo}]. The
   * value returned by this method is the {@code i} in that range such that {@code allRequired[i]}
   * is as close as possible to the center of the range [{@code from}, {@code to}]. Choosing the
   * value closest to the center of the range first is the most efficient strategy because it

			// Check if we have local disks per pool less than
			// the concurrency make sure we choose only the "start"
			// concurrency to be equal to the lowest number of
			// local disks per server.
			for _, localDiskCount := range globalEndpoints.NLocalDisksPathsPerPool() {
				if localDiskCount < concurrency {
					concurrency = localDiskCount
				}
			}

			// Any concurrency less than '4' just stick to '4' concurrent