return FormatError("bad Ta value")
		}
	}
	// Section B.2.3 states that if there is more than one component then the
	// total H*V values in a scan must be <= 10.
	if d.nComp > 1 && totalHV > 10 {
		return FormatError("total sampling factors too large")
	}

	// zigStart and zigEnd are the spectral selection bounds.
	// ah and al are the successive approximation high and low values.

								return
							}
						case "Size":
							z[za0001].Totals[za0002].Size, err = dc.ReadInt64()
							if err != nil {
								err = msgp.WrapError(err, za0001, "Totals", za0002, "Size")
								return
							}
						case "N":
							z[za0001].Totals[za0002].N, err = dc.ReadInt64()
							if err != nil {
								err = msgp.WrapError(err, za0001, "Totals", za0002, "N")

		merged.LastSec = l.LastSec
	} else {
		l.forwardTo(o.LastSec)
		merged.LastSec = o.LastSec
	}

	for i := range merged.Totals {
		merged.Totals[i] = AccElem{
			Total: l.Totals[i].Total + o.Totals[i].Total,
			N:     l.Totals[i].N + o.Totals[i].N,
			Size:  l.Totals[i].Size + o.Totals[i].Size,
		}
	}
	return merged
}

// Add  a new duration data
func (l *lastMinuteLatency) add(t time.Duration) {

		merged.Totals[i] = AccElem{
			Total: l.Totals[i].Total + o.Totals[i].Total,
			N:     l.Totals[i].N + o.Totals[i].N,
			Size:  l.Totals[i].Size + o.Totals[i].Size,
		}
	}
	return merged
}

// Add  a new duration data
func (l *ReplicationLastHour) addsize(sz int64) {
	min := time.Now().Unix() / 60
	l.forwardTo(min)
	winIdx := min % 60
	l.Totals[winIdx].merge(AccElem{Total: min, Size: sz, N: 1})

		iter = 10000
	}
	inc := uintptr(100)
	total := uintptr(0)
	runParallel(N, iter, func() {
		atomic.Xadduintptr(&total, inc)
	})
	if want := uintptr(N*iter) * inc; want != total {
		t.Fatalf("xadduintpr error, want %d, got %d", want, total)
	}
	total = 0
	runParallel(N, iter, func() {
		atomic.Xadduintptr(&total, inc)
		atomic.Xadduintptr(&total, uintptr(-int64(inc)))
	})
	if total != 0 {

		"Total number of bytes failed at least once to replicate in the last hour on a bucket",
		bucketL)
	bucketReplLastHrFailedCountMD = NewGaugeMD(bucketReplLastHrFailedCount,
		"Total number of objects which failed replication in the last hour on a bucket",
		bucketL)
	bucketReplLastMinFailedBytesMD = NewGaugeMD(bucketReplLastMinFailedBytes,

		totals = totalChanges(existingSlices[0], desiredSet)
		if totals.added == 0 && totals.updated == 0 && totals.removed == 0 &&
			apiequality.Semantic.DeepEqual(endpoints.Labels, compareLabels) &&
			apiequality.Semantic.DeepEqual(compareAnnotations, existingSlices[0].Annotations) {
			return slices, totals
		}
	}

	// generate a new slice with the desired endpoints.

	}
	for k, v := range o.ErrCounts {
		n.ErrCounts[k] += v
	}
	return n
}

// SRStats has replication stats at site level
type SRStats struct {
	// Total Replica size in bytes
	ReplicaSize int64 `json:"replicaSize"`
	// Total Replica received
	ReplicaCount int64                `json:"replicaCount"`
	M            map[string]*SRStatus `json:"srStatusMap"`

}

// totalsByAction includes total numbers for added and removed.
type totalsByAction struct {
	added, updated, removed int
}

// add adds totals from another totalsByAction struct.
func (t *totalsByAction) add(totals totalsByAction) {
	t.added += totals.added
	t.updated += totals.updated
	t.removed += totals.removed
}

// newDesiredCalc initializes and returns a new desiredCalc.

		}
		if cpu.total <= 0 {
			t.Errorf("found no total CPU time passed")
		}
		if cpu.user <= 0 {
			t.Errorf("found no user time passed")
		}
		if total := cpu.gcTotal + cpu.scavengeTotal + cpu.user + cpu.idle; !withinEpsilon(cpu.total, total, 0.001) {
			t.Errorf("calculated total CPU not within %%0.1 of total: %f vs. %f", total, cpu.total)
		}
	}
	if totalVirtual.got != totalVirtual.want {