refForeignFields = []*Field{}
		for _, foreignKey := range relation.primaryKeys {
			if field := relation.FieldSchema.LookUpField(foreignKey); field != nil {
				refForeignFields = append(refForeignFields, field)
			} else {
				schema.err = fmt.Errorf("invalid foreign key: %s", foreignKey)
				return
			}
		}
	}

	for idx, ownField := range ownForeignFields {

		Tiers: make(map[string]tierStats),
	}
}

func (ats *allTierStats) addSizes(tiers map[string]tierStats) {
	for tier, st := range tiers {
		ats.Tiers[tier] = ats.Tiers[tier].add(st)
	}
}

func (ats *allTierStats) merge(other *allTierStats) {
	for tier, st := range other.Tiers {
		ats.Tiers[tier] = ats.Tiers[tier].add(st)
	}
}

func (ats *allTierStats) clone() *allTierStats {
	if ats == nil {

// Add add pool endpoints
func (l *EndpointServerPools) Add(zeps PoolEndpoints) error {
	existSet := set.NewStringSet()
	for _, zep := range *l {
		for _, ep := range zep.Endpoints {
			existSet.Add(ep.String())
		}
	}
	// Validate if there are duplicate endpoints across serverPools
	for _, ep := range zeps.Endpoints {
		if existSet.Contains(ep.String()) {
			return fmt.Errorf("duplicate endpoints found")
		}
	}

}

// GetDecryptedRange - To decrypt the range (off, length) of the
// decrypted object stream, we need to read the range (encOff,
// encLength) of the encrypted object stream to decrypt it, and
// compute skipLen, the number of bytes to skip in the beginning of
// the encrypted range.
//
// In addition we also compute the object part number for where the
// requested range starts, along with the DARE sequence number within

          {{- if not $gateway.runAsRoot }}
          - name: ISTIO_META_UNPRIVILEGED_POD
            value: "true"
          {{- end }}
          {{- range $key, $val := $gateway.env }}
          - name: {{ $key }}
            value: "{{ $val }}"
          {{- end }}
          {{- range $key, $value := .Values.meshConfig.defaultConfig.proxyMetadata }}
          - name: {{ $key }}
            value: "{{ $value }}"
          {{- end }}

func TestRemoveInternalEntries(t *testing.T) {
	isEqual := func(x, y map[string]string) bool {
		if len(x) != len(y) {
			return false
		}
		for k, v := range x {
			if u, ok := y[k]; !ok || v != u {
				return false
			}
		}
		return true
	}

	for i, test := range removeInternalEntriesTests {
		RemoveInternalEntries(test.Metadata)
		if !isEqual(test.Metadata, test.Expected) {

	offlineDisks = make(madmin.BackendDisks)

	for _, disk := range disksInfo {
		ep := disk.Endpoint
		if _, ok := offlineDisks[ep]; !ok {
			offlineDisks[ep] = 0
		}
		if _, ok := onlineDisks[ep]; !ok {
			onlineDisks[ep] = 0
		}
	}

	// Wait for the routines.
	for _, disk := range disksInfo {
		ep := disk.Endpoint
		state := disk.State

			}
			ok := len(splitFilled)
			for i, sh := range splitFilled {
				for _, v := range sh {
					if v == 0 {
						split[i] = nil
						ok--
						break
					}
				}
			}
			hasParity := 0
			for idx, sh := range v {
				split[idx] = sh
				if idx >= k && len(v) > 0 {
					hasParity++
				}
			}

		if len(args.UID) == 0 {
			for _, resource := range args.Resources {
				lris, ok := l.lockMap[resource]
				if !ok {
					continue
				}
				// Collect uids, so we don't mutate while we delete
				uids := make([]string, 0, len(lris))
				for _, lri := range lris {
					uids = append(uids, lri.UID)
				}

				// Delete collected uids:
				for _, uid := range uids {
					lris, ok := l.lockMap[resource]

        }
    }

    public void setErrorCount_Range() {
        setErrorCount_Range(null);
    }

    public void setErrorCount_Range(ConditionOptionCall<RangeAggregationBuilder> opLambda) {
        setErrorCount_Range("errorCount", opLambda, null);
    }

    public void setErrorCount_Range(ConditionOptionCall<RangeAggregationBuilder> opLambda, OperatorCall<BsFailureUrlCA> aggsLambda) {