}
        }

        public void setExplain(boolean explain) {
            this.explain = explain;
        }

        public void setMinScore(float minScore) {
            this.minScore = minScore;
        }

        public void setPreference(String preference) {
            this.preference = preference;
        }

        public void setRouting(String routing) {

            }
        }

        public void setExplain(boolean explain) {
            this.explain = explain;
        }

        public void setMinScore(float minScore) {
            this.minScore = minScore;
        }

        public void setPreference(String preference) {
            this.preference = preference;
        }

        public void setRouting(String routing) {

	if s == nil {
		return nil
	}

	// Calculate <minScore> and <maxScore>
	var minScore int64 = math.MaxInt64
	var maxScore int64
	for i, score := range scores {
		// it's mandatory to check if <score.Name> is present in m.IgnoredNodes
		if s.IgnoredNodes.Has(score.Name) {
			scores[i].Score = invalidScore
			continue
		}
		if score.Score < minScore {
			minScore = score.Score
		}
		if score.Score > maxScore {

            }
        }

        public void setExplain(boolean explain) {
            this.explain = explain;
        }

        public void setMinScore(float minScore) {
            this.minScore = minScore;
        }

        public void setPreference(String preference) {
            this.preference = preference;
        }

        public void setRouting(String routing) {

			allErrs = append(allErrs, field.Invalid(path.Index(i).Child("utilization"), point.Utilization, msg))
		}

		if point.Score < minScore || point.Score > maxScore {
			msg := fmt.Sprintf("not in valid range [%d, %d]", minScore, maxScore)
			allErrs = append(allErrs, field.Invalid(path.Index(i).Child("score"), point.Score, msg))
		}
	}

	return allErrs
}

            this.trackTotalHits = trackTotalHits;
            return this;
        }

        public SearchConditionBuilder minScore(final Float minScore) {
            this.minScore = minScore;
            return this;
        }

        public boolean build() {
            if (StringUtil.isBlank(query)) {
                return false;
            }

                    .responseFields(params.getResponseFields()).searchRequestType(params.getType())
                    .trackTotalHits(params.getTrackTotalHits()).minScore(params.getMinScore()).build();
        };
    }

    protected Map<String, Object> parseSearchHit(final FessConfig fessConfig, final String hlPrefix, final SearchHit searchHit) {

	var maxScore float64
	minScore := math.MaxFloat64

	for _, hostPriority := range nodeScores {
		maxScore = math.Max(maxScore, float64(hostPriority.Score))
		minScore = math.Min(minScore, float64(hostPriority.Score))
	}
	for i, hostPriority := range nodeScores {
		nodeScores[i] = framework.NodeScore{
			Name:  hostPriority.Name,
			Score: int64(maxScore + minScore - float64(hostPriority.Score)),
		}
	}

// license that can be found in the LICENSE file.

// Export guts for testing.

package runtime

const SiginfoMaxSize = _si_max_size
const SigeventMaxSize = _sigev_max_size

var NewOSProc0 = newosproc0
var Mincore = mincore

type Siginfo siginfo

	}
}

// Test that error values are negative.
// Use a misaligned pointer to get -EINVAL.
func TestMincoreErrorSign(t *testing.T) {
	var dst byte
	v := Mincore(unsafe.Add(unsafe.Pointer(new(int32)), 1), 1, &dst)

	const EINVAL = 0x16
	if v != -EINVAL {
		t.Errorf("mincore = %v, want %v", v, -EINVAL)
	}
}

func TestKernelStructSize(t *testing.T) {
	// Check that the Go definitions of structures exchanged with the kernel are