final String normalized = normalizer.normalize(badWord, "");
        settings.badword().add(normalized);
        badWords = settings.badword().get(true);
        if (apply) {
            return deleteByQuery(QueryBuilders.wildcardQuery(FieldNames.TEXT, "*" + normalized + "*"));
        }
        return new SuggestDeleteResponse(null, 0);
    }

        rowPanels
      );

    local uncollapsed = panelUtil.resolveCollapsedFlagOnRows(panelsBeforeRowsWithX + rowPanelsWithX);

    local normalized = panelUtil.normalizeY(uncollapsed);

    std.map(function(p) p + { gridPos+: { y+: startY } }, normalized),

            StringBuilder normalized = new StringBuilder();
            for (int i = 0; i < path.segmentCount(); i++) {
                if (!StringUtils.isBlank(path.segment(i))) {
                    if (isAbsolute || normalized.length() > 0) {
                        normalized.append(":");
                    }
                    normalized.append(path.segment(i));
                }
            }

        int buildSuccessfulLineIndex = lines.indexOf("BUILD SUCCESSFUL in 0s")
        assert buildSuccessfulLineIndex != -1

        List<String> normalized = lines.subList(0, buildSuccessfulLineIndex).grep { !it.isEmpty() } + "" + lines.subList(buildSuccessfulLineIndex, lines.size())
        return normalized.join("\n")
    }

// The given path should be 'Clean'-ed in advance.
func baseIsDotDot(path string) bool {
	i := strings.LastIndexByte(path, Separator)
	return path[i+1:] == ".."
}

// toNorm returns the normalized path that is guaranteed to be unique.
// It should accept the following formats:
//   - UNC paths                              (e.g \\server\share\foo\bar)
//   - absolute paths                         (e.g C:\foo\bar)

                        maybeClosed();
                        break;
                    } else {
                        String normalized = normalizer.normalize(input);
                        if (normalized != null) {
                            dispatch.dispatch(new UserResponse(normalized));
                            break;
                        }

        then:
        1 * itemComparator.hasSamePath(1, 1) >> true
        1 * itemComparator.hasSameContent(1, 1) >> true
        0 * _
    }

    def "detects normalized path modified"() {
        when:
        detector.visitChangesSince([one: 1], [one: -1], "test", visitor)
        then:
        1 * itemComparator.hasSamePath(1, -1) >> false
        then:

	if err != nil {
		panic("crypto/elliptic: nistec rejected normalized scalar")
	}
	return curve.pointToAffine(p)
}

func (curve *nistCurve[Point]) ScalarBaseMult(scalar []byte) (*big.Int, *big.Int) {
	scalar = curve.normalizeScalar(scalar)
	p, err := curve.newPoint().ScalarBaseMult(scalar)
	if err != nil {
		panic("crypto/elliptic: nistec rejected normalized scalar")
	}
	return curve.pointToAffine(p)
}

        // capturing the normalized path and the snapshot of the raw contents, so we are using these to determine the identity.
        // We do this because external artifact transforms typically need to identify themselves redundantly many times during a build.
        // Once we migrate to all-scheduled transforms we should consider if we can avoid having this optimization and use only normalized inputs.
        //

			t.Errorf("#%d Quo: %v is not normalized", i, *q1)
		}
		if !isNormalized(r1) {
			t.Errorf("#%d Rem: %v is not normalized", i, *r1)
		}
		if q1.Cmp(q) != 0 || r1.Cmp(r) != 0 {
			t.Errorf("#%d QuoRem: got (%s, %s), want (%s, %s)", i, q1, r1, q, r)
		}

		q2, r2 := new(Int).QuoRem(x, y, new(Int))
		if !isNormalized(q2) {
			t.Errorf("#%d Quo: %v is not normalized", i, *q2)
		}
		if !isNormalized(r2) {