Enhanced ranking algorithm

Based on the patch by Matt Westcott (@mjwestcott).
But with a more conservative approach:
- Does not use linearly increasing penalties; It is agreed upon that we
  should prefer matching characters at the beginnings of the words, but
  it's not always clear that the relevance is inversely proportional to
  the distance from the beginning.
- The approach here is more conservative in that the bonus is never
  large enough to override the matchlen, so it can be thought of as the
  first implicit tiebreak criterion.
- One may argue the change breaks the contract of --tiebreak, but the
  judgement depends on the definition of "tie".
pull/549/head
Junegunn Choi 8 years ago
parent 5f63a7b587
commit 2f6d23b91e

@ -22,10 +22,30 @@ func runeAt(runes []rune, index int, max int, forward bool) rune {
return runes[max-index-1]
}
// Result conatins the results of running a match function.
type Result struct {
Start int32
End int32
// Items are basically sorted by the lengths of matched substrings.
// But we slightly adjust the score with bonus for better results.
Bonus int32
}
type charClass int
const (
charNonWord charClass = iota
charLower
charUpper
charLetter
charNumber
)
// FuzzyMatch performs fuzzy-match
func FuzzyMatch(caseSensitive bool, forward bool, runes []rune, pattern []rune) (int, int) {
func FuzzyMatch(caseSensitive bool, forward bool, runes []rune, pattern []rune) Result {
if len(pattern) == 0 {
return 0, 0
return Result{0, 0, 0}
}
// 0. (FIXME) How to find the shortest match?
@ -90,12 +110,76 @@ func FuzzyMatch(caseSensitive bool, forward bool, runes []rune, pattern []rune)
}
}
}
if forward {
return sidx, eidx
// Calculate the bonus. This can't be done at the same time as the
// pattern scan above because 'forward' may be false.
if !forward {
sidx, eidx = lenRunes-eidx, lenRunes-sidx
}
var bonus int32
pidx := 0
consecutive := false
prevClass := charNonWord
for index := 0; index < eidx; index++ {
char := runes[index]
var class charClass
if unicode.IsLower(char) {
class = charLower
} else if unicode.IsUpper(char) {
class = charUpper
} else if unicode.IsLetter(char) {
class = charLetter
} else if unicode.IsNumber(char) {
class = charNumber
} else {
class = charNonWord
}
var point int32
if prevClass == charNonWord && class != charNonWord {
// Word boundary
point = 2
} else if prevClass == charLower && class == charUpper ||
prevClass != charNumber && class == charNumber {
// camelCase letter123
point = 1
}
prevClass = class
if index >= sidx {
if !caseSensitive {
if char >= 'A' && char <= 'Z' {
char += 32
} else if char > unicode.MaxASCII {
char = unicode.To(unicode.LowerCase, char)
}
}
pchar := pattern[pidx]
if pchar == char {
// Boost bonus for the first character in the pattern
if pidx == 0 {
point *= 2
}
// Bonus to consecutive matching chars
if consecutive {
point++
}
bonus += point
if pidx++; pidx == lenPattern {
break
}
consecutive = true
} else {
consecutive = false
}
}
}
return lenRunes - eidx, lenRunes - sidx
return Result{int32(sidx), int32(eidx), bonus}
}
return -1, -1
return Result{-1, -1, 0}
}
// ExactMatchNaive is a basic string searching algorithm that handles case
@ -105,16 +189,17 @@ func FuzzyMatch(caseSensitive bool, forward bool, runes []rune, pattern []rune)
//
// We might try to implement better algorithms in the future:
// http://en.wikipedia.org/wiki/String_searching_algorithm
func ExactMatchNaive(caseSensitive bool, forward bool, runes []rune, pattern []rune) (int, int) {
func ExactMatchNaive(caseSensitive bool, forward bool, runes []rune, pattern []rune) Result {
// Note: ExactMatchNaive always return a zero bonus.
if len(pattern) == 0 {
return 0, 0
return Result{0, 0, 0}
}
lenRunes := len(runes)
lenPattern := len(pattern)
if lenRunes < lenPattern {
return -1, -1
return Result{-1, -1, 0}
}
pidx := 0
@ -132,22 +217,23 @@ func ExactMatchNaive(caseSensitive bool, forward bool, runes []rune, pattern []r
pidx++
if pidx == lenPattern {
if forward {
return index - lenPattern + 1, index + 1
return Result{int32(index - lenPattern + 1), int32(index + 1), 0}
}
return lenRunes - (index + 1), lenRunes - (index - lenPattern + 1)
return Result{int32(lenRunes - (index + 1)), int32(lenRunes - (index - lenPattern + 1)), 0}
}
} else {
index -= pidx
pidx = 0
}
}
return -1, -1
return Result{-1, -1, 0}
}
// PrefixMatch performs prefix-match
func PrefixMatch(caseSensitive bool, forward bool, runes []rune, pattern []rune) (int, int) {
func PrefixMatch(caseSensitive bool, forward bool, runes []rune, pattern []rune) Result {
// Note: PrefixMatch always return a zero bonus.
if len(runes) < len(pattern) {
return -1, -1
return Result{-1, -1, 0}
}
for index, r := range pattern {
@ -156,19 +242,20 @@ func PrefixMatch(caseSensitive bool, forward bool, runes []rune, pattern []rune)
char = unicode.ToLower(char)
}
if char != r {
return -1, -1
return Result{-1, -1, 0}
}
}
return 0, len(pattern)
return Result{0, int32(len(pattern)), 0}
}
// SuffixMatch performs suffix-match
func SuffixMatch(caseSensitive bool, forward bool, input []rune, pattern []rune) (int, int) {
func SuffixMatch(caseSensitive bool, forward bool, input []rune, pattern []rune) Result {
// Note: SuffixMatch always return a zero bonus.
runes := util.TrimRight(input)
trimmedLen := len(runes)
diff := trimmedLen - len(pattern)
if diff < 0 {
return -1, -1
return Result{-1, -1, 0}
}
for index, r := range pattern {
@ -177,23 +264,24 @@ func SuffixMatch(caseSensitive bool, forward bool, input []rune, pattern []rune)
char = unicode.ToLower(char)
}
if char != r {
return -1, -1
return Result{-1, -1, 0}
}
}
return trimmedLen - len(pattern), trimmedLen
return Result{int32(trimmedLen - len(pattern)), int32(trimmedLen), 0}
}
// EqualMatch performs equal-match
func EqualMatch(caseSensitive bool, forward bool, runes []rune, pattern []rune) (int, int) {
func EqualMatch(caseSensitive bool, forward bool, runes []rune, pattern []rune) Result {
// Note: EqualMatch always return a zero bonus.
if len(runes) != len(pattern) {
return -1, -1
return Result{-1, -1, 0}
}
runesStr := string(runes)
if !caseSensitive {
runesStr = strings.ToLower(runesStr)
}
if runesStr == string(pattern) {
return 0, len(pattern)
return Result{0, int32(len(pattern)), 0}
}
return -1, -1
return Result{-1, -1, 0}
}

@ -5,65 +5,84 @@ import (
"testing"
)
func assertMatch(t *testing.T, fun func(bool, bool, []rune, []rune) (int, int), caseSensitive bool, forward bool, input string, pattern string, sidx int, eidx int) {
func assertMatch(t *testing.T, fun func(bool, bool, []rune, []rune) Result, caseSensitive, forward bool, input, pattern string, sidx int32, eidx int32, bonus int32) {
if !caseSensitive {
pattern = strings.ToLower(pattern)
}
s, e := fun(caseSensitive, forward, []rune(input), []rune(pattern))
if s != sidx {
t.Errorf("Invalid start index: %d (expected: %d, %s / %s)", s, sidx, input, pattern)
res := fun(caseSensitive, forward, []rune(input), []rune(pattern))
if res.Start != sidx {
t.Errorf("Invalid start index: %d (expected: %d, %s / %s)", res.Start, sidx, input, pattern)
}
if e != eidx {
t.Errorf("Invalid end index: %d (expected: %d, %s / %s)", e, eidx, input, pattern)
if res.End != eidx {
t.Errorf("Invalid end index: %d (expected: %d, %s / %s)", res.End, eidx, input, pattern)
}
if res.Bonus != bonus {
t.Errorf("Invalid bonus: %d (expected: %d, %s / %s)", res.Bonus, bonus, input, pattern)
}
}
func TestFuzzyMatch(t *testing.T) {
assertMatch(t, FuzzyMatch, false, true, "fooBarbaz", "oBZ", 2, 9)
assertMatch(t, FuzzyMatch, true, true, "fooBarbaz", "oBZ", -1, -1)
assertMatch(t, FuzzyMatch, true, true, "fooBarbaz", "oBz", 2, 9)
assertMatch(t, FuzzyMatch, true, true, "fooBarbaz", "fooBarbazz", -1, -1)
assertMatch(t, FuzzyMatch, false, true, "fooBarbaz", "oBZ", 2, 9, 2)
assertMatch(t, FuzzyMatch, false, true, "foo bar baz", "fbb", 0, 9, 8)
assertMatch(t, FuzzyMatch, false, true, "/AutomatorDocument.icns", "rdoc", 9, 13, 4)
assertMatch(t, FuzzyMatch, false, true, "/man1/zshcompctl.1", "zshc", 6, 10, 7)
assertMatch(t, FuzzyMatch, false, true, "/.oh-my-zsh/cache", "zshc", 8, 13, 8)
assertMatch(t, FuzzyMatch, false, true, "ab0123 456", "12356", 3, 10, 3)
assertMatch(t, FuzzyMatch, false, true, "abc123 456", "12356", 3, 10, 5)
assertMatch(t, FuzzyMatch, false, true, "foo/bar/baz", "fbb", 0, 9, 8)
assertMatch(t, FuzzyMatch, false, true, "fooBarBaz", "fbb", 0, 7, 6)
assertMatch(t, FuzzyMatch, false, true, "foo barbaz", "fbb", 0, 8, 6)
assertMatch(t, FuzzyMatch, false, true, "fooBar Baz", "foob", 0, 4, 8)
assertMatch(t, FuzzyMatch, true, true, "fooBarbaz", "oBZ", -1, -1, 0)
assertMatch(t, FuzzyMatch, true, true, "fooBarbaz", "oBz", 2, 9, 2)
assertMatch(t, FuzzyMatch, true, true, "Foo Bar Baz", "fbb", -1, -1, 0)
assertMatch(t, FuzzyMatch, true, true, "Foo/Bar/Baz", "FBB", 0, 9, 8)
assertMatch(t, FuzzyMatch, true, true, "FooBarBaz", "FBB", 0, 7, 6)
assertMatch(t, FuzzyMatch, true, true, "foo BarBaz", "fBB", 0, 8, 7)
assertMatch(t, FuzzyMatch, true, true, "FooBar Baz", "FooB", 0, 4, 8)
assertMatch(t, FuzzyMatch, true, true, "fooBarbaz", "fooBarbazz", -1, -1, 0)
}
func TestFuzzyMatchBackward(t *testing.T) {
assertMatch(t, FuzzyMatch, false, true, "foobar fb", "fb", 0, 4)
assertMatch(t, FuzzyMatch, false, false, "foobar fb", "fb", 7, 9)
assertMatch(t, FuzzyMatch, false, true, "foobar fb", "fb", 0, 4, 4)
assertMatch(t, FuzzyMatch, false, false, "foobar fb", "fb", 7, 9, 5)
}
func TestExactMatchNaive(t *testing.T) {
for _, dir := range []bool{true, false} {
assertMatch(t, ExactMatchNaive, false, dir, "fooBarbaz", "oBA", 2, 5)
assertMatch(t, ExactMatchNaive, true, dir, "fooBarbaz", "oBA", -1, -1)
assertMatch(t, ExactMatchNaive, true, dir, "fooBarbaz", "fooBarbazz", -1, -1)
assertMatch(t, ExactMatchNaive, false, dir, "fooBarbaz", "oBA", 2, 5, 0)
assertMatch(t, ExactMatchNaive, true, dir, "fooBarbaz", "oBA", -1, -1, 0)
assertMatch(t, ExactMatchNaive, true, dir, "fooBarbaz", "fooBarbazz", -1, -1, 0)
}
}
func TestExactMatchNaiveBackward(t *testing.T) {
assertMatch(t, ExactMatchNaive, false, true, "foobar foob", "oo", 1, 3)
assertMatch(t, ExactMatchNaive, false, false, "foobar foob", "oo", 8, 10)
assertMatch(t, ExactMatchNaive, false, true, "foobar foob", "oo", 1, 3, 0)
assertMatch(t, ExactMatchNaive, false, false, "foobar foob", "oo", 8, 10, 0)
}
func TestPrefixMatch(t *testing.T) {
for _, dir := range []bool{true, false} {
assertMatch(t, PrefixMatch, false, dir, "fooBarbaz", "Foo", 0, 3)
assertMatch(t, PrefixMatch, true, dir, "fooBarbaz", "Foo", -1, -1)
assertMatch(t, PrefixMatch, false, dir, "fooBarbaz", "baz", -1, -1)
assertMatch(t, PrefixMatch, false, dir, "fooBarbaz", "Foo", 0, 3, 0)
assertMatch(t, PrefixMatch, true, dir, "fooBarbaz", "Foo", -1, -1, 0)
assertMatch(t, PrefixMatch, false, dir, "fooBarbaz", "baz", -1, -1, 0)
}
}
func TestSuffixMatch(t *testing.T) {
for _, dir := range []bool{true, false} {
assertMatch(t, SuffixMatch, false, dir, "fooBarbaz", "Foo", -1, -1)
assertMatch(t, SuffixMatch, false, dir, "fooBarbaz", "baz", 6, 9)
assertMatch(t, SuffixMatch, true, dir, "fooBarbaz", "Baz", -1, -1)
assertMatch(t, SuffixMatch, false, dir, "fooBarbaz", "Foo", -1, -1, 0)
assertMatch(t, SuffixMatch, false, dir, "fooBarbaz", "baz", 6, 9, 0)
assertMatch(t, SuffixMatch, true, dir, "fooBarbaz", "Baz", -1, -1, 0)
}
}
func TestEmptyPattern(t *testing.T) {
for _, dir := range []bool{true, false} {
assertMatch(t, FuzzyMatch, true, dir, "foobar", "", 0, 0)
assertMatch(t, ExactMatchNaive, true, dir, "foobar", "", 0, 0)
assertMatch(t, PrefixMatch, true, dir, "foobar", "", 0, 0)
assertMatch(t, SuffixMatch, true, dir, "foobar", "", 6, 6)
assertMatch(t, FuzzyMatch, true, dir, "foobar", "", 0, 0, 0)
assertMatch(t, ExactMatchNaive, true, dir, "foobar", "", 0, 0, 0)
assertMatch(t, PrefixMatch, true, dir, "foobar", "", 0, 0, 0)
assertMatch(t, SuffixMatch, true, dir, "foobar", "", 6, 6, 0)
}
}

@ -23,6 +23,7 @@ type Item struct {
offsets []Offset
colors []ansiOffset
rank [5]int32
bonus int32
}
// Sort criteria to use. Never changes once fzf is started.
@ -73,15 +74,17 @@ func (item *Item) Rank(cache bool) [5]int32 {
matchlen += end - begin
}
}
if matchlen == 0 {
matchlen = math.MaxInt32
}
rank := buildEmptyRank(item.Index())
for idx, criterion := range sortCriteria {
var val int32
switch criterion {
case byMatchLen:
val = int32(matchlen)
if matchlen == 0 {
val = math.MaxInt32
} else {
// It is extremely unlikely that bonus exceeds 128
val = 128*int32(matchlen) - item.bonus
}
case byLength:
// It is guaranteed that .transformed in not null in normal execution
if item.transformed != nil {

@ -49,7 +49,7 @@ type Pattern struct {
cacheable bool
delimiter Delimiter
nth []Range
procFun map[termType]func(bool, bool, []rune, []rune) (int, int)
procFun map[termType]func(bool, bool, []rune, []rune) algo.Result
}
var (
@ -125,7 +125,7 @@ func BuildPattern(fuzzy bool, extended bool, caseMode Case, forward bool,
cacheable: cacheable,
nth: nth,
delimiter: delimiter,
procFun: make(map[termType]func(bool, bool, []rune, []rune) (int, int))}
procFun: make(map[termType]func(bool, bool, []rune, []rune) algo.Result)}
ptr.procFun[termFuzzy] = algo.FuzzyMatch
ptr.procFun[termEqual] = algo.EqualMatch
@ -275,15 +275,16 @@ func (p *Pattern) matchChunk(chunk *Chunk) []*Item {
matches := []*Item{}
if !p.extended {
for _, item := range *chunk {
if sidx, eidx, tlen := p.basicMatch(item); sidx >= 0 {
offset, bonus := p.basicMatch(item)
if sidx := offset[0]; sidx >= 0 {
matches = append(matches,
dupItem(item, []Offset{Offset{int32(sidx), int32(eidx), int32(tlen)}}))
dupItem(item, []Offset{offset}, bonus))
}
}
} else {
for _, item := range *chunk {
if offsets := p.extendedMatch(item); len(offsets) == len(p.termSets) {
matches = append(matches, dupItem(item, offsets))
if offsets, bonus := p.extendedMatch(item); len(offsets) == len(p.termSets) {
matches = append(matches, dupItem(item, offsets, bonus))
}
}
}
@ -293,25 +294,27 @@ func (p *Pattern) matchChunk(chunk *Chunk) []*Item {
// MatchItem returns true if the Item is a match
func (p *Pattern) MatchItem(item *Item) bool {
if !p.extended {
sidx, _, _ := p.basicMatch(item)
offset, _ := p.basicMatch(item)
sidx := offset[0]
return sidx >= 0
}
offsets := p.extendedMatch(item)
offsets, _ := p.extendedMatch(item)
return len(offsets) == len(p.termSets)
}
func dupItem(item *Item, offsets []Offset) *Item {
func dupItem(item *Item, offsets []Offset, bonus int32) *Item {
sort.Sort(ByOrder(offsets))
return &Item{
text: item.text,
origText: item.origText,
transformed: item.transformed,
offsets: offsets,
bonus: bonus,
colors: item.colors,
rank: buildEmptyRank(item.Index())}
}
func (p *Pattern) basicMatch(item *Item) (int, int, int) {
func (p *Pattern) basicMatch(item *Item) (Offset, int32) {
input := p.prepareInput(item)
if p.fuzzy {
return p.iter(algo.FuzzyMatch, input, p.caseSensitive, p.forward, p.text)
@ -319,29 +322,33 @@ func (p *Pattern) basicMatch(item *Item) (int, int, int) {
return p.iter(algo.ExactMatchNaive, input, p.caseSensitive, p.forward, p.text)
}
func (p *Pattern) extendedMatch(item *Item) []Offset {
func (p *Pattern) extendedMatch(item *Item) ([]Offset, int32) {
input := p.prepareInput(item)
offsets := []Offset{}
var totalBonus int32
for _, termSet := range p.termSets {
var offset *Offset
var bonus int32
for _, term := range termSet {
pfun := p.procFun[term.typ]
if sidx, eidx, tlen := p.iter(pfun, input, term.caseSensitive, p.forward, term.text); sidx >= 0 {
off, pen := p.iter(pfun, input, term.caseSensitive, p.forward, term.text)
if sidx := off[0]; sidx >= 0 {
if term.inv {
continue
}
offset = &Offset{int32(sidx), int32(eidx), int32(tlen)}
offset, bonus = &off, pen
break
} else if term.inv {
offset = &Offset{0, 0, 0}
offset, bonus = &Offset{0, 0, 0}, 0
continue
}
}
if offset != nil {
offsets = append(offsets, *offset)
totalBonus += bonus
}
}
return offsets
return offsets, totalBonus
}
func (p *Pattern) prepareInput(item *Item) []Token {
@ -360,13 +367,16 @@ func (p *Pattern) prepareInput(item *Item) []Token {
return ret
}
func (p *Pattern) iter(pfun func(bool, bool, []rune, []rune) (int, int),
tokens []Token, caseSensitive bool, forward bool, pattern []rune) (int, int, int) {
func (p *Pattern) iter(pfun func(bool, bool, []rune, []rune) algo.Result,
tokens []Token, caseSensitive bool, forward bool, pattern []rune) (Offset, int32) {
for _, part := range tokens {
prefixLength := part.prefixLength
if sidx, eidx := pfun(caseSensitive, forward, part.text, pattern); sidx >= 0 {
return sidx + prefixLength, eidx + prefixLength, part.trimLength
prefixLength := int32(part.prefixLength)
if res := pfun(caseSensitive, forward, part.text, pattern); res.Start >= 0 {
var sidx int32 = res.Start + prefixLength
var eidx int32 = res.End + prefixLength
return Offset{sidx, eidx, int32(part.trimLength)}, res.Bonus
}
}
return -1, -1, -1 // math.MaxUint16
// TODO: math.MaxUint16
return Offset{-1, -1, -1}, 0.0
}

@ -70,10 +70,10 @@ func TestExact(t *testing.T) {
clearPatternCache()
pattern := BuildPattern(true, true, CaseSmart, true,
[]Range{}, Delimiter{}, []rune("'abc"))
sidx, eidx := algo.ExactMatchNaive(
res := algo.ExactMatchNaive(
pattern.caseSensitive, pattern.forward, []rune("aabbcc abc"), pattern.termSets[0][0].text)
if sidx != 7 || eidx != 10 {
t.Errorf("%s / %d / %d", pattern.termSets, sidx, eidx)
if res.Start != 7 || res.End != 10 {
t.Errorf("%s / %d / %d", pattern.termSets, res.Start, res.End)
}
}
@ -82,11 +82,11 @@ func TestEqual(t *testing.T) {
clearPatternCache()
pattern := BuildPattern(true, true, CaseSmart, true, []Range{}, Delimiter{}, []rune("^AbC$"))
match := func(str string, sidxExpected int, eidxExpected int) {
sidx, eidx := algo.EqualMatch(
match := func(str string, sidxExpected int32, eidxExpected int32) {
res := algo.EqualMatch(
pattern.caseSensitive, pattern.forward, []rune(str), pattern.termSets[0][0].text)
if sidx != sidxExpected || eidx != eidxExpected {
t.Errorf("%s / %d / %d", pattern.termSets, sidx, eidx)
if res.Start != sidxExpected || res.End != eidxExpected {
t.Errorf("%s / %d / %d", pattern.termSets, res.Start, res.End)
}
}
match("ABC", -1, -1)

@ -207,13 +207,13 @@ class TestGoFZF < TestBase
tmux.send_keys '99', 'C-a', '1', 'C-f', '3', 'C-b', 'C-h', 'C-u', 'C-e', 'C-y', 'C-k', 'Tab', 'BTab'
tmux.until { |lines| lines[-2] == ' 856/100000' }
lines = tmux.capture
assert_equal '> 1391', lines[-4]
assert_equal '> 3910', lines[-4]
assert_equal ' 391', lines[-3]
assert_equal ' 856/100000', lines[-2]
assert_equal '> 391', lines[-1]
tmux.send_keys :Enter
assert_equal '1391', readonce.chomp
assert_equal '3910', readonce.chomp
end
def test_fzf_default_command
@ -357,7 +357,7 @@ class TestGoFZF < TestBase
tmux.send_keys :BTab, :BTab, :BTab
tmux.until { |lines| lines[-2].include?('(3)') }
tmux.send_keys :Enter
assert_equal ['5', '5', '15', '25'], readonce.split($/)
assert_equal ['5', '5', '50', '51'], readonce.split($/)
end
end
@ -378,7 +378,7 @@ class TestGoFZF < TestBase
tmux.send_keys :Enter
tmux.until { |lines| lines[-1] == '>' }
tmux.send_keys 'C-K', :Enter
assert_equal ['1919'], readonce.split($/)
assert_equal ['9090'], readonce.split($/)
end
def test_tac
@ -711,10 +711,10 @@ class TestGoFZF < TestBase
# len(1 ~ 2)
output = [
"apple ui bottle 2",
"app ic bottle 4",
"apple juice bottle 1",
"app ice bottle 3",
"apple ui bottle 2",
"apple juice bottle 1",
]
assert_equal output, `#{FZF} -fai -n1..2 < #{tempname}`.split($/)
@ -729,9 +729,9 @@ class TestGoFZF < TestBase
# len(2)
output = [
"apple ui bottle 2",
"app ic bottle 4",
"app ice bottle 3",
"apple ui bottle 2",
"apple juice bottle 1",
]
assert_equal output, `#{FZF} -fi -n2 < #{tempname}`.split($/)
@ -943,12 +943,12 @@ class TestGoFZF < TestBase
lines[-2].include?('/90') &&
lines[-3] == ' 1' &&
lines[-4] == ' 2' &&
lines[-13] == '> 15'
lines[-13] == '> 50'
end
tmux.send_keys :Down
end
tmux.send_keys :Enter
assert_equal '15', readonce.chomp
assert_equal '50', readonce.chomp
end
def test_header_lines_reverse
@ -958,12 +958,12 @@ class TestGoFZF < TestBase
lines[1].include?('/90') &&
lines[2] == ' 1' &&
lines[3] == ' 2' &&
lines[12] == '> 15'
lines[12] == '> 50'
end
tmux.send_keys :Up
end
tmux.send_keys :Enter
assert_equal '15', readonce.chomp
assert_equal '50', readonce.chomp
end
def test_header_lines_overflow

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