forked from aniani/vim
patch 8.2.1665: cannot do fuzzy string matching
Problem: Cannot do fuzzy string matching. Solution: Add matchfuzzy(). (Yegappan Lakshmanan, closes #6932)
This commit is contained in:
@@ -2641,6 +2641,7 @@ matcharg({nr}) List arguments of |:match|
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matchdelete({id} [, {win}]) Number delete match identified by {id}
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matchdelete({id} [, {win}]) Number delete match identified by {id}
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matchend({expr}, {pat} [, {start} [, {count}]])
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matchend({expr}, {pat} [, {start} [, {count}]])
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Number position where {pat} ends in {expr}
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Number position where {pat} ends in {expr}
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matchfuzzy({list}, {str}) List fuzzy match {str} in {list}
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matchlist({expr}, {pat} [, {start} [, {count}]])
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matchlist({expr}, {pat} [, {start} [, {count}]])
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List match and submatches of {pat} in {expr}
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List match and submatches of {pat} in {expr}
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matchstr({expr}, {pat} [, {start} [, {count}]])
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matchstr({expr}, {pat} [, {start} [, {count}]])
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@@ -7307,6 +7308,29 @@ matchend({expr}, {pat} [, {start} [, {count}]]) *matchend()*
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Can also be used as a |method|: >
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Can also be used as a |method|: >
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GetText()->matchend('word')
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GetText()->matchend('word')
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matchfuzzy({list}, {str}) *matchfuzzy()*
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Returns a list with all the strings in {list} that fuzzy
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match {str}. The strings in the returned list are sorted
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based on the matching score. {str} is treated as a literal
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string and regular expression matching is NOT supported.
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The maximum supported {str} length is 256.
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If there are no matching strings or there is an error, then an
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empty list is returned. If length of {str} is greater than
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256, then returns an empty list.
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Example: >
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:echo matchfuzzy(["clay", "crow"], "cay")
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< results in ["clay"]. >
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:echo getbufinfo()->map({_, v -> v.name})->matchfuzzy("ndl")
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< results in a list of buffer names fuzzy matching "ndl". >
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:echo v:oldfiles->matchfuzzy("test")
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< results in a list of file names fuzzy matching "test". >
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:let l = readfile("buffer.c")->matchfuzzy("str")
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< results in a list of lines in "buffer.c" fuzzy matching "str".
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matchlist({expr}, {pat} [, {start} [, {count}]]) *matchlist()*
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matchlist({expr}, {pat} [, {start} [, {count}]]) *matchlist()*
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Same as |match()|, but return a |List|. The first item in the
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Same as |match()|, but return a |List|. The first item in the
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list is the matched string, same as what matchstr() would
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list is the matched string, same as what matchstr() would
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@@ -603,6 +603,7 @@ String manipulation: *string-functions*
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charclass() class of a character
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charclass() class of a character
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match() position where a pattern matches in a string
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match() position where a pattern matches in a string
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matchend() position where a pattern match ends in a string
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matchend() position where a pattern match ends in a string
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matchfuzzy() fuzzy matches a string in a list of strings
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matchstr() match of a pattern in a string
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matchstr() match of a pattern in a string
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matchstrpos() match and positions of a pattern in a string
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matchstrpos() match and positions of a pattern in a string
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matchlist() like matchstr() and also return submatches
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matchlist() like matchstr() and also return submatches
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@@ -750,6 +750,7 @@ static funcentry_T global_functions[] =
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{"matcharg", 1, 1, FEARG_1, ret_list_string, f_matcharg},
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{"matcharg", 1, 1, FEARG_1, ret_list_string, f_matcharg},
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{"matchdelete", 1, 2, FEARG_1, ret_number, f_matchdelete},
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{"matchdelete", 1, 2, FEARG_1, ret_number, f_matchdelete},
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{"matchend", 2, 4, FEARG_1, ret_number, f_matchend},
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{"matchend", 2, 4, FEARG_1, ret_number, f_matchend},
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{"matchfuzzy", 2, 2, FEARG_1, ret_list_string, f_matchfuzzy},
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{"matchlist", 2, 4, FEARG_1, ret_list_string, f_matchlist},
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{"matchlist", 2, 4, FEARG_1, ret_list_string, f_matchlist},
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{"matchstr", 2, 4, FEARG_1, ret_string, f_matchstr},
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{"matchstr", 2, 4, FEARG_1, ret_string, f_matchstr},
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{"matchstrpos", 2, 4, FEARG_1, ret_list_any, f_matchstrpos},
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{"matchstrpos", 2, 4, FEARG_1, ret_list_any, f_matchstrpos},
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@@ -36,4 +36,5 @@ void find_pattern_in_path(char_u *ptr, int dir, int len, int whole, int skip_com
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spat_T *get_spat(int idx);
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spat_T *get_spat(int idx);
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int get_spat_last_idx(void);
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int get_spat_last_idx(void);
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void f_searchcount(typval_T *argvars, typval_T *rettv);
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void f_searchcount(typval_T *argvars, typval_T *rettv);
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void f_matchfuzzy(typval_T *argvars, typval_T *rettv);
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/* vim: set ft=c : */
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/* vim: set ft=c : */
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340
src/search.c
340
src/search.c
@@ -4165,4 +4165,344 @@ f_searchcount(typval_T *argvars, typval_T *rettv)
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the_end:
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the_end:
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restore_last_search_pattern();
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restore_last_search_pattern();
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}
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}
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/*
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* Fuzzy string matching
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*
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* Ported from the lib_fts library authored by Forrest Smith.
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* https://github.com/forrestthewoods/lib_fts/tree/master/code
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*
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* Blog describing the algorithm:
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* https://www.forrestthewoods.com/blog/reverse_engineering_sublime_texts_fuzzy_match/
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*
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* Each matching string is assigned a score. The following factors are checked:
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* Matched letter
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* Unmatched letter
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* Consecutively matched letters
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* Proximity to start
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* Letter following a separator (space, underscore)
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* Uppercase letter following lowercase (aka CamelCase)
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*
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* Matched letters are good. Unmatched letters are bad. Matching near the start
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* is good. Matching the first letter in the middle of a phrase is good.
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* Matching the uppercase letters in camel case entries is good.
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*
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* The score assigned for each factor is explained below.
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* File paths are different from file names. File extensions may be ignorable.
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* Single words care about consecutive matches but not separators or camel
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* case.
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* Score starts at 0
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* Matched letter: +0 points
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* Unmatched letter: -1 point
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* Consecutive match bonus: +5 points
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* Separator bonus: +10 points
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* Camel case bonus: +10 points
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* Unmatched leading letter: -3 points (max: -9)
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*
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* There is some nuance to this. Scores don’t have an intrinsic meaning. The
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* score range isn’t 0 to 100. It’s roughly [-50, 50]. Longer words have a
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* lower minimum score due to unmatched letter penalty. Longer search patterns
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* have a higher maximum score due to match bonuses.
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*
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* Separator and camel case bonus is worth a LOT. Consecutive matches are worth
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* quite a bit.
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*
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* There is a penalty if you DON’T match the first three letters. Which
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* effectively rewards matching near the start. However there’s no difference
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* in matching between the middle and end.
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*
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* There is not an explicit bonus for an exact match. Unmatched letters receive
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* a penalty. So shorter strings and closer matches are worth more.
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*/
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typedef struct
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{
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listitem_T *item;
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int score;
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} fuzzyItem_T;
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static int
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fuzzy_match_recursive(
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char_u *fuzpat,
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char_u *str,
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int *outScore,
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char_u *strBegin,
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char_u *srcMatches,
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char_u *matches,
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int maxMatches,
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int nextMatch,
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int *recursionCount,
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int recursionLimit)
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{
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// Recursion params
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int recursiveMatch = FALSE;
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char_u bestRecursiveMatches[256];
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int bestRecursiveScore = 0;
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int first_match;
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int matched;
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// Count recursions
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++*recursionCount;
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if (*recursionCount >= recursionLimit)
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return FALSE;
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// Detect end of strings
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if (*fuzpat == '\0' || *str == '\0')
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return FALSE;
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// Loop through fuzpat and str looking for a match
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first_match = TRUE;
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while (*fuzpat != '\0' && *str != '\0')
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{
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// Found match
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if (vim_tolower(*fuzpat) == vim_tolower(*str))
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{
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char_u recursiveMatches[256];
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int recursiveScore = 0;
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// Supplied matches buffer was too short
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if (nextMatch >= maxMatches)
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return FALSE;
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// "Copy-on-Write" srcMatches into matches
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if (first_match && srcMatches)
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{
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memcpy(matches, srcMatches, nextMatch);
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first_match = FALSE;
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}
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// Recursive call that "skips" this match
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if (fuzzy_match_recursive(fuzpat, str + 1, &recursiveScore,
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strBegin, matches, recursiveMatches,
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sizeof(recursiveMatches), nextMatch, recursionCount,
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recursionLimit))
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{
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// Pick best recursive score
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if (!recursiveMatch || recursiveScore > bestRecursiveScore)
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{
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memcpy(bestRecursiveMatches, recursiveMatches, 256);
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bestRecursiveScore = recursiveScore;
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}
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recursiveMatch = TRUE;
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}
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// Advance
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matches[nextMatch++] = (char_u)(str - strBegin);
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++fuzpat;
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}
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++str;
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}
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// Determine if full fuzpat was matched
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matched = *fuzpat == '\0' ? TRUE : FALSE;
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// Calculate score
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if (matched)
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{
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// bonus for adjacent matches
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int sequential_bonus = 15;
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// bonus if match occurs after a separator
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int separator_bonus = 30;
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// bonus if match is uppercase and prev is lower
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int camel_bonus = 30;
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// bonus if the first letter is matched
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int first_letter_bonus = 15;
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// penalty applied for every letter in str before the first match
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int leading_letter_penalty = -5;
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// maximum penalty for leading letters
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int max_leading_letter_penalty = -15;
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// penalty for every letter that doesn't matter
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int unmatched_letter_penalty = -1;
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int penalty;
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int unmatched;
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int i;
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// Iterate str to end
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while (*str != '\0')
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++str;
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// Initialize score
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*outScore = 100;
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// Apply leading letter penalty
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penalty = leading_letter_penalty * matches[0];
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if (penalty < max_leading_letter_penalty)
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penalty = max_leading_letter_penalty;
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*outScore += penalty;
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// Apply unmatched penalty
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unmatched = (int)(str - strBegin) - nextMatch;
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*outScore += unmatched_letter_penalty * unmatched;
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// Apply ordering bonuses
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for (i = 0; i < nextMatch; ++i)
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{
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char_u currIdx = matches[i];
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if (i > 0)
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{
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char_u prevIdx = matches[i - 1];
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// Sequential
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if (currIdx == (prevIdx + 1))
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*outScore += sequential_bonus;
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}
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// Check for bonuses based on neighbor character value
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if (currIdx > 0)
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{
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// Camel case
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char_u neighbor = strBegin[currIdx - 1];
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char_u curr = strBegin[currIdx];
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int neighborSeparator;
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if (islower(neighbor) && isupper(curr))
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*outScore += camel_bonus;
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// Separator
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neighborSeparator = neighbor == '_' || neighbor == ' ';
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if (neighborSeparator)
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*outScore += separator_bonus;
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}
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else
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{
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// First letter
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*outScore += first_letter_bonus;
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}
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}
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}
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// Return best result
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if (recursiveMatch && (!matched || bestRecursiveScore > *outScore))
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{
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// Recursive score is better than "this"
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memcpy(matches, bestRecursiveMatches, maxMatches);
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*outScore = bestRecursiveScore;
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return TRUE;
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}
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else if (matched)
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return TRUE; // "this" score is better than recursive
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return FALSE; // no match
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}
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/*
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* fuzzy_match()
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*
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* Performs exhaustive search via recursion to find all possible matches and
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* match with highest score.
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* Scores values have no intrinsic meaning. Possible score range is not
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* normalized and varies with pattern.
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* Recursion is limited internally (default=10) to prevent degenerate cases
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* (fuzpat="aaaaaa" str="aaaaaaaaaaaaaaaaaaaaaaaaaaaaaa").
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* Uses char_u for match indices. Therefore patterns are limited to 256
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* characters.
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*
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* Returns TRUE if fuzpat is found AND calculates a score.
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*/
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static int
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fuzzy_match(char_u *str, char_u *fuzpat, int *outScore)
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{
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char_u matches[256];
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int recursionCount = 0;
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int recursionLimit = 10;
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*outScore = 0;
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return fuzzy_match_recursive(fuzpat, str, outScore, str, NULL, matches,
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sizeof(matches), 0, &recursionCount, recursionLimit);
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}
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/*
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* Sort the fuzzy matches in the descending order of the match score.
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*/
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static int
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fuzzy_item_compare(const void *s1, const void *s2)
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{
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int v1 = ((fuzzyItem_T *)s1)->score;
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int v2 = ((fuzzyItem_T *)s2)->score;
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return v1 == v2 ? 0 : v1 > v2 ? -1 : 1;
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}
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/*
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* Fuzzy search the string 'str' in 'strlist' and return the matching strings
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* in 'fmatchlist'.
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*/
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static void
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match_fuzzy(list_T *strlist, char_u *str, list_T *fmatchlist)
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{
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long len;
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fuzzyItem_T *ptrs;
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listitem_T *li;
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long i = 0;
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int found_match = FALSE;
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len = list_len(strlist);
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if (len == 0)
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return;
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ptrs = ALLOC_MULT(fuzzyItem_T, len);
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if (ptrs == NULL)
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return;
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// For all the string items in strlist, get the fuzzy matching score
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FOR_ALL_LIST_ITEMS(strlist, li)
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{
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int score;
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ptrs[i].item = li;
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ptrs[i].score = -9999;
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// ignore non-string items in the list
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if (li->li_tv.v_type == VAR_STRING && li->li_tv.vval.v_string != NULL)
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if (fuzzy_match(li->li_tv.vval.v_string, str, &score))
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{
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ptrs[i].score = score;
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found_match = TRUE;
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}
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++i;
|
||||||
|
}
|
||||||
|
|
||||||
|
if (found_match)
|
||||||
|
{
|
||||||
|
// Sort the list by the descending order of the match score
|
||||||
|
qsort((void *)ptrs, (size_t)len, sizeof(fuzzyItem_T),
|
||||||
|
fuzzy_item_compare);
|
||||||
|
|
||||||
|
// Copy the matching strings with 'score != -9999' to the return list
|
||||||
|
for (i = 0; i < len; i++)
|
||||||
|
{
|
||||||
|
if (ptrs[i].score == -9999)
|
||||||
|
break;
|
||||||
|
list_append_string(fmatchlist, ptrs[i].item->li_tv.vval.v_string,
|
||||||
|
-1);
|
||||||
|
}
|
||||||
|
}
|
||||||
|
|
||||||
|
vim_free(ptrs);
|
||||||
|
}
|
||||||
|
|
||||||
|
/*
|
||||||
|
* "matchfuzzy()" function
|
||||||
|
*/
|
||||||
|
void
|
||||||
|
f_matchfuzzy(typval_T *argvars, typval_T *rettv)
|
||||||
|
{
|
||||||
|
if (argvars[0].v_type != VAR_LIST)
|
||||||
|
{
|
||||||
|
emsg(_(e_listreq));
|
||||||
|
return;
|
||||||
|
}
|
||||||
|
if (argvars[0].vval.v_list == NULL)
|
||||||
|
return;
|
||||||
|
if (argvars[1].v_type != VAR_STRING
|
||||||
|
|| argvars[1].vval.v_string == NULL)
|
||||||
|
{
|
||||||
|
semsg(_(e_invarg2), tv_get_string(&argvars[1]));
|
||||||
|
return;
|
||||||
|
}
|
||||||
|
if (rettv_list_alloc(rettv) == OK)
|
||||||
|
match_fuzzy(argvars[0].vval.v_list, tv_get_string(&argvars[1]),
|
||||||
|
rettv->vval.v_list);
|
||||||
|
}
|
||||||
|
|
||||||
#endif
|
#endif
|
||||||
|
@@ -2554,4 +2554,28 @@ func Test_browsedir()
|
|||||||
call assert_fails('call browsedir("open", [])', 'E730:')
|
call assert_fails('call browsedir("open", [])', 'E730:')
|
||||||
endfunc
|
endfunc
|
||||||
|
|
||||||
|
" Test for matchfuzzy()
|
||||||
|
func Test_matchfuzzy()
|
||||||
|
call assert_fails('call matchfuzzy(10, "abc")', 'E714:')
|
||||||
|
call assert_fails('call matchfuzzy(["abc"], [])', 'E730:')
|
||||||
|
call assert_equal([], matchfuzzy([], 'abc'))
|
||||||
|
call assert_equal([], matchfuzzy(['abc'], ''))
|
||||||
|
call assert_equal(['abc'], matchfuzzy(['abc', 10], 'ac'))
|
||||||
|
call assert_equal([], matchfuzzy([10, 20], 'ac'))
|
||||||
|
call assert_equal(['abc'], matchfuzzy(['abc'], 'abc'))
|
||||||
|
call assert_equal(['crayon', 'camera'], matchfuzzy(['camera', 'crayon'], 'cra'))
|
||||||
|
call assert_equal(['aabbaa', 'aaabbbaaa', 'aaaabbbbaaaa', 'aba'], matchfuzzy(['aba', 'aabbaa', 'aaabbbaaa', 'aaaabbbbaaaa'], 'aa'))
|
||||||
|
call assert_equal(['one'], matchfuzzy(['one', 'two'], 'one'))
|
||||||
|
call assert_equal(['oneTwo', 'onetwo'], matchfuzzy(['onetwo', 'oneTwo'], 'oneTwo'))
|
||||||
|
call assert_equal(['one_two', 'onetwo'], matchfuzzy(['onetwo', 'one_two'], 'oneTwo'))
|
||||||
|
call assert_equal(['aaaaaaaaaaaaaaaaaaaaaaaaaaaaaa'], matchfuzzy(['aaaaaaaaaaaaaaaaaaaaaaaaaaaaaa'], 'aa'))
|
||||||
|
call assert_equal([], matchfuzzy([repeat('a', 300)], repeat('a', 257)))
|
||||||
|
|
||||||
|
%bw!
|
||||||
|
eval ['somebuf', 'anotherone', 'needle', 'yetanotherone']->map({_, v -> bufadd(v) + bufload(v)})
|
||||||
|
let l = getbufinfo()->map({_, v -> v.name})->matchfuzzy('ndl')
|
||||||
|
call assert_equal(1, len(l))
|
||||||
|
call assert_match('needle', l[0])
|
||||||
|
endfunc
|
||||||
|
|
||||||
" vim: shiftwidth=2 sts=2 expandtab
|
" vim: shiftwidth=2 sts=2 expandtab
|
||||||
|
@@ -750,6 +750,8 @@ static char *(features[]) =
|
|||||||
|
|
||||||
static int included_patches[] =
|
static int included_patches[] =
|
||||||
{ /* Add new patch number below this line */
|
{ /* Add new patch number below this line */
|
||||||
|
/**/
|
||||||
|
1665,
|
||||||
/**/
|
/**/
|
||||||
1664,
|
1664,
|
||||||
/**/
|
/**/
|
||||||
|
Reference in New Issue
Block a user