:![[x]](/images/drop-condition-icon.png "条件を削除"){kind=icon}
種類
- インスタンスメソッド (106)
- 文書 (11)
モジュール
- Kernel (44)
キーワード
-
bsearch
_ index (18) -
check
_ signedness (22) -
convertible
_ int (22) -
ruby 1
. 6 feature (11) - sort (11)
-
uid
_ search (11) -
uid
_ sort (11)
検索結果
先頭5件
-
Net
:: IMAP # search(keys , charset = nil) -> [Integer] (18242.0) -
SEARCH コマンドを送り、条件に合うメッセージの message sequence number を配列で返します。
...SEARCH コマンドを送り、条件に合うメッセージの message sequence number
を配列で返します。
Net::IMAP#examine もしくは Net::IMAP#select で
指定したメールボックスを検索対象とします。
検索の条件は key に文字列の1次元配列もしくは......ます。
詳しくは 2060 の 6.4.4 を見てください。
例:
p imap.search(["SUBJECT", "hello"])
#=> [1, 6, 7, 8]
p imap.search(["SUBJECT", "hello", "FROM", "foo@example.com"])
#=> [6, 7]
p imap.search('SUBJECT "hello"')
#=> [1, 6, 7, 8]
@param key 検索キー(文字列の配......列もしくは文字列)
@param charset 検索に用いるcharset
@see Net::IMAP#search... -
Net
:: IMAP # uid _ search(keys , charset = nil) -> [Integer] (6242.0) -
UID SEARCH コマンドを送り、条件に合うメッセージの UID を配列で返します。
...UID SEARCH コマンドを送り、条件に合うメッセージの UID
を配列で返します。
Net::IMAP#examine もしくは Net::IMAP#select で
指定したメールボックスを検索対象とします。
検索の条件は key に文字列の1次元配列もしくは文字列で渡......。
詳しくは 2060 の 6.4.4 を見てください。
例:
p imap.uid_search(["SUBJECT", "hello"])
#=> [1, 6, 7, 8]
p imap.uid_search(["SUBJECT", "hello", "FROM", "foo@example.com"])
#=> [6, 7]
p imap.uid_search('SUBJECT "hello"')
#=> [1, 6, 7, 8]
@param key 検索キー(文字列......の配列もしくは文字列)
@param charset 検索に用いるcharset
@see Net::IMAP#uid_search... -
Array
# bsearch _ index { |x| . . . } -> Integer | nil (6201.0) -
ブロックの評価結果で範囲内の各要素の判定を行い、条件を満たす値の位置を 二分探索(計算量は O(log n))で検索します。要素が見つからない場合は nil を返します。self はあらかじめソートしておく必要があります。
...ッドはArray#bsearchと同様に、ブロックを評価した結果により2
つのモードで動作します。Array#bsearch との違いは見つかった要素自
身を返すか位置を返すかのみです。各モードのより詳細な違いについては
Array#bsearch を参照して......ry.bsearch_index { |x| x >= 4 } # => 1
ary.bsearch_index { |x| x >= 6 } # => 2
ary.bsearch_index { |x| x >= -1 } # => 0
ary.bsearch_index { |x| x >= 100 } # => nil
//}
//emlist[例: find-any モード][ruby]{
ary = [0, 4, 7, 10, 12]
# 4 <= v < 8 になる要素の位置を検索
ary.bsearch_in......dex { |x| 1 - x / 4 } # => 2
# 8 <= v < 10 になる要素の位置を検索
ary.bsearch_index { |x| 4 - x / 2 } # => nil
//}
@see Array#bsearch... -
Array
# bsearch _ index -> Enumerator (6101.0) -
ブロックの評価結果で範囲内の各要素の判定を行い、条件を満たす値の位置を 二分探索(計算量は O(log n))で検索します。要素が見つからない場合は nil を返します。self はあらかじめソートしておく必要があります。
...ッドはArray#bsearchと同様に、ブロックを評価した結果により2
つのモードで動作します。Array#bsearch との違いは見つかった要素自
身を返すか位置を返すかのみです。各モードのより詳細な違いについては
Array#bsearch を参照して......ry.bsearch_index { |x| x >= 4 } # => 1
ary.bsearch_index { |x| x >= 6 } # => 2
ary.bsearch_index { |x| x >= -1 } # => 0
ary.bsearch_index { |x| x >= 100 } # => nil
//}
//emlist[例: find-any モード][ruby]{
ary = [0, 4, 7, 10, 12]
# 4 <= v < 8 になる要素の位置を検索
ary.bsearch_in......dex { |x| 1 - x / 4 } # => 2
# 8 <= v < 10 になる要素の位置を検索
ary.bsearch_index { |x| 4 - x / 2 } # => nil
//}
@see Array#bsearch... -
Net
:: IMAP # sort(sort _ keys , search _ keys , charset) -> [Integer] (222.0) -
SORT コマンド送り、メールボックス内の メッセージをソートした結果を返します。
...OM", "TO", "SUBJECT" などが指定できます。
詳しくは 5265 の BASE.6.4.SORT の所を見てください。
search_key には検索条件を渡します。Net::IMAP#search と
ほぼ同じです。この条件にマッチするメッセージのみがソートされます。
Net::IMAP#e......], "US-ASCII")
#=> [1, 2, 3, 5, 6, 7, 8, 4, 9]
p imap.sort(["DATE"], ["SUBJECT", "hello"], "US-ASCII")
#=> [6, 7, 8, 1]
@param sort_key ソート順のキー(文字列配列)
@param search_key 検索条件(文字列配列)
@param charset 検索条件の解釈に用いるCHARSET名(文字列)... -
Net
:: IMAP # uid _ sort(sort _ keys , search _ keys , charset) -> [Integer] (222.0) -
SORT コマンド送り、メールボックス内の メッセージをソートした結果を返します。
...OM", "TO", "SUBJECT" などが指定できます。
詳しくは 5265 の BASE.6.4.SORT の所を見てください。
search_key には検索条件を渡します。Net::IMAP#search と
ほぼ同じです。この条件にマッチするメッセージのみがソートされます。
Net::IMAP#e......], "US-ASCII")
#=> [1, 2, 3, 5, 6, 7, 8, 4, 9]
p imap.sort(["DATE"], ["SUBJECT", "hello"], "US-ASCII")
#=> [6, 7, 8, 1]
@param sort_key ソート順のキー(文字列配列)
@param search_key 検索条件(文字列配列)
@param charset 検索条件の解釈に用いるCHARSET名(文字列)... -
Kernel
# convertible _ int(type , headers = nil , opts = nil) (64.0) -
Returns the convertible integer type of the given +type+. You may optionally specify additional +headers+ to search in for the +type+. _Convertible_ means actually same type, or typedefed from same type. If the +type+ is a integer type and _convertible_ type is found, following macros are passed as preprocessor constants to the compiler using the +type+ name, in uppercase. * 'TYPEOF_', followed by the +type+ name, followed by '=X' where 'X' is the found _convertible_ type name. * 'TYP2NUM' and 'NUM2TYP, where 'TYP' is the +type+ name in uppercase with replacing '_t' suffix with 'T', followed by '=X' where 'X' is the macro name to convert +type+ to +Integer+ object, and vice versa. For example, if foobar_t is defined as unsigned long, then convertible_int("foobar_t") would return "unsigned long", and define macros: #define TYPEOF_FOOBAR_T unsigned long #define FOOBART2NUM ULONG2NUM #define NUM2FOOBART NUM2ULONG
...Returns the convertible integer type of the given +type+. You may
optionally specify additional +headers+ to search in for the +type+.
_Convertible_ means actually same type, or typedefed from same type.
If the +type+ is a integer type and _convertible_ type is found,
following macros are p......TYP' is the +type+ name in uppercase with replacing '_t'
suffix with 'T', followed by '=X' where 'X' is the macro name to
convert +type+ to +Integer+ object, and vice versa.
For example, if foobar_t is defined as unsigned long, then
convertible_int("foobar_t") would return "unsigned long",... -
Kernel
# convertible _ int(type , headers = nil , opts = nil) { . . . } (64.0) -
Returns the convertible integer type of the given +type+. You may optionally specify additional +headers+ to search in for the +type+. _Convertible_ means actually same type, or typedefed from same type. If the +type+ is a integer type and _convertible_ type is found, following macros are passed as preprocessor constants to the compiler using the +type+ name, in uppercase. * 'TYPEOF_', followed by the +type+ name, followed by '=X' where 'X' is the found _convertible_ type name. * 'TYP2NUM' and 'NUM2TYP, where 'TYP' is the +type+ name in uppercase with replacing '_t' suffix with 'T', followed by '=X' where 'X' is the macro name to convert +type+ to +Integer+ object, and vice versa. For example, if foobar_t is defined as unsigned long, then convertible_int("foobar_t") would return "unsigned long", and define macros: #define TYPEOF_FOOBAR_T unsigned long #define FOOBART2NUM ULONG2NUM #define NUM2FOOBART NUM2ULONG
...Returns the convertible integer type of the given +type+. You may
optionally specify additional +headers+ to search in for the +type+.
_Convertible_ means actually same type, or typedefed from same type.
If the +type+ is a integer type and _convertible_ type is found,
following macros are p......TYP' is the +type+ name in uppercase with replacing '_t'
suffix with 'T', followed by '=X' where 'X' is the macro name to
convert +type+ to +Integer+ object, and vice versa.
For example, if foobar_t is defined as unsigned long, then
convertible_int("foobar_t") would return "unsigned long",... -
Kernel
# check _ signedness(type , headers = nil , opts = nil) -> "signed" | "unsigned" | nil (48.0) -
Returns the signedness of the given +type+. You may optionally specify additional +headers+ to search in for the +type+. If the +type+ is found and is a numeric type, a macro is passed as a preprocessor constant to the compiler using the +type+ name, in uppercase, prepended with 'SIGNEDNESS_OF_', followed by the +type+ name, followed by '=X' where 'X' is positive integer if the +type+ is unsigned, or negative integer if the +type+ is signed. For example, if size_t is defined as unsigned, then check_signedness('size_t') would returned +1 and the SIGNEDNESS_OF_SIZE_T=+1 preprocessor macro would be passed to the compiler, and SIGNEDNESS_OF_INT=-1 if check_signedness('int') is done.
...ders+ to search in for the +type+.
If the +type+ is found and is a numeric type, a macro is passed as a
preprocessor constant to the compiler using the +type+ name, in
uppercase, prepended with 'SIGNEDNESS_OF_', followed by the +type+
name, followed by '=X' where 'X' is positive integer if the......+type+ is
unsigned, or negative integer if the +type+ is signed.
For example, if size_t is defined as unsigned, then
check_signedness('size_t') would returned +1 and the
SIGNEDNESS_OF_SIZE_T=+1 preprocessor macro would be passed to the
compiler, and SIGNEDNESS_OF_INT=-1 if check_signedness('... -
Kernel
# check _ signedness(type , headers = nil , opts = nil) { . . . } -> "signed" | "unsigned" | nil (48.0) -
Returns the signedness of the given +type+. You may optionally specify additional +headers+ to search in for the +type+. If the +type+ is found and is a numeric type, a macro is passed as a preprocessor constant to the compiler using the +type+ name, in uppercase, prepended with 'SIGNEDNESS_OF_', followed by the +type+ name, followed by '=X' where 'X' is positive integer if the +type+ is unsigned, or negative integer if the +type+ is signed. For example, if size_t is defined as unsigned, then check_signedness('size_t') would returned +1 and the SIGNEDNESS_OF_SIZE_T=+1 preprocessor macro would be passed to the compiler, and SIGNEDNESS_OF_INT=-1 if check_signedness('int') is done.
...ders+ to search in for the +type+.
If the +type+ is found and is a numeric type, a macro is passed as a
preprocessor constant to the compiler using the +type+ name, in
uppercase, prepended with 'SIGNEDNESS_OF_', followed by the +type+
name, followed by '=X' where 'X' is positive integer if the......+type+ is
unsigned, or negative integer if the +type+ is signed.
For example, if size_t is defined as unsigned, then
check_signedness('size_t') would returned +1 and the
SIGNEDNESS_OF_SIZE_T=+1 preprocessor macro would be passed to the
compiler, and SIGNEDNESS_OF_INT=-1 if check_signedness('...