public final class CharSeq extends java.lang.Object implements java.lang.CharSequence, IndexedSeq<java.lang.Character>, java.io.Serializable, java.lang.Comparable<CharSeq>
Note:Because CharSeq represents a sequence of primitive characters (i.e. a String),
it breaks the Liskov Substitution Principle in the way, that the CharSeq cannot contain null elements.
In future version of Java, CharSeq should extend IndexedSeq<char> instead.
| Modifier and Type | Class and Description |
|---|---|
static interface |
CharSeq.CharFunction<R> |
static interface |
CharSeq.CharUnaryOperator |
| Modifier and Type | Method and Description |
|---|---|
CharSeq |
append(java.lang.Character element)
Appends an element to this.
|
CharSeq |
appendAll(java.lang.Iterable<? extends java.lang.Character> elements)
Appends all given elements to this.
|
java.lang.Character |
apply(java.lang.Integer index)
A
Seq is a partial function which returns the element at the specified index if the
index is valid. |
java.util.List<java.lang.Character> |
asJava()
Creates an immutable
List view on top of this Seq,
i.e. |
CharSeq |
asJava(java.util.function.Consumer<? super java.util.List<java.lang.Character>> action)
Creates an immutable
List view on top of this Seq
that is passed to the given action. |
java.util.List<java.lang.Character> |
asJavaMutable()
Creates a mutable
List view on top of this Seq,
i.e. |
CharSeq |
asJavaMutable(java.util.function.Consumer<? super java.util.List<java.lang.Character>> action)
Creates a mutable
List view on top of this Seq
that is passed to the given action. |
CharSeq |
capitalize()
Converts the first character in this
CharSeq to upper
case using the rules of the default locale. |
CharSeq |
capitalize(java.util.Locale locale)
Converts the first character in this
CharSeq to upper
case using the rules of the given Locale. |
char |
charAt(int index)
Returns the
char value at the
specified index. |
int |
codePointAt(int index)
Returns the character (Unicode code point) at the specified
index.
|
int |
codePointBefore(int index)
Returns the character (Unicode code point) before the specified
index.
|
int |
codePointCount(int beginIndex,
int endIndex)
Returns the number of Unicode code points in the specified text
range of this
CharSeq. |
<R> IndexedSeq<R> |
collect(PartialFunction<? super java.lang.Character,? extends R> partialFunction)
Collects all elements that are in the domain of the given
partialFunction by mapping the elements to type R. |
static java.util.stream.Collector<java.lang.Character,java.util.ArrayList<java.lang.Character>,CharSeq> |
collector()
Returns a
Collector which may be used in conjunction with
Stream.collect(java.util.stream.Collector) to obtain a CharSeq. |
IndexedSeq<CharSeq> |
combinations()
Returns the union of all combinations from k = 0 to length().
|
IndexedSeq<CharSeq> |
combinations(int k)
Returns the k-combination of this traversable, i.e.
|
int |
compareTo(CharSeq anotherString)
Compares two strings lexicographically.
|
int |
compareToIgnoreCase(CharSeq str)
Compares two strings lexicographically, ignoring case
differences.
|
CharSeq |
concat(CharSeq str)
Concatenates the specified string to the end of this string.
|
boolean |
contains(java.lang.CharSequence s)
Returns true if and only if this string contains the specified
sequence of char values.
|
boolean |
contentEquals(java.lang.CharSequence cs)
Compares this string to the specified
CharSequence. |
boolean |
contentEquals(java.lang.StringBuffer sb)
Compares this string to the specified
StringBuffer. |
Iterator<CharSeq> |
crossProduct(int power)
Calculates the n-ary cartesian power (or cross product or simply product) of this.
|
java.lang.Byte |
decodeByte()
Decodes this
CharSeq into a Byte by calling Byte.decode(String). |
java.lang.Integer |
decodeInteger()
Decodes this
CharSeq into an Integer by calling Integer.decode(String). |
java.lang.Long |
decodeLong()
Decodes this
CharSeq into a Long by calling Long.decode(String). |
java.lang.Short |
decodeShort()
Decodes this
CharSeq into a Short by calling Short.decode(String). |
CharSeq |
distinct()
Returns a new version of this which contains no duplicates.
|
CharSeq |
distinctBy(java.util.Comparator<? super java.lang.Character> comparator)
Returns a new version of this which contains no duplicates.
|
<U> CharSeq |
distinctBy(java.util.function.Function<? super java.lang.Character,? extends U> keyExtractor)
Returns a new version of this which contains no duplicates.
|
CharSeq |
drop(int n)
Drops the first n elements of this or all elements, if this length < n.
|
CharSeq |
dropRight(int n)
Drops the last n elements of this or all elements, if this length < n.
|
CharSeq |
dropRightUntil(java.util.function.Predicate<? super java.lang.Character> predicate)
Drops elements until the predicate holds for the current element, starting from the end.
|
CharSeq |
dropRightWhile(java.util.function.Predicate<? super java.lang.Character> predicate)
Drops elements while the predicate holds for the current element, starting from the end.
|
CharSeq |
dropUntil(java.util.function.Predicate<? super java.lang.Character> predicate)
Drops elements until the predicate holds for the current element.
|
CharSeq |
dropWhile(java.util.function.Predicate<? super java.lang.Character> predicate)
Drops elements while the predicate holds for the current element.
|
static CharSeq |
empty() |
boolean |
endsWith(CharSeq suffix)
Tests if this string ends with the specified suffix.
|
boolean |
equals(java.lang.Object o)
In Vavr there are four basic classes of collections:
Seq (sequential elements)
Set (distinct elements)
Map (indexed elements)
Multimap (indexed collections)
Two collection instances of these classes are equal if and only if both collections
belong to the same basic collection class (Seq, Set, Map or Multimap)
contain the same elements
have the same element order, if the collections are of type Seq
Two Map/Multimap elements, resp.
|
boolean |
equalsIgnoreCase(CharSeq anotherString)
Compares this
CharSeq to another CharSeq, ignoring case
considerations. |
static CharSeq |
fill(int n,
java.util.function.Supplier<? extends java.lang.Character> s)
Returns a CharSeq containing
n values supplied by a given Supplier s. |
CharSeq |
filter(java.util.function.Predicate<? super java.lang.Character> predicate)
Returns a new traversable consisting of all elements which satisfy the given predicate.
|
CharSeq |
filterNot(java.util.function.Predicate<? super java.lang.Character> predicate)
Returns a new traversable consisting of all elements which do not satisfy the given predicate.
|
<U> IndexedSeq<U> |
flatMap(java.util.function.Function<? super java.lang.Character,? extends java.lang.Iterable<? extends U>> mapper)
FlatMaps this Traversable.
|
CharSeq |
flatMapChars(CharSeq.CharFunction<? extends java.lang.CharSequence> mapper) |
byte[] |
getBytes()
Encodes this
CharSeq into a sequence of bytes using the
platform's default charset, storing the result into a new byte array. |
byte[] |
getBytes(java.nio.charset.Charset charset)
Encodes this
CharSeq into a sequence of bytes using the given
charset, storing the result into a
new byte array. |
byte[] |
getBytes(java.lang.String charsetName)
Encodes this
CharSeq into a sequence of bytes using the named
charset, storing the result into a new byte array. |
void |
getChars(int srcBegin,
int srcEnd,
char[] dst,
int dstBegin)
Copies characters from this string into the destination character
array.
|
Seq<CharSeq> |
group()
Groups subsequent equal elements.
|
<C> Map<C,CharSeq> |
groupBy(java.util.function.Function<? super java.lang.Character,? extends C> classifier)
Groups this elements by classifying the elements.
|
Iterator<CharSeq> |
grouped(int size)
Groups this
Traversable into fixed size blocks. |
boolean |
hasDefiniteSize()
Checks if this Traversable is known to have a finite size.
|
int |
hashCode()
Returns the hash code of this collection.
|
java.lang.Character |
head()
Returns the first element of a non-empty Traversable.
|
int |
indexOf(java.lang.Character element,
int from)
Returns the index of the first occurrence of the given element after or at some start index
or -1 if this does not contain the given element.
|
int |
indexOf(CharSeq str)
Returns the index within this string of the first occurrence of the
specified substring.
|
int |
indexOf(CharSeq str,
int fromIndex)
Returns the index within this string of the first occurrence of the
specified substring, starting at the specified index.
|
int |
indexOf(int ch)
Returns the index within this string of the first occurrence of
the specified character.
|
int |
indexOf(int ch,
int fromIndex)
Returns the index within this string of the first occurrence of the
specified character, starting the search at the specified index.
|
Option<java.lang.Integer> |
indexOfOption(CharSeq str)
Returns the index of the first occurrence of the given element as an
Option. |
Option<java.lang.Integer> |
indexOfOption(CharSeq str,
int fromIndex)
Returns the index of the first occurrence of the given element as an
Option,
starting the search at the specified index. |
CharSeq |
init()
Dual of Traversable.tail(), returning all elements except the last.
|
Option<CharSeq> |
initOption()
Dual of Traversable.tailOption(), returning all elements except the last as
Option. |
CharSeq |
insert(int index,
java.lang.Character element)
Inserts the given element at the specified index.
|
CharSeq |
insertAll(int index,
java.lang.Iterable<? extends java.lang.Character> elements)
Inserts the given elements at the specified index.
|
CharSeq |
intersperse(java.lang.Character element)
Inserts an element between all elements of this Traversable.
|
boolean |
isAsync()
A
CharSeq is computed synchronously. |
boolean |
isEmpty()
Checks if this Traversable is empty.
|
boolean |
isLazy()
A
CharSeq is computed eagerly. |
boolean |
isTraversableAgain()
Checks if this Traversable can be repeatedly traversed.
|
Iterator<java.lang.Character> |
iterator()
An iterator by means of head() and tail().
|
int |
lastIndexOf(java.lang.Character element,
int end)
Returns the index of the last occurrence of the given element before or at a given end index
or -1 if this does not contain the given element.
|
int |
lastIndexOf(CharSeq str)
Returns the index within this string of the last occurrence of the
specified substring.
|
int |
lastIndexOf(CharSeq str,
int fromIndex)
Returns the index within this string of the last occurrence of the
specified substring, searching backward starting at the specified index.
|
int |
lastIndexOf(int ch)
Returns the index within this string of the last occurrence of
the specified character.
|
int |
lastIndexOf(int ch,
int fromIndex)
Returns the index within this string of the last occurrence of
the specified character, searching backward starting at the
specified index.
|
Option<java.lang.Integer> |
lastIndexOfOption(CharSeq str)
Returns the index of the last occurrence of the given element as an
Option. |
Option<java.lang.Integer> |
lastIndexOfOption(CharSeq str,
int fromIndex)
Returns the index of the last occurrence of the given element as an
Option,
starting the search at the specified index. |
Option<java.lang.Integer> |
lastIndexOfOption(int ch,
int fromIndex)
Returns the index of the last occurrence of the given element as an
Option,
starting the search at the specified index. |
CharSeq |
leftPadTo(int length,
java.lang.Character element)
A copy of this sequence with an element prepended until a given target length is reached.
|
int |
length()
Returns the length of this string.
|
<U> IndexedSeq<U> |
map(java.util.function.Function<? super java.lang.Character,? extends U> mapper)
Maps the elements of this
Traversable to elements of a new type preserving their order, if any. |
CharSeq |
mapChars(CharSeq.CharUnaryOperator mapper) |
boolean |
matches(java.lang.String regex)
Tells whether or not this string matches the given regular expression.
|
java.lang.String |
mkString()
Joins the elements of this by concatenating their string representations.
|
static CharSeq |
of(char... characters)
Creates a String of the given characters.
|
static CharSeq |
of(char character)
Returns a singleton
CharSeq, i.e. |
static CharSeq |
of(java.lang.CharSequence sequence)
Creates a String of
CharSequence. |
static CharSeq |
ofAll(java.lang.Iterable<? extends java.lang.Character> elements)
Creates a String of the given elements.
|
int |
offsetByCodePoints(int index,
int codePointOffset)
Returns the index within this
CharSeq that is
offset from the given index by
codePointOffset code points. |
CharSeq |
orElse(java.lang.Iterable<? extends java.lang.Character> other)
Returns this
Traversable if it is nonempty, otherwise return the alternative. |
CharSeq |
orElse(java.util.function.Supplier<? extends java.lang.Iterable<? extends java.lang.Character>> supplier)
Returns this
Traversable if it is nonempty, otherwise return the result of evaluating supplier. |
CharSeq |
padTo(int length,
java.lang.Character element)
A copy of this sequence with an element appended until a given target length is reached.
|
boolean |
parseBoolean()
Parses this
CharSeq as a boolean by calling Boolean.parseBoolean(String). |
byte |
parseByte()
Parses this
CharSeq as a signed decimal byte by calling Byte.parseByte(String). |
byte |
parseByte(int radix)
Parses this
CharSeq as a signed byte in the specified radix
by calling Byte.parseByte(String, int). |
double |
parseDouble()
Parses this
CharSeq as a double by calling Double.parseDouble(String). |
float |
parseFloat()
Parses this
CharSeq as a float by calling Float.parseFloat(String). |
int |
parseInt()
Parses this
CharSeq as a signed decimal int by calling Integer.parseInt(String). |
int |
parseInt(int radix)
Parses this
CharSeq as a signed int in the specified radix
by calling Integer.parseInt(String, int). |
long |
parseLong()
Parses this
CharSeq as a signed decimal long by calling Long.parseLong(String). |
long |
parseLong(int radix)
Parses this
CharSeq as a signed long in the specified radix
by calling Long.parseLong(String, int). |
short |
parseShort()
Parses this
CharSeq as a signed decimal short by calling Short.parseShort(String). |
short |
parseShort(int radix)
Parses this
CharSeq as a signed short in the specified radix
by calling Short.parseShort(String, int). |
int |
parseUnsignedInt()
Parses this
CharSeq as a unsigned decimal int by calling Integer.parseUnsignedInt(String). |
int |
parseUnsignedInt(int radix)
Parses this
CharSeq as a unsigned int in the specified radix
by calling Integer.parseUnsignedInt(String, int). |
long |
parseUnsignedLong()
Parses this
CharSeq as a unsigned decimal long by calling Long.parseUnsignedLong(String). |
long |
parseUnsignedLong(int radix)
Parses this
CharSeq as a unsigned long in the specified radix
by calling Long.parseUnsignedLong(String, int). |
Tuple2<CharSeq,CharSeq> |
partition(java.util.function.Predicate<? super java.lang.Character> predicate)
Creates a partition of this
Traversable by splitting this elements in two in distinct traversables
according to a predicate. |
CharSeq |
patch(int from,
java.lang.Iterable<? extends java.lang.Character> that,
int replaced)
Produces a new list where a slice of elements in this list is replaced by another sequence.
|
CharSeq |
peek(java.util.function.Consumer<? super java.lang.Character> action)
Performs the given
action on the first element if this is an eager implementation. |
IndexedSeq<CharSeq> |
permutations()
Computes all unique permutations.
|
CharSeq |
prepend(java.lang.Character element)
Prepends an element to this.
|
CharSeq |
prependAll(java.lang.Iterable<? extends java.lang.Character> elements)
Prepends all given elements to this.
|
static CharSeq |
range(char from,
char toExclusive)
Creates a CharSeq starting from character
from, extending to character toExclusive - 1. |
static CharSeq |
rangeBy(char from,
char toExclusive,
int step) |
static CharSeq |
rangeClosed(char from,
char toInclusive)
Creates a CharSeq starting from character
from, extending to character toInclusive. |
static CharSeq |
rangeClosedBy(char from,
char toInclusive,
int step)
Creates a CharSeq starting from character
from, extending to character toInclusive,
with step. |
boolean |
regionMatches(boolean ignoreCase,
int toffset,
CharSeq other,
int ooffset,
int len)
Tests if two string regions are equal.
|
boolean |
regionMatches(int toffset,
CharSeq other,
int ooffset,
int len)
Tests if two string regions are equal.
|
CharSeq |
remove(java.lang.Character element)
Removes the first occurrence of the given element.
|
CharSeq |
removeAll(java.lang.Character element)
Removes all occurrences of the given element.
|
CharSeq |
removeAll(java.lang.Iterable<? extends java.lang.Character> elements)
Removes all occurrences of the given elements.
|
CharSeq |
removeAt(int index)
Removes the element at the specified position in this sequence.
|
CharSeq |
removeFirst(java.util.function.Predicate<java.lang.Character> predicate)
Removes the first occurrence that satisfy predicate
|
CharSeq |
removeLast(java.util.function.Predicate<java.lang.Character> predicate)
Removes the last occurrence that satisfy predicate
|
static CharSeq |
repeat(char character,
int times)
Repeats a character
times times. |
CharSeq |
repeat(int times)
Repeats this CharSeq
times times. |
CharSeq |
replace(java.lang.Character currentElement,
java.lang.Character newElement)
Replaces the first occurrence (if exists) of the given currentElement with newElement.
|
CharSeq |
replace(java.lang.CharSequence target,
java.lang.CharSequence replacement)
Replaces each substring of this string that matches the literal target
sequence with the specified literal replacement sequence.
|
CharSeq |
replaceAll(java.lang.Character currentElement,
java.lang.Character newElement)
Replaces all occurrences of the given currentElement with newElement.
|
CharSeq |
replaceAll(java.lang.String regex,
java.lang.String replacement)
Replaces each substring of this string that matches the given regular expression with the
given replacement.
|
CharSeq |
replaceFirst(java.lang.String regex,
java.lang.String replacement)
Replaces the first substring of this string that matches the given regular expression with the
given replacement.
|
CharSeq |
retainAll(java.lang.Iterable<? extends java.lang.Character> elements)
Keeps all occurrences of the given elements from this.
|
CharSeq |
reverse()
Reverses the order of elements.
|
CharSeq |
rotateLeft(int n)
Circular rotates the elements by the specified distance to the left direction.
|
CharSeq |
rotateRight(int n)
Circular rotates the elements by the specified distance to the right direction.
|
CharSeq |
scan(java.lang.Character zero,
java.util.function.BiFunction<? super java.lang.Character,? super java.lang.Character,? extends java.lang.Character> operation)
Computes a prefix scan of the elements of the collection.
|
<U> IndexedSeq<U> |
scanLeft(U zero,
java.util.function.BiFunction<? super U,? super java.lang.Character,? extends U> operation)
Produces a collection containing cumulative results of applying the
operator going left to right.
|
<U> IndexedSeq<U> |
scanRight(U zero,
java.util.function.BiFunction<? super java.lang.Character,? super U,? extends U> operation)
Produces a collection containing cumulative results of applying the
operator going right to left.
|
CharSeq |
shuffle()
Randomize the order of the elements in the current sequence.
|
CharSeq |
shuffle(java.util.Random random)
Randomize the order of the elements in the current sequence using the given source
of randomness.
|
CharSeq |
slice(int beginIndex,
int endIndex)
Returns a Seq that is a slice of this.
|
Iterator<CharSeq> |
slideBy(java.util.function.Function<? super java.lang.Character,?> classifier)
Slides a non-overlapping window of a variable size over this
Traversable. |
Iterator<CharSeq> |
sliding(int size)
Slides a window of a specific
size and step size 1 over this Traversable by calling
Traversable.sliding(int, int). |
Iterator<CharSeq> |
sliding(int size,
int step)
Slides a window of a specific
size and step size over this Traversable. |
<U> CharSeq |
sortBy(java.util.Comparator<? super U> comparator,
java.util.function.Function<? super java.lang.Character,? extends U> mapper)
Sorts this elements by comparing the elements in a different domain, using the given
mapper. |
<U extends java.lang.Comparable<? super U>> |
sortBy(java.util.function.Function<? super java.lang.Character,? extends U> mapper)
Sorts this elements by comparing the elements in a different domain, using the given
mapper. |
CharSeq |
sorted()
Sorts this elements according to their natural order.
|
CharSeq |
sorted(java.util.Comparator<? super java.lang.Character> comparator)
Sorts this elements according to the provided
Comparator. |
Tuple2<CharSeq,CharSeq> |
span(java.util.function.Predicate<? super java.lang.Character> predicate)
Returns a tuple where the first element is the longest prefix of elements that satisfy the given
predicate and the second element is the remainder. |
Seq<CharSeq> |
split(java.lang.String regex)
Splits this string around matches of the given
regular expression.
|
Seq<CharSeq> |
split(java.lang.String regex,
int limit)
Splits this string around matches of the given
regular expression.
|
Tuple2<CharSeq,CharSeq> |
splitAt(int n)
Splits a Seq at the specified index.
|
Tuple2<CharSeq,CharSeq> |
splitAt(java.util.function.Predicate<? super java.lang.Character> predicate)
Splits a sequence at the first element which satisfies the
Predicate, e.g. |
Tuple2<CharSeq,CharSeq> |
splitAtInclusive(java.util.function.Predicate<? super java.lang.Character> predicate)
Splits a sequence at the first element which satisfies the
Predicate, e.g. |
boolean |
startsWith(CharSeq prefix)
Tests if this string starts with the specified prefix.
|
boolean |
startsWith(CharSeq prefix,
int toffset)
Tests if the substring of this string beginning at the
specified index starts with the specified prefix.
|
boolean |
startsWith(java.lang.Iterable<? extends java.lang.Character> that,
int offset)
Tests whether this list contains the given sequence at a given index.
|
java.lang.String |
stringPrefix()
Returns the name of this Value type, which is used by toString().
|
CharSeq |
subSequence(int beginIndex)
Returns a Seq that is a subsequence of this.
|
CharSeq |
subSequence(int beginIndex,
int endIndex)
Returns a Seq that is a subsequence of this.
|
CharSeq |
substring(int beginIndex)
Returns a string that is a substring of this string.
|
CharSeq |
substring(int beginIndex,
int endIndex)
Returns a string that is a substring of this string.
|
static CharSeq |
tabulate(int n,
java.util.function.Function<? super java.lang.Integer,? extends java.lang.Character> f)
Returns a CharSeq containing
n values of a given Function f
over a range of integer values from 0 to n - 1. |
CharSeq |
tail()
Drops the first element of a non-empty Traversable.
|
Option<CharSeq> |
tailOption()
Drops the first element of a non-empty Traversable and returns an
Option. |
CharSeq |
take(int n)
Takes the first n elements of this or all elements, if this length < n.
|
CharSeq |
takeRight(int n)
Takes the last n elements of this or all elements, if this length < n.
|
CharSeq |
takeRightUntil(java.util.function.Predicate<? super java.lang.Character> predicate)
Takes elements until the predicate holds for the current element, starting from the end.
|
CharSeq |
takeRightWhile(java.util.function.Predicate<? super java.lang.Character> predicate)
Takes elements while the predicate holds for the current element, starting from the end.
|
CharSeq |
takeUntil(java.util.function.Predicate<? super java.lang.Character> predicate)
Takes elements until the predicate holds for the current element.
|
CharSeq |
takeWhile(java.util.function.Predicate<? super java.lang.Character> predicate)
Takes elements while the predicate holds for the current element.
|
java.lang.Boolean |
toBoolean()
Converts this
CharSeq to a Boolean by calling Boolean.valueOf(String). |
java.lang.Byte |
toByte()
Converts this
CharSeq to a Byte by calling Byte.valueOf(String). |
java.lang.Byte |
toByte(int radix)
Converts this
CharSeq to a Byte in the specified radix
by calling Byte.valueOf(String, int). |
char[] |
toCharArray()
Converts this string to a new character array.
|
java.lang.Double |
toDouble()
Converts this
CharSeq to a Double by calling Double.valueOf(String). |
java.lang.Float |
toFloat()
Converts this
CharSeq to a Float by calling Float.valueOf(String). |
java.lang.Integer |
toInteger()
Converts this
CharSeq to an Integer by calling Integer.valueOf(String). |
java.lang.Integer |
toInteger(int radix)
Converts this
CharSeq to an Integer in the specified radix
by calling Integer.valueOf(String, int). |
java.lang.Character[] |
toJavaArray()
Converts this to a Java array with component type
Object |
java.lang.Long |
toLong()
Converts this
CharSeq to a Long by calling Long.valueOf(String). |
java.lang.Long |
toLong(int radix)
Converts this
CharSeq to a Long in the specified radix
by calling Long.valueOf(String, int). |
CharSeq |
toLowerCase()
Converts all of the characters in this
CharSeq to lower
case using the rules of the default locale. |
CharSeq |
toLowerCase(java.util.Locale locale)
Converts all of the characters in this
CharSeq to lower
case using the rules of the given Locale. |
java.lang.Short |
toShort()
Converts this
CharSeq to a Short by calling Short.valueOf(String). |
java.lang.Short |
toShort(int radix)
Converts this
CharSeq to a Short in the specified radix
by calling Short.valueOf(String, int). |
java.lang.String |
toString()
Returns a string containing the characters in this sequence in the same
order as this sequence.
|
CharSeq |
toUpperCase()
Converts all of the characters in this
CharSeq to upper
case using the rules of the default locale. |
CharSeq |
toUpperCase(java.util.Locale locale)
Converts all of the characters in this
CharSeq to upper
case using the rules of the given Locale. |
<U> U |
transform(java.util.function.Function<? super CharSeq,? extends U> f)
Transforms this
CharSeq. |
CharSeq |
trim()
Returns a string whose value is this string, with any leading and trailing
whitespace removed.
|
static CharSeq |
unfold(java.lang.Character seed,
java.util.function.Function<? super java.lang.Character,Option<Tuple2<? extends java.lang.Character,? extends java.lang.Character>>> f)
Creates a CharSeq from a seed value and a function.
|
static <T> CharSeq |
unfoldLeft(T seed,
java.util.function.Function<? super T,Option<Tuple2<? extends T,? extends java.lang.Character>>> f)
Creates a CharSeq from a seed value and a function.
|
static <T> CharSeq |
unfoldRight(T seed,
java.util.function.Function<? super T,Option<Tuple2<? extends java.lang.Character,? extends T>>> f)
Creates a CharSeq from a seed value and a function.
|
CharSeq |
update(int index,
java.lang.Character element)
Updates the given element at the specified index.
|
CharSeq |
update(int index,
java.util.function.Function<? super java.lang.Character,? extends java.lang.Character> updater)
Updates the given element at the specified index using the specified function.
|
<U> IndexedSeq<Tuple2<java.lang.Character,U>> |
zip(java.lang.Iterable<? extends U> that)
Returns a traversable formed from this traversable and another Iterable collection by combining
corresponding elements in pairs.
|
<U> IndexedSeq<Tuple2<java.lang.Character,U>> |
zipAll(java.lang.Iterable<? extends U> that,
java.lang.Character thisElem,
U thatElem)
Returns a traversable formed from this traversable and another Iterable by combining corresponding elements in
pairs.
|
<U,R> IndexedSeq<R> |
zipWith(java.lang.Iterable<? extends U> that,
java.util.function.BiFunction<? super java.lang.Character,? super U,? extends R> mapper)
Returns a traversable formed from this traversable and another Iterable collection by mapping elements.
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IndexedSeq<Tuple2<java.lang.Character,java.lang.Integer>> |
zipWithIndex()
Zips this traversable with its indices.
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<U> IndexedSeq<U> |
zipWithIndex(java.util.function.BiFunction<? super java.lang.Character,? super java.lang.Integer,? extends U> mapper)
Zips this traversable with its indices by applying mapper provided.
|
clone, finalize, getClass, notify, notifyAll, wait, wait, waitasPartialFunction, endsWith, indexOfSlice, indexWhere, isDefinedAt, last, lastIndexOfSlice, lastIndexWhere, narrow, reverseIterator, search, search, segmentLengthcontainsSlice, crossProduct, crossProduct, foldRight, get, getOption, getOrElse, indexOf, indexOfOption, indexOfOption, indexOfSlice, indexOfSliceOption, indexOfSliceOption, indexWhere, indexWhereOption, indexWhereOption, isSequential, iterator, lastIndexOf, lastIndexOfOption, lastIndexOfOption, lastIndexOfSlice, lastIndexOfSliceOption, lastIndexOfSliceOption, lastIndexWhere, lastIndexWhereOption, lastIndexWhereOption, lift, narrow, prefixLength, startsWitharrangeBy, average, containsAll, count, existsUnique, find, findLast, fold, foldLeft, forEachWithIndex, get, headOption, isDistinct, isOrdered, isSingleValued, lastOption, max, maxBy, maxBy, min, minBy, minBy, mkCharSeq, mkCharSeq, mkCharSeq, mkString, mkString, narrow, nonEmpty, product, reduce, reduceLeft, reduceLeftOption, reduceOption, reduceRight, reduceRightOption, single, singleOption, size, spliterator, sum, toLinkedMap, toMap, toSortedMap, toSortedMap, unzip, unzip3collect, collect, contains, corresponds, eq, exists, forAll, forEach, getOrElse, getOrElse, getOrElseThrow, getOrElseTry, getOrNull, narrow, out, out, stderr, stdout, toArray, toCharSeq, toCompletableFuture, toEither, toEither, toInvalid, toInvalid, toJavaArray, toJavaArray, toJavaCollection, toJavaList, toJavaList, toJavaMap, toJavaMap, toJavaMap, toJavaOptional, toJavaParallelStream, toJavaSet, toJavaSet, toJavaStream, toLeft, toLeft, toLinkedMap, toLinkedMap, toLinkedSet, toList, toMap, toMap, toOption, toPriorityQueue, toPriorityQueue, toQueue, toRight, toRight, toSet, toSortedMap, toSortedMap, toSortedMap, toSortedMap, toSortedSet, toSortedSet, toStream, toTree, toTree, toTry, toTry, toValid, toValid, toValidation, toValidation, toVectorpublic static CharSeq empty()
public static java.util.stream.Collector<java.lang.Character,java.util.ArrayList<java.lang.Character>,CharSeq> collector()
Collector which may be used in conjunction with
Stream.collect(java.util.stream.Collector) to obtain a CharSeq.Collector which collects all the input elements into a
CharSeq, in encounter orderpublic static CharSeq of(java.lang.CharSequence sequence)
CharSequence.sequence - CharSequence instance.CharSeqpublic static CharSeq of(char character)
CharSeq, i.e. a CharSeq of one character.character - A character.CharSeq instance containing the given elementpublic static CharSeq of(char... characters)
characters - Zero or more characters.java.lang.NullPointerException - if elements is nullpublic static CharSeq ofAll(java.lang.Iterable<? extends java.lang.Character> elements)
The resulting string has the same iteration order as the given iterable of elements if the iteration order of the elements is stable.
elements - An Iterable of elements.java.lang.NullPointerException - if elements is null or elements contains nullpublic static CharSeq tabulate(int n, java.util.function.Function<? super java.lang.Integer,? extends java.lang.Character> f)
n values of a given Function f
over a range of integer values from 0 to n - 1.n - The number of elements in the CharSeqf - The Function computing element valuesf(0),f(1), ..., f(n - 1)java.lang.NullPointerException - if f is nullpublic static CharSeq fill(int n, java.util.function.Supplier<? extends java.lang.Character> s)
n values supplied by a given Supplier s.n - The number of elements in the CharSeqs - The Supplier computing element valuesn, where each element contains the result supplied by s.java.lang.NullPointerException - if s is nullpublic static CharSeq range(char from, char toExclusive)
from, extending to character toExclusive - 1.
Examples:
CharSeq.range('a', 'c') // = "ab"
CharSeq.range('c', 'a') // = ""
from - the first charactertoExclusive - the successor of the last characterfrom >= toExclusivepublic static CharSeq rangeBy(char from, char toExclusive, int step)
public static CharSeq rangeClosed(char from, char toInclusive)
from, extending to character toInclusive.
Examples:
CharSeq.rangeClosed('a', 'c') // = "abc"
CharSeq.rangeClosed('c', 'a') // = ""
from - the first charactertoInclusive - the last characterfrom > toInclusivepublic static CharSeq rangeClosedBy(char from, char toInclusive, int step)
from, extending to character toInclusive,
with step.
Examples:
CharSeq.rangeClosedBy('a', 'c', 1) // = ('a', 'b', 'c')
CharSeq.rangeClosedBy('a', 'd', 2) // = ('a', 'c')
CharSeq.rangeClosedBy('d', 'a', -2) // = ('d', 'b')
CharSeq.rangeClosedBy('d', 'a', 2) // = ()
from - the first charactertoInclusive - the last characterstep - the stepstep * (from - toInclusive) > 0.java.lang.IllegalArgumentException - if step is zeropublic static <T> CharSeq unfoldRight(T seed, java.util.function.Function<? super T,Option<Tuple2<? extends java.lang.Character,? extends T>>> f)
None when it's
done generating the CharSeq, otherwise Some Tuple
of the element for the next call and the value to add to the
resulting CharSeq.
Example:
CharSeq.unfoldRight('j', x -> x == 'a'
? Option.none()
: Option.of(new Tuple2<>(new Character(x), (char)(x-1))));
// CharSeq.of("jihgfedcb"))
T - type of seedsseed - the start value for the iterationf - the function to get the next step of the iterationjava.lang.NullPointerException - if f is nullpublic static <T> CharSeq unfoldLeft(T seed, java.util.function.Function<? super T,Option<Tuple2<? extends T,? extends java.lang.Character>>> f)
None when it's
done generating the CharSeq, otherwise Some Tuple
of the value to add to the resulting CharSeq and
the element for the next call.
Example:
CharSeq.unfoldLeft('j', x -> x == 'a'
? Option.none()
: Option.of(new Tuple2<>((char)(x-1), new Character(x))));
// CharSeq.of("bcdefghij"))
T - type of seedsseed - the start value for the iterationf - the function to get the next step of the iterationjava.lang.NullPointerException - if f is nullpublic static CharSeq unfold(java.lang.Character seed, java.util.function.Function<? super java.lang.Character,Option<Tuple2<? extends java.lang.Character,? extends java.lang.Character>>> f)
None when it's
done generating the CharSeq, otherwise Some Tuple
of the value to add to the resulting CharSeq and
the element for the next call.
Example:
CharSeq.unfold('j', x -> x == 'a'
? Option.none()
: Option.of(new Tuple2<>((char)(x-1), new Character(x))));
// CharSeq.of("bcdefghij"))
seed - the start value for the iterationf - the function to get the next step of the iterationjava.lang.NullPointerException - if f is nullpublic static CharSeq repeat(char character, int times)
times times.character - A charactertimes - Repetition countcharacter * timespublic CharSeq repeat(int times)
times times.
Example: CharSeq.of("ja").repeat(13) = "jajajajajajajajajajajajaja"
times - Repetition countthis * timespublic CharSeq append(java.lang.Character element)
Seqappend in interface IndexedSeq<java.lang.Character>append in interface Seq<java.lang.Character>element - An elementpublic CharSeq appendAll(java.lang.Iterable<? extends java.lang.Character> elements)
SeqappendAll in interface IndexedSeq<java.lang.Character>appendAll in interface Seq<java.lang.Character>elements - An Iterable of elementspublic java.util.List<java.lang.Character> asJava()
SeqList view on top of this Seq,
i.e. calling mutators will result in UnsupportedOperationException at runtime.
The difference to conversion methods toJava*() is that
java.util.List view throws UnsupportedOperationException before
checking method arguments. Java does handle this case inconsistently.public CharSeq asJava(java.util.function.Consumer<? super java.util.List<java.lang.Character>> action)
SeqList view on top of this Seq
that is passed to the given action.asJava in interface IndexedSeq<java.lang.Character>asJava in interface Seq<java.lang.Character>action - A side-effecting unit of work that operates on an immutable java.util.List view.Seq.asJava()public java.util.List<java.lang.Character> asJavaMutable()
SeqList view on top of this Seq,
i.e. all mutator methods of the List are implemented.asJavaMutable in interface Seq<java.lang.Character>Collection view on this Traversable.Seq.asJava()public CharSeq asJavaMutable(java.util.function.Consumer<? super java.util.List<java.lang.Character>> action)
SeqList view on top of this Seq
that is passed to the given action.asJavaMutable in interface IndexedSeq<java.lang.Character>asJavaMutable in interface Seq<java.lang.Character>action - A side-effecting unit of work that operates on a mutable java.util.List view.java.util.List view or a new instance of this type, if write operations are performed on the java.util.List view.Seq.asJavaMutable()public <R> IndexedSeq<R> collect(PartialFunction<? super java.lang.Character,? extends R> partialFunction)
TraversablepartialFunction by mapping the elements to type R.
More specifically, for each of this elements in iteration order first it is checked
partialFunction.isDefinedAt(element)
If the elements makes it through that filter, the mapped instance is added to the result collection
R newElement = partialFunction.apply(element)
Note:If this Traversable is ordered (i.e. extends Ordered,
the caller of collect has to ensure that the elements are comparable (i.e. extend Comparable).collect in interface IndexedSeq<java.lang.Character>collect in interface Seq<java.lang.Character>collect in interface Traversable<java.lang.Character>R - The new element typepartialFunction - A function that is not necessarily defined of all elements of this traversable.Traversable instance containing elements of type Rpublic IndexedSeq<CharSeq> combinations()
SeqExamples:
[].combinations() = [[]]
[1,2,3].combinations() = [
[], // k = 0
[1], [2], [3], // k = 1
[1,2], [1,3], [2,3], // k = 2
[1,2,3] // k = 3
]
combinations in interface IndexedSeq<java.lang.Character>combinations in interface Seq<java.lang.Character>public IndexedSeq<CharSeq> combinations(int k)
Seqcombinations in interface IndexedSeq<java.lang.Character>combinations in interface Seq<java.lang.Character>k - Size of subsetspublic Iterator<CharSeq> crossProduct(int power)
SeqExample:
// = ((A,A), (A,B), (A,C), ..., (B,A), (B,B), ..., (Z,Y), (Z,Z))
CharSeq.rangeClosed('A', 'Z').crossProduct(2);
Cartesian power of negative value will return empty iterator.
Example:
// = ()
CharSeq.rangeClosed('A', 'Z').crossProduct(-1);
crossProduct in interface IndexedSeq<java.lang.Character>crossProduct in interface Seq<java.lang.Character>power - the number of cartesian multiplicationspublic CharSeq distinct()
Traversableequals.distinct in interface IndexedSeq<java.lang.Character>distinct in interface Seq<java.lang.Character>distinct in interface Traversable<java.lang.Character>Traversable containing this elements without duplicatespublic CharSeq distinctBy(java.util.Comparator<? super java.lang.Character> comparator)
Traversablecomparator.distinctBy in interface IndexedSeq<java.lang.Character>distinctBy in interface Seq<java.lang.Character>distinctBy in interface Traversable<java.lang.Character>comparator - A comparatorTraversable containing this elements without duplicatespublic <U> CharSeq distinctBy(java.util.function.Function<? super java.lang.Character,? extends U> keyExtractor)
Traversableequals.
The elements of the result are determined in the order of their occurrence - first match wins.
distinctBy in interface IndexedSeq<java.lang.Character>distinctBy in interface Seq<java.lang.Character>distinctBy in interface Traversable<java.lang.Character>U - key typekeyExtractor - A key extractorTraversable containing this elements without duplicatespublic CharSeq drop(int n)
Traversabledrop in interface IndexedSeq<java.lang.Character>drop in interface Seq<java.lang.Character>drop in interface Traversable<java.lang.Character>n - The number of elements to drop.public CharSeq dropUntil(java.util.function.Predicate<? super java.lang.Character> predicate)
TraversabledropUntil in interface IndexedSeq<java.lang.Character>dropUntil in interface Seq<java.lang.Character>dropUntil in interface Traversable<java.lang.Character>predicate - A condition tested subsequently for this elements.public CharSeq dropWhile(java.util.function.Predicate<? super java.lang.Character> predicate)
Traversable
Note: This is essentially the same as dropUntil(predicate.negate()).
It is intended to be used with method references, which cannot be negated directly.
dropWhile in interface IndexedSeq<java.lang.Character>dropWhile in interface Seq<java.lang.Character>dropWhile in interface Traversable<java.lang.Character>predicate - A condition tested subsequently for this elements.public CharSeq dropRight(int n)
TraversabledropRight in interface IndexedSeq<java.lang.Character>dropRight in interface Seq<java.lang.Character>dropRight in interface Traversable<java.lang.Character>n - The number of elements to drop.public CharSeq dropRightWhile(java.util.function.Predicate<? super java.lang.Character> predicate)
Seq
Note: This is essentially the same as dropRightUntil(predicate.negate()).
It is intended to be used with method references, which cannot be negated directly.
dropRightWhile in interface IndexedSeq<java.lang.Character>dropRightWhile in interface Seq<java.lang.Character>predicate - A condition tested subsequently for this elements, starting from the end.public CharSeq dropRightUntil(java.util.function.Predicate<? super java.lang.Character> predicate)
SeqdropRightUntil in interface IndexedSeq<java.lang.Character>dropRightUntil in interface Seq<java.lang.Character>predicate - A condition tested subsequently for this elements, starting from the end.public CharSeq filter(java.util.function.Predicate<? super java.lang.Character> predicate)
Traversablefilter in interface IndexedSeq<java.lang.Character>filter in interface Seq<java.lang.Character>filter in interface Traversable<java.lang.Character>predicate - A predicatepublic CharSeq filterNot(java.util.function.Predicate<? super java.lang.Character> predicate)
TraversableThe default implementation is equivalent to
filter(predicate.negate()filterNot in interface IndexedSeq<java.lang.Character>filterNot in interface Seq<java.lang.Character>filterNot in interface Traversable<java.lang.Character>predicate - A predicatepublic <U> IndexedSeq<U> flatMap(java.util.function.Function<? super java.lang.Character,? extends java.lang.Iterable<? extends U>> mapper)
TraversableflatMap in interface IndexedSeq<java.lang.Character>flatMap in interface Seq<java.lang.Character>flatMap in interface Traversable<java.lang.Character>U - The resulting component type.mapper - A mapperpublic CharSeq flatMapChars(CharSeq.CharFunction<? extends java.lang.CharSequence> mapper)
public Seq<CharSeq> group()
Seqgroup in interface IndexedSeq<java.lang.Character>group in interface Seq<java.lang.Character>public <C> Map<C,CharSeq> groupBy(java.util.function.Function<? super java.lang.Character,? extends C> classifier)
TraversablegroupBy in interface IndexedSeq<java.lang.Character>groupBy in interface Seq<java.lang.Character>groupBy in interface Traversable<java.lang.Character>C - classified class typeclassifier - A function which classifies elements into classesTraversable.arrangeBy(Function)public Iterator<CharSeq> grouped(int size)
TraversableTraversable into fixed size blocks.
Let length be the length of this Iterable. Then grouped is defined as follows:
this.isEmpty(), the resulting Iterator is empty.size <= length, the resulting Iterator will contain length / size blocks of size
size and maybe a non-empty block of size length % size, if there are remaining elements.size > length, the resulting Iterator will contain one block of size length.
[].grouped(1) = []
[].grouped(0) throws
[].grouped(-1) throws
[1,2,3,4].grouped(2) = [[1,2],[3,4]]
[1,2,3,4,5].grouped(2) = [[1,2],[3,4],[5]]
[1,2,3,4].grouped(5) = [[1,2,3,4]]
Please note that grouped(int) is a special case of Traversable.sliding(int, int), i.e.
grouped(size) is the same as sliding(size, size).grouped in interface IndexedSeq<java.lang.Character>grouped in interface Seq<java.lang.Character>grouped in interface Traversable<java.lang.Character>size - a positive block sizepublic boolean hasDefiniteSize()
TraversableThis method should be implemented by classes only, i.e. not by interfaces.
hasDefiniteSize in interface Traversable<java.lang.Character>public CharSeq init()
Traversableinit in interface IndexedSeq<java.lang.Character>init in interface Seq<java.lang.Character>init in interface Traversable<java.lang.Character>public Option<CharSeq> initOption()
TraversableOption.initOption in interface IndexedSeq<java.lang.Character>initOption in interface Seq<java.lang.Character>initOption in interface Traversable<java.lang.Character>Some(traversable) or None if this is empty.public CharSeq insert(int index, java.lang.Character element)
Seqinsert in interface IndexedSeq<java.lang.Character>insert in interface Seq<java.lang.Character>index - an indexelement - an elementpublic CharSeq insertAll(int index, java.lang.Iterable<? extends java.lang.Character> elements)
SeqinsertAll in interface IndexedSeq<java.lang.Character>insertAll in interface Seq<java.lang.Character>index - an indexelements - An Iterable of elementspublic Iterator<java.lang.Character> iterator()
Traversableiterator in interface Traversable<java.lang.Character>iterator in interface Value<java.lang.Character>iterator in interface java.lang.Iterable<java.lang.Character>public CharSeq intersperse(java.lang.Character element)
Seqintersperse in interface IndexedSeq<java.lang.Character>intersperse in interface Seq<java.lang.Character>element - An element.public <U> IndexedSeq<U> map(java.util.function.Function<? super java.lang.Character,? extends U> mapper)
TraversableTraversable to elements of a new type preserving their order, if any.map in interface IndexedSeq<java.lang.Character>map in interface Seq<java.lang.Character>map in interface Traversable<java.lang.Character>map in interface Value<java.lang.Character>U - Component type of the target Traversablemapper - A mapper.public java.lang.String mkString()
Traversable
This has the same effect as calling mkString("", "", "").
mkString in interface Traversable<java.lang.Character>public CharSeq padTo(int length, java.lang.Character element)
SeqNote: lazily-evaluated Seq implementations need to process all elements in order to gather the overall length.
padTo in interface IndexedSeq<java.lang.Character>padTo in interface Seq<java.lang.Character>length - the target lengthelement - the padding elementelement so that the resulting sequence has a length of at least length.public CharSeq leftPadTo(int length, java.lang.Character element)
SeqNote: lazily-evaluated Seq implementations need to process all elements in order to gather the overall length.
leftPadTo in interface Seq<java.lang.Character>length - the target lengthelement - the padding elementelement so that the resulting sequence has a length of at least length.public CharSeq orElse(java.lang.Iterable<? extends java.lang.Character> other)
TraversableTraversable if it is nonempty, otherwise return the alternative.orElse in interface IndexedSeq<java.lang.Character>orElse in interface Seq<java.lang.Character>orElse in interface Traversable<java.lang.Character>other - An alternative TraversableTraversable if it is nonempty, otherwise return the alternative.public CharSeq orElse(java.util.function.Supplier<? extends java.lang.Iterable<? extends java.lang.Character>> supplier)
TraversableTraversable if it is nonempty, otherwise return the result of evaluating supplier.orElse in interface IndexedSeq<java.lang.Character>orElse in interface Seq<java.lang.Character>orElse in interface Traversable<java.lang.Character>supplier - An alternative Traversable supplierTraversable if it is nonempty, otherwise return the result of evaluating supplier.public CharSeq patch(int from, java.lang.Iterable<? extends java.lang.Character> that, int replaced)
Seqpatch in interface IndexedSeq<java.lang.Character>patch in interface Seq<java.lang.Character>from - the index of the first replaced elementthat - sequence for replacementreplaced - the number of elements to drop in the original listpublic CharSeq mapChars(CharSeq.CharUnaryOperator mapper)
public Tuple2<CharSeq,CharSeq> partition(java.util.function.Predicate<? super java.lang.Character> predicate)
TraversableTraversable by splitting this elements in two in distinct traversables
according to a predicate.partition in interface IndexedSeq<java.lang.Character>partition in interface Seq<java.lang.Character>partition in interface Traversable<java.lang.Character>predicate - A predicate which classifies an element if it is in the first or the second traversable.Traversable contains all elements that satisfy the given predicate, the second Traversable contains all elements that don't. The original order of elements is preserved.public CharSeq peek(java.util.function.Consumer<? super java.lang.Character> action)
Valueaction on the first element if this is an eager implementation.
Performs the given action on all elements (the first immediately, successive deferred),
if this is a lazy implementation.peek in interface IndexedSeq<java.lang.Character>peek in interface Seq<java.lang.Character>peek in interface Traversable<java.lang.Character>peek in interface Value<java.lang.Character>action - The action that will be performed on the element(s).public IndexedSeq<CharSeq> permutations()
SeqExample:
[].permutations() = []
[1,2,3].permutations() = [
[1,2,3],
[1,3,2],
[2,1,3],
[2,3,1],
[3,1,2],
[3,2,1]
]
permutations in interface IndexedSeq<java.lang.Character>permutations in interface Seq<java.lang.Character>public CharSeq prepend(java.lang.Character element)
Seqprepend in interface IndexedSeq<java.lang.Character>prepend in interface Seq<java.lang.Character>element - An elementpublic CharSeq prependAll(java.lang.Iterable<? extends java.lang.Character> elements)
SeqprependAll in interface IndexedSeq<java.lang.Character>prependAll in interface Seq<java.lang.Character>elements - An Iterable of elementspublic CharSeq remove(java.lang.Character element)
Seqremove in interface IndexedSeq<java.lang.Character>remove in interface Seq<java.lang.Character>element - An element to be removed from this Seq.public CharSeq removeFirst(java.util.function.Predicate<java.lang.Character> predicate)
SeqremoveFirst in interface IndexedSeq<java.lang.Character>removeFirst in interface Seq<java.lang.Character>predicate - an predicatepublic CharSeq removeLast(java.util.function.Predicate<java.lang.Character> predicate)
SeqremoveLast in interface IndexedSeq<java.lang.Character>removeLast in interface Seq<java.lang.Character>predicate - an predicatepublic CharSeq removeAt(int index)
SeqremoveAt in interface IndexedSeq<java.lang.Character>removeAt in interface Seq<java.lang.Character>index - position of element to removepublic CharSeq removeAll(java.lang.Character element)
SeqremoveAll in interface IndexedSeq<java.lang.Character>removeAll in interface Seq<java.lang.Character>element - An element to be removed from this Seq.public CharSeq removeAll(java.lang.Iterable<? extends java.lang.Character> elements)
SeqremoveAll in interface IndexedSeq<java.lang.Character>removeAll in interface Seq<java.lang.Character>elements - Elements to be removed from this Seq.public CharSeq replace(java.lang.Character currentElement, java.lang.Character newElement)
Traversablereplace in interface IndexedSeq<java.lang.Character>replace in interface Seq<java.lang.Character>replace in interface Traversable<java.lang.Character>currentElement - An element to be substituted.newElement - A replacement for currentElement.public CharSeq replaceAll(java.lang.Character currentElement, java.lang.Character newElement)
TraversablereplaceAll in interface IndexedSeq<java.lang.Character>replaceAll in interface Seq<java.lang.Character>replaceAll in interface Traversable<java.lang.Character>currentElement - An element to be substituted.newElement - A replacement for currentElement.public CharSeq retainAll(java.lang.Iterable<? extends java.lang.Character> elements)
TraversableretainAll in interface IndexedSeq<java.lang.Character>retainAll in interface Seq<java.lang.Character>retainAll in interface Traversable<java.lang.Character>elements - Elements to be kept.public CharSeq reverse()
Seqreverse in interface IndexedSeq<java.lang.Character>reverse in interface Seq<java.lang.Character>public CharSeq rotateLeft(int n)
Seq
// = List(3, 4, 5, 1, 2)
List.of(1, 2, 3, 4, 5).rotateLeft(2);
rotateLeft in interface IndexedSeq<java.lang.Character>rotateLeft in interface Seq<java.lang.Character>n - distance of left rotationpublic CharSeq rotateRight(int n)
Seq
// = List(4, 5, 1, 2, 3)
List.of(1, 2, 3, 4, 5).rotateRight(2);
rotateRight in interface IndexedSeq<java.lang.Character>rotateRight in interface Seq<java.lang.Character>n - distance of right rotationpublic CharSeq scan(java.lang.Character zero, java.util.function.BiFunction<? super java.lang.Character,? super java.lang.Character,? extends java.lang.Character> operation)
Traversablescan in interface IndexedSeq<java.lang.Character>scan in interface Seq<java.lang.Character>scan in interface Traversable<java.lang.Character>zero - neutral element for the operator opoperation - the associative operator for the scanpublic <U> IndexedSeq<U> scanLeft(U zero, java.util.function.BiFunction<? super U,? super java.lang.Character,? extends U> operation)
TraversablescanLeft in interface IndexedSeq<java.lang.Character>scanLeft in interface Seq<java.lang.Character>scanLeft in interface Traversable<java.lang.Character>U - the type of the elements in the resulting collectionzero - the initial valueoperation - the binary operator applied to the intermediate result and the elementpublic <U> IndexedSeq<U> scanRight(U zero, java.util.function.BiFunction<? super java.lang.Character,? super U,? extends U> operation)
TraversablescanRight in interface IndexedSeq<java.lang.Character>scanRight in interface Seq<java.lang.Character>scanRight in interface Traversable<java.lang.Character>U - the type of the elements in the resulting collectionzero - the initial valueoperation - the binary operator applied to the intermediate result and the elementpublic CharSeq shuffle()
Seqshuffle in interface IndexedSeq<java.lang.Character>shuffle in interface Seq<java.lang.Character>public CharSeq shuffle(java.util.Random random)
Seqshuffle in interface IndexedSeq<java.lang.Character>shuffle in interface Seq<java.lang.Character>random - A random number generatorpublic CharSeq slice(int beginIndex, int endIndex)
SeqbeginIndex and extends to the element at index endIndex - 1.
Examples:
List.of(1, 2, 3, 4).slice(1, 3); // = (2, 3)
List.of(1, 2, 3, 4).slice(0, 4); // = (1, 2, 3, 4)
List.of(1, 2, 3, 4).slice(2, 2); // = ()
List.of(1, 2).slice(1, 0); // = ()
List.of(1, 2).slice(-10, 10); // = (1, 2)
See also Seq.subSequence(int, int) which throws in some cases instead of returning a sequence.slice in interface IndexedSeq<java.lang.Character>slice in interface Seq<java.lang.Character>beginIndex - the beginning index, inclusiveendIndex - the end index, exclusivepublic Iterator<CharSeq> slideBy(java.util.function.Function<? super java.lang.Character,?> classifier)
TraversableTraversable.
Each window contains elements with the same class, as determined by classifier. Two consecutive
values in this Traversable will be in the same window only if classifier returns equal
values for them. Otherwise, the values will constitute the last element of the previous window and the
first element of the next window.
Examples:
[].slideBy(Function.identity()) = []
[1,2,3,4,4,5].slideBy(Function.identity()) = [[1],[2],[3],[4,4],[5]]
[1,2,3,10,12,5,7,20,29].slideBy(x -> x/10) = [[1,2,3],[10,12],[5,7],[20,29]]
slideBy in interface IndexedSeq<java.lang.Character>slideBy in interface Seq<java.lang.Character>slideBy in interface Traversable<java.lang.Character>classifier - A function which classifies elements into classespublic Iterator<CharSeq> sliding(int size)
Traversablesize and step size 1 over this Traversable by calling
Traversable.sliding(int, int).sliding in interface IndexedSeq<java.lang.Character>sliding in interface Seq<java.lang.Character>sliding in interface Traversable<java.lang.Character>size - a positive window sizepublic Iterator<CharSeq> sliding(int size, int step)
Traversablesize and step size over this Traversable.
Examples:
[].sliding(1,1) = []
[1,2,3,4,5].sliding(2,3) = [[1,2],[4,5]]
[1,2,3,4,5].sliding(2,4) = [[1,2],[5]]
[1,2,3,4,5].sliding(2,5) = [[1,2]]
[1,2,3,4].sliding(5,3) = [[1,2,3,4]]
sliding in interface IndexedSeq<java.lang.Character>sliding in interface Seq<java.lang.Character>sliding in interface Traversable<java.lang.Character>size - a positive window sizestep - a positive step sizepublic CharSeq sorted()
SeqComparable, a java.lang.ClassCastException may be thrown.sorted in interface IndexedSeq<java.lang.Character>sorted in interface Seq<java.lang.Character>public CharSeq sorted(java.util.Comparator<? super java.lang.Character> comparator)
SeqComparator. If this elements are not
Comparable, a java.lang.ClassCastException may be thrown.sorted in interface IndexedSeq<java.lang.Character>sorted in interface Seq<java.lang.Character>comparator - A comparatorpublic <U extends java.lang.Comparable<? super U>> CharSeq sortBy(java.util.function.Function<? super java.lang.Character,? extends U> mapper)
Seqmapper.sortBy in interface IndexedSeq<java.lang.Character>sortBy in interface Seq<java.lang.Character>U - The domain where elements are comparedmapper - A mapperpublic <U> CharSeq sortBy(java.util.Comparator<? super U> comparator, java.util.function.Function<? super java.lang.Character,? extends U> mapper)
Seqmapper.sortBy in interface IndexedSeq<java.lang.Character>sortBy in interface Seq<java.lang.Character>U - The domain where elements are comparedcomparator - A comparatormapper - A mapperpublic Tuple2<CharSeq,CharSeq> span(java.util.function.Predicate<? super java.lang.Character> predicate)
Traversablepredicate and the second element is the remainder.span in interface IndexedSeq<java.lang.Character>span in interface Seq<java.lang.Character>span in interface Traversable<java.lang.Character>predicate - A predicate.Tuple containing the longest prefix of elements that satisfy p and the remainder.public CharSeq subSequence(int beginIndex)
SeqbeginIndex and extends to the end of this Seq.
Examples:
List.of(1, 2).subSequence(0); // = (1, 2)
List.of(1, 2).subSequence(1); // = (2)
List.of(1, 2).subSequence(2); // = ()
List.of(1, 2).subSequence(10); // throws IndexOutOfBoundsException
List.of(1, 2).subSequence(-10); // throws IndexOutOfBoundsException
See also Seq.drop(int) which is similar but does not throw.subSequence in interface IndexedSeq<java.lang.Character>subSequence in interface Seq<java.lang.Character>beginIndex - the beginning index, inclusivepublic CharSeq tail()
Traversabletail in interface IndexedSeq<java.lang.Character>tail in interface Seq<java.lang.Character>tail in interface Traversable<java.lang.Character>public Option<CharSeq> tailOption()
TraversableOption.tailOption in interface IndexedSeq<java.lang.Character>tailOption in interface Seq<java.lang.Character>tailOption in interface Traversable<java.lang.Character>Some(traversable) or None if this is empty.public CharSeq take(int n)
Traversable
The result is equivalent to sublist(0, max(0, min(length(), n))) but does not throw if n < 0 or
n > length().
In the case of n < 0 the empty instance is returned, in the case of n > length() this is returned.
take in interface IndexedSeq<java.lang.Character>take in interface Seq<java.lang.Character>take in interface Traversable<java.lang.Character>n - The number of elements to take.public CharSeq takeUntil(java.util.function.Predicate<? super java.lang.Character> predicate)
Traversable
Note: This is essentially the same as takeWhile(predicate.negate()). It is intended to be used with
method references, which cannot be negated directly.
takeUntil in interface IndexedSeq<java.lang.Character>takeUntil in interface Seq<java.lang.Character>takeUntil in interface Traversable<java.lang.Character>predicate - A condition tested subsequently for this elements.public CharSeq takeWhile(java.util.function.Predicate<? super java.lang.Character> predicate)
TraversabletakeWhile in interface IndexedSeq<java.lang.Character>takeWhile in interface Seq<java.lang.Character>takeWhile in interface Traversable<java.lang.Character>predicate - A condition tested subsequently for the contained elements.public CharSeq takeRight(int n)
Traversable
The result is equivalent to sublist(max(0, min(length(), length() - n)), n), i.e. takeRight will not
throw if n < 0 or n > length().
In the case of n < 0 the empty instance is returned, in the case of n > length() this is returned.
takeRight in interface IndexedSeq<java.lang.Character>takeRight in interface Seq<java.lang.Character>takeRight in interface Traversable<java.lang.Character>n - The number of elements to take.public CharSeq takeRightUntil(java.util.function.Predicate<? super java.lang.Character> predicate)
SeqtakeRightUntil in interface IndexedSeq<java.lang.Character>takeRightUntil in interface Seq<java.lang.Character>predicate - A condition tested subsequently for this elements, starting from the end.public CharSeq takeRightWhile(java.util.function.Predicate<? super java.lang.Character> predicate)
Seq
Note: This is essentially the same as takeRightUntil(predicate.negate()).
It is intended to be used with method references, which cannot be negated directly.
takeRightWhile in interface IndexedSeq<java.lang.Character>takeRightWhile in interface Seq<java.lang.Character>predicate - A condition tested subsequently for this elements, starting from the end.public <U> U transform(java.util.function.Function<? super CharSeq,? extends U> f)
CharSeq.U - Type of transformation resultf - A transformationUjava.lang.NullPointerException - if f is nullpublic CharSeq update(int index, java.lang.Character element)
Sequpdate in interface IndexedSeq<java.lang.Character>update in interface Seq<java.lang.Character>index - an indexelement - an elementpublic CharSeq update(int index, java.util.function.Function<? super java.lang.Character,? extends java.lang.Character> updater)
Sequpdate in interface IndexedSeq<java.lang.Character>update in interface Seq<java.lang.Character>index - an indexupdater - a function transforming the previous valuepublic <U> IndexedSeq<Tuple2<java.lang.Character,U>> zip(java.lang.Iterable<? extends U> that)
Traversable
The length of the returned traversable is the minimum of the lengths of this traversable and that
iterable.
zip in interface IndexedSeq<java.lang.Character>zip in interface Seq<java.lang.Character>zip in interface Traversable<java.lang.Character>U - The type of the second half of the returned pairs.that - The Iterable providing the second half of each result pair.that iterable.public <U,R> IndexedSeq<R> zipWith(java.lang.Iterable<? extends U> that, java.util.function.BiFunction<? super java.lang.Character,? super U,? extends R> mapper)
Traversable
The length of the returned traversable is the minimum of the lengths of this traversable and that
iterable.
zipWith in interface IndexedSeq<java.lang.Character>zipWith in interface Seq<java.lang.Character>zipWith in interface Traversable<java.lang.Character>U - The type of the second parameter of the mapper.R - The type of the mapped elements.that - The Iterable providing the second parameter of the mapper.mapper - a mapper.that iterable.public <U> IndexedSeq<Tuple2<java.lang.Character,U>> zipAll(java.lang.Iterable<? extends U> that, java.lang.Character thisElem, U thatElem)
Traversable
The length of the returned traversable is the maximum of the lengths of this traversable and that
iterable.
Special case: if this traversable is shorter than that elements, and that elements contains duplicates, the resulting traversable may be shorter than the maximum of the lengths of this and that because a traversable contains an element at most once.
If this Traversable is shorter than that, thisElem values are used to fill the result. If that is shorter than this Traversable, thatElem values are used to fill the result.
zipAll in interface IndexedSeq<java.lang.Character>zipAll in interface Seq<java.lang.Character>zipAll in interface Traversable<java.lang.Character>U - The type of the second half of the returned pairs.that - The Iterable providing the second half of each result pair.thisElem - The element to be used to fill up the result if this traversable is shorter than that.thatElem - The element to be used to fill up the result if that is shorter than this traversable.public IndexedSeq<Tuple2<java.lang.Character,java.lang.Integer>> zipWithIndex()
TraversablezipWithIndex in interface IndexedSeq<java.lang.Character>zipWithIndex in interface Seq<java.lang.Character>zipWithIndex in interface Traversable<java.lang.Character>public <U> IndexedSeq<U> zipWithIndex(java.util.function.BiFunction<? super java.lang.Character,? super java.lang.Integer,? extends U> mapper)
TraversablezipWithIndex in interface IndexedSeq<java.lang.Character>zipWithIndex in interface Seq<java.lang.Character>zipWithIndex in interface Traversable<java.lang.Character>U - The type of the mapped elements.mapper - a mapper.public java.lang.Character apply(java.lang.Integer index)
SeqSeq is a partial function which returns the element at the specified index if the
index is valid. It's up to the caller to make sure the index is valid (for instance through
isDefinedAt).
The behaviour is undefined if the index is out of bounds.
It may throw any RuntimeException or return an arbitrary value.apply in interface Seq<java.lang.Character>apply in interface Function1<java.lang.Integer,java.lang.Character>apply in interface PartialFunction<java.lang.Integer,java.lang.Character>apply in interface java.util.function.Function<java.lang.Integer,java.lang.Character>index - an indexpublic int indexOf(java.lang.Character element,
int from)
Seqpublic int lastIndexOf(java.lang.Character element,
int end)
SeqlastIndexOf in interface Seq<java.lang.Character>element - an elementend - the end indexpublic Tuple2<CharSeq,CharSeq> splitAt(int n)
SeqsplitAt(n) is equivalent to
Tuple.of(take(n), drop(n)).public Tuple2<CharSeq,CharSeq> splitAt(java.util.function.Predicate<? super java.lang.Character> predicate)
SeqPredicate, e.g. Tuple(init, element+tail).public Tuple2<CharSeq,CharSeq> splitAtInclusive(java.util.function.Predicate<? super java.lang.Character> predicate)
SeqPredicate, e.g. Tuple(init+element, tail).splitAtInclusive in interface Seq<java.lang.Character>predicate - An predicateTuple containing divided sequencespublic boolean startsWith(java.lang.Iterable<? extends java.lang.Character> that,
int offset)
SeqNote: If the both the receiver object this and the argument that are infinite sequences this method may not terminate.
startsWith in interface IndexedSeq<java.lang.Character>startsWith in interface Seq<java.lang.Character>that - the sequence to testoffset - the index where the sequence is searched.public java.lang.Character head()
Traversablehead in interface Traversable<java.lang.Character>public boolean isAsync()
CharSeq is computed synchronously.public boolean isEmpty()
TraversableisEmpty in interface Traversable<java.lang.Character>isEmpty in interface Value<java.lang.Character>public boolean isLazy()
CharSeq is computed eagerly.public boolean isTraversableAgain()
TraversableThis method should be implemented by classes only, i.e. not by interfaces.
isTraversableAgain in interface Traversable<java.lang.Character>public boolean equals(java.lang.Object o)
TraversableNotes:
equals in interface Traversable<java.lang.Character>equals in interface Value<java.lang.Character>equals in class java.lang.Objecto - an object, may be nullpublic int hashCode()
Traversable
int hash = 1;
for (T t : this) { hash = hash * 31 + Objects.hashCode(t); }
Collections with arbitrary iteration order are hashed in a way such that the hash of a fixed number of elements is independent of their iteration order.
int hash = 1;
for (T t : this) { hash += Objects.hashCode(t); }
Please note that the particular hashing algorithms may change in a future version of Vavr.
public final class Hashed<K> {
private final K key;
private final Lazy<Integer> hashCode;
public Hashed(K key) {
this.key = key;
this.hashCode = Lazy.of(() -> Objects.hashCode(key));
}
public K key() {
return key;
}
@Override
public boolean equals(Object o) {
if (o == key) {
return true;
} else if (key != null && o instanceof Hashed) {
final Hashed that = (Hashed) o;
return key.equals(that.key);
} else {
return false;
}
}
@Override
public int hashCode() {
return hashCode.get();
}
@Override
public String toString() {
return "Hashed(" + (key == null ? "null" : key.toString()) + ")";
}
}
hashCode in interface Traversable<java.lang.Character>hashCode in interface Value<java.lang.Character>hashCode in class java.lang.Objectpublic char charAt(int index)
char value at the
specified index. An index ranges from 0 to
length() - 1. The first char value of the sequence
is at index 0, the next at index 1,
and so on, as for array indexing.
If the char value specified by the index is a
surrogate, the surrogate
value is returned.
charAt in interface java.lang.CharSequenceindex - the index of the char value.char value at the specified index of this string.
The first char value is at index 0.java.lang.IndexOutOfBoundsException - if the index
argument is negative or not less than the length of this
string.public int length()
length in interface Traversable<java.lang.Character>length in interface java.lang.CharSequencepublic int codePointAt(int index)
char values
(Unicode code units) and ranges from 0 to
length()- 1.
If the char value specified at the given index
is in the high-surrogate range, the following index is less
than the length of this CharSeq, and the
char value at the following index is in the
low-surrogate range, then the supplementary code point
corresponding to this surrogate pair is returned. Otherwise,
the char value at the given index is returned.
index - the index to the char valuesindexjava.lang.IndexOutOfBoundsException - if the index
argument is negative or not less than the length of this
string.public int codePointBefore(int index)
char values
(Unicode code units) and ranges from 1 to length.
If the char value at (index - 1)
is in the low-surrogate range, (index - 2) is not
negative, and the char value at (index -
2) is in the high-surrogate range, then the
supplementary code point value of the surrogate pair is
returned. If the char value at index -
1 is an unpaired low-surrogate or a high-surrogate, the
surrogate value is returned.
index - the index following the code point that should be returnedjava.lang.IndexOutOfBoundsException - if the index
argument is less than 1 or greater than the length
of this string.public int codePointCount(int beginIndex,
int endIndex)
CharSeq. The text range begins at the
specified beginIndex and extends to the
char at index endIndex - 1. Thus the
length (in chars) of the text range is
endIndex-beginIndex. Unpaired surrogates within
the text range count as one code point each.beginIndex - the index to the first char of
the text range.endIndex - the index after the last char of
the text range.java.lang.IndexOutOfBoundsException - if the
beginIndex is negative, or endIndex
is larger than the length of this CharSeq, or
beginIndex is larger than endIndex.public int offsetByCodePoints(int index,
int codePointOffset)
CharSeq that is
offset from the given index by
codePointOffset code points. Unpaired surrogates
within the text range given by index and
codePointOffset count as one code point each.index - the index to be offsetcodePointOffset - the offset in code pointsCharSeqjava.lang.IndexOutOfBoundsException - if index
is negative or larger then the length of this
CharSeq, or if codePointOffset is positive
and the substring starting with index has fewer
than codePointOffset code points,
or if codePointOffset is negative and the substring
before index has fewer than the absolute value
of codePointOffset code points.public void getChars(int srcBegin,
int srcEnd,
char[] dst,
int dstBegin)
The first character to be copied is at index srcBegin;
the last character to be copied is at index srcEnd-1
(thus the total number of characters to be copied is
srcEnd-srcBegin). The characters are copied into the
subarray of dst starting at index dstBegin
and ending at index:
dstbegin + (srcEnd-srcBegin) - 1
srcBegin - index of the first character in the string
to copy.srcEnd - index after the last character in the string
to copy.dst - the destination array.dstBegin - the start offset in the destination array.java.lang.IndexOutOfBoundsException - If any of the following
is true:
srcBegin is negative.
srcBegin is greater than srcEnd
srcEnd is greater than the length of this
string
dstBegin is negative
dstBegin+(srcEnd-srcBegin) is larger than
dst.lengthpublic byte[] getBytes(java.lang.String charsetName)
throws java.io.UnsupportedEncodingException
CharSeq into a sequence of bytes using the named
charset, storing the result into a new byte array.
The behavior of this method when this string cannot be encoded in
the given charset is unspecified. The CharsetEncoder class should be used when more control
over the encoding process is required.
charsetName - The name of a supported charsetjava.io.UnsupportedEncodingException - If the named charset is not supportedpublic byte[] getBytes(java.nio.charset.Charset charset)
CharSeq into a sequence of bytes using the given
charset, storing the result into a
new byte array.
This method always replaces malformed-input and unmappable-character
sequences with this charset's default replacement byte array. The
CharsetEncoder class should be used when more
control over the encoding process is required.
charset - The Charset to be used to encode
the CharSeqpublic byte[] getBytes()
CharSeq into a sequence of bytes using the
platform's default charset, storing the result into a new byte array.
The behavior of this method when this string cannot be encoded in
the default charset is unspecified. The CharsetEncoder class should be used when more control
over the encoding process is required.
public boolean contentEquals(java.lang.StringBuffer sb)
StringBuffer. The result
is true if and only if this CharSeq represents the same
sequence of characters as the specified StringBuffer. This method
synchronizes on the StringBuffer.sb - The StringBuffer to compare this CharSeq againsttrue if this CharSeq represents the same
sequence of characters as the specified StringBuffer,
false otherwisepublic boolean contentEquals(java.lang.CharSequence cs)
CharSequence. The
result is true if and only if this CharSeq represents the
same sequence of char values as the specified sequence. Note that if the
CharSequence is a StringBuffer then the method
synchronizes on it.cs - The sequence to compare this CharSeq againsttrue if this CharSeq represents the same
sequence of char values as the specified sequence, false otherwisepublic boolean equalsIgnoreCase(CharSeq anotherString)
CharSeq to another CharSeq, ignoring case
considerations. Two strings are considered equal ignoring case if they
are of the same length and corresponding characters in the two strings
are equal ignoring case.
Two characters c1 and c2 are considered the same
ignoring case if at least one of the following is true:
== operator)
Character.toUpperCase(char) to each character
produces the same result
Character.toLowerCase(char) to each character
produces the same result
anotherString - The CharSeq to compare this CharSeq againsttrue if the argument is not null and it
represents an equivalent CharSeq ignoring case; false otherwiseequals(Object)public int compareTo(CharSeq anotherString)
CharSeq object is compared lexicographically to the
character sequence represented by the argument string. The result is
a negative integer if this CharSeq object
lexicographically precedes the argument string. The result is a
positive integer if this CharSeq object lexicographically
follows the argument string. The result is zero if the strings
are equal; compareTo returns 0 exactly when
the equals(Object) method would return true.
This is the definition of lexicographic ordering. If two strings are
different, then either they have different characters at some index
that is a valid index for both strings, or their lengths are different,
or both. If they have different characters at one or more index
positions, let k be the smallest such index; then the string
whose character at position k has the smaller value, as
determined by using the < operator, lexicographically precedes the
other string. In this case, compareTo returns the
difference of the two character values at position k in
the two string -- that is, the value:
If there is no index position at which they differ, then the shorter string lexicographically precedes the longer string. In this case,this.charAt(k)-anotherString.charAt(k)
compareTo returns the difference of the lengths of the
strings -- that is, the value:
this.length()-anotherString.length()
compareTo in interface java.lang.Comparable<CharSeq>anotherString - the CharSeq to be compared.0 if the argument string is equal to
this string; a value less than 0 if this string
is lexicographically less than the string argument; and a
value greater than 0 if this string is
lexicographically greater than the string argument.public int compareToIgnoreCase(CharSeq str)
compareTo with normalized versions of the strings
where case differences have been eliminated by calling
Character.toLowerCase(Character.toUpperCase(character)) on
each character.
Note that this method does not take locale into account, and will result in an unsatisfactory ordering for certain locales. The java.text package provides collators to allow locale-sensitive ordering.
str - the CharSeq to be compared.public boolean regionMatches(int toffset,
CharSeq other,
int ooffset,
int len)
A substring of this CharSeq object is compared to a substring
of the argument other. The result is true if these substrings
represent identical character sequences. The substring of this
CharSeq object to be compared begins at index toffset
and has length len. The substring of other to be compared
begins at index ooffset and has length len. The
result is false if and only if at least one of the following
is true:
toffset is negative.
ooffset is negative.
toffset+len is greater than the length of this
CharSeq object.
ooffset+len is greater than the length of the other
argument.
len
such that:
this.charAt(toffset + k) != other.charAt(ooffset +
k)
toffset - the starting offset of the subregion in this string.other - the string argument.ooffset - the starting offset of the subregion in the string
argument.len - the number of characters to compare.true if the specified subregion of this string
exactly matches the specified subregion of the string argument;
false otherwise.public boolean regionMatches(boolean ignoreCase,
int toffset,
CharSeq other,
int ooffset,
int len)
A substring of this CharSeq object is compared to a substring
of the argument other. The result is true if these
substrings represent character sequences that are the same, ignoring
case if and only if ignoreCase is true. The substring of
this CharSeq object to be compared begins at index
toffset and has length len. The substring of
other to be compared begins at index ooffset and
has length len. The result is false if and only if
at least one of the following is true:
toffset is negative.
ooffset is negative.
toffset+len is greater than the length of this
CharSeq object.
ooffset+len is greater than the length of the other
argument.
ignoreCase is false and there is some nonnegative
integer k less than len such that:
this.charAt(toffset+k) != other.charAt(ooffset+k)
ignoreCase is true and there is some nonnegative
integer k less than len such that:
and:Character.toLowerCase(this.charAt(toffset+k)) != Character.toLowerCase(other.charAt(ooffset+k))
Character.toUpperCase(this.charAt(toffset+k)) !=
Character.toUpperCase(other.charAt(ooffset+k))
ignoreCase - if true, ignore case when comparing
characters.toffset - the starting offset of the subregion in this
string.other - the string argument.ooffset - the starting offset of the subregion in the string
argument.len - the number of characters to compare.true if the specified subregion of this string
matches the specified subregion of the string argument;
false otherwise. Whether the matching is exact
or case insensitive depends on the ignoreCase
argument.public CharSeq subSequence(int beginIndex, int endIndex)
SeqbeginIndex and extends to the element at index endIndex - 1.
Examples:
List.of(1, 2, 3, 4).subSequence(1, 3); // = (2, 3)
List.of(1, 2, 3, 4).subSequence(0, 4); // = (1, 2, 3, 4)
List.of(1, 2, 3, 4).subSequence(2, 2); // = ()
List.of(1, 2).subSequence(1, 0); // throws IndexOutOfBoundsException
List.of(1, 2).subSequence(-10, 1); // throws IndexOutOfBoundsException
List.of(1, 2).subSequence(0, 10); // throws IndexOutOfBoundsException
See also Seq.slice(int, int) which returns an empty sequence instead of throwing.subSequence in interface IndexedSeq<java.lang.Character>subSequence in interface Seq<java.lang.Character>subSequence in interface java.lang.CharSequencebeginIndex - the beginning index, inclusiveendIndex - the end index, exclusivepublic boolean startsWith(CharSeq prefix, int toffset)
prefix - the prefix.toffset - where to begin looking in this string.true if the character sequence represented by the
argument is a prefix of the substring of this object starting
at index toffset; false otherwise.
The result is false if toffset is
negative or greater than the length of this
CharSeq object; otherwise the result is the same
as the result of the expression
this.substring(toffset).startsWith(prefix)
public boolean startsWith(CharSeq prefix)
prefix - the prefix.true if the character sequence represented by the
argument is a prefix of the character sequence represented by
this string; false otherwise.
Note also that true will be returned if the
argument is an empty string or is equal to this
CharSeq object as determined by the
equals(Object) method.public boolean endsWith(CharSeq suffix)
suffix - the suffix.true if the character sequence represented by the
argument is a suffix of the character sequence represented by
this object; false otherwise. Note that the
result will be true if the argument is the
empty string or is equal to this CharSeq object
as determined by the equals(Object) method.public int indexOf(int ch)
ch occurs in the character sequence represented by
this CharSeq object, then the index (in Unicode
code units) of the first such occurrence is returned. For
values of ch in the range from 0 to 0xFFFF
(inclusive), this is the smallest value k such that:
is true. For other values ofthis.charAt(k) == ch
ch, it is the
smallest value k such that:
is true. In either case, if no such character occurs in this string, thenthis.codePointAt(k) == ch
-1 is returned.ch - a character (Unicode code point).-1 if the character does not occur.public int indexOf(int ch,
int fromIndex)
If a character with value ch occurs in the
character sequence represented by this CharSeq
object at an index no smaller than fromIndex, then
the index of the first such occurrence is returned. For values
of ch in the range from 0 to 0xFFFF (inclusive),
this is the smallest value k such that:
is true. For other values of(this.charAt(k) == ch)&&(k >= fromIndex)
ch, it is the
smallest value k such that:
is true. In either case, if no such character occurs in this string at or after position(this.codePointAt(k) == ch)&&(k >= fromIndex)
fromIndex, then
-1 is returned.
There is no restriction on the value of fromIndex. If it
is negative, it has the same effect as if it were zero: this entire
string may be searched. If it is greater than the length of this
string, it has the same effect as if it were equal to the length of
this string: -1 is returned.
All indices are specified in char values
(Unicode code units).
ch - a character (Unicode code point).fromIndex - the index to start the search from.fromIndex, or -1
if the character does not occur.public int lastIndexOf(int ch)
ch in the
range from 0 to 0xFFFF (inclusive), the index (in Unicode code
units) returned is the largest value k such that:
is true. For other values ofthis.charAt(k) == ch
ch, it is the
largest value k such that:
is true. In either case, if no such character occurs in this string, thenthis.codePointAt(k) == ch
-1 is returned. The
CharSeq is searched backwards starting at the last
character.ch - a character (Unicode code point).-1 if the character does not occur.public int lastIndexOf(int ch,
int fromIndex)
ch in the range
from 0 to 0xFFFF (inclusive), the index returned is the largest
value k such that:
is true. For other values of(this.charAt(k) == ch)&&(k <= fromIndex)
ch, it is the
largest value k such that:
is true. In either case, if no such character occurs in this string at or before position(this.codePointAt(k) == ch)&&(k <= fromIndex)
fromIndex, then
-1 is returned.
All indices are specified in char values
(Unicode code units).
ch - a character (Unicode code point).fromIndex - the index to start the search from. There is no
restriction on the value of fromIndex. If it is
greater than or equal to the length of this string, it has
the same effect as if it were equal to one less than the
length of this string: this entire string may be searched.
If it is negative, it has the same effect as if it were -1:
-1 is returned.fromIndex, or -1
if the character does not occur before that point.public Option<java.lang.Integer> lastIndexOfOption(int ch, int fromIndex)
Option,
starting the search at the specified index.ch - a character (Unicode code point).fromIndex - the index to start the search from.Some(index) or None if not found.public int indexOf(CharSeq str)
The returned index is the smallest value k for which:
If no such value of k exists, thenthis.startsWith(str, k)
-1 is returned.str - the substring to search for.-1 if there is no such occurrence.public Option<java.lang.Integer> indexOfOption(CharSeq str)
Option.str - the substring to search for.Some(index) or None if not found.public int indexOf(CharSeq str, int fromIndex)
The returned index is the smallest value k for which:
If no such value of k exists, thenk >= fromIndex&&this.startsWith(str, k)
-1 is returned.str - the substring to search for.fromIndex - the index from which to start the search.-1 if there is no such occurrence.public Option<java.lang.Integer> indexOfOption(CharSeq str, int fromIndex)
Option,
starting the search at the specified index.str - the substring to search for.fromIndex - the index from which to start the search.Some(index) or None if not found.public int lastIndexOf(CharSeq str)
this.length().
The returned index is the largest value k for which:
If no such value of k exists, thenthis.startsWith(str, k)
-1 is returned.str - the substring to search for.-1 if there is no such occurrence.public Option<java.lang.Integer> lastIndexOfOption(CharSeq str)
Option.str - the substring to search for.Some(index) or None if not found.public int lastIndexOf(CharSeq str, int fromIndex)
The returned index is the largest value k for which:
If no such value of k exists, thenk<=fromIndex&&this.startsWith(str, k)
-1 is returned.str - the substring to search for.fromIndex - the index to start the search from.-1 if there is no such occurrence.public Option<java.lang.Integer> lastIndexOfOption(CharSeq str, int fromIndex)
Option,
starting the search at the specified index.str - the substring to search for.fromIndex - the index to start the search from.Some(index) or None if not found.public CharSeq substring(int beginIndex)
Examples:
"unhappy".substring(2) returns "happy" "Harbison".substring(3) returns "bison" "emptiness".substring(9) returns "" (an empty string)
beginIndex - the beginning index, inclusive.java.lang.IndexOutOfBoundsException - if
beginIndex is negative or larger than the
length of this CharSeq object.public CharSeq substring(int beginIndex, int endIndex)
beginIndex and
extends to the character at index endIndex - 1.
Thus the length of the substring is endIndex-beginIndex.
Examples:
"hamburger".substring(4, 8) returns "urge" "smiles".substring(1, 5) returns "mile"
beginIndex - the beginning index, inclusive.endIndex - the ending index, exclusive.java.lang.IndexOutOfBoundsException - if the
beginIndex is negative, or
endIndex is larger than the length of
this CharSeq object, or
beginIndex is larger than
endIndex.public java.lang.String stringPrefix()
ValuestringPrefix in interface Value<java.lang.Character>public java.lang.String toString()
public CharSeq concat(CharSeq str)
If the length of the argument string is 0, then this
CharSeq object is returned. Otherwise, a
CharSeq object is returned that represents a character
sequence that is the concatenation of the character sequence
represented by this CharSeq object and the character
sequence represented by the argument string.
Examples:
"cares".concat("s") returns "caress"
"to".concat("get").concat("her") returns "together"
str - the CharSeq that is concatenated to the end
of this CharSeq.public boolean matches(java.lang.String regex)
An invocation of this method of the form
str.matches(regex) yields exactly the
same result as the expression
Pattern.matches(regex, str)
regex - the regular expression to which this string is to be matchedtrue if, and only if, this string matches the
given regular expressionjava.util.regex.PatternSyntaxException - if the regular expression's syntax is invalidPatternpublic boolean contains(java.lang.CharSequence s)
s - the sequence to search fors, false otherwisepublic CharSeq replaceFirst(java.lang.String regex, java.lang.String replacement)
An invocation of this method of the form
str.replaceFirst(regex, repl)
yields exactly the same result as the expression
Pattern.compile(regex).matcher(str).replaceFirst(repl)
Note that backslashes (\) and dollar signs ($) in the
replacement string may cause the results to be different than if it were
being treated as a literal replacement string; see
Matcher.replaceFirst(java.lang.String).
Use Matcher.quoteReplacement(java.lang.String) to suppress the special
meaning of these characters, if desired.regex - the regular expression to which this string is to be matchedreplacement - the string to be substituted for the first matchCharSeqjava.util.regex.PatternSyntaxException - if the regular expression's syntax is invalidPatternpublic CharSeq replaceAll(java.lang.String regex, java.lang.String replacement)
An invocation of this method of the form
str.replaceAll(regex, repl)
yields exactly the same result as the expression
Pattern.compile(regex).matcher(str).replaceAll(repl)
Note that backslashes (\) and dollar signs ($) in the
replacement string may cause the results to be different than if it were
being treated as a literal replacement string; see
Matcher.replaceAll.
Use Matcher.quoteReplacement(java.lang.String) to suppress the special
meaning of these characters, if desired.regex - the regular expression to which this string is to be matchedreplacement - the string to be substituted for each matchCharSeqjava.util.regex.PatternSyntaxException - if the regular expression's syntax is invalidPatternpublic CharSeq replace(java.lang.CharSequence target, java.lang.CharSequence replacement)
target - The sequence of char values to be replacedreplacement - The replacement sequence of char valuespublic Seq<CharSeq> split(java.lang.String regex)
This method works as if by invoking the two-argument split(String, int)
method with the given expression and a limit argument of zero.
Trailing empty strings are therefore not included in the resulting Seq.
The string "boo:and:foo", for example, yields the following results with these expressions:
Split examples showing regex and result Regex Result : { "boo", "and", "foo" }o { "b", "", ":and:f" }
regex - the delimiting regular expressionjava.util.regex.PatternSyntaxException - if the regular expression's syntax is invalidPatternpublic Seq<CharSeq> split(java.lang.String regex, int limit)
The array returned by this method contains each substring of this string that is terminated by another substring that matches the given expression or is terminated by the end of the string. The substrings in the array are in the order in which they occur in this string. If the expression does not match any part of the input then the resulting array has just one element, namely this string.
When there is a positive-width match at the beginning of this string then an empty leading substring is included at the beginning of the resulting array. A zero-width match at the beginning however never produces such empty leading substring.
The limit parameter controls the number of times the
pattern is applied and therefore affects the length of the resulting
array. If the limit n is greater than zero then the pattern
will be applied at most n - 1 times, the array's
length will be no greater than n, and the array's last entry
will contain all input beyond the last matched delimiter. If n
is non-positive then the pattern will be applied as many times as
possible and the array can have any length. If n is zero then
the pattern will be applied as many times as possible, the array can
have any length, and trailing empty strings will be discarded.
The string "boo:and:foo", for example, yields the
following results with these parameters:
An invocation of this method of the form str.
Split example showing regex, limit, and result Regex Limit Result : 2 { "boo", "and:foo" }: 5 { "boo", "and", "foo" }: -2 { "boo", "and", "foo" }o 5 { "b", "", ":and:f", "", "" }o -2 { "b", "", ":and:f", "", "" }o 0 { "b", "", ":and:f" }
split(regex, n)
yields the same result as the expression
Pattern.compile(regex).split(str, n)
regex - the delimiting regular expressionlimit - the result threshold, as described abovejava.util.regex.PatternSyntaxException - if the regular expression's syntax is invalidPatternpublic CharSeq toLowerCase(java.util.Locale locale)
CharSeq to lower
case using the rules of the given Locale. Case mapping is based
on the Unicode Standard version specified by the Character
class. Since case mappings are not always 1:1 char mappings, the resulting
CharSeq may be a different length than the original CharSeq.
Examples of lowercase mappings are in the following table:
| Language Code of Locale | Upper Case | Lower Case | Description |
|---|---|---|---|
| tr (Turkish) | \u0130 | \u0069 | capital letter I with dot above -> small letter i |
| tr (Turkish) | \u0049 | \u0131 | capital letter I -> small letter dotless i |
| (all) | French Fries | french fries | lowercased all chars in String |
| (all) | ![]()
![]()
![]() |
![]()
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lowercased all chars in String |
locale - use the case transformation rules for this localeCharSeq, converted to lowercase.String.toLowerCase(),
String.toUpperCase(),
String.toUpperCase(Locale)public CharSeq toLowerCase()
CharSeq to lower
case using the rules of the default locale. This is equivalent to calling
toLowerCase(Locale.getDefault()).
Note: This method is locale sensitive, and may produce unexpected
results if used for strings that are intended to be interpreted locale
independently.
Examples are programming language identifiers, protocol keys, and HTML
tags.
For instance, "TITLE".toLowerCase() in a Turkish locale
returns "t\u0131tle", where '\u0131' is the
LATIN SMALL LETTER DOTLESS I character.
To obtain correct results for locale insensitive strings, use
toLowerCase(Locale.ROOT).
CharSeq, converted to lowercase.String.toLowerCase(Locale)public CharSeq toUpperCase(java.util.Locale locale)
CharSeq to upper
case using the rules of the given Locale. Case mapping is based
on the Unicode Standard version specified by the Character
class. Since case mappings are not always 1:1 char mappings, the resulting
CharSeq may be a different length than the original CharSeq.
Examples of locale-sensitive and 1:M case mappings are in the following table.
| Language Code of Locale | Lower Case | Upper Case | Description |
|---|---|---|---|
| tr (Turkish) | \u0069 | \u0130 | small letter i -> capital letter I with dot above |
| tr (Turkish) | \u0131 | \u0049 | small letter dotless i -> capital letter I |
| (all) | \u00df | \u0053 \u0053 | small letter sharp s -> two letters: SS |
| (all) | Fahrvergnügen | FAHRVERGNÜGEN |
locale - use the case transformation rules for this localeCharSeq, converted to uppercase.String.toUpperCase(),
String.toLowerCase(),
String.toLowerCase(Locale)public CharSeq toUpperCase()
CharSeq to upper
case using the rules of the default locale. This method is equivalent to
toUpperCase(Locale.getDefault()).
Note: This method is locale sensitive, and may produce unexpected
results if used for strings that are intended to be interpreted locale
independently.
Examples are programming language identifiers, protocol keys, and HTML
tags.
For instance, "title".toUpperCase() in a Turkish locale
returns "T\u0130TLE", where '\u0130' is the
LATIN CAPITAL LETTER I WITH DOT ABOVE character.
To obtain correct results for locale insensitive strings, use
toUpperCase(Locale.ROOT).
CharSeq, converted to uppercase.String.toUpperCase(Locale)public CharSeq capitalize(java.util.Locale locale)
CharSeq to upper
case using the rules of the given Locale. If the CharSeq is
empty, it won't have any effect. Case mapping is based
on the Unicode Standard version specified by the Character
class. Since case mappings are not always 1:1 char mappings, the resulting
CharSeq may be a different length than the original CharSeq.
Examples of locale-sensitive and 1:M case mappings are in the following table.
| Language Code of Locale | Lower Case | Upper Case | Description |
|---|---|---|---|
| tr (Turkish) | \u0069 | \u0130 | small letter i -> capital letter I with dot above |
| tr (Turkish) | \u0131 | \u0049 | small letter dotless i -> capital letter I |
| (all) | \u00df | \u0053 \u0053 | small letter sharp s -> two letters: SS |
| (all) | Fahrvergnügen | FAHRVERGNÜGEN |
locale - use the case transformation rules for this localeCharSeq, capitalized.public CharSeq capitalize()
CharSeq to upper
case using the rules of the default locale. If the CharSeq is
empty, it won't have any effect. This method is equivalent to
capitalize(Locale.getDefault()).
Note: This method is locale sensitive, and may produce unexpected
results if used for strings that are intended to be interpreted locale
independently.
Examples are programming language identifiers, protocol keys, and HTML
tags.
For instance, "title".toUpperCase() in a Turkish locale
returns "T\u0130TLE", where '\u0130' is the
LATIN CAPITAL LETTER I WITH DOT ABOVE character.
To obtain correct results for locale insensitive strings, use
toUpperCase(Locale.ROOT).
CharSeq, capitalized.public CharSeq trim()
If this CharSeq object represents an empty character
sequence, or the first and last characters of character sequence
represented by this CharSeq object both have codes
greater than '\u0020' (the space character), then a
reference to this CharSeq object is returned.
Otherwise, if there is no character with a code greater than
'\u0020' in the string, then a
CharSeq object representing an empty string is
returned.
Otherwise, let k be the index of the first character in the
string whose code is greater than '\u0020', and let
m be the index of the last character in the string whose code
is greater than '\u0020'. A CharSeq
object is returned, representing the substring of this string that
begins with the character at index k and ends with the
character at index m-that is, the result of
this.substring(k, m + 1).
This method may be used to trim whitespace (as defined above) from the beginning and end of a string.
public char[] toCharArray()
public java.lang.Byte decodeByte()
CharSeq into a Byte by calling Byte.decode(String).
We write
Byte value = charSeq.decodeByte();
instead of
Byte value = Byte.decode(charSeq.mkString());
Byte object holding the byte value represented by this CharSeqjava.lang.NumberFormatException - if this CharSeq does not contain a parsable byte.public java.lang.Integer decodeInteger()
CharSeq into an Integer by calling Integer.decode(String).
We write
Integer value = charSeq.decodeInteger();
instead of
Integer value = Integer.decode(charSeq.mkString());
Integer object holding the int value represented by this CharSeqjava.lang.NumberFormatException - if this CharSeq does not contain a parsable int.public java.lang.Long decodeLong()
CharSeq into a Long by calling Long.decode(String).
We write
Long value = charSeq.decodeLong();
instead of
Long value = Long.decode(charSeq.mkString());
Long object holding the long value represented by this CharSeqjava.lang.NumberFormatException - if this CharSeq does not contain a parsable long.public java.lang.Short decodeShort()
CharSeq into a Short by calling Short.decode(String).
We write
Short value = charSeq.decodeShort();
instead of
Short value = Short.decode(charSeq.mkString());
Short object holding the short value represented by this CharSeqjava.lang.NumberFormatException - if this CharSeq does not contain a parsable short.public boolean parseBoolean()
CharSeq as a boolean by calling Boolean.parseBoolean(String).
We write
boolean value = charSeq.parseBoolean();
instead of
boolean value = Boolean.parseBoolean(charSeq.mkString());
CharSeqpublic byte parseByte()
CharSeq as a signed decimal byte by calling Byte.parseByte(String).
We write
byte value = charSeq.parseByte();
instead of
byte value = Byte.parseByte(charSeq.mkString());
CharSeq in decimaljava.lang.NumberFormatException - If this CharSeq does not contain a parsable byte.public byte parseByte(int radix)
CharSeq as a signed byte in the specified radix
by calling Byte.parseByte(String, int).
We write
byte value = charSeq.parseByte(radix);
instead of
byte value = Byte.parseByte(charSeq.mkString(), radix);
radix - the radix to be used in interpreting this CharSeqCharSeq in the specified radixjava.lang.NumberFormatException - If this CharSeq does not contain a parsable byte.public double parseDouble()
CharSeq as a double by calling Double.parseDouble(String).
We write
double value = charSeq.parseDouble();
instead of
double value = Double.parseDouble(charSeq.mkString());
CharSeqjava.lang.NumberFormatException - If this CharSeq does not contain a parsable double.public float parseFloat()
CharSeq as a float by calling Float.parseFloat(String).
We write
float value = charSeq.parseFloat();
instead of
float value = Double.parseFloat(charSeq.mkString());
CharSeqjava.lang.NumberFormatException - If this CharSeq does not contain a parsable float.public int parseInt()
CharSeq as a signed decimal int by calling Integer.parseInt(String).
We write
int value = charSeq.parseInt();
instead of
int value = Integer.parseInt(charSeq.mkString());
CharSeq in decimaljava.lang.NumberFormatException - If this CharSeq does not contain a parsable int.public int parseInt(int radix)
CharSeq as a signed int in the specified radix
by calling Integer.parseInt(String, int).
We write
int value = charSeq.parseInt(radix);
instead of
int value = Integer.parseInt(charSeq.mkString(), radix);
radix - the radix to be used in interpreting this CharSeqCharSeq in the specified radixjava.lang.NumberFormatException - If this CharSeq does not contain a parsable int.public int parseUnsignedInt()
CharSeq as a unsigned decimal int by calling Integer.parseUnsignedInt(String).
We write
int value = charSeq.parseUnsignedInt();
instead of
int value = Integer.parseUnsignedInt(charSeq.mkString());
CharSeq in decimaljava.lang.NumberFormatException - If this CharSeq does not contain a parsable unsigned int.public int parseUnsignedInt(int radix)
CharSeq as a unsigned int in the specified radix
by calling Integer.parseUnsignedInt(String, int).
We write
int value = charSeq.parseUnsignedInt(radix);
instead of
int value = Integer.parseUnsignedInt(charSeq.mkString(), radix);
radix - the radix to be used in interpreting this CharSeqCharSeq in the specified radixjava.lang.NumberFormatException - If this CharSeq does not contain a parsable unsigned int.public long parseLong()
CharSeq as a signed decimal long by calling Long.parseLong(String).
We write
long value = charSeq.parseLong();
instead of
long value = Long.parseLong(charSeq.mkString());
CharSeq in decimaljava.lang.NumberFormatException - If this CharSeq does not contain a parsable long.public long parseLong(int radix)
CharSeq as a signed long in the specified radix
by calling Long.parseLong(String, int).
We write
long value = charSeq.parseLong(radix);
instead of
long value = Long.parseLong(charSeq.mkString(), radix);
radix - the radix to be used in interpreting this CharSeqCharSeq in the specified radixjava.lang.NumberFormatException - If this CharSeq does not contain a parsable long.public long parseUnsignedLong()
CharSeq as a unsigned decimal long by calling Long.parseUnsignedLong(String).
We write
long value = charSeq.parseUnsignedLong();
instead of
long value = Long.parseUnsignedLong(charSeq.mkString());
CharSeq in decimaljava.lang.NumberFormatException - If this CharSeq does not contain a parsable unsigned long.public long parseUnsignedLong(int radix)
CharSeq as a unsigned long in the specified radix
by calling Long.parseUnsignedLong(String, int).
We write
long value = charSeq.parseUnsignedLong(radix);
instead of
long value = Long.parseUnsignedLong(charSeq.mkString(), radix);
radix - the radix to be used in interpreting this CharSeqCharSeq in the specified radixjava.lang.NumberFormatException - If this CharSeq does not contain a parsable unsigned long.public short parseShort()
CharSeq as a signed decimal short by calling Short.parseShort(String).
We write
short value = charSeq.parseShort();
instead of
short value = Short.parseShort(charSeq.mkString());
CharSeq in decimaljava.lang.NumberFormatException - If this CharSeq does not contain a parsable short.public short parseShort(int radix)
CharSeq as a signed short in the specified radix
by calling Short.parseShort(String, int).
We write
short value = charSeq.parseShort(radix);
instead of
short value = Short.parseShort(charSeq.mkString(), radix);
radix - the radix to be used in interpreting this CharSeqCharSeq in the specified radixjava.lang.NumberFormatException - If this CharSeq does not contain a parsable short.public java.lang.Boolean toBoolean()
CharSeq to a Boolean by calling Boolean.valueOf(String).
We write
Boolean value = charSeq.toBoolean();
instead of
Boolean value = Boolean.valueOf(charSeq.mkString());
Boolean value represented by this CharSeqpublic java.lang.Byte toByte()
CharSeq to a Byte by calling Byte.valueOf(String).
We write
Byte value = charSeq.toByte();
instead of
Byte value = Byte.valueOf(charSeq.mkString());
Byte object holding the value represented by this CharSeqjava.lang.NumberFormatException - If this CharSeq does not contain a parsable byte.public java.lang.Byte toByte(int radix)
CharSeq to a Byte in the specified radix
by calling Byte.valueOf(String, int).
We write
Byte value = charSeq.toByte(radix);
instead of
Byte value = Byte.valueOf(charSeq.mkString(), radix);
radix - the radix to be used in interpreting this char sequenceByte object holding the value represented by this CharSeqjava.lang.NumberFormatException - If this CharSeq does not contain a parsable byte.public java.lang.Double toDouble()
CharSeq to a Double by calling Double.valueOf(String).
We write
Double value = charSeq.toDouble();
instead of
Double value = Double.valueOf(charSeq.mkString());
Double object holding the value represented by this CharSeqjava.lang.NumberFormatException - If this CharSeq does not contain a parsable double.public java.lang.Float toFloat()
CharSeq to a Float by calling Float.valueOf(String).
We write
Float value = charSeq.toFloat();
instead of
Float value = Float.valueOf(charSeq.mkString());
Float object holding the value represented by this CharSeqjava.lang.NumberFormatException - If this CharSeq does not contain a parsable float.public java.lang.Integer toInteger()
CharSeq to an Integer by calling Integer.valueOf(String).
We write
Integer value = charSeq.toInteger();
instead of
Integer value = Integer.valueOf(charSeq.mkString());
Integer object holding the value represented by this CharSeqjava.lang.NumberFormatException - If this CharSeq does not contain a parsable int.public java.lang.Integer toInteger(int radix)
CharSeq to an Integer in the specified radix
by calling Integer.valueOf(String, int).
We write
Integer value = charSeq.toInteger(radix);
instead of
Integer value = Integer.valueOf(charSeq.mkString(), radix);
radix - the radix to be used in interpreting this char sequenceInteger object holding the value represented by this CharSeqjava.lang.NumberFormatException - If this CharSeq does not contain a parsable int.public java.lang.Long toLong()
CharSeq to a Long by calling Long.valueOf(String).
We write
Long value = charSeq.toLong();
instead of
Long value = Long.valueOf(charSeq.mkString());
Long object holding the value represented by this CharSeqjava.lang.NumberFormatException - If this CharSeq does not contain a parsable long.public java.lang.Long toLong(int radix)
CharSeq to a Long in the specified radix
by calling Long.valueOf(String, int).
We write
Long value = charSeq.toLong(radix);
instead of
Long value = Long.valueOf(charSeq.mkString(), radix);
radix - the radix to be used in interpreting this char sequenceLong object holding the value represented by this CharSeqjava.lang.NumberFormatException - If this CharSeq does not contain a parsable long.public java.lang.Short toShort()
CharSeq to a Short by calling Short.valueOf(String).
We write
Short value = charSeq.toShort();
instead of
Short value = Short.valueOf(charSeq.mkString());
Short object holding the value represented by this CharSeqjava.lang.NumberFormatException - If this CharSeq does not contain a parsable short.public java.lang.Short toShort(int radix)
CharSeq to a Short in the specified radix
by calling Short.valueOf(String, int).
We write
Short value = charSeq.toShort(radix);
instead of
Short value = Short.valueOf(charSeq.mkString(), radix);
radix - the radix to be used in interpreting this char sequenceShort object holding the value represented by this CharSeqjava.lang.NumberFormatException - If this CharSeq does not contain a parsable short.public java.lang.Character[] toJavaArray()
ValueObject
// = [] of type Object[]
Future.<String> of(() -> { throw new Error(); })
.toJavaArray()
// = [ok] of type Object[]
Try.of(() -> "ok")
.toJavaArray()
// = [1, 2, 3] of type Object[]
List.of(1, 2, 3)
.toJavaArray()
toJavaArray in interface Value<java.lang.Character>