@NotThreadSafe public class FastList<T> extends AbstractMutableList<T> implements Externalizable, RandomAccess, BatchIterable<T>
An empty FastList created by calling the default constructor starts with a shared reference to a static empty array (DEFAULT_SIZED_EMPTY_ARRAY). This makes empty FastLists very memory efficient. The first call to add will lazily create an array of size 10.
An empty FastList created by calling the pre-size constructor with a value of 0 (new FastList(0)) starts with a shared reference to a static empty array (ZERO_SIZED_ARRAY). This makes FastLists presized to 0 very memory efficient as well. The first call to add will lazily create an array of size 1.
| Constructor and Description |
|---|
FastList() |
FastList(Collection<? extends T> source) |
FastList(int initialCapacity) |
| Modifier and Type | Method and Description |
|---|---|
void |
add(int index,
T element) |
boolean |
add(T newItem) |
boolean |
addAll(Collection<? extends T> source) |
boolean |
addAll(int index,
Collection<? extends T> source) |
boolean |
allSatisfy(Predicate<? super T> predicate)
Returns true if the predicate evaluates to true for every element of the iterable or if the iterable is empty.
|
<P> boolean |
allSatisfyWith(Predicate2<? super T,? super P> predicate,
P parameter)
Returns true if the predicate evaluates to true for every element of the collection, or returns false.
|
boolean |
anySatisfy(Predicate<? super T> predicate)
Returns true if the predicate evaluates to true for any element of the iterable.
|
<P> boolean |
anySatisfyWith(Predicate2<? super T,? super P> predicate,
P parameter)
Returns true if the predicate evaluates to true for any element of the collection, or return false.
|
void |
appendString(Appendable appendable,
String start,
String separator,
String end)
Prints a string representation of this collection onto the given
Appendable. |
void |
batchForEach(Procedure<? super T> procedure,
int sectionIndex,
int sectionCount) |
void |
clear() |
FastList<T> |
clone() |
<V> FastList<V> |
collect(Function<? super T,? extends V> function)
Returns a new MutableCollection with the results of applying the specified function to each element of the source
collection.
|
<V,R extends Collection<V>> |
collect(Function<? super T,? extends V> function,
R target)
Same as
RichIterable.collect(Function), except that the results are gathered into the specified target
collection. |
MutableBooleanList |
collectBoolean(BooleanFunction<? super T> booleanFunction)
Returns a new primitive
boolean iterable with the results of applying the specified function on each element
of the source collection. |
<R extends MutableBooleanCollection> |
collectBoolean(BooleanFunction<? super T> booleanFunction,
R target)
Same as
RichIterable.collectBoolean(BooleanFunction), except that the results are gathered into the specified target
collection. |
MutableByteList |
collectByte(ByteFunction<? super T> byteFunction)
Returns a new primitive
byte iterable with the results of applying the specified function on each element
of the source collection. |
<R extends MutableByteCollection> |
collectByte(ByteFunction<? super T> byteFunction,
R target)
Same as
RichIterable.collectByte(ByteFunction), except that the results are gathered into the specified target
collection. |
MutableCharList |
collectChar(CharFunction<? super T> charFunction)
Returns a new primitive
char iterable with the results of applying the specified function on each element
of the source collection. |
<R extends MutableCharCollection> |
collectChar(CharFunction<? super T> charFunction,
R target)
Same as
RichIterable.collectChar(CharFunction), except that the results are gathered into the specified target
collection. |
MutableDoubleList |
collectDouble(DoubleFunction<? super T> doubleFunction)
Returns a new primitive
double iterable with the results of applying the specified function on each element
of the source collection. |
<R extends MutableDoubleCollection> |
collectDouble(DoubleFunction<? super T> doubleFunction,
R target)
Same as
RichIterable.collectDouble(DoubleFunction), except that the results are gathered into the specified target
collection. |
MutableFloatList |
collectFloat(FloatFunction<? super T> floatFunction)
Returns a new primitive
float iterable with the results of applying the specified function on each element
of the source collection. |
<R extends MutableFloatCollection> |
collectFloat(FloatFunction<? super T> floatFunction,
R target)
Same as
RichIterable.collectFloat(FloatFunction), except that the results are gathered into the specified target
collection. |
<V> FastList<V> |
collectIf(Predicate<? super T> predicate,
Function<? super T,? extends V> function)
Returns a new MutableCollection with the results of applying the specified function to each element of the source
collection, but only for elements that evaluate to true for the specified predicate.
|
<V,R extends Collection<V>> |
collectIf(Predicate<? super T> predicate,
Function<? super T,? extends V> function,
R target)
Same as the collectIf method with two parameters but uses the specified target collection for the results.
|
MutableIntList |
collectInt(IntFunction<? super T> intFunction)
Returns a new primitive
int iterable with the results of applying the specified function on each element
of the source collection. |
<R extends MutableIntCollection> |
collectInt(IntFunction<? super T> intFunction,
R target)
Same as
RichIterable.collectInt(IntFunction), except that the results are gathered into the specified target
collection. |
MutableLongList |
collectLong(LongFunction<? super T> longFunction)
Returns a new primitive
long iterable with the results of applying the specified function on each element
of the source collection. |
<R extends MutableLongCollection> |
collectLong(LongFunction<? super T> longFunction,
R target)
Same as
RichIterable.collectLong(LongFunction), except that the results are gathered into the specified target
collection. |
MutableShortList |
collectShort(ShortFunction<? super T> shortFunction)
Returns a new primitive
short iterable with the results of applying the specified function on each element
of the source collection. |
<R extends MutableShortCollection> |
collectShort(ShortFunction<? super T> shortFunction,
R target)
Same as
RichIterable.collectShort(ShortFunction), except that the results are gathered into the specified target
collection. |
<P,V> FastList<V> |
collectWith(Function2<? super T,? super P,? extends V> function,
P parameter)
Same as
RichIterable.collect(Function) with a Function2 and specified parameter which is passed to the block. |
<P,V,R extends Collection<V>> |
collectWith(Function2<? super T,? super P,? extends V> function,
P parameter,
R target)
Same as collectWith but with a targetCollection parameter to gather the results.
|
boolean |
containsAll(Collection<?> source)
Returns true if all elements in source are contained in this collection.
|
boolean |
containsAllArguments(Object... source)
Returns true if all elements in the specified var arg array are contained in this collection.
|
<S> boolean |
corresponds(OrderedIterable<S> other,
Predicate2<? super T,? super S> predicate)
Returns true if both OrderedIterables have the same length
and
predicate returns true for all corresponding elements e1 of
this OrderedIterable and e2 of other. |
int |
count(Predicate<? super T> predicate)
Return the total number of elements that answer true to the specified predicate.
|
<P> int |
countWith(Predicate2<? super T,? super P> predicate,
P parameter)
Returns the total number of elements that evaluate to true for the specified predicate.
|
T |
detect(Predicate<? super T> predicate)
Returns the first element of the iterable for which the predicate evaluates to true or null in the case where no
element returns true.
|
int |
detectIndex(Predicate<? super T> predicate)
Returns the index of the first element of the
OrderedIterable for which the predicate evaluates to true. |
int |
detectLastIndex(Predicate<? super T> predicate)
Returns the index of the last element of the
ReversibleIterable for which the predicate evaluates to true. |
Optional<T> |
detectOptional(Predicate<? super T> predicate)
Returns the first element of the iterable for which the predicate evaluates to true as an Optional.
|
<P> T |
detectWith(Predicate2<? super T,? super P> predicate,
P parameter)
Returns the first element that evaluates to true for the specified predicate2 and parameter, or null if none
evaluate to true.
|
<P> Optional<T> |
detectWithOptional(Predicate2<? super T,? super P> predicate,
P parameter)
Returns the first element that evaluates to true for the specified predicate2 and parameter as an Optional.
|
MutableList<T> |
distinct()
Returns a new
ListIterable containing the distinct elements in this list. |
MutableList<T> |
distinct(HashingStrategy<? super T> hashingStrategy)
Returns a new
ListIterable containing the distinct elements in this list. |
MutableList<T> |
drop(int count)
Returns an iterable after skipping the first
count elements
or an empty iterable if the count is greater than the length of the iterable. |
MutableList<T> |
dropWhile(Predicate<? super T> predicate)
Returns the final elements that do not satisfy the Predicate.
|
void |
each(Procedure<? super T> procedure)
The procedure is executed for each element in the iterable.
|
void |
ensureCapacity(int minCapacity) |
boolean |
equals(Object that)
Follows the same general contract as
List.equals(Object). |
boolean |
fastListEquals(FastList<?> that) |
<V> FastList<V> |
flatCollect(Function<? super T,? extends Iterable<V>> function)
flatCollect is a special case of RichIterable.collect(Function). |
<V,R extends Collection<V>> |
flatCollect(Function<? super T,? extends Iterable<V>> function,
R target)
Same as flatCollect, only the results are collected into the target collection.
|
void |
forEach(int from,
int to,
Procedure<? super T> procedure)
Iterates over the section of the iterable covered by the specified inclusive indexes.
|
void |
forEachIf(Predicate<? super T> predicate,
Procedure<? super T> procedure) |
<P> void |
forEachWith(Procedure2<? super T,? super P> procedure,
P parameter)
The procedure2 is evaluated for each element in the iterable with the specified parameter provided
as the second argument.
|
void |
forEachWithIndex(int from,
int to,
ObjectIntProcedure<? super T> objectIntProcedure)
Iterates over the section of the iterable covered by the specified inclusive indexes.
|
void |
forEachWithIndex(ObjectIntProcedure<? super T> objectIntProcedure)
Iterates over the iterable passing each element and the current relative int index to the specified instance of
ObjectIntProcedure.
|
T |
get(int index)
Returns the item at the specified position in this list iterable.
|
int |
getBatchCount(int batchSize) |
T |
getFirst()
Returns the first element of an iterable.
|
T |
getLast()
Returns the last element of an iterable.
|
<V> FastListMultimap<V,T> |
groupBy(Function<? super T,? extends V> function)
For each element of the iterable, the function is evaluated and the results of these evaluations are collected
into a new multimap, where the transformed value is the key and the original values are added to the same (or similar)
species of collection as the source iterable.
|
<V,R extends MutableMultimap<V,T>> |
groupBy(Function<? super T,? extends V> function,
R target)
Same as
RichIterable.groupBy(Function), except that the results are gathered into the specified target
multimap. |
<V> FastListMultimap<V,T> |
groupByEach(Function<? super T,? extends Iterable<V>> function)
Similar to
RichIterable.groupBy(Function), except the result of evaluating function will return a collection of keys
for each value. |
<V,R extends MutableMultimap<V,T>> |
groupByEach(Function<? super T,? extends Iterable<V>> function,
R target)
Same as
RichIterable.groupByEach(Function), except that the results are gathered into the specified target
multimap. |
<K> MutableMap<K,T> |
groupByUniqueKey(Function<? super T,? extends K> function)
For each element of the iterable, the function is evaluated and he results of these evaluations are collected
into a new map, where the transformed value is the key.
|
<K,R extends MutableMap<K,T>> |
groupByUniqueKey(Function<? super T,? extends K> function,
R target)
Same as
RichIterable.groupByUniqueKey(Function), except that the results are gathered into the specified target
map. |
int |
hashCode()
Follows the same general contract as
List.hashCode(). |
int |
indexOf(Object object)
Returns the index of the first occurrence of the specified item
in this iterable, or -1 if this iterable does not contain the item.
|
double |
injectInto(double injectedValue,
DoubleObjectToDoubleFunction<? super T> function)
Returns the final double result of evaluating function using each element of the iterable and the previous evaluation
result as the parameters.
|
float |
injectInto(float injectedValue,
FloatObjectToFloatFunction<? super T> function)
Returns the final float result of evaluating function using each element of the iterable and the previous evaluation
result as the parameters.
|
int |
injectInto(int injectedValue,
IntObjectToIntFunction<? super T> function)
Returns the final int result of evaluating function using each element of the iterable and the previous evaluation
result as the parameters.
|
<IV> IV |
injectInto(IV injectedValue,
Function2<? super IV,? super T,? extends IV> function)
Returns the final result of evaluating function using each element of the iterable and the previous evaluation
result as the parameters.
|
long |
injectInto(long injectedValue,
LongObjectToLongFunction<? super T> function)
Returns the final long result of evaluating function using each element of the iterable and the previous evaluation
result as the parameters.
|
<IV,P> IV |
injectIntoWith(IV injectValue,
Function3<? super IV,? super T,? super P,? extends IV> function,
P parameter) |
int |
lastIndexOf(Object object)
Returns the index of the last occurrence of the specified item
in this list, or -1 if this list does not contain the item.
|
T |
max()
Returns the maximum element out of this container based on the natural order.
|
T |
max(Comparator<? super T> comparator)
Returns the maximum element out of this container based on the comparator.
|
<V extends Comparable<? super V>> |
maxBy(Function<? super T,? extends V> function)
Returns the maximum elements out of this container based on the natural order of the attribute returned by Function.
|
T |
min()
Returns the minimum element out of this container based on the natural order.
|
T |
min(Comparator<? super T> comparator)
Returns the minimum element out of this container based on the comparator.
|
<V extends Comparable<? super V>> |
minBy(Function<? super T,? extends V> function)
Returns the minimum elements out of this container based on the natural order of the attribute returned by Function.
|
static <E> FastList<E> |
newList() |
static <E> FastList<E> |
newList(int initialCapacity) |
static <E> FastList<E> |
newList(Iterable<? extends E> source) |
static <E> FastList<E> |
newListWith(E... elements)
Creates a new list using the passed
elements argument as the backing store. |
static <E> FastList<E> |
newWithNValues(int size,
Function0<E> factory)
Creates a new FastList pre-sized to the specified size filled with default values generated by the specified function.
|
boolean |
noneSatisfy(Predicate<? super T> predicate)
Returns true if the predicate evaluates to false for every element of the iterable or if the iterable is empty.
|
<P> boolean |
noneSatisfyWith(Predicate2<? super T,? super P> predicate,
P parameter)
Returns true if the predicate evaluates to false for every element of the collection, or return false.
|
PartitionFastList<T> |
partition(Predicate<? super T> predicate)
Filters a collection into a PartitionedIterable based on the evaluation of the predicate.
|
PartitionMutableList<T> |
partitionWhile(Predicate<? super T> predicate)
Returns a Partition of the initial elements that satisfy the Predicate and the remaining elements.
|
<P> PartitionFastList<T> |
partitionWith(Predicate2<? super T,? super P> predicate,
P parameter)
Filters a collection into a PartitionIterable based on the evaluation of the predicate.
|
void |
readExternal(ObjectInput in) |
Optional<T> |
reduce(BinaryOperator<T> accumulator)
This method produces the equivalent result as
Stream.reduce(BinaryOperator). |
<R,A> R |
reduceInPlace(Collector<? super T,A,R> collector)
This method produces the equivalent result as
Stream.collect(Collector). |
<R> R |
reduceInPlace(Supplier<R> supplier,
BiConsumer<R,? super T> accumulator)
This method produces the equivalent result as
Stream.collect(Supplier, BiConsumer, BiConsumer). |
FastList<T> |
reject(Predicate<? super T> predicate)
Returns a MutableCollection with all elements that evaluate to false for the specified predicate.
|
<R extends Collection<T>> |
reject(Predicate<? super T> predicate,
R target)
Same as the reject method with one parameter but uses the specified target collection for the results.
|
<P> FastList<T> |
rejectWith(Predicate2<? super T,? super P> predicate,
P parameter)
Returns a MutableCollection with all elements that evaluate to false for the specified predicate2 and parameter.
|
<P,R extends Collection<T>> |
rejectWith(Predicate2<? super T,? super P> predicate,
P parameter,
R target)
Similar to
RichIterable.reject(Predicate, Collection), except with an evaluation parameter for the second generic argument in Predicate2. |
T |
remove(int index) |
boolean |
remove(Object object) |
boolean |
removeIf(Predicate<? super T> predicate)
Removes all elements in the collection that evaluate to true for the specified predicate.
|
<P> boolean |
removeIfWith(Predicate2<? super T,? super P> predicate,
P parameter)
Removes all elements in the collection that evaluate to true for the specified predicate2 and parameter.
|
FastList<T> |
reverseThis()
Mutates this list by reversing its order and returns the current list as a result.
|
FastList<T> |
select(Predicate<? super T> predicate)
Returns a MutableCollection with all elements that evaluate to true for the specified predicate.
|
<R extends Collection<T>> |
select(Predicate<? super T> predicate,
R target)
Same as the select method with one parameter but uses the specified target collection for the results.
|
<P> Twin<MutableList<T>> |
selectAndRejectWith(Predicate2<? super T,? super P> predicate,
P parameter)
Filters a collection into two separate collections based on a predicate returned via a Pair.
|
<S> FastList<S> |
selectInstancesOf(Class<S> clazz)
Returns all elements of the source collection that are instances of the Class
clazz. |
<P> FastList<T> |
selectWith(Predicate2<? super T,? super P> predicate,
P parameter)
Returns a MutableCollection with all elements that evaluate to true for the specified predicate2 and parameter.
|
<P,R extends Collection<T>> |
selectWith(Predicate2<? super T,? super P> predicate,
P parameter,
R target)
Similar to
RichIterable.select(Predicate, Collection), except with an evaluation parameter for the second generic argument in Predicate2. |
T |
set(int index,
T element) |
int |
size()
Returns the number of items in this iterable.
|
FastList<T> |
sortThis()
Sorts the internal data structure of this list and returns the list itself as a convenience.
|
FastList<T> |
sortThis(Comparator<? super T> comparator)
Sorts the internal data structure of this list and returns the list itself as a convenience.
|
Spliterator<T> |
spliterator() |
<V> MutableObjectDoubleMap<V> |
sumByDouble(Function<? super T,? extends V> groupBy,
DoubleFunction<? super T> function)
Groups and sums the values using the two specified functions.
|
<V> MutableObjectDoubleMap<V> |
sumByFloat(Function<? super T,? extends V> groupBy,
FloatFunction<? super T> function)
Groups and sums the values using the two specified functions.
|
<V> MutableObjectLongMap<V> |
sumByInt(Function<? super T,? extends V> groupBy,
IntFunction<? super T> function)
Groups and sums the values using the two specified functions.
|
<V> MutableObjectLongMap<V> |
sumByLong(Function<? super T,? extends V> groupBy,
LongFunction<? super T> function)
Groups and sums the values using the two specified functions.
|
DoubleSummaryStatistics |
summarizeDouble(DoubleFunction<? super T> function)
Returns the result of summarizing the value returned from applying the DoubleFunction to
each element of the iterable.
|
DoubleSummaryStatistics |
summarizeFloat(FloatFunction<? super T> function)
Returns the result of summarizing the value returned from applying the FloatFunction to
each element of the iterable.
|
IntSummaryStatistics |
summarizeInt(IntFunction<? super T> function)
Returns the result of summarizing the value returned from applying the IntFunction to
each element of the iterable.
|
LongSummaryStatistics |
summarizeLong(LongFunction<? super T> function)
Returns the result of summarizing the value returned from applying the LongFunction to
each element of the iterable.
|
double |
sumOfDouble(DoubleFunction<? super T> function)
Returns the final double result of evaluating function for each element of the iterable and adding the results
together.
|
double |
sumOfFloat(FloatFunction<? super T> function)
Returns the final double result of evaluating function for each element of the iterable and adding the results
together.
|
long |
sumOfInt(IntFunction<? super T> function)
Returns the final long result of evaluating function for each element of the iterable and adding the results
together.
|
long |
sumOfLong(LongFunction<? super T> function)
Returns the final long result of evaluating function for each element of the iterable and adding the results
together.
|
MutableList<T> |
take(int count)
Returns the first
count elements of the iterable
or all the elements in the iterable if count is greater than the length of
the iterable. |
MutableList<T> |
takeWhile(Predicate<? super T> predicate)
Returns the initial elements that satisfy the Predicate.
|
Object[] |
toArray()
Converts this iterable to an array.
|
<E> E[] |
toArray(E[] array)
Converts this iterable to an array using the specified target array, assuming the target array is as long
or longer than the iterable.
|
<E> E[] |
toArray(E[] array,
int sourceFromIndex,
int sourceToIndex,
int destinationIndex) |
<E> E[] |
toArray(int sourceFromIndex,
int sourceToIndex) |
FastList<T> |
toList()
Converts the collection to a MutableList implementation.
|
FastList<T> |
toSortedList()
Converts the collection to a MutableList implementation and sorts it using the natural order of the elements.
|
FastList<T> |
toSortedList(Comparator<? super T> comparator)
Converts the collection to a MutableList implementation and sorts it using the specified comparator.
|
T[] |
toTypedArray(Class<T> clazz) |
void |
trimToSize() |
boolean |
trimToSizeIfGreaterThanPercent(double loadFactor)
Express load factor as 0.25 to trim a collection with more than 25% excess capacity
|
FastList<T> |
with(T... elements) |
FastList<T> |
with(T element1,
T element2) |
FastList<T> |
with(T element1,
T element2,
T element3) |
FastList<T> |
withArrayCopy(T[] elements,
int begin,
int length) |
static <E> FastList<E> |
wrapCopy(E... array) |
void |
writeExternal(ObjectOutput out) |
appendString, asParallel, asReversed, asSynchronized, asUnmodifiable, binarySearch, chunk, contains, iterator, listIterator, listIterator, newEmpty, removeAll, retainAll, reverseForEach, shuffleThis, shuffleThis, sortThisBy, sortThisByBoolean, sortThisByByte, sortThisByChar, sortThisByDouble, sortThisByFloat, sortThisByInt, sortThisByLong, sortThisByShort, subList, tap, toImmutable, toReversed, toSet, toStack, with, withAll, without, withoutAll, zip, zip, zipWithIndex, zipWithIndexaddAllIterable, aggregateBy, aggregateInPlaceBy, removeAllIterable, retainAllIterableasLazy, containsAllIterable, detectIfNone, detectWithIfNone, forEach, into, isEmpty, toBag, toMap, toSortedBag, toSortedBag, toSortedBagBy, toSortedListBy, toSortedMap, toSortedMap, toSortedSet, toSortedSet, toSortedSetBy, toStringforEachaddAllIterable, aggregateBy, aggregateInPlaceBy, removeAllIterable, retainAllIterableisEmpty, replaceAll, sortparallelStream, removeIf, streambinarySearchappendString, asLazy, containsAllIterable, detectIfNone, detectWithIfNone, getOnly, into, isEmpty, makeString, makeString, makeString, notEmpty, toBag, toMap, toSortedBag, toSortedBag, toSortedBagBy, toSortedListBy, toSortedMap, toSortedMap, toSortedSet, toSortedSet, toSortedSetBy, toStringforEachpublic FastList()
public FastList(int initialCapacity)
public FastList(Collection<? extends T> source)
public static <E> FastList<E> newList()
public static <E> FastList<E> wrapCopy(E... array)
public static <E> FastList<E> newList(int initialCapacity)
public static <E> FastList<E> newListWith(E... elements)
elements argument as the backing store.
!!! WARNING: This method uses the passed in array, so can be very unsafe if the original array is held onto anywhere else. !!!
public static <E> FastList<E> newWithNValues(int size, Function0<E> factory)
public FastList<T> clone()
clone in interface MutableList<T>clone in class AbstractMutableList<T>public void clear()
public void forEach(int from,
int to,
Procedure<? super T> procedure)
OrderedIterable
e.g. OrderedIterablepeople = FastList.newListWith(ted, mary, bob, sally) people.forEach(0, 1, new Procedure () { public void value(Person person) { LOGGER.info(person.getName()); } });
This code would output ted and mary's names.
forEach in interface OrderedIterable<T>forEach in class AbstractMutableList<T>public void forEachWithIndex(int from,
int to,
ObjectIntProcedure<? super T> objectIntProcedure)
OrderedIterable
e.g. OrderedIterablepeople = FastList.newListWith(ted, mary, bob, sally) people.forEachWithIndex(0, 1, new ObjectIntProcedure () { public void value(Person person, int index) { LOGGER.info(person.getName()); } });
This code would output ted and mary's names.
forEachWithIndex in interface OrderedIterable<T>forEachWithIndex in class AbstractMutableList<T>public void batchForEach(Procedure<? super T> procedure, int sectionIndex, int sectionCount)
batchForEach in interface BatchIterable<T>public int getBatchCount(int batchSize)
getBatchCount in interface BatchIterable<T>public <E> E[] toArray(E[] array,
int sourceFromIndex,
int sourceToIndex,
int destinationIndex)
public <E> E[] toArray(int sourceFromIndex,
int sourceToIndex)
public FastList<T> sortThis(Comparator<? super T> comparator)
MutableListsortThis in interface MutableList<T>sortThis in class AbstractMutableList<T>public FastList<T> sortThis()
MutableListsortThis in interface MutableList<T>sortThis in class AbstractMutableList<T>public FastList<T> reverseThis()
MutableListreverseThis in interface MutableList<T>reverseThis in class AbstractMutableList<T>public boolean addAll(Collection<? extends T> source)
addAll in interface Collection<T>addAll in interface List<T>addAll in class AbstractMutableCollection<T>public boolean containsAll(Collection<?> source)
RichIterablecontainsAll in interface Collection<T>containsAll in interface List<T>containsAll in interface RichIterable<T>containsAll in class AbstractMutableList<T>Collection.containsAll(Collection)public boolean containsAllArguments(Object... source)
RichIterablecontainsAllArguments in interface RichIterable<T>containsAllArguments in class AbstractRichIterable<T>public <E> E[] toArray(E[] array)
RichIterabletoArray in interface Collection<T>toArray in interface List<T>toArray in interface RichIterable<T>toArray in class AbstractRichIterable<T>Collection.toArray(Object[])public Object[] toArray()
RichIterabletoArray in interface Collection<T>toArray in interface List<T>toArray in interface RichIterable<T>toArray in class AbstractRichIterable<T>Collection.toArray()public int indexOf(Object object)
OrderedIterableindexOf in interface List<T>indexOf in interface OrderedIterable<T>indexOf in class AbstractMutableList<T>List.indexOf(Object)public int lastIndexOf(Object object)
ListIterablelastIndexOf in interface List<T>lastIndexOf in interface ListIterable<T>lastIndexOf in class AbstractMutableList<T>public Spliterator<T> spliterator()
spliterator in interface Iterable<T>spliterator in interface Collection<T>spliterator in interface List<T>public void trimToSize()
public boolean trimToSizeIfGreaterThanPercent(double loadFactor)
public void ensureCapacity(int minCapacity)
public T getFirst()
RichIterableThe order of Sets are not guaranteed (except for TreeSets and other Ordered Set implementations), so if you use this method, the first element could be any element from the Set.
getFirst in interface ListIterable<T>getFirst in interface OrderedIterable<T>getFirst in interface RichIterable<T>getFirst in class AbstractMutableList<T>public T getLast()
RichIterableThe order of Sets are not guaranteed (except for TreeSets and other Ordered Set implementations), so if you use this method, the last element could be any element from the Set.
getLast in interface ListIterable<T>getLast in interface OrderedIterable<T>getLast in interface RichIterable<T>getLast in class AbstractMutableList<T>public <V> FastListMultimap<V,T> groupBy(Function<? super T,? extends V> function)
MutableCollectionExample using a Java 8 method reference:
Multimap<String, Person> peopleByLastName =
people.groupBy(Person::getLastName);
Example using an anonymous inner class:
Multimap<String, Person> peopleByLastName =
people.groupBy(new Function<Person, String>()
{
public String valueOf(Person person)
{
return person.getLastName();
}
});
Co-variant example for MutableCollection:
MutableMultimap<String, Person> peopleByLastName =
people.groupBy(Person::getLastName);
groupBy in interface MutableCollection<T>groupBy in interface ListIterable<T>groupBy in interface MutableList<T>groupBy in interface OrderedIterable<T>groupBy in interface ReversibleIterable<T>groupBy in interface RichIterable<T>groupBy in class AbstractMutableList<T>public <V,R extends MutableMultimap<V,T>> R groupBy(Function<? super T,? extends V> function, R target)
RichIterableRichIterable.groupBy(Function), except that the results are gathered into the specified target
multimap.
Example using a Java 8 method reference:
FastListMultimap<String, Person> peopleByLastName =
people.groupBy(Person::getLastName, new FastListMultimap<String, Person>());
Example using an anonymous inner class:
FastListMultimap<String, Person> peopleByLastName =
people.groupBy(new Function<Person, String>()
{
public String valueOf(Person person)
{
return person.getLastName();
}
}, new FastListMultimap<String, Person>());
groupBy in interface RichIterable<T>groupBy in class AbstractRichIterable<T>public <V> FastListMultimap<V,T> groupByEach(Function<? super T,? extends Iterable<V>> function)
RichIterableRichIterable.groupBy(Function), except the result of evaluating function will return a collection of keys
for each value.groupByEach in interface MutableCollection<T>groupByEach in interface ListIterable<T>groupByEach in interface MutableList<T>groupByEach in interface OrderedIterable<T>groupByEach in interface ReversibleIterable<T>groupByEach in interface RichIterable<T>groupByEach in class AbstractMutableList<T>public <V,R extends MutableMultimap<V,T>> R groupByEach(Function<? super T,? extends Iterable<V>> function, R target)
RichIterableRichIterable.groupByEach(Function), except that the results are gathered into the specified target
multimap.groupByEach in interface RichIterable<T>groupByEach in class AbstractRichIterable<T>public <K> MutableMap<K,T> groupByUniqueKey(Function<? super T,? extends K> function)
RichIterablegroupByUniqueKey in interface MutableCollection<T>groupByUniqueKey in interface RichIterable<T>groupByUniqueKey in class AbstractMutableList<T>RichIterable.groupBy(Function)public <K,R extends MutableMap<K,T>> R groupByUniqueKey(Function<? super T,? extends K> function, R target)
RichIterableRichIterable.groupByUniqueKey(Function), except that the results are gathered into the specified target
map.groupByUniqueKey in interface RichIterable<T>groupByUniqueKey in class AbstractRichIterable<T>RichIterable.groupByUniqueKey(Function)public void appendString(Appendable appendable, String start, String separator, String end)
RichIterableAppendable. Prints the string returned
by RichIterable.makeString(String, String, String).appendString in interface RichIterable<T>appendString in class AbstractMutableList<T>public MutableList<T> take(int count)
ReversibleIterablecount elements of the iterable
or all the elements in the iterable if count is greater than the length of
the iterable.take in interface ListIterable<T>take in interface MutableList<T>take in interface ReversibleIterable<T>take in class AbstractMutableList<T>count - the number of items to take.public MutableList<T> drop(int count)
ReversibleIterablecount elements
or an empty iterable if the count is greater than the length of the iterable.drop in interface ListIterable<T>drop in interface MutableList<T>drop in interface ReversibleIterable<T>drop in class AbstractMutableList<T>count - the number of items to drop.public PartitionFastList<T> partition(Predicate<? super T> predicate)
MutableCollectionExample using a Java 8 lambda expression:
PartitionIterable<Person> newYorkersAndNonNewYorkers =
people.partition(person -> person.getAddress().getState().getName().equals("New York"));
Example using an anonymous inner class:
PartitionIterable<Person> newYorkersAndNonNewYorkers =
people.partition(new Predicate<Person>()
{
public boolean accept(Person person)
{
return person.getAddress().getState().getName().equals("New York");
}
});
Co-variant example for MutableCollection:
PartitionMutableCollection<Person> newYorkersAndNonNewYorkers =
people.partition(person -> person.getAddress().getState().getName().equals("New York"));
partition in interface MutableCollection<T>partition in interface ListIterable<T>partition in interface MutableList<T>partition in interface OrderedIterable<T>partition in interface ReversibleIterable<T>partition in interface RichIterable<T>partition in class AbstractMutableList<T>public <P> PartitionFastList<T> partitionWith(Predicate2<? super T,? super P> predicate, P parameter)
MutableCollectionExample using a Java 8 lambda expression:
PartitionIterable<Person>> newYorkersAndNonNewYorkers =
people.partitionWith((Person person, String state) -> person.getAddress().getState().getName().equals(state), "New York");
Example using an anonymous inner class:
PartitionIterable<Person>> newYorkersAndNonNewYorkers =
people.partitionWith(new Predicate2<Person, String>()
{
public boolean accept(Person person, String state)
{
return person.getAddress().getState().getName().equals(state);
}
}, "New York");
Co-variant example for MutableCollection:
PartitionMutableCollection<Person>> newYorkersAndNonNewYorkers =
people.partitionWith((Person person, String state) -> person.getAddress().getState().getName().equals(state), "New York");
partitionWith in interface MutableCollection<T>partitionWith in interface ListIterable<T>partitionWith in interface MutableList<T>partitionWith in interface OrderedIterable<T>partitionWith in interface ReversibleIterable<T>partitionWith in interface RichIterable<T>partitionWith in class AbstractMutableList<T>public void each(Procedure<? super T> procedure)
RichIterableExample using a Java 8 lambda expression:
people.each(person -> LOGGER.info(person.getName()));
Example using an anonymous inner class:
people.each(new ProcedureThis method is a variant of() { public void value(Person person) { LOGGER.info(person.getName()); } });
InternalIterable.forEach(Procedure)
that has a signature conflict with Iterable.forEach(java.util.function.Consumer).each in interface RichIterable<T>each in class AbstractMutableList<T>InternalIterable.forEach(Procedure),
Iterable.forEach(java.util.function.Consumer)public void forEachWithIndex(ObjectIntProcedure<? super T> objectIntProcedure)
InternalIterableExample using a Java 8 lambda:
people.forEachWithIndex((Person person, int index) -> LOGGER.info("Index: " + index + " person: " + person.getName()));
Example using an anonymous inner class:
people.forEachWithIndex(new ObjectIntProcedure() { public void value(Person person, int index) { LOGGER.info("Index: " + index + " person: " + person.getName()); } });
forEachWithIndex in interface InternalIterable<T>forEachWithIndex in interface OrderedIterable<T>forEachWithIndex in class AbstractMutableList<T>public <P> void forEachWith(Procedure2<? super T,? super P> procedure, P parameter)
InternalIterableExample using a Java 8 lambda:
people.forEachWith((Person person, Person other) ->
{
if (person.isRelatedTo(other))
{
LOGGER.info(person.getName());
}
}, fred);
Example using an anonymous inner class:
people.forEachWith(new Procedure2() { public void value(Person person, Person other) { if (person.isRelatedTo(other)) { LOGGER.info(person.getName()); } } }, fred);
forEachWith in interface InternalIterable<T>forEachWith in class AbstractMutableList<T>public FastList<T> select(Predicate<? super T> predicate)
MutableCollection
MutableCollection<Integer> livesInLondon =
people.select(person -> person.getAddress().getCity().equals("London"));
select in interface MutableCollection<T>select in interface ListIterable<T>select in interface MutableList<T>select in interface OrderedIterable<T>select in interface ReversibleIterable<T>select in interface RichIterable<T>select in class AbstractMutableList<T>public <R extends Collection<T>> R select(Predicate<? super T> predicate, R target)
RichIterableExample using a Java 8 lambda expression:
MutableList<Person> selected =
people.select(person -> person.person.getLastName().equals("Smith"), Lists.mutable.empty());
Example using an anonymous inner class:
MutableList<Person> selected =
people.select(new Predicate<Person>()
{
public boolean accept(Person person)
{
return person.person.getLastName().equals("Smith");
}
}, Lists.mutable.empty());
select in interface RichIterable<T>select in class AbstractMutableList<T>predicate - a Predicate to use as the select criteriatarget - the Collection to append to for all elements in this RichIterable that meet select criteria predicatetarget, which contains appended elements as a result of the select criteriaRichIterable.select(Predicate)public <P> FastList<T> selectWith(Predicate2<? super T,? super P> predicate, P parameter)
MutableCollection
MutableCollection<Integer> fives =
integers.selectWith(Predicates2.equal(), Integer.valueOf(5));
selectWith in interface MutableCollection<T>selectWith in interface ListIterable<T>selectWith in interface MutableList<T>selectWith in interface OrderedIterable<T>selectWith in interface ReversibleIterable<T>selectWith in interface RichIterable<T>selectWith in class AbstractMutableList<T>predicate - a Predicate2 to use as the select criteriaparameter - a parameter to pass in for evaluation of the second argument P in predicateRichIterable.select(Predicate)public <P,R extends Collection<T>> R selectWith(Predicate2<? super T,? super P> predicate, P parameter, R target)
RichIterableRichIterable.select(Predicate, Collection), except with an evaluation parameter for the second generic argument in Predicate2.
E.g. return a Collection of Person elements where the person has an age greater than or equal to 18 years
Example using a Java 8 lambda expression:
MutableList<Person> selected =
people.selectWith((Person person, Integer age) -> person.getAge() >= age, Integer.valueOf(18), Lists.mutable.empty());
Example using an anonymous inner class:
MutableList<Person> selected =
people.selectWith(new Predicate2<Person, Integer>()
{
public boolean accept(Person person, Integer age)
{
return person.getAge() >= age;
}
}, Integer.valueOf(18), Lists.mutable.empty());
selectWith in interface RichIterable<T>selectWith in class AbstractMutableList<T>predicate - a Predicate2 to use as the select criteriaparameter - a parameter to pass in for evaluation of the second argument P in predicatetarget - the Collection to append to for all elements in this RichIterable that meet select criteria predicatetargetCollection, which contains appended elements as a result of the select criteriaRichIterable.select(Predicate),
RichIterable.select(Predicate, Collection)public FastList<T> reject(Predicate<? super T> predicate)
MutableCollection
MutableCollection<Person> notSmiths =
people.reject(person -> person.person.getLastName().equals("Smith"));
Using the Predicates factory:
MutableCollection<Person> notSmiths = people.reject(Predicates.attributeEqual("lastName", "Smith"));
reject in interface MutableCollection<T>reject in interface ListIterable<T>reject in interface MutableList<T>reject in interface OrderedIterable<T>reject in interface ReversibleIterable<T>reject in interface RichIterable<T>reject in class AbstractMutableList<T>predicate - a Predicate to use as the reject criteriaPredicate.accept(Object) method to evaluate to falsepublic <R extends Collection<T>> R reject(Predicate<? super T> predicate, R target)
RichIterableExample using a Java 8 lambda expression:
MutableList<Person> rejected =
people.reject(person -> person.person.getLastName().equals("Smith"), Lists.mutable.empty());
Example using an anonymous inner class:
MutableList<Person> rejected =
people.reject(new Predicate<Person>()
{
public boolean accept(Person person)
{
return person.person.getLastName().equals("Smith");
}
}, Lists.mutable.empty());
reject in interface RichIterable<T>reject in class AbstractMutableList<T>predicate - a Predicate to use as the reject criteriatarget - the Collection to append to for all elements in this RichIterable that cause Predicate#accept(Object) method to evaluate to falsetarget, which contains appended elements as a result of the reject criteriapublic <P> FastList<T> rejectWith(Predicate2<? super T,? super P> predicate, P parameter)
MutableCollection
e.g.
MutableCollection<Integer> selected =
integers.rejectWith(Predicates2.equal(), Integer.valueOf(5));
rejectWith in interface MutableCollection<T>rejectWith in interface ListIterable<T>rejectWith in interface MutableList<T>rejectWith in interface OrderedIterable<T>rejectWith in interface ReversibleIterable<T>rejectWith in interface RichIterable<T>rejectWith in class AbstractMutableList<T>predicate - a Predicate2 to use as the select criteriaparameter - a parameter to pass in for evaluation of the second argument P in predicateRichIterable.select(Predicate)public <P,R extends Collection<T>> R rejectWith(Predicate2<? super T,? super P> predicate, P parameter, R target)
RichIterableRichIterable.reject(Predicate, Collection), except with an evaluation parameter for the second generic argument in Predicate2.
E.g. return a Collection of Person elements where the person has an age greater than or equal to 18 years
Example using a Java 8 lambda expression:
MutableList<Person> rejected =
people.rejectWith((Person person, Integer age) -> person.getAge() < age, Integer.valueOf(18), Lists.mutable.empty());
Example using an anonymous inner class:
MutableList<Person> rejected =
people.rejectWith(new Predicate2<Person, Integer>()
{
public boolean accept(Person person, Integer age)
{
return person.getAge() < age;
}
}, Integer.valueOf(18), Lists.mutable.empty());
rejectWith in interface RichIterable<T>rejectWith in class AbstractMutableList<T>predicate - a Predicate2 to use as the reject criteriaparameter - a parameter to pass in for evaluation of the second argument P in predicatetarget - the Collection to append to for all elements in this RichIterable that cause Predicate#accept(Object) method to evaluate to falsetargetCollection, which contains appended elements as a result of the reject criteriaRichIterable.reject(Predicate),
RichIterable.reject(Predicate, Collection)public <P> Twin<MutableList<T>> selectAndRejectWith(Predicate2<? super T,? super P> predicate, P parameter)
MutableCollection
e.g. return lastNames.selectAndRejectWith(Predicates2.lessThan(), "Mason");
selectAndRejectWith in interface MutableCollection<T>selectAndRejectWith in class AbstractMutableList<T>public <S> FastList<S> selectInstancesOf(Class<S> clazz)
MutableCollectionclazz.
RichIterable<Integer> integers =
List.mutable.with(new Integer(0), new Long(0L), new Double(0.0)).selectInstancesOf(Integer.class);
Co-variant example for MutableCollection:
MutableCollection<Integer> integers =
List.mutable.with(new Integer(0), new Long(0L), new Double(0.0)).selectInstancesOf(Integer.class);
selectInstancesOf in interface MutableCollection<T>selectInstancesOf in interface ListIterable<T>selectInstancesOf in interface MutableList<T>selectInstancesOf in interface OrderedIterable<T>selectInstancesOf in interface ReversibleIterable<T>selectInstancesOf in interface RichIterable<T>selectInstancesOf in class AbstractMutableList<T>public boolean removeIf(Predicate<? super T> predicate)
MutableCollection
e.g. return lastNames.removeIf(Predicates.isNull());
removeIf in interface MutableCollection<T>removeIf in class AbstractMutableList<T>public <P> boolean removeIfWith(Predicate2<? super T,? super P> predicate, P parameter)
MutableCollection
return lastNames.removeIfWith(Predicates2.isNull(), null);
removeIfWith in interface MutableCollection<T>removeIfWith in class AbstractMutableList<T>public <V> FastList<V> collect(Function<? super T,? extends V> function)
MutableCollection
MutableCollection<String> names =
people.collect(person -> person.getFirstName() + " " + person.getLastName());
collect in interface MutableCollection<T>collect in interface ListIterable<T>collect in interface MutableList<T>collect in interface OrderedIterable<T>collect in interface ReversibleIterable<T>collect in interface RichIterable<T>collect in class AbstractMutableList<T>public MutableBooleanList collectBoolean(BooleanFunction<? super T> booleanFunction)
MutableCollectionboolean iterable with the results of applying the specified function on each element
of the source collection. This method is also commonly called transform or map.
Example using a Java 8 lambda expression:
BooleanIterable licenses =
people.collectBoolean(person -> person.hasDrivingLicense());
Example using an anonymous inner class:
BooleanIterable licenses =
people.collectBoolean(new BooleanFunction<Person>()
{
public boolean booleanValueOf(Person person)
{
return person.hasDrivingLicense();
}
});
Co-variant example for MutableCollecton:
MutableBooleanCollection licenses =
people.collectBoolean(person -> person.hasDrivingLicense());
collectBoolean in interface MutableCollection<T>collectBoolean in interface ListIterable<T>collectBoolean in interface MutableList<T>collectBoolean in interface OrderedIterable<T>collectBoolean in interface ReversibleIterable<T>collectBoolean in interface RichIterable<T>collectBoolean in class AbstractMutableList<T>public <R extends MutableBooleanCollection> R collectBoolean(BooleanFunction<? super T> booleanFunction, R target)
RichIterableRichIterable.collectBoolean(BooleanFunction), except that the results are gathered into the specified target
collection.
Example using a Java 8 lambda expression:
BooleanArrayList licenses =
people.collectBoolean(person -> person.hasDrivingLicense(), new BooleanArrayList());
Example using an anonymous inner class:
BooleanArrayList licenses =
people.collectBoolean(new BooleanFunction<Person>()
{
public boolean booleanValueOf(Person person)
{
return person.hasDrivingLicense();
}
}, new BooleanArrayList());
collectBoolean in interface RichIterable<T>collectBoolean in class AbstractRichIterable<T>booleanFunction - a BooleanFunction to use as the collect transformation functiontarget - the MutableBooleanCollection to append to for all elements in this RichIterabletarget, which contains appended elements as a result of the collect transformationpublic MutableByteList collectByte(ByteFunction<? super T> byteFunction)
MutableCollectionbyte iterable with the results of applying the specified function on each element
of the source collection. This method is also commonly called transform or map.
Example using a Java 8 lambda expression:
ByteIterable bytes =
people.collectByte(person -> person.getCode());
Example using an anonymous inner class:
ByteIterable bytes =
people.collectByte(new ByteFunction<Person>()
{
public byte byteValueOf(Person person)
{
return person.getCode();
}
});
Co-variant example for MutableCollection:
MutableByteCollection bytes =
people.collectByte(person -> person.getCode());
collectByte in interface MutableCollection<T>collectByte in interface ListIterable<T>collectByte in interface MutableList<T>collectByte in interface OrderedIterable<T>collectByte in interface ReversibleIterable<T>collectByte in interface RichIterable<T>collectByte in class AbstractMutableList<T>public <R extends MutableByteCollection> R collectByte(ByteFunction<? super T> byteFunction, R target)
RichIterableRichIterable.collectByte(ByteFunction), except that the results are gathered into the specified target
collection.
Example using a Java 8 lambda expression:
ByteArrayList bytes =
people.collectByte(person -> person.getCode(), new ByteArrayList());
Example using an anonymous inner class:
ByteArrayList bytes =
people.collectByte(new ByteFunction<Person>()
{
public byte byteValueOf(Person person)
{
return person.getCode();
}
}, new ByteArrayList());
collectByte in interface RichIterable<T>collectByte in class AbstractRichIterable<T>byteFunction - a ByteFunction to use as the collect transformation functiontarget - the MutableByteCollection to append to for all elements in this RichIterabletarget, which contains appended elements as a result of the collect transformationpublic MutableCharList collectChar(CharFunction<? super T> charFunction)
MutableCollectionchar iterable with the results of applying the specified function on each element
of the source collection. This method is also commonly called transform or map.
Example using a Java 8 lambda expression:
CharIterable chars =
people.collectChar(person -> person.getMiddleInitial());
Example using an anonymous inner class:
CharIterable chars =
people.collectChar(new CharFunction<Person>()
{
public char charValueOf(Person person)
{
return person.getMiddleInitial();
}
});
Co-variant example for MutableCollection:
MutableCharCollection chars =
people.collectChar(person -> person.getMiddleInitial());
collectChar in interface MutableCollection<T>collectChar in interface ListIterable<T>collectChar in interface MutableList<T>collectChar in interface OrderedIterable<T>collectChar in interface ReversibleIterable<T>collectChar in interface RichIterable<T>collectChar in class AbstractMutableList<T>public <R extends MutableCharCollection> R collectChar(CharFunction<? super T> charFunction, R target)
RichIterableRichIterable.collectChar(CharFunction), except that the results are gathered into the specified target
collection.
Example using a Java 8 lambda expression:
CharArrayList chars =
people.collectChar(person -> person.getMiddleInitial(), new CharArrayList());
Example using an anonymous inner class:
CharArrayList chars =
people.collectChar(new CharFunction<Person>()
{
public char charValueOf(Person person)
{
return person.getMiddleInitial();
}
}, new CharArrayList());
collectChar in interface RichIterable<T>collectChar in class AbstractRichIterable<T>charFunction - a CharFunction to use as the collect transformation functiontarget - the MutableCharCollection to append to for all elements in this RichIterabletarget, which contains appended elements as a result of the collect transformationpublic MutableDoubleList collectDouble(DoubleFunction<? super T> doubleFunction)
MutableCollectiondouble iterable with the results of applying the specified function on each element
of the source collection. This method is also commonly called transform or map.
Example using a Java 8 lambda expression:
DoubleIterable doubles =
people.collectDouble(person -> person.getMilesFromNorthPole());
Example using an anonymous inner class:
DoubleIterable doubles =
people.collectDouble(new DoubleFunction<Person>()
{
public double doubleValueOf(Person person)
{
return person.getMilesFromNorthPole();
}
});
Co-variant example for MutableCollection:
MutableDoubleCollection doubles =
people.collectDouble(person -> person.getMilesFromNorthPole());
collectDouble in interface MutableCollection<T>collectDouble in interface ListIterable<T>collectDouble in interface MutableList<T>collectDouble in interface OrderedIterable<T>collectDouble in interface ReversibleIterable<T>collectDouble in interface RichIterable<T>collectDouble in class AbstractMutableList<T>public <R extends MutableDoubleCollection> R collectDouble(DoubleFunction<? super T> doubleFunction, R target)
RichIterableRichIterable.collectDouble(DoubleFunction), except that the results are gathered into the specified target
collection.
Example using a Java 8 lambda expression:
DoubleArrayList doubles =
people.collectDouble(person -> person.getMilesFromNorthPole(), new DoubleArrayList());
Example using an anonymous inner class:
DoubleArrayList doubles =
people.collectDouble(new DoubleFunction<Person>()
{
public double doubleValueOf(Person person)
{
return person.getMilesFromNorthPole();
}
}, new DoubleArrayList());
collectDouble in interface RichIterable<T>collectDouble in class AbstractRichIterable<T>doubleFunction - a DoubleFunction to use as the collect transformation functiontarget - the MutableDoubleCollection to append to for all elements in this RichIterabletarget, which contains appended elements as a result of the collect transformationpublic MutableFloatList collectFloat(FloatFunction<? super T> floatFunction)
MutableCollectionfloat iterable with the results of applying the specified function on each element
of the source collection. This method is also commonly called transform or map.
Example using a Java 8 lambda expression:
FloatIterable floats =
people.collectFloat(person -> person.getHeightInInches());
Example using an anonymous inner class:
FloatIterable floats =
people.collectFloat(new FloatFunction<Person>()
{
public float floatValueOf(Person person)
{
return person.getHeightInInches();
}
});
Co-variant example for MutableCollection:
MutableFloatCollection floats =
people.collectFloat(person -> person.getHeightInInches());
collectFloat in interface MutableCollection<T>collectFloat in interface ListIterable<T>collectFloat in interface MutableList<T>collectFloat in interface OrderedIterable<T>collectFloat in interface ReversibleIterable<T>collectFloat in interface RichIterable<T>collectFloat in class AbstractMutableList<T>public <R extends MutableFloatCollection> R collectFloat(FloatFunction<? super T> floatFunction, R target)
RichIterableRichIterable.collectFloat(FloatFunction), except that the results are gathered into the specified target
collection.
Example using a Java 8 lambda expression:
FloatArrayList floats =
people.collectFloat(person -> person.getHeightInInches(), new FloatArrayList());
Example using an anonymous inner class:
FloatArrayList floats =
people.collectFloat(new FloatFunction<Person>()
{
public float floatValueOf(Person person)
{
return person.getHeightInInches();
}
}, new FloatArrayList());
collectFloat in interface RichIterable<T>collectFloat in class AbstractRichIterable<T>floatFunction - a FloatFunction to use as the collect transformation functiontarget - the MutableFloatCollection to append to for all elements in this RichIterabletarget, which contains appended elements as a result of the collect transformationpublic MutableIntList collectInt(IntFunction<? super T> intFunction)
MutableCollectionint iterable with the results of applying the specified function on each element
of the source collection. This method is also commonly called transform or map.
Example using a Java 8 lambda expression:
IntIterable ints =
people.collectInt(person -> person.getAge());
Example using an anonymous inner class:
IntIterable ints =
people.collectInt(new IntFunction<Person>()
{
public int intValueOf(Person person)
{
return person.getAge();
}
});
Co-variant example for MutableCollection:
MutableIntCollection ints =
people.collectInt(person -> person.getAge());
collectInt in interface MutableCollection<T>collectInt in interface ListIterable<T>collectInt in interface MutableList<T>collectInt in interface OrderedIterable<T>collectInt in interface ReversibleIterable<T>collectInt in interface RichIterable<T>collectInt in class AbstractMutableList<T>public <R extends MutableIntCollection> R collectInt(IntFunction<? super T> intFunction, R target)
RichIterableRichIterable.collectInt(IntFunction), except that the results are gathered into the specified target
collection.
Example using a Java 8 lambda expression:
IntArrayList ints =
people.collectInt(person -> person.getAge(), new IntArrayList());
Example using an anonymous inner class:
IntArrayList ints =
people.collectInt(new IntFunction<Person>()
{
public int intValueOf(Person person)
{
return person.getAge();
}
}, new IntArrayList());
collectInt in interface RichIterable<T>collectInt in class AbstractRichIterable<T>intFunction - a IntFunction to use as the collect transformation functiontarget - the MutableIntCollection to append to for all elements in this RichIterabletarget, which contains appended elements as a result of the collect transformationpublic MutableLongList collectLong(LongFunction<? super T> longFunction)
MutableCollectionlong iterable with the results of applying the specified function on each element
of the source collection. This method is also commonly called transform or map.
Example using a Java 8 lambda expression:
LongIterable longs =
people.collectLong(person -> person.getGuid());
Example using an anonymous inner class:
LongIterable longs =
people.collectLong(new LongFunction<Person>()
{
public long longValueOf(Person person)
{
return person.getGuid();
}
});
Co-variant example for MutableCollection:
MutableLongCollection longs =
people.collectLong(person -> person.getGuid());
collectLong in interface MutableCollection<T>collectLong in interface ListIterable<T>collectLong in interface MutableList<T>collectLong in interface OrderedIterable<T>collectLong in interface ReversibleIterable<T>collectLong in interface RichIterable<T>collectLong in class AbstractMutableList<T>public <R extends MutableLongCollection> R collectLong(LongFunction<? super T> longFunction, R target)
RichIterableRichIterable.collectLong(LongFunction), except that the results are gathered into the specified target
collection.
Example using a Java 8 lambda expression:
LongArrayList longs =
people.collectLong(person -> person.getGuid(), new LongArrayList());
Example using an anonymous inner class:
LongArrayList longs =
people.collectLong(new LongFunction<Person>()
{
public long longValueOf(Person person)
{
return person.getGuid();
}
}, new LongArrayList());
collectLong in interface RichIterable<T>collectLong in class AbstractRichIterable<T>longFunction - a LongFunction to use as the collect transformation functiontarget - the MutableLongCollection to append to for all elements in this RichIterabletarget, which contains appended elements as a result of the collect transformationpublic MutableShortList collectShort(ShortFunction<? super T> shortFunction)
MutableCollectionshort iterable with the results of applying the specified function on each element
of the source collection. This method is also commonly called transform or map.
Example using a Java 8 lambda expression:
ShortIterable shorts =
people.collectShort(person -> person.getNumberOfJunkMailItemsReceivedPerMonth());
Example using an anonymous inner class:
ShortIterable shorts =
people.collectShort(new ShortFunction<Person>()
{
public short shortValueOf(Person person)
{
return person.getNumberOfJunkMailItemsReceivedPerMonth();
}
});
Co-variant example for MutableCollection:
MutableShortCollection shorts =
people.collectShort(person -> person.getNumberOfJunkMailItemsReceivedPerMonth());
collectShort in interface MutableCollection<T>collectShort in interface ListIterable<T>collectShort in interface MutableList<T>collectShort in interface OrderedIterable<T>collectShort in interface ReversibleIterable<T>collectShort in interface RichIterable<T>collectShort in class AbstractMutableList<T>public <R extends MutableShortCollection> R collectShort(ShortFunction<? super T> shortFunction, R target)
RichIterableRichIterable.collectShort(ShortFunction), except that the results are gathered into the specified target
collection.
Example using a Java 8 lambda expression:
ShortArrayList shorts =
people.collectShort(person -> person.getNumberOfJunkMailItemsReceivedPerMonth, new ShortArrayList());
Example using an anonymous inner class:
ShortArrayList shorts =
people.collectShort(new ShortFunction<Person>()
{
public short shortValueOf(Person person)
{
return person.getNumberOfJunkMailItemsReceivedPerMonth;
}
}, new ShortArrayList());
collectShort in interface RichIterable<T>collectShort in class AbstractRichIterable<T>shortFunction - a ShortFunction to use as the collect transformation functiontarget - the MutableShortCollection to append to for all elements in this RichIterabletarget, which contains appended elements as a result of the collect transformationpublic <V,R extends Collection<V>> R collect(Function<? super T,? extends V> function, R target)
RichIterableRichIterable.collect(Function), except that the results are gathered into the specified target
collection.
Example using a Java 8 lambda expression:
MutableList<String> names =
people.collect(person -> person.getFirstName() + " " + person.getLastName(), Lists.mutable.empty());
Example using an anonymous inner class:
MutableList<String> names =
people.collect(new Function<Person, String>()
{
public String valueOf(Person person)
{
return person.getFirstName() + " " + person.getLastName();
}
}, Lists.mutable.empty());
collect in interface RichIterable<T>collect in class AbstractMutableList<T>function - a Function to use as the collect transformation functiontarget - the Collection to append to for all elements in this RichIterable that meet select criteria functiontarget, which contains appended elements as a result of the collect transformationRichIterable.collect(Function)public <V> FastList<V> flatCollect(Function<? super T,? extends Iterable<V>> function)
MutableCollectionflatCollect is a special case of RichIterable.collect(Function). With collect, when the Function returns
a collection, the result is a collection of collections. flatCollect outputs a single "flattened" collection
instead. This method is commonly called flatMap.
Consider the following example where we have a Person class, and each Person has a list of Address objects. Take the following Function:
Function<Person, List<Address>> addressFunction = Person::getAddresses; RichIterable<Person> people = ...;Using
collect returns a collection of collections of addresses.
RichIterable<List<Address>> addresses = people.collect(addressFunction);Using
flatCollect returns a single flattened list of addresses.
RichIterable<Address> addresses = people.flatCollect(addressFunction);Co-variant example for MutableCollection:
Function<Person, List<Address>> addressFunction = Person::getAddresses; MutableCollection<Person> people = ...; MutableCollection<List<Address>> addresses = people.collect(addressFunction); MutableCollection<Address> addresses = people.flatCollect(addressFunction);
flatCollect in interface MutableCollection<T>flatCollect in interface ListIterable<T>flatCollect in interface MutableList<T>flatCollect in interface OrderedIterable<T>flatCollect in interface ReversibleIterable<T>flatCollect in interface RichIterable<T>flatCollect in class AbstractMutableList<T>function - The Function to applyfunctionpublic <V,R extends Collection<V>> R flatCollect(Function<? super T,? extends Iterable<V>> function, R target)
RichIterableflatCollect in interface RichIterable<T>flatCollect in class AbstractMutableList<T>function - The Function to applytarget - The collection into which results should be added.target, which will contain a flattened collection of results produced by applying the given functionRichIterable.flatCollect(Function)public <P,V> FastList<V> collectWith(Function2<? super T,? super P,? extends V> function, P parameter)
MutableCollectionRichIterable.collect(Function) with a Function2 and specified parameter which is passed to the block.
Example using a Java 8 lambda expression:
RichIterable<Integer> integers =
Lists.mutable.with(1, 2, 3).collectWith((each, parameter) -> each + parameter, Integer.valueOf(1));
Example using an anonymous inner class:
Function2<Integer, Integer, Integer> addParameterFunction =
new Function2<Integer, Integer, Integer>()
{
public Integer value(Integer each, Integer parameter)
{
return each + parameter;
}
};
RichIterable<Integer> integers =
Lists.mutable.with(1, 2, 3).collectWith(addParameterFunction, Integer.valueOf(1));
Co-variant example for MutableCollection:
MutableCollection<Integer> integers =
Lists.mutable.with(1, 2, 3).collectWith((each, parameter) -> each + parameter, Integer.valueOf(1));
collectWith in interface MutableCollection<T>collectWith in interface ListIterable<T>collectWith in interface MutableList<T>collectWith in interface OrderedIterable<T>collectWith in interface ReversibleIterable<T>collectWith in interface RichIterable<T>collectWith in class AbstractMutableList<T>function - A Function2 to use as the collect transformation functionparameter - A parameter to pass in for evaluation of the second argument P in functionRichIterable that contains the transformed elements returned by Function2.value(Object, Object)RichIterable.collect(Function)public <P,V,R extends Collection<V>> R collectWith(Function2<? super T,? super P,? extends V> function, P parameter, R target)
RichIterableExample using a Java 8 lambda expression:
MutableSet<Integer> integers =
Lists.mutable.with(1, 2, 3).collectWith((each, parameter) -> each + parameter, Integer.valueOf(1), Sets.mutable.empty());
Example using an anonymous inner class:
Function2addParameterFunction = new Function2 () { public Integer value(final Integer each, final Integer parameter) { return each + parameter; } }; MutableSet<Integer> integers = Lists.mutable.with(1, 2, 3).collectWith(addParameterFunction, Integer.valueOf(1), Sets.mutable.empty());
collectWith in interface RichIterable<T>collectWith in class AbstractMutableList<T>function - a Function2 to use as the collect transformation functionparameter - a parameter to pass in for evaluation of the second argument P in functiontarget - the Collection to append to for all elements in this RichIterable that meet select criteria functiontargetCollection, which contains appended elements as a result of the collect transformationpublic <V> FastList<V> collectIf(Predicate<? super T> predicate, Function<? super T,? extends V> function)
MutableCollection
MutableCollection<String> collected =
Lists.mutable.of().with(1, 2, 3).collectIf(Predicates.notNull(), Functions.getToString())
collectIf in interface MutableCollection<T>collectIf in interface ListIterable<T>collectIf in interface MutableList<T>collectIf in interface OrderedIterable<T>collectIf in interface ReversibleIterable<T>collectIf in interface RichIterable<T>collectIf in class AbstractMutableList<T>public <V,R extends Collection<V>> R collectIf(Predicate<? super T> predicate, Function<? super T,? extends V> function, R target)
RichIterablecollectIf in interface RichIterable<T>collectIf in class AbstractMutableList<T>predicate - a Predicate to use as the select criteriafunction - a Function to use as the collect transformation functiontarget - the Collection to append to for all elements in this RichIterable that meet the collect criteria predicatetargetCollection, which contains appended elements as a result of the collect criteria and transformationRichIterable.collectIf(Predicate, Function)public T detect(Predicate<? super T> predicate)
RichIterableExample using a Java 8 lambda expression:
Person person =
people.detect(person -> person.getFirstName().equals("John") && person.getLastName().equals("Smith"));
Example using an anonymous inner class:
Person person =
people.detect(new Predicate<Person>()
{
public boolean accept(Person person)
{
return person.getFirstName().equals("John") && person.getLastName().equals("Smith");
}
});
detect in interface RichIterable<T>detect in class AbstractMutableList<T>public <P> T detectWith(Predicate2<? super T,? super P> predicate, P parameter)
RichIterableExample using a Java 8 lambda expression:
Person person =
people.detectWith((person, fullName) -> person.getFullName().equals(fullName), "John Smith");
Example using an anonymous inner class:
Person person =
people.detectWith(new Predicate2<Person, String>()
{
public boolean accept(Person person, String fullName)
{
return person.getFullName().equals(fullName);
}
}, "John Smith");
detectWith in interface RichIterable<T>detectWith in class AbstractMutableList<T>public Optional<T> detectOptional(Predicate<? super T> predicate)
RichIterableExample using a Java 8 lambda expression:
Person person =
people.detectOptional(person -> person.getFirstName().equals("John") && person.getLastName().equals("Smith"));
detectOptional in interface RichIterable<T>detectOptional in class AbstractMutableList<T>public <P> Optional<T> detectWithOptional(Predicate2<? super T,? super P> predicate, P parameter)
RichIterableExample using a Java 8 lambda expression:
Optional<Person> person =
people.detectWithOptional((person, fullName) -> person.getFullName().equals(fullName), "John Smith");
detectWithOptional in interface RichIterable<T>detectWithOptional in class AbstractMutableList<T>public int detectIndex(Predicate<? super T> predicate)
OrderedIterableOrderedIterable for which the predicate evaluates to true.
Returns -1 if no element evaluates true for the predicate.detectIndex in interface OrderedIterable<T>detectIndex in class AbstractMutableList<T>public int detectLastIndex(Predicate<? super T> predicate)
ReversibleIterableReversibleIterable for which the predicate evaluates to true.
Returns -1 if no element evaluates true for the predicate.detectLastIndex in interface ReversibleIterable<T>detectLastIndex in class AbstractMutableList<T>public T min(Comparator<? super T> comparator)
RichIterablemin in interface RichIterable<T>min in class AbstractMutableList<T>public T max(Comparator<? super T> comparator)
RichIterablemax in interface RichIterable<T>max in class AbstractMutableList<T>public T min()
RichIterablemin in interface OrderedIterable<T>min in interface RichIterable<T>min in class AbstractMutableList<T>public T max()
RichIterablemax in interface OrderedIterable<T>max in interface RichIterable<T>max in class AbstractMutableList<T>public <V extends Comparable<? super V>> T minBy(Function<? super T,? extends V> function)
RichIterableminBy in interface RichIterable<T>minBy in class AbstractMutableList<T>public <V extends Comparable<? super V>> T maxBy(Function<? super T,? extends V> function)
RichIterablemaxBy in interface RichIterable<T>maxBy in class AbstractMutableList<T>public T get(int index)
ListIterablepublic boolean add(T newItem)
add in interface Collection<T>add in interface List<T>add in class AbstractMutableCollection<T>public boolean remove(Object object)
remove in interface Collection<T>remove in interface List<T>remove in class AbstractMutableCollection<T>public boolean addAll(int index,
Collection<? extends T> source)
public int size()
RichIterablesize in interface Collection<T>size in interface List<T>size in interface RichIterable<T>size in interface BatchIterable<T>public int count(Predicate<? super T> predicate)
RichIterableExample using a Java 8 lambda expression:
int count =
people.count(person -> person.getAddress().getState().getName().equals("New York"));
Example using an anonymous inner class:
int count =
people.count(new Predicate<Person>()
{
public boolean accept(Person person)
{
return person.getAddress().getState().getName().equals("New York");
}
});
count in interface RichIterable<T>count in class AbstractMutableList<T>public <P> int countWith(Predicate2<? super T,? super P> predicate, P parameter)
RichIterable
e.g. return lastNames.countWith(Predicates2.equal(), "Smith");
countWith in interface RichIterable<T>countWith in class AbstractMutableList<T>public <S> boolean corresponds(OrderedIterable<S> other, Predicate2<? super T,? super S> predicate)
OrderedIterablepredicate returns true for all corresponding elements e1 of
this OrderedIterable and e2 of other.
The predicate is evaluated for each element at the same position of each OrderedIterable in a forward iteration order.
This is a short circuit pattern.corresponds in interface OrderedIterable<T>corresponds in class AbstractMutableList<T>public boolean anySatisfy(Predicate<? super T> predicate)
RichIterableanySatisfy in interface RichIterable<T>anySatisfy in class AbstractMutableList<T>public <P> boolean anySatisfyWith(Predicate2<? super T,? super P> predicate, P parameter)
RichIterableanySatisfyWith in interface RichIterable<T>anySatisfyWith in class AbstractMutableList<T>public boolean allSatisfy(Predicate<? super T> predicate)
RichIterableallSatisfy in interface RichIterable<T>allSatisfy in class AbstractMutableList<T>public <P> boolean allSatisfyWith(Predicate2<? super T,? super P> predicate, P parameter)
RichIterableallSatisfyWith in interface RichIterable<T>allSatisfyWith in class AbstractMutableList<T>public boolean noneSatisfy(Predicate<? super T> predicate)
RichIterablenoneSatisfy in interface RichIterable<T>noneSatisfy in class AbstractMutableList<T>public <P> boolean noneSatisfyWith(Predicate2<? super T,? super P> predicate, P parameter)
RichIterablenoneSatisfyWith in interface RichIterable<T>noneSatisfyWith in class AbstractMutableList<T>public <IV> IV injectInto(IV injectedValue,
Function2<? super IV,? super T,? extends IV> function)
RichIterableinjectInto in interface RichIterable<T>injectInto in class AbstractMutableList<T>public int injectInto(int injectedValue,
IntObjectToIntFunction<? super T> function)
RichIterableinjectInto in interface RichIterable<T>injectInto in class AbstractMutableList<T>public long injectInto(long injectedValue,
LongObjectToLongFunction<? super T> function)
RichIterableinjectInto in interface RichIterable<T>injectInto in class AbstractMutableList<T>public double injectInto(double injectedValue,
DoubleObjectToDoubleFunction<? super T> function)
RichIterableinjectInto in interface RichIterable<T>injectInto in class AbstractRichIterable<T>public float injectInto(float injectedValue,
FloatObjectToFloatFunction<? super T> function)
RichIterableinjectInto in interface RichIterable<T>injectInto in class AbstractMutableList<T>public MutableList<T> distinct()
MutableListListIterable containing the distinct elements in this list.distinct in interface ListIterable<T>distinct in interface MutableList<T>distinct in interface OrderedIterable<T>distinct in interface ReversibleIterable<T>distinct in class AbstractMutableList<T>ListIterable of distinct elementspublic MutableList<T> distinct(HashingStrategy<? super T> hashingStrategy)
MutableListListIterable containing the distinct elements in this list. Takes HashingStrategy.distinct in interface ListIterable<T>distinct in interface MutableList<T>distinct in class AbstractMutableList<T>ListIterable of distinct elementspublic IntSummaryStatistics summarizeInt(IntFunction<? super T> function)
RichIterable
IntSummaryStatistics stats =
Lists.mutable.with(1, 2, 3).summarizeInt(Integer::intValue);
summarizeInt in interface RichIterable<T>public DoubleSummaryStatistics summarizeFloat(FloatFunction<? super T> function)
RichIterable
DoubleSummaryStatistics stats =
Lists.mutable.with(1, 2, 3).summarizeFloat(Integer::floatValue);
summarizeFloat in interface RichIterable<T>public LongSummaryStatistics summarizeLong(LongFunction<? super T> function)
RichIterable
LongSummaryStatistics stats =
Lists.mutable.with(1, 2, 3).summarizeLong(Integer::longValue);
summarizeLong in interface RichIterable<T>public DoubleSummaryStatistics summarizeDouble(DoubleFunction<? super T> function)
RichIterable
DoubleSummaryStatistics stats =
Lists.mutable.with(1, 2, 3).summarizeDouble(Integer::doubleValue);
summarizeDouble in interface RichIterable<T>public Optional<T> reduce(BinaryOperator<T> accumulator)
RichIterableStream.reduce(BinaryOperator).reduce in interface RichIterable<T>reduce in class AbstractMutableCollection<T>public <R,A> R reduceInPlace(Collector<? super T,A,R> collector)
RichIterableStream.collect(Collector).
MutableObjectLongMapmap2 = Lists.mutable.with(1, 2, 3, 4, 5).reduceInPlace(Collectors2.sumByInt(i -> Integer.valueOf(i % 2), Integer::intValue));
reduceInPlace in interface RichIterable<T>public <R> R reduceInPlace(Supplier<R> supplier, BiConsumer<R,? super T> accumulator)
RichIterableStream.collect(Supplier, BiConsumer, BiConsumer).
The combiner used in collect is unnecessary in the serial case, so is not included in the API.reduceInPlace in interface RichIterable<T>public long sumOfInt(IntFunction<? super T> function)
RichIterablesumOfInt in interface RichIterable<T>sumOfInt in class AbstractMutableList<T>public long sumOfLong(LongFunction<? super T> function)
RichIterablesumOfLong in interface RichIterable<T>sumOfLong in class AbstractMutableList<T>public double sumOfFloat(FloatFunction<? super T> function)
RichIterablesumOfFloat in interface RichIterable<T>sumOfFloat in class AbstractMutableList<T>public double sumOfDouble(DoubleFunction<? super T> function)
RichIterablesumOfDouble in interface RichIterable<T>sumOfDouble in class AbstractMutableList<T>public <V> MutableObjectLongMap<V> sumByInt(Function<? super T,? extends V> groupBy, IntFunction<? super T> function)
RichIterablesumByInt in interface MutableCollection<T>sumByInt in interface RichIterable<T>sumByInt in class AbstractMutableCollection<T>public <V> MutableObjectLongMap<V> sumByLong(Function<? super T,? extends V> groupBy, LongFunction<? super T> function)
RichIterablesumByLong in interface MutableCollection<T>sumByLong in interface RichIterable<T>sumByLong in class AbstractMutableCollection<T>public <V> MutableObjectDoubleMap<V> sumByFloat(Function<? super T,? extends V> groupBy, FloatFunction<? super T> function)
RichIterablesumByFloat in interface MutableCollection<T>sumByFloat in interface RichIterable<T>sumByFloat in class AbstractMutableCollection<T>public <V> MutableObjectDoubleMap<V> sumByDouble(Function<? super T,? extends V> groupBy, DoubleFunction<? super T> function)
RichIterablesumByDouble in interface MutableCollection<T>sumByDouble in interface RichIterable<T>sumByDouble in class AbstractMutableCollection<T>public <IV,P> IV injectIntoWith(IV injectValue,
Function3<? super IV,? super T,? super P,? extends IV> function,
P parameter)
injectIntoWith in interface MutableCollection<T>injectIntoWith in class AbstractMutableList<T>public FastList<T> toList()
RichIterabletoList in interface RichIterable<T>toList in class AbstractMutableList<T>public FastList<T> toSortedList()
RichIterabletoSortedList in interface RichIterable<T>toSortedList in class AbstractMutableList<T>public FastList<T> toSortedList(Comparator<? super T> comparator)
RichIterabletoSortedList in interface RichIterable<T>toSortedList in class AbstractMutableList<T>public MutableList<T> takeWhile(Predicate<? super T> predicate)
ListIterabletakeWhile in interface ListIterable<T>takeWhile in interface MutableList<T>takeWhile in interface OrderedIterable<T>takeWhile in interface ReversibleIterable<T>takeWhile in class AbstractMutableList<T>public MutableList<T> dropWhile(Predicate<? super T> predicate)
ListIterabledropWhile in interface ListIterable<T>dropWhile in interface MutableList<T>dropWhile in interface OrderedIterable<T>dropWhile in interface ReversibleIterable<T>dropWhile in class AbstractMutableList<T>public PartitionMutableList<T> partitionWhile(Predicate<? super T> predicate)
ListIterablepartitionWhile in interface ListIterable<T>partitionWhile in interface MutableList<T>partitionWhile in interface OrderedIterable<T>partitionWhile in interface ReversibleIterable<T>partitionWhile in class AbstractMutableList<T>public boolean equals(Object that)
ListIterableList.equals(Object).equals in interface Collection<T>equals in interface List<T>equals in interface ListIterable<T>equals in class AbstractMutableList<T>public boolean fastListEquals(FastList<?> that)
public int hashCode()
ListIterableList.hashCode().hashCode in interface Collection<T>hashCode in interface List<T>hashCode in interface ListIterable<T>hashCode in class AbstractMutableList<T>public void writeExternal(ObjectOutput out) throws IOException
writeExternal in interface ExternalizableIOExceptionpublic void readExternal(ObjectInput in) throws IOException, ClassNotFoundException
readExternal in interface ExternalizableIOExceptionClassNotFoundExceptionCopyright © 2004–2017. All rights reserved.