Scaladoc for scala.Array

Inherits

FallbackArrayBuilding
AnyRef
Any

Value Members

def apply(x: Unit, xs: Unit*): Array[Unit]
def apply(x: Double, xs: Double*): Array[Double]
def apply(x: Float, xs: Float*): Array[Float]
def apply(x: Long, xs: Long*): Array[Long]
def apply(x: Int, xs: Int*): Array[Int]
def apply(x: Char, xs: Char*): Array[Char]
def apply(x: Short, xs: Short*): Array[Short]
def apply(x: Byte, xs: Byte*): Array[Byte]
def apply(x: Boolean, xs: Boolean*): Array[Boolean]
def apply[T](xs: T*)(arg0: ClassManifest[T]): Array[T]

Create an array with given elements

Create an array with given elements.

xs
the elements to put in the array
returns
the array containing elements xs.
def canBuildFrom[T](m: ClassManifest[T]): CanBuildFrom[Array[_], T, Array[T]]
def concat[T](xss: Array[T]*)(arg0: ClassManifest[T]): Array[T]

Concatenate all argument sequences into a single array

Concatenate all argument sequences into a single array.
def copy(src: AnyRef, srcPos: Int, dest: AnyRef, destPos: Int, length: Int): Unit

Copy one array to another

Copy one array to another. Equivalent to System.arraycopy(src, srcPos, dest, destPos, length), except that this works also for polymorphic and boxed arrays.

src
...
srcPos
...
dest
...
destPos
...
length
...
def empty[T](arg0: ClassManifest[T]): Array[T]

Returns array of length 0

Returns array of length 0
def equals(arg0: Any): Boolean

This method is used to compare the receiver object (this) with the argument object (arg0) for equivalence
This method is used to compare the receiver object (this) with the argument object (arg0) for equivalence.
The default implementations of this method is an equivalence relation:
- It is reflexive: for any instance x of type Any, x.equals(x) should return true.
- It is symmetric: for any instances x and y of type Any, x.equals(y) should return true if and only if y.equals(x) returns true.
- It is transitive: for any instances x, y, and z of type AnyRef if x.equals(y) returns true and y.equals(z) returns true, then x.equals(z) should return true.
If you override this method, you should verify that your implementation remains an equivalence relation. Additionally, when overriding this method it is often necessary to override hashCode to ensure that objects that are "equal" (o1.equals(o2) returns true) hash to the same Int (o1.hashCode.equals(o2.hashCode)).
arg0
the object to compare against this object for equality.
returns
true if the receiver object is equivalent to the argument; false otherwise.

definition classes: AnyRef ⇐ Any
def fallbackCanBuildFrom[T](m: DummyImplicit): CanBuildFrom[Array[_], T, GenericArray[T]]

A builder factory that generates a generic array

A builder factory that generates a generic array. Called instead of Array.newBuilder if the element type of an array does not have a class manifest. Note that fallbackBuilder fcatory needs an implicit parameter (otherwise it would not be dominated in implicit search by Array.canBuildFrom). We make sure that that implicit search is always succesfull.

attributes: implicit

definition classes: FallbackArrayBuilding
def fill[T](n1: Int, n2: Int, n3: Int, n4: Int, n5: Int)(elem: ⇒ T)(arg0: ClassManifest[T]): Array[Array[Array[Array[Array[T]]]]]

A five-dimensional array that contains the results of some element computation a number of times

A five-dimensional array that contains the results of some element computation a number of times.

n1
the number of elements in the 1st dimension
n2
the number of elements in the 2nd dimension
n3
the number of elements in the 3nd dimension
n4
the number of elements in the 4th dimension
n5
the number of elements in the 5th dimension
elem
the element computation
def fill[T](n1: Int, n2: Int, n3: Int, n4: Int)(elem: ⇒ T)(arg0: ClassManifest[T]): Array[Array[Array[Array[T]]]]

A four-dimensional array that contains the results of some element computation a number of times

A four-dimensional array that contains the results of some element computation a number of times.

n1
the number of elements in the 1st dimension
n2
the number of elements in the 2nd dimension
n3
the number of elements in the 3nd dimension
n4
the number of elements in the 4th dimension
elem
the element computation
def fill[T](n1: Int, n2: Int, n3: Int)(elem: ⇒ T)(arg0: ClassManifest[T]): Array[Array[Array[T]]]

A three-dimensional array that contains the results of some element computation a number of times

A three-dimensional array that contains the results of some element computation a number of times.

n1
the number of elements in the 1st dimension
n2
the number of elements in the 2nd dimension
n3
the number of elements in the 3nd dimension
elem
the element computation
def fill[T](n1: Int, n2: Int)(elem: ⇒ T)(arg0: ClassManifest[T]): Array[Array[T]]

A two-dimensional array that contains the results of some element computation a number of times

A two-dimensional array that contains the results of some element computation a number of times.

n1
the number of elements in the 1st dimension
n2
the number of elements in the 2nd dimension
elem
the element computation
def fill[T](n: Int)(elem: ⇒ T)(arg0: ClassManifest[T]): Array[T]

An array that contains the results of some element computation a number of times

An array that contains the results of some element computation a number of times.

n
the number of elements returned
elem
the element computation
def fromFunction[T](f: (Int, Int, Int, Int, Int) ⇒ T)(n1: Int, n2: Int, n3: Int, n4: Int, n5: Int)(arg0: ClassManifest[T]): Array[Array[Array[Array[Array[T]]]]]

Create an array containing the values of a given function f over given range [0
Create an array containing the values of a given function f over given range [0..n1, 0..n2, 0..n3, 0..n4, 0..n5)
def fromFunction[T](f: (Int, Int, Int, Int) ⇒ T)(n1: Int, n2: Int, n3: Int, n4: Int)(arg0: ClassManifest[T]): Array[Array[Array[Array[T]]]] Create an array containing the values of a given function f over given range [0 Create an array containing the values of a given function f over given range [0..n1, 0..n2, 0..n3, 0..n4)
def fromFunction[T](f: (Int, Int, Int) ⇒ T)(n1: Int, n2: Int, n3: Int)(arg0: ClassManifest[T]): Array[Array[Array[T]]] Create an array containing the values of a given function f over given range [0 Create an array containing the values of a given function f over given range [0..n1, 0..n2, 0..n3)
def fromFunction[T](f: (Int, Int) ⇒ T)(n1: Int, n2: Int)(arg0: ClassManifest[T]): Array[Array[T]] Create an array containing the values of a given function f over given range [0 Create an array containing the values of a given function f over given range [0..n1, 0..n2)
def fromFunction[T](f: (Int) ⇒ T)(n: Int)(arg0: ClassManifest[T]): Array[T] Create an array containing the values of a given function f over given range [0 Create an array containing the values of a given function f over given range [0..n)
def hashCode(): Int Returns a hash code value for the object Returns a hash code value for the object. The default hashing algorithm is platform dependent. Note that it is allowed for two objects to have identical hash codes (o1.hashCode.equals(o2.hashCode)) yet not be equal (o1.equals(o2) returns false). A degenerate implementation could always return 0. However, it is required that if two objects are equal (o1.equals(o2) returns true) that they have identical hash codes (o1.hashCode.equals(o2.hashCode)). Therefore, when overriding this method, be sure to verify that the behavior is consistent with the equals method. definition classes: AnyRef ⇐ Any
def iterate[T](start: T, len: Int)(f: (T) ⇒ T)(arg0: ClassManifest[T]): Array[T] An array containing repeated applications of a function to a start value An array containing repeated applications of a function to a start value. start the start value of the array len the number of elements returned by the array f the function that's repeatedly applied returns the array returning len values in the sequence start, f(start), f(f(start)), ...
def make[T](n: Int, elem: T)(arg0: ClassManifest[T]): Array[T] Create an array containing several copies of an element Create an array containing several copies of an element. n the length of the resulting array elem the element composing the resulting array returns an array composed of n elements all equal to elem
def newBuilder[T](m: ClassManifest[T]): ArrayBuilder[T]
def ofDim[T](n1: Int, n2: Int, n3: Int, n4: Int, n5: Int)(arg0: ClassManifest[T]): Array[Array[Array[Array[Array[T]]]]]
def ofDim[T](n1: Int, n2: Int, n3: Int, n4: Int)(arg0: ClassManifest[T]): Array[Array[Array[Array[T]]]]
def ofDim[T](n1: Int, n2: Int, n3: Int)(arg0: ClassManifest[T]): Array[Array[Array[T]]]
def ofDim[T](n1: Int, n2: Int)(arg0: ClassManifest[T]): Array[Array[T]]
def ofDim[T](n1: Int)(arg0: ClassManifest[T]): Array[T] Create array with given dimensions Create array with given dimensions
def range(start: Int, end: Int, step: Int): Array[Int] An array containing equally spaced values in some integer interval An array containing equally spaced values in some integer interval. start the start value of the array end the end value of the array (the first value NOT returned) step the increment value of the array (must be positive or negative) returns the array with values in start, start + step, ... up to, but excluding end
def range(start: Int, end: Int): Array[Int] An array containing a sequence of increasing integers in a range An array containing a sequence of increasing integers in a range. end the end value of the array (the first value NOT returned) returns the array with values in range start, start + 1, ..., end - 1 up to, but exclusding, end.
def tabulate[T](n1: Int, n2: Int, n3: Int, n4: Int, n5: Int)(f: (Int, Int, Int, Int, Int) ⇒ T)(arg0: ClassManifest[T]): Array[Array[Array[Array[Array[T]]]]] A five-dimensional array containing values of a given function over ranges of integer values starting from 0 A five-dimensional array containing values of a given function over ranges of integer values starting from 0. n1 the number of elements in the 1st dimension n2 the number of elements in the 2nd dimension n3 the number of elements in the 3nd dimension n4 the number of elements in the 4th dimension n5 the number of elements in the 5th dimension f The function computing element values
def tabulate[T](n1: Int, n2: Int, n3: Int, n4: Int)(f: (Int, Int, Int, Int) ⇒ T)(arg0: ClassManifest[T]): Array[Array[Array[Array[T]]]] A four-dimensional array containing values of a given function over ranges of integer values starting from 0 A four-dimensional array containing values of a given function over ranges of integer values starting from 0. n1 the number of elements in the 1st dimension n2 the number of elements in the 2nd dimension n3 the number of elements in the 3nd dimension n4 the number of elements in the 4th dimension f The function computing element values
def tabulate[T](n1: Int, n2: Int, n3: Int)(f: (Int, Int, Int) ⇒ T)(arg0: ClassManifest[T]): Array[Array[Array[T]]] A three-dimensional array containing values of a given function over ranges of integer values starting from 0 A three-dimensional array containing values of a given function over ranges of integer values starting from 0. n1 the number of elements in the 1st dimension n2 the number of elements in the 2nd dimension n3 the number of elements in the 3nd dimension f The function computing element values
def tabulate[T](n1: Int, n2: Int)(f: (Int, Int) ⇒ T)(arg0: ClassManifest[T]): Array[Array[T]] A two-dimensional array containing values of a given function over ranges of integer values starting from 0 A two-dimensional array containing values of a given function over ranges of integer values starting from 0. n1 the number of elements in the 1st dimension n2 the number of elements in the 2nd dimension f The function computing element values
def tabulate[T](n: Int)(f: (Int) ⇒ T)(arg0: ClassManifest[T]): Array[T] An array containing values of a given function over a range of integer values starting from 0 An array containing values of a given function over a range of integer values starting from 0. n The number of elements in the traversable f The function computing element values returns A traversable consisting of elements f(0), ..., f(n -1)
def toString(): String Returns a string representation of the object Returns a string representation of the object. The default representation is platform dependent. definition classes: AnyRef ⇐ Any
def unapplySeq[T](x: Array[T]): Option[IndexedSeq[T]] This method is called in a pattern match { case Seq( This method is called in a pattern match { case Seq(...) => }. x the selector value returns sequence wrapped in an option, if this is a Seq, otherwise none

Array

object Array extends FallbackArrayBuilding

Inherits

Value Members

def apply(x: Unit, xs: Unit*): Array[Unit]

def apply(x: Double, xs: Double*): Array[Double]

def apply(x: Float, xs: Float*): Array[Float]

def apply(x: Long, xs: Long*): Array[Long]

def apply(x: Int, xs: Int*): Array[Int]

def apply(x: Char, xs: Char*): Array[Char]

def apply(x: Short, xs: Short*): Array[Short]

def apply(x: Byte, xs: Byte*): Array[Byte]

def apply(x: Boolean, xs: Boolean*): Array[Boolean]

def apply[T](xs: T*)(arg0: ClassManifest[T]): Array[T]

def canBuildFrom[T](m: ClassManifest[T]): CanBuildFrom[Array[_], T, Array[T]]

def concat[T](xss: Array[T]*)(arg0: ClassManifest[T]): Array[T]

def copy(src: AnyRef, srcPos: Int, dest: AnyRef, destPos: Int, length: Int): Unit

def empty[T](arg0: ClassManifest[T]): Array[T]

def equals(arg0: Any): Boolean

def fallbackCanBuildFrom[T](m: DummyImplicit): CanBuildFrom[Array[_], T, GenericArray[T]]

def fill[T](n1: Int, n2: Int, n3: Int, n4: Int, n5: Int)(elem: ⇒ T)(arg0: ClassManifest[T]): Array[Array[Array[Array[Array[T]]]]]

def fill[T](n1: Int, n2: Int, n3: Int, n4: Int)(elem: ⇒ T)(arg0: ClassManifest[T]): Array[Array[Array[Array[T]]]]

def fill[T](n1: Int, n2: Int, n3: Int)(elem: ⇒ T)(arg0: ClassManifest[T]): Array[Array[Array[T]]]

def fill[T](n1: Int, n2: Int)(elem: ⇒ T)(arg0: ClassManifest[T]): Array[Array[T]]

def fill[T](n: Int)(elem: ⇒ T)(arg0: ClassManifest[T]): Array[T]

def fromFunction[T](f: (Int, Int, Int, Int, Int) ⇒ T)(n1: Int, n2: Int, n3: Int, n4: Int, n5: Int)(arg0: ClassManifest[T]): Array[Array[Array[Array[Array[T]]]]]

def fromFunction[T](f: (Int, Int, Int, Int) ⇒ T)(n1: Int, n2: Int, n3: Int, n4: Int)(arg0: ClassManifest[T]): Array[Array[Array[Array[T]]]]

def fromFunction[T](f: (Int, Int, Int) ⇒ T)(n1: Int, n2: Int, n3: Int)(arg0: ClassManifest[T]): Array[Array[Array[T]]]

def fromFunction[T](f: (Int, Int) ⇒ T)(n1: Int, n2: Int)(arg0: ClassManifest[T]): Array[Array[T]]

def fromFunction[T](f: (Int) ⇒ T)(n: Int)(arg0: ClassManifest[T]): Array[T]

def hashCode(): Int

def iterate[T](start: T, len: Int)(f: (T) ⇒ T)(arg0: ClassManifest[T]): Array[T]

def make[T](n: Int, elem: T)(arg0: ClassManifest[T]): Array[T]

def newBuilder[T](m: ClassManifest[T]): ArrayBuilder[T]

def ofDim[T](n1: Int, n2: Int, n3: Int, n4: Int, n5: Int)(arg0: ClassManifest[T]): Array[Array[Array[Array[Array[T]]]]]

def ofDim[T](n1: Int, n2: Int, n3: Int, n4: Int)(arg0: ClassManifest[T]): Array[Array[Array[Array[T]]]]

def ofDim[T](n1: Int, n2: Int, n3: Int)(arg0: ClassManifest[T]): Array[Array[Array[T]]]

def ofDim[T](n1: Int, n2: Int)(arg0: ClassManifest[T]): Array[Array[T]]

def ofDim[T](n1: Int)(arg0: ClassManifest[T]): Array[T]

def range(start: Int, end: Int, step: Int): Array[Int]

def range(start: Int, end: Int): Array[Int]

def tabulate[T](n1: Int, n2: Int, n3: Int, n4: Int, n5: Int)(f: (Int, Int, Int, Int, Int) ⇒ T)(arg0: ClassManifest[T]): Array[Array[Array[Array[Array[T]]]]]

def tabulate[T](n1: Int, n2: Int, n3: Int, n4: Int)(f: (Int, Int, Int, Int) ⇒ T)(arg0: ClassManifest[T]): Array[Array[Array[Array[T]]]]

def tabulate[T](n1: Int, n2: Int, n3: Int)(f: (Int, Int, Int) ⇒ T)(arg0: ClassManifest[T]): Array[Array[Array[T]]]

def tabulate[T](n1: Int, n2: Int)(f: (Int, Int) ⇒ T)(arg0: ClassManifest[T]): Array[Array[T]]

def tabulate[T](n: Int)(f: (Int) ⇒ T)(arg0: ClassManifest[T]): Array[T]

def toString(): String

def unapplySeq[T](x: Array[T]): Option[IndexedSeq[T]]