Copyright	[2012] Adam C. Foltzer [2012..2017] Trevor L. McDonell
License	BSD3
Maintainer	Trevor L. McDonell <tmcdonell@cse.unsw.edu.au>
Stability	experimental
Portability	non-portable (GHC extensions)
Safe Haskell	None
Language	Haskell2010

Data.Array.Accelerate.IO.Data.Vector.Storable

Description

Efficient non-copying conversion between Storable vectors and Accelerate Arrays.

Synopsis

Documentation

type family Vectors e Source #

A family of types that represents a collection of storable Vectors. The structure of the collection depends on the element type e.

For example:

if e :: Int, then Vectors (EltRepr e) :: Vector Int
if e :: (Double, Float), then Vectors (EltRepr e) :: (((), Vector Double), Vector Float)

Instances

type Vectors Bool Source #
type Vectors Bool = Vector Word8
type Vectors Char Source #
type Vectors Char = Vector Char
type Vectors Double Source #
type Vectors Double = Vector Double
type Vectors Float Source #
type Vectors Float = Vector Float
type Vectors Int Source #
type Vectors Int = Vector Int
type Vectors Int8 Source #
type Vectors Int8 = Vector Int8
type Vectors Int16 Source #
type Vectors Int16 = Vector Int16
type Vectors Int32 Source #
type Vectors Int32 = Vector Int32
type Vectors Int64 Source #
type Vectors Int64 = Vector Int64
type Vectors Word Source #
type Vectors Word = Vector Word
type Vectors Word8 Source #
type Vectors Word8 = Vector Word8
type Vectors Word16 Source #
type Vectors Word16 = Vector Word16
type Vectors Word32 Source #
type Vectors Word32 = Vector Word32
type Vectors Word64 Source #
type Vectors Word64 = Vector Word64
type Vectors () Source #
type Vectors () = ()
type Vectors Half Source #
type Vectors Half = Vector Half
type Vectors CDouble Source #
type Vectors CDouble = Vector Double
type Vectors CFloat Source #
type Vectors CFloat = Vector Float
type Vectors CULLong Source #
type Vectors CULLong = Vector Word64
type Vectors CLLong Source #
type Vectors CLLong = Vector Int64
type Vectors CULong Source #
type Vectors CULong = Vector HTYPE_UNSIGNED_LONG
type Vectors CLong Source #
type Vectors CLong = Vector HTYPE_LONG
type Vectors CUInt Source #
type Vectors CUInt = Vector Word32
type Vectors CInt Source #
type Vectors CInt = Vector Int32
type Vectors CUShort Source #
type Vectors CUShort = Vector Word16
type Vectors CShort Source #
type Vectors CShort = Vector Int16
type Vectors CUChar Source #
type Vectors CUChar = Vector Word8
type Vectors CSChar Source #
type Vectors CSChar = Vector Int8
type Vectors CChar Source #
type Vectors CChar = Vector HTYPE_CCHAR
type Vectors (V2 a) Source #
type Vectors (V2 a) = Vectors a
type Vectors (V3 a) Source #
type Vectors (V3 a) = Vectors a
type Vectors (V4 a) Source #
type Vectors (V4 a) = Vectors a
type Vectors (V8 a) Source #
type Vectors (V8 a) = Vectors a
type Vectors (V16 a) Source #
type Vectors (V16 a) = Vectors a
type Vectors (a, b) Source #
type Vectors (a, b) = (Vectors a, Vectors b)

toVectors :: (Shape sh, Elt e) => Array sh e -> Vectors (EltRepr e) Source #

O(1). Turn the Accelerate array into a collection of storable Vectors. The element type of the array e will determine the structure of the output collection. See Vectors.

Data will be output in row-major order.

fromVectors :: (Shape sh, Elt e) => sh -> Vectors (EltRepr e) -> Array sh e Source #

O(1). Treat a set of storable vectors as Accelerate arrays. The type of elements e in the output Accelerate array determines the structure of the collection that will be required as the second argument. See Vectors.

Data will be consumed from the vector in row-major order. You must make sure that each of the input vectors contains the right number of elements