/*******************************************************

* Copyright (c) 2014, ArrayFire

* All rights reserved.

*

* This file is distributed under 3-clause BSD license.

* The complete license agreement can be obtained at:

* http://arrayfire.com/licenses/BSD-3-Clause

********************************************************/

#pragma once

#include <af/defines.h>

#include <af/seq.h>

#include <af/util.h>

#include <af/index.h>

#ifdef __cplusplus

#include <af/traits.hpp>

#include <vector>

namespace af

{

class dim4;

///

/// \brief A multi dimensional data container

///

class AFAPI array {

af_array arr;

public:

///

/// \brief Updates the internal \ref af_array object

///

/// \note This function will reduce the reference of the previous

/// \ref af_array object

///

void set(af_array tmp);

///

/// \brief Intermediate data class. Used for assignment and indexing.

///

/// \note This class is for internal book keeping while indexing. This class is not intended for use in user code.

///

class AFAPI array_proxy

{

struct array_proxy_impl; //forward declaration

array_proxy_impl *impl; // implementation

public:

array_proxy(array& par, af_index_t *ssss, bool linear = false);

array_proxy(const array_proxy &other);

#if __cplusplus > 199711L

array_proxy(array_proxy &&other);

array_proxy & operator=(array_proxy &&other);

#endif

~array_proxy();

// Implicit conversion operators

operator array() const;

operator array();

#define ASSIGN(OP) \

array_proxy& operator OP(const array_proxy &a); \

array_proxy& operator OP(const array &a); \

array_proxy& operator OP(const double &a); \

array_proxy& operator OP(const cdouble &a); \

array_proxy& operator OP(const cfloat &a); \

array_proxy& operator OP(const float &a); \

array_proxy& operator OP(const int &a); \

array_proxy& operator OP(const unsigned &a); \

array_proxy& operator OP(const bool &a); \

array_proxy& operator OP(const char &a); \

array_proxy& operator OP(const unsigned char &a); \

array_proxy& operator OP(const long &a); \

array_proxy& operator OP(const unsigned long &a); \

array_proxy& operator OP(const long long &a); \

array_proxy& operator OP(const unsigned long long &a); \

ASSIGN(=)

ASSIGN(+=)

ASSIGN(-=)

ASSIGN(*=)

ASSIGN(/=)

#undef ASSIGN

#if AF_API_VERSION >= 32

#define ASSIGN(OP) \

array_proxy& operator OP(const short &a); \

array_proxy& operator OP(const unsigned short &a); \

ASSIGN(=)

ASSIGN(+=)

ASSIGN(-=)

ASSIGN(*=)

ASSIGN(/=)

#undef ASSIGN

#endif

// af::array member functions. same behavior as those below

af_array get();

af_array get() const;

dim_t elements() const;

template<typename T> T* host() const;

void host(void *ptr) const;

dtype type() const;

dim4 dims() const;

dim_t dims(unsigned dim) const;

unsigned numdims() const;

size_t bytes() const;

array copy() const;

bool isempty() const;

bool isscalar() const;

bool isvector() const;

bool isrow() const;

bool iscolumn() const;

bool iscomplex() const;

inline bool isreal() const { return !iscomplex(); }

bool isdouble() const;

bool issingle() const;

bool isrealfloating() const;

bool isfloating() const;

bool isinteger() const;

bool isbool() const;

void eval() const;

array as(dtype type) const;

array T() const;

array H() const;

template<typename T> T scalar() const;

template<typename T> T* device() const;

void unlock() const;

#if AF_API_VERSION >= 31

void lock() const;

#endif

array::array_proxy row(int index);

const array::array_proxy row(int index) const;

array::array_proxy rows(int first, int last);

const array::array_proxy rows(int first, int last) const;

array::array_proxy col(int index);

const array::array_proxy col(int index) const;

array::array_proxy cols(int first, int last);

const array::array_proxy cols(int first, int last) const;

array::array_proxy slice(int index);

const array::array_proxy slice(int index) const;

array::array_proxy slices(int first, int last);

const array::array_proxy slices(int first, int last) const;

};

//array(af_array in, const array *par, af_index_t seqs[4]);

/**

\ingroup construct_mat

@{

*/

/**

Create undimensioned array (no data, undefined size)

\code

array A, B, C; // creates three arrays called A, B and C

\endcode

*/

array();

/**

Creates an array from an \ref af_array handle

\param handle the af_array object.

*/

explicit

array(const af_array handle);

/**

Creates a copy to the \p in array.

\param in The input \ref array

*/

array(const array& in);

/**

Allocate a one-dimensional array of a specified size with undefined

contents

Declare a two-dimensional array by passing the

number of rows and the number of columns as the first two parameters.

The (optional) second parameter is the type of the array. The default

type is f32 or 4-byte single-precision floating-point numbers.

\code

// allocate space for an array with 10 rows

array A(10); // type is the default f32

// allocate space for a column vector with 100 rows

array A(100, f64); // f64 = double precision

\endcode

\param[in] dim0 number of columns in the array

\param[in] ty optional label describing the data type

(default is f32)

*/

array(dim_t dim0, dtype ty = f32);

/**

Allocate a two-dimensional array of a specified size with undefined

contents

Declare a two-dimensional array by passing the

number of rows and the number of columns as the first two parameters.

The (optional) third parameter is the type of the array. The default

type is f32 or 4-byte single-precision floating-point numbers.

\code

// allocate space for an array with 10 rows and 8 columns

array A(10, 8); // type is the default f32

// allocate space for a column vector with 100 rows (and 1 column)

array A(100, 1, f64); // f64 = double precision

\endcode

\param[in] dim0 number of columns in the array

\param[in] dim1 number of rows in the array

\param[in] ty optional label describing the data type

(default is f32)

*/

array(dim_t dim0, dim_t dim1, dtype ty = f32);

/**

Allocate a three-dimensional (3D) array of a specified size with

undefined contents

This is useful to quickly declare a three-dimensional array by

passing the size as the first three parameters. The (optional)

fourth parameter is the type of the array. The default type is f32

or 4-byte single-precision floating point numbers.

\code

// allocate space for a 10 x 10 x 10 array

array A(10, 10, 10); // type is the default f32

// allocate space for a 3D, double precision array

array A(10, 10, 10, f64); // f64 = double precision

\endcode

\param[in] dim0 first dimension of the array

\param[in] dim1 second dimension of the array

\param[in] dim2 third dimension of the array

\param[in] ty optional label describing the data type

(default is f32)

*/

array(dim_t dim0, dim_t dim1, dim_t dim2, dtype ty = f32);

/**

Allocate a four-dimensional (4D) array of a specified size with

undefined contents

This is useful to quickly declare a four-dimensional array by

passing the size as the first four parameters. The (optional) fifth

parameter is the type of the array. The default type is f32 or

4-byte floating point numbers.

\code

// allocate space for a 10 x 10 x 10 x 20 array

array A(10, 10, 10, 20); // type is the default f32

// allocate space for a 4D, double precision array

array A(10, 10, 10, 20, f64); // f64 = double precision

\endcode

\param[in] dim0 first dimension of the array

\param[in] dim1 second dimension of the array

\param[in] dim2 third dimension of the array

\param[in] dim3 fourth dimension of the array

\param[in] ty optional label describing the data type

(default is f32)

*/

array(dim_t dim0, dim_t dim1, dim_t dim2, dim_t dim3, dtype ty = f32);

/**

Allocate an array of a specified size with undefined contents

This can be useful when the dimensions of the array are calculated

somewhere else within the code. The first parameter specifies the

size of the array via dim4(). The second parameter is the type of

the array. The default type is f32 or 4-byte

single-precision floating point numbers.

\code

// create a two-dimensional 10 x 10 array

dim4 dims(10, 10); // converted to (10, 10, 1, 1)

array a1(dims); // create the array (type is f32, the default)

// create a three-dimensional 10 x 10 x 20 array

dim4 dims(10, 10, 20); // converted to (10, 10, 20, 1)

array a2(dims,f64); // f64 = double precision

\endcode

\param[in] dims size of the array

\param[in] ty optional label describing the data type

(default is f32)

*/

explicit

array(const dim4& dims, dtype ty = f32);

/**

Create a column vector on the device using a host/device pointer

\param[in] dim0 number of elements in the column vector

\param[in] pointer pointer (points to a buffer on the host/device)

\param[in] src source of the data (default is afHost, can also

be afDevice)

\code

// allocate data on the host

int h_buffer[] = {23, 34, 18, 99, 34};

array A(4, h_buffer); // copy host data to device

//

// A = 23

// = 34

// = 18

// = 99

\endcode

\note If \p src is \ref afHost, the first \p dim0 elements are copied. If \p src is \ref afDevice, no copy is done; the array object just wraps the device pointer.

*/

template<typename T>

array(dim_t dim0,

const T *pointer, af::source src=afHost);

/**

Create a 2D array on the device using a host/device pointer

\param[in] dim0 number of rows

\param[in] dim1 number of columns

\param[in] pointer pointer (points to a buffer on the host/device)

\param[in] src source of the data (default is afHost, can also

be \ref afDevice)

\code

int h_buffer[] = {0, 1, 2, 3, 4, 5}; // host array

array A(2, 3, h_buffer); // copy host data to device

\endcode

\image html 2dArray.png

\note If \p src is \ref afHost, the first \p dim0 * \p dim1 elements are copied. If \p src is \ref afDevice, no copy is done; the array object just wraps the device pointer. The data is treated as column major format when performing linear algebra operations.

*/

template<typename T>

array(dim_t dim0, dim_t dim1,

const T *pointer, af::source src=afHost);

/**

Create a 3D array on the device using a host/device pointer

\param[in] dim0 first dimension

\param[in] dim1 second dimension

\param[in] dim2 third dimension

\param[in] pointer pointer (points to a buffer on the host/device)

\param[in] src source of the data (default is \ref afHost, can

also be \ref afDevice)

\code

int h_buffer[] = {0, 1, 2, 3, 4, 5, 6, 7, 8

9, 0, 1, 2, 3, 4, 5, 6, 7}; // host array

array A(3, 3, 2, h_buffer); // copy host data to 3D device array

\endcode

\note If \p src is \ref afHost, the first \p dim0 * \p dim1 * \p dim2 elements are copied. If \p src is \ref afDevice, no copy is done; the array object just wraps the device pointer. The data is treated as column major format when performing linear algebra operations.

\image html 3dArray.png

*/

template<typename T>

array(dim_t dim0, dim_t dim1, dim_t dim2,

const T *pointer, af::source src=afHost);

/**

Create a 4D array on the device using a host/device pointer

\param[in] dim0 first dimension

\param[in] dim1 second dimension

\param[in] dim2 third dimension

\param[in] dim3 fourth dimension

\param[in] pointer pointer (points to a buffer on the host/device)

\param[in] src source of the data (default is afHost, can also

be \ref afDevice)

\code

int h_buffer[] = {0, 1, 2, 3,

4, 5, 6, 7,

8, 9, 0, 1,

2, 3, 4, 5}; // host array with 16 elements

array A(2, 2, 2, 2, h_buffer); // copy host data to 4D device array

\endcode

\note If \p src is \ref afHost, the first \p dim0 * \p dim1 * \p dim2 * \p dim3 elements are copied. If \p src is \ref afDevice, no copy is done; the array object just wraps the device pointer. The data is treated as column major format when performing linear algebra operations.

*/

template<typename T>

array(dim_t dim0, dim_t dim1, dim_t dim2, dim_t dim3,

const T *pointer, af::source src=afHost);

/**

Create an array of specified size on the device using a host/device

pointer

This function copies data from the location specified by the

pointer to a 1D/2D/3D/4D array on the device. The data is arranged

in "column-major" format (similar to that used by FORTRAN).

\param[in] dims vector data type containing the dimension of the

\ref array

\param[in] pointer pointer (points to a buffer on the host/device)

\param[in] src source of the data (default is afHost, can also

be \ref afDevice)

\code

int h_buffer[] = {0, 1, 2, 3, // host array with 16 elements

4, 5, 6, 7, // written in "row-major" format

8, 9, 0, 1,

2, 3, 4, 5};

dim4 dims(4, 4);

array A(dims, h_buffer); // A = 0 4 8 2

// 1 5 9 3

// 2 6 0 4

// 3 7 1 5

// Note the "column-major" ordering

// used in ArrayFire

\endcode

\note If \p src is \ref afHost, the first dims.elements() elements are copied. If \p src is \ref afDevice, no copy is done; the array object just wraps the device pointer. The data is treated as column major format when performing linear algebra operations.

*/

template<typename T>

explicit

array(const dim4& dims,

const T *pointer, af::source src=afHost);

/**

Adjust the dimensions of an N-D array (fast).

This operation simply rearranges the description of the array.

No memory transfers or transformations are performed. The total

number of elements must not change.

\code

float f[] = {1,2,3,4};

array a(2,2,f);

//a=[1 3]

// [2 4]

array b = array(a, dim4(4));

//b=[1]

// [2]

// [3]

// [4]

array c = array(a, b.T().dims() );

//c=[1 2 3 4]

\endcode

\param[in] input

\param[in] dims total number of elements must not change.

\return same underlying array data with different dimensions

*/

array(const array& input, const dim4& dims);

/**

Adjust the dimensions of an N-D array (fast).

This operation simply rearranges the description of the array.

No memory transfers or transformations are performed. The total

number of elements must not change.

\code

float f[] = {1,2,3,4};

array a(2,2,f);

//a=[1 3]

// [2 4]

array b = array(a, 4);

//b=[1]

// [2]

// [3]

// [4]

array c = array(a, 1, 4);

//c=[1 2 3 4]

\endcode

\param[in] input

\param[in] dim0 first dimension

\param[in] dim1 second dimension

\param[in] dim2 third dimension

\param[in] dim3 fourth dimension

\return same underlying array data with different dimensions

*/

array( const array& input,

const dim_t dim0, const dim_t dim1 = 1,

const dim_t dim2 = 1, const dim_t dim3 = 1);

/**

@}

*/

/**

\ingroup method_mat

@{

*/

/**

get the \ref af_array handle

*/

af_array get();

/**

get the \ref af_array handle

*/

af_array get() const;

/**

get the number of elements in array

*/

dim_t elements() const;

/**

Copy array data to host and return host pointer

*/

template<typename T> T* host() const;

/**

Copy array data to existing host pointer

*/

void host(void *ptr) const;

/**

Perform deep copy from host/device pointer to an existing array

*/

template<typename T> void write(const T *ptr, const size_t bytes, af::source src = afHost);

/**

Get array data type

*/

dtype type() const;

/**

Get dimensions of the array

*/

dim4 dims() const;

/**

Get dimensions of the array

*/

dim_t dims(unsigned dim) const;

/**

Get the number of dimensions of the array

*/

unsigned numdims() const;

/**

Get the size of the array in bytes

*/

size_t bytes() const;

/**

Perform deep copy of the array

*/

array copy() const;

/**

\brief Returns true of the array is empty

*/

bool isempty() const;

/**

\brief Returns true of the array contains only one value

*/

bool isscalar() const;

/**

\brief Returns true if only one of the array dimensions has more than one element

*/

bool isvector() const;

/**

\brief Returns true if only the second dimension has more than one element

*/

bool isrow() const;

/**

\brief Returns true if only the first dimension has more than one element

*/

bool iscolumn() const;

/**

\brief Returns true if the array type is \ref c32 or \ref c64

*/

bool iscomplex() const;

/**

\brief Returns true if the array type is neither \ref c32 nor \ref c64

*/

inline bool isreal() const { return !iscomplex(); }

/**

\brief Returns true if the array type is \ref f64 or \ref c64

*/

bool isdouble() const;

/**

\brief Returns true if the array type is neither \ref f64 nor \ref c64

*/

bool issingle() const;

/**

\brief Returns true if the array type is \ref f32 or \ref f64

*/

bool isrealfloating() const;

/**

\brief Returns true if the array type is \ref f32, \ref f64, \ref c32 or \ref c64

*/

bool isfloating() const;

/**

\brief Returns true if the array type is \ref u8, \ref b8, \ref s32 \ref u32, \ref s64, \ref u64, \ref s16, \ref u16

*/

bool isinteger() const;

/**

\brief Returns true if the array type is \ref b8

*/

bool isbool() const;

/**

\brief Evaluate any JIT expressions to generate data for the array

*/

void eval() const;

/**

\brief Get the first element of the array as a scalar

\note This is recommended for use while debugging. Calling this method constantly reduces performance.

*/

template<typename T> T scalar() const;

/**

@}

*/

/**

\defgroup device_func_device array::device<T>

Get the device pointer from the array and lock the buffer in memory manager.

@{

The device memory returned by this function is not freed until unlock() is called.

\ingroup arrayfire_func

\ingroup device_mat

*/

template<typename T> T* device() const;

/**

@}

*/

// INDEXING

// Single arguments

/**

\brief This operator returns a reference of the original array at a given coordinate.

You can pass \ref af::seq, \ref af::array, or an int as it's parameters.

These references can be used for assignment or returning references

to \ref af::array objects.

If the \ref af::array is a multi-dimensional array then this coordinate

will treated as the data as a linear array.

\param[in] s0 is sequence of linear indices

\returns A reference to the array at the given index

\ingroup array_mem_operator_paren

*/

array::array_proxy operator()(const index &s0);

/**

\copydoc operator()(const index &)

\ingroup array_mem_operator_paren

*/

const array::array_proxy operator()(const index &s0) const;

/**

\brief This operator returns a reference of the original array at a

given coordinate.

You can pass \ref af::seq, \ref af::array, or an int as it's parameters.

These references can be used for assignment or returning references

to \ref af::array objects.

\param[in] s0 is sequence of indices along the first dimension

\param[in] s1 is sequence of indices along the second dimension

\param[in] s2 is sequence of indices along the third dimension

\param[in] s3 is sequence of indices along the fourth dimension

\returns A reference to the array at the given index

\ingroup array_mem_operator_paren

*/

array::array_proxy operator()(const index &s0,

const index &s1,

const index &s2 = span,

const index &s3 = span);

/**

\copydoc operator()(const index &, const index &, const index &, const index &)

\ingroup array_mem_operator_paren

*/

const array::array_proxy operator()(const index &s0,

const index &s1,

const index &s2 = span,

const index &s3 = span) const;

/// \ingroup array_mem_row

/// @{

///

/// \brief Returns a reference to a row

///

/// \copydetails array_mem_row

///

/// \param[in] index is the index of the row to be returned

///

/// \returns a reference to a row defined by \p index

///

array::array_proxy row(int index);

const array::array_proxy row(int index) const; ///< \copydoc row

///

/// \brief Returns a reference to sequence of rows

///

/// \copydetails array_mem_row

///

/// \param[in] first is the index of the row to be returned

/// \param[in] last is the index of the row to be returned

///

/// \returns a reference to a set of rows

array::array_proxy rows(int first, int last);

const array::array_proxy rows(int first, int last) const; ///< \copydoc rows

/// @}

/// \ingroup array_mem_col

/// @{

///

/// \brief Returns a reference to a col

///

/// \copydetails array_mem_col

///

/// \param[in] index is the index of the col to be returned

///

/// \returns a reference to a col defined by \p index

///

array::array_proxy col(int index);

const array::array_proxy col(int index) const; ///< \copydoc col

///

/// \brief Returns a reference to sequence of columns

///

/// \copydetails array_mem_col

///

/// \param[in] first is the index of the columns to be returned

/// \param[in] last is the index of the columns to be returned

///

/// \returns a reference to a set of columns

array::array_proxy cols(int first, int last);

const array::array_proxy cols(int first, int last) const; ///< \copydoc cols

/// @}

/// \ingroup array_mem_slice

/// @{

///

/// \brief Returns a reference to a matrix in a volume

///

/// \copydetails array_mem_slice

///

/// \param[in] index is the index of the slice to be returned

///

/// \returns a reference to a col

///

array::array_proxy slice(int index);

const array::array_proxy slice(int index) const; ///< \copydoc slice

/// \brief Returns a reference to a matrix in a volume

///

/// \copydetails array_mem_slice

///

/// \param[in] first is the index of the slices to be returned

/// \param[in] last is the index of the slices to be returned

///

/// \returns a reference to a set of slice

array::array_proxy slices(int first, int last);

const array::array_proxy slices(int first, int last) const; ///< \copydoc slices

/// @}

/// \brief Converts the array into another type

///

/// \param[in] type is the desired type(f32, s64, etc.)

/// \returns an array with the type specified by \p type

/// \ingroup method_mat

const array as(dtype type) const;

~array();

/// \brief Get the transposed the array

///

/// \returns Transposed matrix

/// \ingroup method_mat

array T() const;

/// \brief Get the conjugate-transpose of the current array

///

/// \returns conjugate-transpose matrix

/// \ingroup method_mat

array H() const;

#define ASSIGN_(OP) \

array& OP(const array &val); \

array& OP(const double &val); /**< \copydoc OP (const array &) */ \

array& OP(const cdouble &val); /**< \copydoc OP (const array &) */ \

array& OP(const cfloat &val); /**< \copydoc OP (const array &) */ \

array& OP(const float &val); /**< \copydoc OP (const array &) */ \

array& OP(const int &val); /**< \copydoc OP (const array &) */ \

array& OP(const unsigned &val); /**< \copydoc OP (const array &) */ \

array& OP(const bool &val); /**< \copydoc OP (const array &) */ \

array& OP(const char &val); /**< \copydoc OP (const array &) */ \

array& OP(const unsigned char &val); /**< \copydoc OP (const array &) */ \

array& OP(const long &val); /**< \copydoc OP (const array &) */ \

array& OP(const unsigned long &val); /**< \copydoc OP (const array &) */ \

array& OP(const long long &val); /**< \copydoc OP (const array &) */ \

array& OP(const unsigned long long &val); /**< \copydoc OP (const array &) */ \

#if AF_API_VERSION >= 32

#define ASSIGN(OP) \

ASSIGN_(OP) \

array& OP(const short &val); /**< \copydoc OP (const array &) */ \

array& OP(const unsigned short &val); /**< \copydoc OP (const array &) */ \

#else

#define ASSIGN(OP) ASSIGN_(OP)

#endif

/// \ingroup array_mem_operator_eq

/// @{

/// \brief Assignes the value(s) of val to the elements of the array.

///

/// \param[in] val is the value to be assigned to the /ref af::array

/// \returns the reference to this

///

/// \note This is a copy on write operation. The copy only occurs when the

/// operator() is used on the left hand side.

ASSIGN(operator=)

/// @}

/// \ingroup array_mem_operator_plus_eq

/// @{

/// \brief Adds the value(s) of val to the elements of the array.

///

/// \param[in] val is the value to be assigned to the /ref af::array

/// \returns the reference to this

///

/// \note This is a copy on write operation. The copy only occurs when the

/// operator() is used on the left hand side.

ASSIGN(operator+=)

/// @}

/// \ingroup array_mem_operator_minus_eq

/// @{

/// \brief Subtracts the value(s) of val to the elements of the array.

///

/// \param[in] val is the value to be assigned to the /ref af::array

/// \returns the reference to this

///

/// \note This is a copy on write operation. The copy only occurs when the

/// operator() is used on the left hand side.

ASSIGN(operator-=)

/// @}

/// \ingroup array_mem_operator_multiply_eq

/// @{

/// \brief Multiplies the value(s) of val to the elements of the array.

///

/// \param[in] val is the value to be assigned to the /ref af::array

/// \returns the reference to this

///

/// \note This is a copy on write operation. The copy only occurs when the

/// operator() is used on the left hand side.

ASSIGN(operator*=)

/// @}

/// \ingroup array_mem_operator_divide_eq

/// @{

/// \brief Divides the value(s) of val to the elements of the array.

///

/// \param[in] val is the value to be assigned to the /ref af::array

/// \returns the reference to this

///

/// \note This is a copy on write operation. The copy only occurs when the

/// operator() is used on the left hand side.

/// \ingroup array_mem_operator_divide_eq

ASSIGN(operator/=)

/// @}

#undef ASSIGN

#undef ASSIGN_

///

/// \brief Negates the values of the array

/// \ingroup arith_func_neg

///

/// \returns an \ref array with negated values

array operator -() const;

///

/// \brief Performs a not operation on the values of the array

/// \ingroup arith_func_not

///

/// \returns an \ref array with negated values

array operator !() const;

///

/// \brief Get the count of non-zero elements in the array

///

/// For dense matrix, this is the same as count<int>(arr);

int nonzeros() const;

///

/// \brief Locks the device buffer in the memory manager.

///

/// This method can be called to take control of the device pointer from the memory manager.

/// While a buffer is locked, the memory manager doesn't free the memory until unlock() is invoked.

void lock() const;

///

/// \brief Unlocks the device buffer in the memory manager.

///

/// This method can be called after called after calling \ref array::lock()

/// Calling this method gives back the control of the device pointer to the memory manager.

void unlock() const;

};

// end of class array

#define BIN_OP_(OP) \

AFAPI array OP (const array& lhs, const array& rhs); \

AFAPI array OP (const bool& lhs, const array& rhs); /**< \copydoc OP (const array&, const array&) */ \

AFAPI array OP (const int& lhs, const array& rhs); /**< \copydoc OP (const array&, const array&) */ \

AFAPI array OP (const unsigned& lhs, const array& rhs); /**< \copydoc OP (const array&, const array&) */ \

AFAPI array OP (const char& lhs, const array& rhs); /**< \copydoc OP (const array&, const array&) */ \

AFAPI array OP (const unsigned char& lhs, const array& rhs); /**< \copydoc OP (const array&, const array&) */ \

AFAPI array OP (const long& lhs, const array& rhs); /**< \copydoc OP (const array&, const array&) */ \

AFAPI array OP (const unsigned long& lhs, const array& rhs); /**< \copydoc OP (const array&, const array&) */ \

AFAPI array OP (const long long& lhs, const array& rhs); /**< \copydoc OP (const array&, const array&) */ \

AFAPI array OP (const unsigned long long& lhs, const array& rhs); /**< \copydoc OP (const array&, const array&) */ \

AFAPI array OP (const double& lhs, const array& rhs); /**< \copydoc OP (const array&, const array&) */ \

AFAPI array OP (const float& lhs, const array& rhs); /**< \copydoc OP (const array&, const array&) */ \

AFAPI array OP (const cfloat& lhs, const array& rhs); /**< \copydoc OP (const array&, const array&) */ \

AFAPI array OP (const cdouble& lhs, const array& rhs); /**< \copydoc OP (const array&, const array&) */ \

AFAPI array OP (const array& lhs, const bool& rhs); /**< \copydoc OP (const array&, const array&) */ \

AFAPI array OP (const array& lhs, const int& rhs); /**< \copydoc OP (const array&, const array&) */ \

AFAPI array OP (const array& lhs, const unsigned& rhs); /**< \copydoc OP (const array&, const array&) */ \

AFAPI array OP (const array& lhs, const char& rhs); /**< \copydoc OP (const array&, const array&) */ \

AFAPI array OP (const array& lhs, const unsigned char& rhs); /**< \copydoc OP (const array&, const array&) */ \

AFAPI array OP (const array& lhs, const long& rhs); /**< \copydoc OP (const array&, const array&) */ \

AFAPI array OP (const array& lhs, const unsigned long& rhs); /**< \copydoc OP (const array&, const array&) */ \

AFAPI array OP (const array& lhs, const long long& rhs); /**< \copydoc OP (const array&, const array&) */ \