Types are organized in a hierarchy based on the basic interface mi::IData. More...

Modules
	Simple Types
	This module lists all interfaces related to simple types.

	Collections
	This module and its submodule Compounds list all interfaces related to collections.

Classes
class	mi::neuraylib::IBuffer
	Abstract interface for a simple buffer with binary data. More...

class	mi::IData
	This interface is the base interface of all types. More...

class	mi::IEnum_decl
	An enum declaration is used to describe enum types. More...

class	mi::neuraylib::IFactory
	This API component allows the creation, assignment, and cloning of instances of types. More...

class	mi::IStructure_decl
	A structure declaration is used to describe structure types. More...

struct	mi::Type_traits<I>
	Type traits relating interfaces, corresponding primitive types, and their type names. More...

Functions
template<class T>
mi::Sint32	mi::set_value (mi::IData *data, const T &value)
	Simplifies setting the value of mi::IData from the corresponding classes from the base and math API. More...

mi::Sint32	mi::set_value (mi::IData data, const char value)
	This specialization handles mi::IString and mi::IRef. More...

mi::Sint32	mi::set_value (mi::IData *data, const std::string &value)
	This specialization handles mi::IString and mi::IRef. More...

mi::Sint32	mi::set_value (mi::IData *data, const mi::base::Uuid &value)
	This specialization handles mi::IUuid. More...

template<class T , Size DIM>
mi::Sint32	mi::set_value (mi::IData *data, const mi::math::Vector<T, DIM> &value)
	This specialization handles the vector specializations of mi::ICompound. More...

template<class T , Size ROW, Size COL>
mi::Sint32	mi::set_value (mi::IData *data, const mi::math::Matrix<T, ROW, COL> &value)
	This specialization handles the matrix specializations of mi::ICompound. More...

mi::Sint32	mi::set_value (mi::IData *data, const mi::Color &value)
	This specialization handles mi::IColor and mi::IColor3. More...

mi::Sint32	mi::set_value (mi::IData *data, const mi::Spectrum &value)
	This specialization handles mi::ISpectrum. More...

mi::Sint32	mi::set_value (mi::IData *data, const mi::Bbox3 &value)
	This specialization handles mi::IBbox3. More...

template<class T>
mi::Sint32	mi::set_value (mi::IData *data, mi::Size index, const T &value)
	This variant handles elements of collections identified via an additional index. More...

template<class T>
mi::Sint32	mi::set_value (mi::IData data, const char key, const T &value)
	This variant handles elements of collections identified via an additional key. More...

template<class T>
mi::Sint32	mi::set_value (mi::IData data, const T values, mi::Size n)
	This variant handles entire arrays (as C-like array). More...

template<class T>
mi::Sint32	mi::set_value (mi::IData *data, const std::vector<T> &values)
	This variant handles entire arrays (as std::vector). More...

template<class T>
mi::Sint32	mi::get_value (const mi::IData *data, T &value)
	Simplifies reading the value of mi::IData into the corresponding classes from the base and math API. More...

mi::Sint32	mi::get_value (const mi::IData data, const char &value)
	This specialization handles mi::IString and mi::IRef. More...

mi::Sint32	mi::get_value (const mi::IData *data, mi::base::Uuid &value)
	This specialization handles mi::IUuid. More...

template<class T , Size DIM>
mi::Sint32	mi::get_value (const mi::IData *data, mi::math::Vector<T, DIM> &value)
	This specialization handles the vector specializations of mi::ICompound. More...

template<class T , Size ROW, Size COL>
mi::Sint32	mi::get_value (const mi::IData *data, mi::math::Matrix<T, ROW, COL> &value)
	This specialization handles the matrix specializations of mi::ICompound. More...

mi::Sint32	mi::get_value (const mi::IData *data, mi::Color &value)
	This specialization handles mi::IColor and mi::IColor3. More...

mi::Sint32	mi::get_value (const mi::IData *data, mi::Spectrum &value)
	This specialization handles mi::ISpectrum. More...

mi::Sint32	mi::get_value (const mi::IData *data, mi::Bbox3 &value)
	This specialization handles mi::IBbox3. More...

template<class T>
mi::Sint32	mi::get_value (const mi::IData *data, mi::Size index, T &value)
	This variant handles elements of collections identified via an additional index. More...

template<class T>
mi::Sint32	mi::get_value (const mi::IData data, const char key, T &value)
	This variant handles elements of collections identified via an additional key. More...

template<class T>
mi::Sint32	mi::get_value (const mi::IData data, T values, mi::Size n)
	This variant handles entire arrays (as C-like arrays). More...

template<class T>
mi::Sint32	mi::get_value (const mi::IData *data, std::vector<T> &values)
	This variant handles entire arrays (as std::vector). More...

mi::Sint32	mi::get_value (const mi::IData *data, std::string &value)
	This variant handles strings as std::string. More...

Detailed Description

Types are organized in a hierarchy based on the basic interface mi::IData.

The hierarchy of types based on mi::IData is split into two branches, simple types (derived from mi::IData_simple) and collections (derived from mi::IData_collection). Simple types are e.g. numbers and strings. Collections are e.g. arrays, structures, maps, vectors, and matrices.

Types are identified by type names. The method mi::IData::get_type_name() returns the type name of an instance of mi::IData. Most notably type names are used to create instances of types via mi::neuraylib::IFactory::create() and mi::neuraylib::ITransaction::create() , and to create attributes or to query their type.

Since there is a very high number of interfaces related to types they are not listed in this module. Rather they have been split into three submodules Simple Types, Collections, and Compounds (compounds are a subset of the collections).

The free functions mi::set_value() and mi::get_value() including the various specializations may help to write/read values to/from instances of mi::IData.

Simple types

Simple types are booleans, integral and floating-point numbers, strings, UUIDs, void, pointers, and references. All interfaces of the simple types are derived from mi::IData_simple. For most simple types there is an equivalent C++ class. With the exception of pointers, references, and enums the type name of simple types equals the interface name without the leading "I". See also the module Simple Types.

Type name	Attribute type	Interface	C++ class	Description
`"Boolean"`	yes	mi::IBoolean	bool	Boolean
`"Sint8"`	yes	mi::ISint8	mi::Sint8	Signed 8-bit integer
`"Sint16"`	yes	mi::ISint16	mi::Sint16	Signed 16-bit integer
`"Sint32"`	yes	mi::ISint32	mi::Sint32	Signed 32-bit integer
`"Sint64"`	yes	mi::ISint64	mi::Sint64	Signed 64-bit integer
`"Uint8"`	no	mi::IUint8	mi::Uint8	Unsigned 8-bit integer
`"Uint16"`	no	mi::IUint16	mi::Uint16	Unsigned 16-bit integer
`"Uint32"`	no	mi::IUint32	mi::Uint32	Unsigned 32-bit integer
`"Uint64"`	no	mi::IUint64	mi::Uint64	Unsigned 64-bit integer
`"Float32"`	yes	mi::IFloat32	mi::Float32	32-bit IEEE-754 single-precision floating-point number
`"Float64"`	yes	mi::IFloat64	mi::Float64	64-bit IEEE-754 double-precision floating-point number
`"Difference"`	no	mi::IDifference	mi::Difference	Signed 32-bit or 64-bit integer, depending on the architecture
`"Size"`	no	mi::ISize	mi::Size	Unsigned 32-bit or 64-bit integer, depending on the architecture
`"String"`	yes	mi::IString	const char*	String representation in ISO-8859-1 encoding
`"Uuid"`	no	mi::IUuid	mi::base::Uuid	Universally unique identifier (UUID)
`"Void"`	no	mi::IVoid	void	Void type
`"Pointer<T>"`	no	mi::IPointer	-	Mutable pointer to an instance of type T
`"Const_pointer<T>"`	no	mi::IConst_pointer	-	Const pointer to an instance of type T
as registered (1)	yes	mi::IEnum	-	Subsets of mi::Sint32 values, identified by strings
`"Ref"`	yes	mi::IRef	-	Reference to another database element

(1) The type name of an enum is specific to the actual enum type. There is no naming pattern as for the other simple types.

Collections

Collections are static and dynamic arrays, maps, structures, and compounds (for compounds see separate section below). All interfaces of collections are derived from mi::IData_collection. For all collection types there are similar constructs in C++, but there are no directly equivalent C++ classes as for the simple types. The type names of collections are typically constructed according to certain rules, typically involving the type name of the contained elements or values. See the table below for examples or the corresponding interfaces for an exact description. See also the module Collections.

Type name	Attribute type	Interface	C++ class	Description
`"T[N]"`	yes (2)(3)	mi::IArray	-	Static array of N elements of type T, N > 0
`"T[]"`	yes (2)	mi::IDynamic_array	-	Dynamic array of elements of type T
`"Map<T>"`	no	mi::IMap	-	Set of key-value pairs, values are of type T
as registered (4)	yes	mi::IStructure	-	Ordered set of key-value pairs, values are of arbitrary types

(2) For attributes, the type of array elements must not be an array (but it can be a structure with arrays as members).
(3) For attributes, the array length N must not be zero.
(4) The type name of a structure is specific to the actual structure type. There is no naming pattern as for arrays or maps.

Compounds

Compound types are vectors, matrices, colors, spectrums, and bounding boxes. Actually, compounds belong to the set of collections, they are not a third kind of type besides simple types and collections.In the documentation they are split into their own module due to the very high number of interfaces and typedefs for compounds. See also the module Compounds.

For all compound types there is a C++ class from the math API as counterpart. Type names for vectors and matrices are based on the type name of the element followed by the dimension in angle brackets ("<N>" or "<M,N>", N = 2, 3, or 4).

Type name	Attribute type	Interface	C++ class	Description
`"Boolean<N>"`	yes	mi::IBoolean_2, ...	mi::Boolean_2, ...	N x bool vector, N = 2, 3, or 4
`"Sint32<N>"`	yes	mi::ISint32_2, ...	mi::Sint32_2, ...	N x Sint32 vector, N = 2, 3, or 4
`"Uint32<N>"`	no	mi::IUint32_2, ...	mi::Uint32_2, ...	N x Uint32 vector, N = 2, 3, or 4
`"Float32<N>"`	yes	mi::IFloat32_2, ...	mi::Float32_2, ...	N x Float32 vector, N = 2, 3, or 4
`"Float64<N>"`	yes	mi::IFloat64_2, ...	mi::Float64_2, ...	N x Float64 vector, N = 2, 3, or 4
`"Boolean<M,N>"`	no	mi::IBoolean_2_2, ...	mi::Boolean_2_2, ...	M x N matrix of bool, M, N = 2, 3, or 4
`"Sint32<M,N>"`	no	mi::ISint32_2_2, ...	mi::Sint32_2_2, ...	M x N matrix of Sint32, M, N = 2, 3, or 4
`"Uint32<M,N>"`	no	mi::IUint32_2_2, ...	mi::Uint32_2_2, ...	M x N matrix of Uint32, M, N = 2, 3, or 4
`"Float32<M,N>"`	yes	mi::IFloat32_2_2, ...	mi::Float32_2_2, ...	M x N matrix of Float32, M, N = 2, 3, or 4
`"Float64<M,N>"`	yes	mi::IFloat64_2_2, ...	mi::Float64_2_2, ...	M x N matrix of Float64, M, N = 2, 3, or 4
`"Color"`	yes	mi::IColor	mi::Color	4 x Float32 representing RGBA color
`"Color3"`	yes	mi::IColor3	mi::Color	3 x Float32 representing RGB color
`"Spectrum"`	yes	mi::ISpectrum	mi::Spectrum	3 x Float32 representing three color bands
`"Bbox3"`	no	mi::IBbox3	mi::Bbox3	Bounding box, represented by two mi::Float32_3

Pixel types

Pixel types denote the type of the pixel of a canvas or image. The table below lists the valid pixel types. See also mi::neuraylib::ICanvas and mi::neuraylib::ITile.

Type name	Interface	C++ class	Description
`"Sint8"`	mi::ISint8	mi::Sint8	Signed 8-bit integer (6)
`"Sint32"`	mi::ISint32	mi::Sint32	Signed 32-bit integer
`"Float32"`	mi::IFloat32	mi::Float32	32-bit IEEE-754 single-precision floating-point number
`"Float32<2>"`	mi::IFloat32_2	mi::Float32_2	2 x Float32
`"Float32<3>"`	mi::IFloat32_3	mi::Float32_3	3 x Float32
`"Float32<4>"`	mi::IFloat32_4	mi::Float32_4	4 x Float32
`"Rgb"`	-	-	3 x Uint8 representing RGB color
`"Rgba"`	-	-	4 x Uint8 representing RGBA color
`"Rgbe"`	-	-	4 x Uint8 representing RGBE color
`"Rgbea"`	-	-	5 x Uint8 representing RGBEA color
`"Rgb_16"`	-	-	3 x Uint16 representing RGB color
`"Rgba_16"`	-	-	4 x Uint16 representing RGBA color
`"Rgb_fp"`	-	-	3 x Float32 representing RGB color
`"Color"`	mi::IColor	mi::Color	4 x Float32 representing RGBA color

(6) For most purposes, in particular for pixel type conversion, the data is actually treated as unsigned 8-bit integer.

Function Documentation

^◆ get_value() [1/13]

mi::Sint32 mi::get_value	(	const mi::IData *	data,
		const char *&	value
	)

inline

This specialization handles mi::IString and mi::IRef.

It expects a const char* argument. See mi::get_value() for details.

^◆ get_value() [2/13]

template<class T>

mi::Sint32 mi::get_value	(	const mi::IData *	data,
		const char *	key,
		T &	value
	)

This variant handles elements of collections identified via an additional key.

Parameters

data	The instance of mi::IData to read.
key	The key of the affected collection element.
value	The new value will be stored here.

Returns

0: Success.
-1: The dynamic type of data does not match the static type of value.
-3: The key is not valid.

^◆ get_value() [3/13]

mi::Sint32 mi::get_value	(	const mi::IData *	data,
		mi::base::Uuid &	value
	)

inline

This specialization handles mi::IUuid.

It expects an mi::base::Uuid argument. See mi::get_value() for details.

^◆ get_value() [4/13]

mi::Sint32 mi::get_value	(	const mi::IData *	data,
		mi::Bbox3 &	value
	)

inline

This specialization handles mi::IBbox3.

It expects an mi::Bbox3 argument. See mi::get_value() for details.

^◆ get_value() [5/13]

mi::Sint32 mi::get_value	(	const mi::IData *	data,
		mi::Color &	value
	)

inline

This specialization handles mi::IColor and mi::IColor3.

It expects an mi::Color argument. See mi::get_value() for details.

^◆ get_value() [6/13]

template<class T , Size ROW, Size COL>

mi::Sint32 mi::get_value	(	const mi::IData *	data,
		mi::math::Matrix<T, ROW, COL> &	value
	)

This specialization handles the matrix specializations of mi::ICompound.

It expects one of the following specializations of mi::math::Matrix as its second argument:

mi::Boolean_2_2, mi::Boolean_2_3, ..., mi::Boolean_4_4
mi::Sint32_2_2, mi::Sint32_2_3, ..., mi::Sint32_4_4
mi::Uint32_2_2, mi::Uint32_2_3, ..., mi::Uint32_4_4
mi::Float32_2_2, mi::Float32_2_3,..., mi::Float32_4_4
mi::Float64_2_2, mi::Float64_2_3,..., mi::Float64_4_4

See mi::get_value() for details.

^◆ get_value() [7/13]

template<class T , Size DIM>

mi::Sint32 mi::get_value	(	const mi::IData *	data,
		mi::math::Vector<T, DIM> &	value
	)

inline

This specialization handles the vector specializations of mi::ICompound.

It expects one of the following specializations of mi::math::Vector as its second argument:

See mi::get_value() for details.

^◆ get_value() [8/13]

template<class T>

mi::Sint32 mi::get_value	(	const mi::IData *	data,
		mi::Size	index,
		T &	value
	)

This variant handles elements of collections identified via an additional index.

Parameters

data	The instance of mi::IData to read.
index	The index of the affected collection element.
value	The new value will be stored here.

Returns

0: Success.
-1: The dynamic type of data does not match the static type of value.
-3: The index is not valid.

^◆ get_value() [9/13]

mi::Sint32 mi::get_value	(	const mi::IData *	data,
		mi::Spectrum &	value
	)

inline

This specialization handles mi::ISpectrum.

It expects an mi::Spectrum argument. See mi::get_value() for details.

^◆ get_value() [10/13]

mi::Sint32 mi::get_value	(	const mi::IData *	data,
		std::string &	value
	)

inline

This variant handles strings as std::string.

See also mi::get_value(const IData*,const char*&) for C-strings.

Parameters

data	The instance of mi::IData to read.
value	The new values will be stored here.

Returns

0: Success.
-1: The dynamic type of data does not match.

^◆ get_value() [11/13]

template<class T>

mi::Sint32 mi::get_value	(	const mi::IData *	data,
		std::vector<T> &	values
	)

This variant handles entire arrays (as std::vector).

See also mi::get_value(const IData*,T*,mi::Size) for C-like arrays.

Parameters

data	The instance of mi::IData to read.
values	The new values will be stored here. The vector will be resized accordingly.

Returns

0: Success.
-1: The dynamic type of data is not an array, or the dynamic type of the array elements does not match the static type of values.

^◆ get_value() [12/13]

template<class T>

mi::Sint32 mi::get_value	(	const mi::IData *	data,
		T &	value
	)

Simplifies reading the value of mi::IData into the corresponding classes from the base and math API.

Parameters

	data	The instance of mi::IData to read.
[out]	value	The new value will be stored here.

Returns

0: Success.
-1: The dynamic type of data does not match the static type of value.

This general template handles mi::INumber, and expects one of the following types as second argument:

bool,
mi::Sint8, mi::Sint16, mi::Sint32, mi::Sint64,
mi::Uint8, mi::Uint16, mi::Uint32, mi::Uint64,
mi::Size, mi::Difference
mi::Float32, or mi::Float64.

It also handles mi::IEnum and expects an mi::Sint32 argument in that case.

^◆ get_value() [13/13]

template<class T>

mi::Sint32 mi::get_value	(	const mi::IData *	data,
		T *	values,
		mi::Size	n
	)

This variant handles entire arrays (as C-like arrays).

See also mi::get_value(const IData*,std::vector<T>&) for std::vector support.

Parameters

data	The instance of mi::IData to read.
values	The new values will be stored here (as pointer to a C-like array).
n	The size of the C-like array (needs to match the size of `data`).

Returns

0: Success.
-1: The dynamic type of data is not an array, or the dynamic type of the array elements does not match the static type of values.
-5: The array sizes do not match.

^◆ set_value() [1/13]

template<class T>

mi::Sint32 mi::set_value	(	mi::IData *	data,
		const char *	key,
		const T &	value
	)

This variant handles elements of collections identified via an additional key.

Parameters

data	The instance of mi::IData to modify.
key	The key of the affected collection element.
value	The new value to be set.

Returns

0: Success.
-1: The dynamic type of data does not match the static type of value.
-2: The value of value is not valid.
-3: The key is not valid.

^◆ set_value() [2/13]

mi::Sint32 mi::set_value	(	mi::IData *	data,
		const char *	value
	)

inline

This specialization handles mi::IString and mi::IRef.

It expects a const char* argument. See mi::set_value() for details.

^◆ set_value() [3/13]

mi::Sint32 mi::set_value	(	mi::IData *	data,
		const mi::base::Uuid &	value
	)

inline

This specialization handles mi::IUuid.

It expects an mi::base::Uuid argument. See mi::set_value() for details.

^◆ set_value() [4/13]

mi::Sint32 mi::set_value	(	mi::IData *	data,
		const mi::Bbox3 &	value
	)

inline

This specialization handles mi::IBbox3.

It expects an mi::Bbox3 argument. See mi::set_value() for details.

^◆ set_value() [5/13]

mi::Sint32 mi::set_value	(	mi::IData *	data,
		const mi::Color &	value
	)

inline

This specialization handles mi::IColor and mi::IColor3.

It expects an mi::Color argument. See mi::set_value() for details.

^◆ set_value() [6/13]

template<class T , Size ROW, Size COL>

mi::Sint32 mi::set_value	(	mi::IData *	data,
		const mi::math::Matrix<T, ROW, COL> &	value
	)

This specialization handles the matrix specializations of mi::ICompound.

It expects one of the following specializations of mi::math::Matrix as its second argument:

mi::Boolean_2_2, mi::Boolean_2_3, ..., mi::Boolean_4_4
mi::Sint32_2_2, mi::Sint32_2_3, ..., mi::Sint32_4_4
mi::Uint32_2_2, mi::Uint32_2_3, ..., mi::Uint32_4_4
mi::Float32_2_2, mi::Float32_2_3,..., mi::Float32_4_4
mi::Float64_2_2, mi::Float64_2_3,..., mi::Float64_4_4

See mi::set_value() for details.

^◆ set_value() [7/13]

template<class T , Size DIM>

mi::Sint32 mi::set_value	(	mi::IData *	data,
		const mi::math::Vector<T, DIM> &	value
	)

inline

This specialization handles the vector specializations of mi::ICompound.

It expects one of the following specializations of mi::math::Vector as its second argument:

See mi::set_value() for details.

^◆ set_value() [8/13]

mi::Sint32 mi::set_value	(	mi::IData *	data,
		const mi::Spectrum &	value
	)

inline

This specialization handles mi::ISpectrum.

It expects an mi::Spectrum argument. See mi::set_value() for details.

^◆ set_value() [9/13]

mi::Sint32 mi::set_value	(	mi::IData *	data,
		const std::string &	value
	)

inline

This specialization handles mi::IString and mi::IRef.

It expects a const std::string& argument. See mi::set_value() for details.

^◆ set_value() [10/13]

template<class T>

mi::Sint32 mi::set_value	(	mi::IData *	data,
		const std::vector<T> &	values
	)

This variant handles entire arrays (as std::vector).

See also mi::set_value(mi::IData*,const T*,mi::Size) for C-like arrays.

Parameters

data	The instance of mi::IData to modify.
values	The new values to be set. If `data` is a dynamic array, then it is resized accordingly. If `data` is a static array, then its size needs to match the size of `values`.

Returns

0: Success.
-1: The dynamic type of data is not an array, or the dynamic type of the array elements does not match the static type of values.
-2: At least one value of values is not valid (possibly incomplete operation)
-5: The array sizes do not match (if data is a static array).

^◆ set_value() [11/13]

template<class T>

mi::Sint32 mi::set_value	(	mi::IData *	data,
		const T &	value
	)

Simplifies setting the value of mi::IData from the corresponding classes from the base and math API.

Parameters

data	The instance of mi::IData to modify.
value	The new value to be set.

Returns

0: Success.
-1: The dynamic type of data does not match the static type of value.
-2: The value of value is not valid.

This general template handles mi::INumber and expects one of the following types as second argument:

bool,
mi::Sint8, mi::Sint16, mi::Sint32, mi::Sint64,
mi::Uint8, mi::Uint16, mi::Uint32, mi::Uint64,
mi::Size, mi::Difference
mi::Float32, or mi::Float64.

It also handles mi::IEnum and expects an mi::Sint32 argument in that case.

^◆ set_value() [12/13]

template<class T>

mi::Sint32 mi::set_value	(	mi::IData *	data,
		const T *	values,
		mi::Size	n
	)

This variant handles entire arrays (as C-like array).

See also mi::set_value(mi::IData*,const std::vector<T>&) for std::vector support.

Parameters

data	The instance of mi::IData to modify.
values	The new values to be set (as pointer to a C-like array).
n	The size of the C-like array. If `data` is a dynamic array, then it is resized accordingly. If `data` is a static array, then `n` needs to match the size of `data`.

Returns

0: Success.
-1: The dynamic type of data is not an array, or the dynamic type of the array elements does not match the static type of values.
-2: At least one value of values is not valid (possibly incomplete operation).
-5: The array sizes do not match (if data is a static array).

^◆ set_value() [13/13]

template<class T>

mi::Sint32 mi::set_value	(	mi::IData *	data,
		mi::Size	index,
		const T &	value
	)

This variant handles elements of collections identified via an additional index.

Parameters

data	The instance of mi::IData to modify.
index	The index of the affected collection element.
value	The new value to be set.

Returns

0: Success.
-1: The dynamic type of data does not match the static type of value.
-2: The value of value is not valid.
-3: The index or key is not valid for the collection.

Modules

Classes

Functions

Detailed Description

Function Documentation

◆ get_value() [1/13]

◆ get_value() [2/13]

◆ get_value() [3/13]

◆ get_value() [4/13]

◆ get_value() [5/13]

◆ get_value() [6/13]

◆ get_value() [7/13]

◆ get_value() [8/13]

◆ get_value() [9/13]

◆ get_value() [10/13]

◆ get_value() [11/13]

◆ get_value() [12/13]

◆ get_value() [13/13]

◆ set_value() [1/13]

◆ set_value() [2/13]

◆ set_value() [3/13]

◆ set_value() [4/13]

◆ set_value() [5/13]

◆ set_value() [6/13]

◆ set_value() [7/13]

◆ set_value() [8/13]

◆ set_value() [9/13]

◆ set_value() [10/13]

◆ set_value() [11/13]

◆ set_value() [12/13]

◆ set_value() [13/13]

^◆ get_value() [1/13]

^◆ get_value() [2/13]

^◆ get_value() [3/13]

^◆ get_value() [4/13]

^◆ get_value() [5/13]

^◆ get_value() [6/13]

^◆ get_value() [7/13]

^◆ get_value() [8/13]

^◆ get_value() [9/13]

^◆ get_value() [10/13]

^◆ get_value() [11/13]

^◆ get_value() [12/13]

^◆ get_value() [13/13]

^◆ set_value() [1/13]

^◆ set_value() [2/13]

^◆ set_value() [3/13]

^◆ set_value() [4/13]

^◆ set_value() [5/13]

^◆ set_value() [6/13]

^◆ set_value() [7/13]

^◆ set_value() [8/13]

^◆ set_value() [9/13]

^◆ set_value() [10/13]

^◆ set_value() [11/13]

^◆ set_value() [12/13]

^◆ set_value() [13/13]