ACIL FM

Nama	Ukuran	Aksi
backward	-	Open
bits	-	Open
debug	-	Open
decimal	-	Open
experimental	-	Open
ext	-	Open
parallel	-	Open
pstl	-	Open
tr1	-	Open
tr2	-	Open
x86_64-redhat-linux	-	Open
algorithm	2.97 MB	View DL Edit
any	18.32 MB	View DL Edit
array	13.51 MB	View DL Edit
atomic	47.66 MB	View DL Edit
barrier	7.84 MB	View DL Edit
bit	11.9 MB	View DL Edit
bitset	44.92 MB	View DL Edit
cassert	1.61 MB	View DL Edit
ccomplex	1.3 MB	View DL Edit
cctype	2.35 MB	View DL Edit
cerrno	1.73 MB	View DL Edit
cfenv	2 MB	View DL Edit
cfloat	1.84 MB	View DL Edit
charconv	19.3 MB	View DL Edit
chrono	94.93 MB	View DL Edit
cinttypes	2.11 MB	View DL Edit
ciso646	1.43 MB	View DL Edit
climits	1.87 MB	View DL Edit
clocale	1.86 MB	View DL Edit
cmath	48.22 MB	View DL Edit
codecvt	5.15 MB	View DL Edit
compare	27.61 MB	View DL Edit
complex	55.37 MB	View DL Edit
complex.h	1.56 MB	View DL Edit
concepts	11.94 MB	View DL Edit
condition_variable	12.48 MB	View DL Edit
coroutine	8.94 MB	View DL Edit
csetjmp	1.9 MB	View DL Edit
csignal	1.81 MB	View DL Edit
cstdalign	1.37 MB	View DL Edit
cstdarg	1.82 MB	View DL Edit
cstdbool	1.37 MB	View DL Edit
cstddef	6.53 MB	View DL Edit
cstdint	2.28 MB	View DL Edit
cstdio	4.33 MB	View DL Edit
cstdlib	6.18 MB	View DL Edit
cstring	3.08 MB	View DL Edit
ctgmath	1.33 MB	View DL Edit
ctime	2.24 MB	View DL Edit
cuchar	2.16 MB	View DL Edit
cwchar	6.39 MB	View DL Edit
cwctype	2.73 MB	View DL Edit
cxxabi.h	21.76 MB	View DL Edit
deque	3.88 MB	View DL Edit
exception	4.9 MB	View DL Edit
execution	1.76 MB	View DL Edit
fenv.h	1.97 MB	View DL Edit
filesystem	1.61 MB	View DL Edit
forward_list	2.63 MB	View DL Edit
fstream	39.73 MB	View DL Edit
functional	39.26 MB	View DL Edit
future	51.05 MB	View DL Edit
initializer_list	2.97 MB	View DL Edit
iomanip	16.16 MB	View DL Edit
ios	1.56 MB	View DL Edit
iosfwd	7.34 MB	View DL Edit
iostream	2.63 MB	View DL Edit
istream	33.3 MB	View DL Edit
iterator	2.69 MB	View DL Edit
latch	2.67 MB	View DL Edit
limits	69.99 MB	View DL Edit
list	3.57 MB	View DL Edit
locale	1.45 MB	View DL Edit
map	3.84 MB	View DL Edit
math.h	4.47 MB	View DL Edit
memory	4.41 MB	View DL Edit
memory_resource	20.62 MB	View DL Edit
mutex	23.66 MB	View DL Edit
new	8.15 MB	View DL Edit
numbers	6.07 MB	View DL Edit
numeric	25.5 MB	View DL Edit
optional	39.23 MB	View DL Edit
ostream	25.37 MB	View DL Edit
queue	2.41 MB	View DL Edit
random	1.65 MB	View DL Edit
ranges	104.69 MB	View DL Edit
ratio	19.64 MB	View DL Edit
regex	2.79 MB	View DL Edit
scoped_allocator	17.24 MB	View DL Edit
semaphore	2.93 MB	View DL Edit
set	3.71 MB	View DL Edit
shared_mutex	24.01 MB	View DL Edit
source_location	2.68 MB	View DL Edit
span	12.82 MB	View DL Edit
sstream	38.31 MB	View DL Edit
stack	2.33 MB	View DL Edit
stdexcept	9.65 MB	View DL Edit
stdlib.h	2.2 MB	View DL Edit
stop_token	15.61 MB	View DL Edit
streambuf	29.19 MB	View DL Edit
string	4.54 MB	View DL Edit
string_view	25.59 MB	View DL Edit
syncstream	8.13 MB	View DL Edit
system_error	14.65 MB	View DL Edit
tgmath.h	1.33 MB	View DL Edit
thread	5.78 MB	View DL Edit
tuple	61.71 MB	View DL Edit
typeindex	3.43 MB	View DL Edit
typeinfo	7.56 MB	View DL Edit
type_traits	105.12 MB	View DL Edit
unordered_map	3.39 MB	View DL Edit
unordered_set	3.26 MB	View DL Edit
utility	14.48 MB	View DL Edit
valarray	39.74 MB	View DL Edit
variant	61.39 MB	View DL Edit
vector	4.17 MB	View DL Edit
version	9.05 MB	View DL Edit

Edit file: /usr/include/c++/11/scoped_allocator

// <scoped_allocator> -*- C++ -*-

// Copyright (C) 2011-2021 Free Software Foundation, Inc.
//
// This file is part of the GNU ISO C++ Library.  This library is free
// software; you can redistribute it and/or modify it under the
// terms of the GNU General Public License as published by the
// Free Software Foundation; either version 3, or (at your option)
// any later version.

// This library is distributed in the hope that it will be useful,
// but WITHOUT ANY WARRANTY; without even the implied warranty of
// MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.  See the
// GNU General Public License for more details.

// Under Section 7 of GPL version 3, you are granted additional
// permissions described in the GCC Runtime Library Exception, version
// 3.1, as published by the Free Software Foundation.

// You should have received a copy of the GNU General Public License and
// a copy of the GCC Runtime Library Exception along with this program;
// see the files COPYING3 and COPYING.RUNTIME respectively.  If not, see
// <http://www.gnu.org/licenses/>.

/** @file include/scoped_allocator
 *  This is a Standard C++ Library header.
 *  @ingroup allocators
 */

#ifndef _SCOPED_ALLOCATOR
#define _SCOPED_ALLOCATOR 1

#pragma GCC system_header

#if __cplusplus < 201103L
# include <bits/c++0x_warning.h>
#else

#include <tuple>
#include <bits/alloc_traits.h>
#include <bits/stl_pair.h>
#include <bits/uses_allocator.h>
#if __cplusplus > 201703L
# include <bits/uses_allocator_args.h>
#endif

namespace std _GLIBCXX_VISIBILITY(default)
{
_GLIBCXX_BEGIN_NAMESPACE_VERSION

/**
   * @addtogroup allocators
   * @{
   */

template<typename _OuterAlloc, typename... _InnerAllocs>
    class scoped_allocator_adaptor;

/// @cond undocumented

template<typename _Alloc>
    using __outer_allocator_t
      = decltype(std::declval<_Alloc>().outer_allocator());

template<typename _Alloc, typename = void>
    struct __outermost_type
    {
      using type = _Alloc;
      static type& _S_outermost(_Alloc& __a) { return __a; }
    };

template<typename _Alloc>
    struct __outermost_type<_Alloc, __void_t<__outer_allocator_t<_Alloc>>>
    : __outermost_type<
      typename remove_reference<__outer_allocator_t<_Alloc>>::type
    >
    {
      using __base = __outermost_type<
        typename remove_reference<__outer_allocator_t<_Alloc>>::type
      >;

static typename __base::type&
      _S_outermost(_Alloc& __a)
      { return __base::_S_outermost(__a.outer_allocator()); }
    };

// Implementation of the OUTERMOST pseudofunction
  template<typename _Alloc>
    inline typename __outermost_type<_Alloc>::type&
    __outermost(_Alloc& __a)
    { return __outermost_type<_Alloc>::_S_outermost(__a); }

template<typename...>
    struct __inner_type_impl;

template<typename _Outer>
    struct __inner_type_impl<_Outer>
    {
      typedef scoped_allocator_adaptor<_Outer> __type;

__inner_type_impl() = default;
      __inner_type_impl(const __inner_type_impl&) = default;
      __inner_type_impl(__inner_type_impl&&) = default;
      __inner_type_impl& operator=(const __inner_type_impl&) = default;
      __inner_type_impl& operator=(__inner_type_impl&&) = default;

template<typename _Alloc>
      __inner_type_impl(const __inner_type_impl<_Alloc>& __other)
      { }

template<typename _Alloc>
      __inner_type_impl(__inner_type_impl<_Alloc>&& __other)
      { }

__type&
      _M_get(__type* __p) noexcept { return *__p; }

const __type&
      _M_get(const __type* __p) const noexcept { return *__p; }

tuple<>
      _M_tie() const noexcept { return tuple<>(); }

bool
      operator==(const __inner_type_impl&) const noexcept
      { return true; }
    };

template<typename _Outer, typename _InnerHead, typename... _InnerTail>
    struct __inner_type_impl<_Outer, _InnerHead, _InnerTail...>
    {
      typedef scoped_allocator_adaptor<_InnerHead, _InnerTail...> __type;

template<typename... _Allocs>
      __inner_type_impl(const __inner_type_impl<_Allocs...>& __other)
      : _M_inner(__other._M_inner) { }

template<typename... _Allocs>
      __inner_type_impl(__inner_type_impl<_Allocs...>&& __other)
      : _M_inner(std::move(__other._M_inner)) { }

template<typename... _Args>
      explicit
      __inner_type_impl(_Args&&... __args)
      : _M_inner(std::forward<_Args>(__args)...) { }

__type&
      _M_get(void*) noexcept { return _M_inner; }

const __type&
      _M_get(const void*) const noexcept { return _M_inner; }

tuple<const _InnerHead&, const _InnerTail&...>
      _M_tie() const noexcept
      { return _M_inner._M_tie(); }

bool
      operator==(const __inner_type_impl& __other) const noexcept
      { return _M_inner == __other._M_inner; }

private:
      template<typename...> friend class __inner_type_impl;
      template<typename, typename...> friend class scoped_allocator_adaptor;

__type _M_inner;
    };

/// @endcond

/// An adaptor to recursively pass an allocator to the objects it constructs
  template<typename _OuterAlloc, typename... _InnerAllocs>
    class scoped_allocator_adaptor
    : public _OuterAlloc
    {
      typedef allocator_traits<_OuterAlloc> __traits;

typedef __inner_type_impl<_OuterAlloc, _InnerAllocs...> __inner_type;
      __inner_type _M_inner;

template<typename _Outer, typename... _Inner>
        friend class scoped_allocator_adaptor;

template<typename...>
        friend class __inner_type_impl;

tuple<const _OuterAlloc&, const _InnerAllocs&...>
      _M_tie() const noexcept
      { return std::tuple_cat(std::tie(outer_allocator()), _M_inner._M_tie()); }

template<typename _Alloc>
	using __outermost_alloc_traits
	  = allocator_traits<typename __outermost_type<_Alloc>::type>;

#if ! __cpp_lib_make_obj_using_allocator
      template<typename _Tp, typename... _Args>
        void
        _M_construct(__uses_alloc0, _Tp* __p, _Args&&... __args)
        {
	  typedef __outermost_alloc_traits<scoped_allocator_adaptor> _O_traits;
	  _O_traits::construct(__outermost(*this), __p,
			       std::forward<_Args>(__args)...);
        }

typedef __uses_alloc1<typename __inner_type::__type> __uses_alloc1_;
      typedef __uses_alloc2<typename __inner_type::__type> __uses_alloc2_;

template<typename _Tp, typename... _Args>
        void
        _M_construct(__uses_alloc1_, _Tp* __p, _Args&&... __args)
        {
	  typedef __outermost_alloc_traits<scoped_allocator_adaptor> _O_traits;
	  _O_traits::construct(__outermost(*this), __p,
			       allocator_arg, inner_allocator(),
			       std::forward<_Args>(__args)...);
        }

template<typename _Tp, typename... _Args>
        void
        _M_construct(__uses_alloc2_, _Tp* __p, _Args&&... __args)
        {
	  typedef __outermost_alloc_traits<scoped_allocator_adaptor> _O_traits;
	  _O_traits::construct(__outermost(*this), __p,
			       std::forward<_Args>(__args)...,
			       inner_allocator());
        }
#endif // ! make_obj_using_allocator

template<typename _Alloc>
        static _Alloc
        _S_select_on_copy(const _Alloc& __a)
        {
          typedef allocator_traits<_Alloc> __a_traits;
          return __a_traits::select_on_container_copy_construction(__a);
        }

template<std::size_t... _Indices>
        scoped_allocator_adaptor(tuple<const _OuterAlloc&,
                                       const _InnerAllocs&...> __refs,
                                 _Index_tuple<_Indices...>)
        : _OuterAlloc(_S_select_on_copy(std::get<0>(__refs))),
          _M_inner(_S_select_on_copy(std::get<_Indices+1>(__refs))...)
        { }

// Used to constrain constructors to disallow invalid conversions.
      template<typename _Alloc>
        using _Constructible = typename enable_if<
            is_constructible<_OuterAlloc, _Alloc>::value
          >::type;

// _GLIBCXX_RESOLVE_LIB_DEFECTS
      // 2975. Missing case for pair construction in scoped [...] allocators
      template<typename _Tp>
	struct __not_pair { using type = void; };

template<typename _Tp, typename _Up>
	struct __not_pair<pair<_Tp, _Up>> { };

public:
      typedef _OuterAlloc                       outer_allocator_type;
      typedef typename __inner_type::__type     inner_allocator_type;

typedef typename __traits::value_type             value_type;
      typedef typename __traits::size_type              size_type;
      typedef typename __traits::difference_type        difference_type;
      typedef typename __traits::pointer                pointer;
      typedef typename __traits::const_pointer          const_pointer;
      typedef typename __traits::void_pointer           void_pointer;
      typedef typename __traits::const_void_pointer     const_void_pointer;

typedef typename __or_<
	typename __traits::propagate_on_container_copy_assignment,
	typename allocator_traits<_InnerAllocs>::
	  propagate_on_container_copy_assignment...>::type
	  propagate_on_container_copy_assignment;

typedef typename __or_<
	typename __traits::propagate_on_container_move_assignment,
	typename allocator_traits<_InnerAllocs>::
	  propagate_on_container_move_assignment...>::type
	  propagate_on_container_move_assignment;

typedef typename __or_<
	typename __traits::propagate_on_container_swap,
	typename allocator_traits<_InnerAllocs>::
	  propagate_on_container_swap...>::type
	  propagate_on_container_swap;

typedef typename __and_<
	typename __traits::is_always_equal,
	typename allocator_traits<_InnerAllocs>::is_always_equal...>::type
	  is_always_equal;

template <class _Tp>
        struct rebind
        {
          typedef scoped_allocator_adaptor<
            typename __traits::template rebind_alloc<_Tp>,
            _InnerAllocs...> other;
        };

scoped_allocator_adaptor() : _OuterAlloc(), _M_inner() { }

template<typename _Outer2, typename = _Constructible<_Outer2>>
        scoped_allocator_adaptor(_Outer2&& __outer,
                                 const _InnerAllocs&... __inner)
        : _OuterAlloc(std::forward<_Outer2>(__outer)),
          _M_inner(__inner...)
        { }

scoped_allocator_adaptor(const scoped_allocator_adaptor& __other)
      : _OuterAlloc(__other.outer_allocator()),
	_M_inner(__other._M_inner)
      { }

scoped_allocator_adaptor(scoped_allocator_adaptor&& __other)
      : _OuterAlloc(std::move(__other.outer_allocator())),
	_M_inner(std::move(__other._M_inner))
      { }

template<typename _Outer2, typename = _Constructible<const _Outer2&>>
        scoped_allocator_adaptor(
            const scoped_allocator_adaptor<_Outer2, _InnerAllocs...>& __other)
        : _OuterAlloc(__other.outer_allocator()),
          _M_inner(__other._M_inner)
        { }

template<typename _Outer2, typename = _Constructible<_Outer2>>
        scoped_allocator_adaptor(
            scoped_allocator_adaptor<_Outer2, _InnerAllocs...>&& __other)
        : _OuterAlloc(std::move(__other.outer_allocator())),
          _M_inner(std::move(__other._M_inner))
        { }

scoped_allocator_adaptor&
      operator=(const scoped_allocator_adaptor&) = default;

scoped_allocator_adaptor&
      operator=(scoped_allocator_adaptor&&) = default;

inner_allocator_type& inner_allocator() noexcept
      { return _M_inner._M_get(this); }

const inner_allocator_type& inner_allocator() const noexcept
      { return _M_inner._M_get(this); }

outer_allocator_type& outer_allocator() noexcept
      { return static_cast<_OuterAlloc&>(*this); }

const outer_allocator_type& outer_allocator() const noexcept
      { return static_cast<const _OuterAlloc&>(*this); }

_GLIBCXX_NODISCARD pointer allocate(size_type __n)
      { return __traits::allocate(outer_allocator(), __n); }

_GLIBCXX_NODISCARD pointer allocate(size_type __n, const_void_pointer __hint)
      { return __traits::allocate(outer_allocator(), __n, __hint); }

void deallocate(pointer __p, size_type __n)
      { return __traits::deallocate(outer_allocator(), __p, __n); }

size_type max_size() const
      { return __traits::max_size(outer_allocator()); }

#if ! __cpp_lib_make_obj_using_allocator
      template<typename _Tp, typename... _Args>
	typename __not_pair<_Tp>::type
	construct(_Tp* __p, _Args&&... __args)
	{
	  auto& __inner = inner_allocator();
	  auto __use_tag
	    = std::__use_alloc<_Tp, inner_allocator_type, _Args...>(__inner);
	  _M_construct(__use_tag, __p, std::forward<_Args>(__args)...);
	}

template<typename _T1, typename _T2, typename... _Args1,
	       typename... _Args2>
	void
	construct(pair<_T1, _T2>* __p, piecewise_construct_t,
		  tuple<_Args1...> __x, tuple<_Args2...> __y)
	{
	  // _GLIBCXX_RESOLVE_LIB_DEFECTS
	  // 2203.  wrong argument types for piecewise construction
	  auto& __inner = inner_allocator();
	  auto __x_use_tag
	    = std::__use_alloc<_T1, inner_allocator_type, _Args1...>(__inner);
	  auto __y_use_tag
	    = std::__use_alloc<_T2, inner_allocator_type, _Args2...>(__inner);
	  typename _Build_index_tuple<sizeof...(_Args1)>::__type __x_indices;
	  typename _Build_index_tuple<sizeof...(_Args2)>::__type __y_indices;
	  typedef __outermost_alloc_traits<scoped_allocator_adaptor> _O_traits;
	  _O_traits::construct(__outermost(*this), __p, piecewise_construct,
			       _M_construct_p(__x_use_tag, __x_indices, __x),
			       _M_construct_p(__y_use_tag, __y_indices, __y));
	}

template<typename _T1, typename _T2>
	void
	construct(pair<_T1, _T2>* __p)
	{ construct(__p, piecewise_construct, tuple<>(), tuple<>()); }

template<typename _T1, typename _T2, typename _Up, typename _Vp>
	void
	construct(pair<_T1, _T2>* __p, _Up&& __u, _Vp&& __v)
	{
	  construct(__p, piecewise_construct,
		    std::forward_as_tuple(std::forward<_Up>(__u)),
		    std::forward_as_tuple(std::forward<_Vp>(__v)));
	}

template<typename _T1, typename _T2, typename _Up, typename _Vp>
	void
	construct(pair<_T1, _T2>* __p, const pair<_Up, _Vp>& __x)
	{
	  construct(__p, piecewise_construct,
		    std::forward_as_tuple(__x.first),
		    std::forward_as_tuple(__x.second));
	}

template<typename _T1, typename _T2, typename _Up, typename _Vp>
	void
	construct(pair<_T1, _T2>* __p, pair<_Up, _Vp>&& __x)
	{
	  construct(__p, piecewise_construct,
		    std::forward_as_tuple(std::forward<_Up>(__x.first)),
		    std::forward_as_tuple(std::forward<_Vp>(__x.second)));
	}
#else // make_obj_using_allocator
      template<typename _Tp, typename... _Args>
	__attribute__((__nonnull__))
	void
	construct(_Tp* __p, _Args&&... __args)
	{
	  typedef __outermost_alloc_traits<scoped_allocator_adaptor> _O_traits;
	  std::apply([__p, this](auto&&... __newargs) {
	      _O_traits::construct(__outermost(*this), __p,
		  std::forward<decltype(__newargs)>(__newargs)...);
	  },
	  uses_allocator_construction_args<_Tp>(inner_allocator(),
	    std::forward<_Args>(__args)...));
	}
#endif

template<typename _Tp>
        void destroy(_Tp* __p)
        {
	  typedef __outermost_alloc_traits<scoped_allocator_adaptor> _O_traits;
	  _O_traits::destroy(__outermost(*this), __p);
	}

scoped_allocator_adaptor
      select_on_container_copy_construction() const
      {
        typedef typename _Build_index_tuple<sizeof...(_InnerAllocs)>::__type
	    _Indices;
        return scoped_allocator_adaptor(_M_tie(), _Indices());
      }

template <typename _OutA1, typename _OutA2, typename... _InA>
      friend bool
      operator==(const scoped_allocator_adaptor<_OutA1, _InA...>& __a,
                 const scoped_allocator_adaptor<_OutA2, _InA...>& __b) noexcept;

private:
#if ! __cpp_lib_make_obj_using_allocator
      template<typename _Ind, typename... _Args>
	tuple<_Args&&...>
	_M_construct_p(__uses_alloc0, _Ind, tuple<_Args...>& __t)
	{ return std::move(__t); }

template<size_t... _Ind, typename... _Args>
	tuple<allocator_arg_t, inner_allocator_type&, _Args&&...>
	_M_construct_p(__uses_alloc1_, _Index_tuple<_Ind...>,
		       tuple<_Args...>& __t)
	{
	  return { allocator_arg, inner_allocator(),
	      std::get<_Ind>(std::move(__t))...
	  };
	}

template<size_t... _Ind, typename... _Args>
	tuple<_Args&&..., inner_allocator_type&>
	_M_construct_p(__uses_alloc2_, _Index_tuple<_Ind...>,
		       tuple<_Args...>& __t)
	{
	  return { std::get<_Ind>(std::move(__t))..., inner_allocator() };
	}
#endif // ! make_obj_using_allocator
    };

/// @related std::scoped_allocator_adaptor
  template <typename _OutA1, typename _OutA2, typename... _InA>
    inline bool
    operator==(const scoped_allocator_adaptor<_OutA1, _InA...>& __a,
               const scoped_allocator_adaptor<_OutA2, _InA...>& __b) noexcept
    {
      return __a.outer_allocator() == __b.outer_allocator()
          && __a._M_inner == __b._M_inner;
    }

#if __cpp_impl_three_way_comparison < 201907L
  /// @related std::scoped_allocator_adaptor
  template <typename _OutA1, typename _OutA2, typename... _InA>
    inline bool
    operator!=(const scoped_allocator_adaptor<_OutA1, _InA...>& __a,
               const scoped_allocator_adaptor<_OutA2, _InA...>& __b) noexcept
    { return !(__a == __b); }
#endif

/// @}

_GLIBCXX_END_NAMESPACE_VERSION
} // namespace

#endif // C++11

#endif // _SCOPED_ALLOCATOR

Batal