// -*- C++ -*- /*************************************************************************** * * deque - Declaration and definition for the Standard Library deque class * * $Id: //stdlib/dev/include/deque#44 $ * *************************************************************************** * * Copyright (c) 1994 * Hewlett-Packard Company * * Permission to use, copy, modify, distribute and sell this software * and its documentation for any purpose is hereby granted without fee, * provided that the above copyright notice appear in all copies and * that both that copyright notice and this permission notice appear * in supporting documentation. Hewlett-Packard Company makes no * representations about the suitability of this software for any * purpose. It is provided "as is" without express or implied warranty. * *************************************************************************** * * Copyright (c) 1994-2005 Quovadx, Inc., acting through its Rogue Wave * Software division. Licensed under the Apache License, Version 2.0 (the * "License"); you may not use this file except in compliance with the * License. You may obtain a copy of the License at * http://www.apache.org/licenses/LICENSE-2.0. Unless required by * applicable law or agreed to in writing, software distributed under * the License is distributed on an "AS IS" BASIS, WITHOUT WARRANTIES OR * CONDITIONS OF ANY KIND, either express or implied. See the License * for the specific language governing permissions and limitations under * the License. * **************************************************************************/ #ifndef _RWSTD_DEQUE_INCLUDED #define _RWSTD_DEQUE_INCLUDED #include #include #include #include #include #include _RWSTD_NAMESPACE (std) { _EXPORT template ) > class deque; #ifndef _RWSTD_NO_INLINE_MEMBER_TEMPLATES # ifdef _RWSTD_NO_MEMBER_TEMPLATES // declarations of non-member function templates implementing // the functionality of deque member function templates _EXPORT template void __rw_assign_range (deque<_TypeT, _Allocator>*, _InputIter, _InputIter, input_iterator_tag); _EXPORT template void __rw_assign_range (deque<_TypeT, _Allocator>*, _FwdIter, _FwdIter, forward_iterator_tag); _EXPORT template void __rw_insert_range (deque<_TypeT, _Allocator>*, _DequeIter, _InputIter, _InputIter, input_iterator_tag); _EXPORT template void __rw_insert_range (deque<_TypeT, _Allocator>*, _DequeIter, _BidirIter, _BidirIter, bidirectional_iterator_tag); # endif // _RWSTD_NO_MEMBER_TEMPLATES #endif // _RWSTD_NO_INLINE_MEMBER_TEMPLATES template class __rw_deque_iter : public iterator { typedef iterator _C_iter_base; public: typedef _Allocator allocator_type; typedef _TYPENAME allocator_type::size_type size_type; typedef _TYPENAME _C_iter_base::value_type value_type; typedef _TYPENAME _C_iter_base::difference_type difference_type; typedef _TYPENAME _C_iter_base::pointer pointer; typedef _TYPENAME _C_iter_base::reference reference; typedef random_access_iterator_tag iterator_category; typedef __rw_deque_iter _C_mutable_iter; typedef _RWSTD_REBIND (allocator_type, value_type*) _C_node_alloc_type; typedef _TYPENAME _C_node_alloc_type::pointer _C_node_pointer; static size_type _C_bufsize () { // deque only uses __rw_new_capacity to retrieve the minimum // allocation amount; this may be specialized to provide a // customized minimum amount return _RW::__rw_new_capacity(0, (const deque<_TypeT, _Allocator>*)0); } #ifdef _RWSTDDEBUG __rw_deque_iter (): _C_cur (), _C_node () { /* invalid */ } ~__rw_deque_iter () { _C_cur = pointer (); _C_node = _C_node_pointer (); // invalidate } #else // if !defined (_RWSTDDEBUG) __rw_deque_iter () { /* uninitialized */ } #endif // _RWSTDDEBUG // dummy first argument used to easily switch between // iterators with and without support for debugging __rw_deque_iter (pointer __cur, _C_node_pointer __node) : _C_cur (__cur), _C_node (__node) { } // no copy ctor other than the one below defined; will use // a compiler generated one if __rw_deque_iter != _C_mutable_iter __rw_deque_iter (const _C_mutable_iter &__rhs) : _C_cur (__rhs._C_cur), _C_node (__rhs._C_node) { } __rw_deque_iter& operator++ (); __rw_deque_iter& operator-- (); __rw_deque_iter operator++ (int) { __rw_deque_iter __tmp (*this); return ++*this, __tmp; } __rw_deque_iter operator-- (int) { __rw_deque_iter __tmp (*this); return --*this, __tmp; } __rw_deque_iter& operator+= (difference_type); __rw_deque_iter& operator-= (difference_type __n) { return *this += -__n; } __rw_deque_iter operator+ (difference_type __n) const { return __rw_deque_iter (*this) += __n; } __rw_deque_iter operator- (difference_type __n) const { return __rw_deque_iter (*this) -= __n; } reference operator* () const { return *_C_cur; } _RWSTD_OPERATOR_ARROW (pointer operator-> () const); reference operator[] (difference_type __n) const { return *(*this + __n); } // `cur' points at the curent element or is null (for the end iterator) // `node' points to the array containing the element or &cur (for end) pointer _C_cur; _C_node_pointer _C_node; }; template inline __rw_deque_iter<_TypeT, _DiffT, _Pointer, _Reference, _Allocator>& __rw_deque_iter<_TypeT, _DiffT, _Pointer, _Reference, _Allocator>:: operator++ () { _RWSTD_ASSERT (pointer () != _C_cur); _RWSTD_ASSERT (_C_node_pointer () != _C_node); if (++_C_cur == *_C_node + _C_bufsize ()) _C_cur = *++_C_node; return *this; } template inline __rw_deque_iter<_TypeT, _DiffT, _Pointer, _Reference, _Allocator>& __rw_deque_iter<_TypeT, _DiffT, _Pointer, _Reference, _Allocator>:: operator-- () { _RWSTD_ASSERT (_C_node_pointer () != _C_node); if (_C_cur == *_C_node) _C_cur = *--_C_node + _C_bufsize (); --_C_cur; return *this; } template inline __rw_deque_iter<_TypeT, _DiffT, _Pointer, _Reference, _Allocator>& __rw_deque_iter<_TypeT, _DiffT, _Pointer, _Reference, _Allocator>:: operator+= (difference_type __n) { _RWSTD_ASSERT (_C_node_pointer () != _C_node); const size_type __bufsize = _C_bufsize (); const difference_type __offset = __n + (_C_cur - *_C_node); if (__bufsize <= size_type (__offset)) { _RWSTD_ASSERT (__n != 0); const difference_type __jump = __offset >= 0 ? __offset / __bufsize : -difference_type ((__bufsize - __offset - 1) / __bufsize); _C_node += __jump; _C_cur = *_C_node + (__offset - __jump * __bufsize); } else _C_cur += __n; _RWSTD_ASSERT (size_type (_C_cur - *_C_node) <= __bufsize); return *this; } // for symmetry template inline __rw_deque_iter<_TypeT, _DiffT, _Ptr, _Ref, _Alloc> operator+ (_DiffT __lhs, const __rw_deque_iter<_TypeT, _DiffT, _Ptr, _Ref, _Alloc> &__rhs) { return __rhs + __lhs; } #define _RWSTD_DEQUE_ITER(n) \ __rw_deque_iter<_TypeT, _DiffT, _Ptr##n, _Ref##n, _Alloc> template inline _DiffT operator- (const _RWSTD_DEQUE_ITER(1) &__x, const _RWSTD_DEQUE_ITER(2) &__y) { // _RWSTD_ASSERT_RANGE (__x, __y); const _DiffT __bufsize = _DiffT (__x._C_bufsize ()); return _DiffT ( __bufsize * (__x._C_node - __y._C_node - 1) + (__x._C_cur - *__x._C_node) + (*__y._C_node + __bufsize - __y._C_cur)); } template inline bool operator== (const _RWSTD_DEQUE_ITER(1) &__x, const _RWSTD_DEQUE_ITER(2) &__y) { return 0 == __x - __y; } template inline bool operator< (const _RWSTD_DEQUE_ITER(1) &__x, const _RWSTD_DEQUE_ITER(2) &__y) { return __x - __y < 0; } template inline bool operator!= (const _RWSTD_DEQUE_ITER(1) &__x, const _RWSTD_DEQUE_ITER(2) &__y) { return !(__x == __y); } template inline bool operator<= (const _RWSTD_DEQUE_ITER(1) &__x, const _RWSTD_DEQUE_ITER(2) &__y) { return !(__y < __x); } template inline bool operator>= (const _RWSTD_DEQUE_ITER(1) &__x, const _RWSTD_DEQUE_ITER(2) &__y) { return !(__x < __y); } template inline bool operator> (const _RWSTD_DEQUE_ITER(1) &__x, const _RWSTD_DEQUE_ITER(2) &__y) { return __y < __x; } #undef _RWSTD_DEQUE_ITER _EXPORT template class deque: private _Allocator { public: typedef _TypeT value_type; typedef _Allocator allocator_type; typedef _TYPENAME allocator_type::size_type size_type; typedef _TYPENAME allocator_type::difference_type difference_type; typedef _TYPENAME allocator_type::pointer pointer; typedef _TYPENAME allocator_type::const_pointer const_pointer; typedef _TYPENAME allocator_type::reference reference; typedef _TYPENAME allocator_type::const_reference const_reference; typedef _RWSTD_ALLOC_TYPE (allocator_type, value_type) _C_value_alloc_type; // following two typedefs are used for convenience with debug iters typedef __rw_deque_iter _C_deque_iter; typedef __rw_deque_iter _C_deque_citer; typedef _RWSTD_REBIND (allocator_type, value_type*) _C_node_alloc_type; typedef _TYPENAME _C_node_alloc_type::pointer _C_node_pointer; #ifndef _RWSTD_NO_DEBUG_ITER typedef _RW::__rw_debug_iter iterator; typedef _RW::__rw_debug_iter const_iterator; iterator _C_make_iter (const _C_deque_iter &__iter) { return iterator (*this, __iter); } const_iterator _C_make_iter (const _C_deque_citer &__citer) const { return const_iterator (*this, __citer); } #else // if defined (_RWSTD_NO_DEBUG_ITER) typedef _C_deque_iter iterator; typedef _C_deque_citer const_iterator; iterator _C_make_iter (const _C_deque_iter &__iter) { return __iter; } const_iterator _C_make_iter (const _C_deque_citer &__citer) const { return __citer; } #endif // _RWSTD_NO_DEBUG_ITER size_type _C_vecsize (size_type __nodes) const { return _RW::__rw_new_capacity (__nodes, this); } static size_type _C_bufsize () { return _C_deque_iter::_C_bufsize (); } #ifndef _RWSTD_NO_CLASS_PARTIAL_SPEC typedef _STD::reverse_iterator const_reverse_iterator; typedef _STD::reverse_iterator reverse_iterator; #else // if defined (_RWSTD_NO_CLASS_PARTIAL_SPEC) typedef _STD::reverse_iterator const_reverse_iterator; typedef _STD::reverse_iterator reverse_iterator; #endif // _RWSTD_NO_CLASS_PARTIAL_SPEC _EXPLICIT deque (const allocator_type &__alloc = allocator_type ()) : allocator_type (__alloc) { _C_init (); } _EXPLICIT deque (size_type __n, const_reference __x = value_type (), const allocator_type &__alloc = allocator_type ()) : allocator_type (__alloc) { _C_init (); assign (__n, __x); } #ifndef _RWSTD_NO_INLINE_MEMBER_TEMPLATES template deque (_InputIter __first, _InputIter __last, const allocator_type &__alloc = allocator_type ()) : allocator_type (__alloc) { _C_init (); assign (__first, __last); } #else // if defined (_RWSTD_NO_INLINE_MEMBER_TEMPLATES) deque (const_iterator __first, const_iterator __last, const allocator_type &__alloc = allocator_type ()) : allocator_type (__alloc) { _RWSTD_ASSERT_RANGE (__first, __last); _C_init (); assign (__first, __last); } deque (const_pointer __first, const_pointer __last, const allocator_type &__alloc = allocator_type ()) : allocator_type (__alloc) { _RWSTD_ASSERT_RANGE (__first, __last); _C_init (); assign (__first, __last); } #endif // _RWSTD_NO_INLINE_MEMBER_TEMPLATES deque (const deque &__rhs) : allocator_type (__rhs.get_allocator ()) { _C_init (); assign (__rhs.begin (), __rhs.end ()); } ~deque () { clear (); } deque& operator= (const deque&); #ifndef _RWSTD_NO_INLINE_MEMBER_TEMPLATES template void assign (_InputIter __first, _InputIter __last) { // dispatch either to a range assign or to an assign with repetition _C_assign (__first, __last, _RWSTD_DISPATCH (_InputIter)); } #else // if defined (_RWSTD_NO_INLINE_MEMBER_TEMPLATES) void assign (const_iterator, const_iterator); void assign (const_pointer, const_pointer); #endif // _RWSTD_NO_INLINE_MEMBER_TEMPLATES void assign (size_type __n, const_reference __x) { _C_assign_n (__n, __x); } allocator_type get_allocator () const { return *this; } iterator begin () { return _C_make_iter (_C_beg); } const_iterator begin () const { return _C_make_iter (_C_beg); } iterator end () { return _C_make_iter (_C_end); } const_iterator end () const { return _C_make_iter (_C_end); } reverse_iterator rbegin () { return reverse_iterator (end ()); } const_reverse_iterator rbegin () const { return const_reverse_iterator (end ()); } reverse_iterator rend () { return reverse_iterator (begin ()); } const_reverse_iterator rend () const { return const_reverse_iterator (begin ()); } bool empty () const { return _C_beg._C_node == _C_end._C_node && _C_beg._C_cur == _C_end._C_cur; } size_type size () const { return size_type (end () - begin ()); } size_type max_size () const { return _RWSTD_VALUE_ALLOC (_C_value_alloc_type, *this, max_size ()); } void resize (size_type, value_type = value_type ()); reference operator[] (size_type __inx) { #ifdef _RWSTD_BOUNDS_CHECKING return at (__inx); #else _RWSTD_ASSERT (_C_is_valid (0 /* valid and non-empty */)); return *(begin () + __inx); #endif } const_reference operator[] (size_type __inx) const { #ifdef _RWSTD_BOUNDS_CHECKING return at (__inx); #else _RWSTD_ASSERT (_C_is_valid (0 /* valid and non-empty */)); return *(begin () + __inx); #endif } const_reference at (size_type __inx) const { return _RWSTD_CONST_CAST (deque*, this)->at (__inx); } reference at (size_type __inx) { _RWSTD_REQUIRES (__inx < size (), (_RWSTD_ERROR_OUT_OF_RANGE, _RWSTD_FUNC ("deque::at(size_type)"), __inx, size ())); return *(begin () + __inx); } reference front () { _RWSTD_ASSERT (_C_is_valid (0 /* valid and non-empty */)); return *begin (); } const_reference front () const { _RWSTD_ASSERT (_C_is_valid (0 /* valid and non-empty */)); return *begin (); } reference back () { _RWSTD_ASSERT (_C_is_valid (0 /* valid and non-empty */)); return *(end () - 1); } const_reference back () const { _RWSTD_ASSERT (_C_is_valid (0 /* valid and non-empty */)); return *(end () - 1); } void push_front (const_reference); void push_back (const_reference); iterator insert (iterator, const_reference); void insert (iterator __it, size_type __n, const_reference __x) { _C_insert_n (__it, __n, __x); } #ifndef _RWSTD_NO_INLINE_MEMBER_TEMPLATES template void insert (iterator __it, _InputIter __first, _InputIter __last) { _C_insert (__it, __first, __last, _RWSTD_DISPATCH (_InputIter)); } #else // if defined (_RWSTD_NO_INLINE_MEMBER_TEMPLATES) void insert (iterator __it, const_pointer __first, const_pointer __last) { _RWSTD_INSERT_RANGE (__it, __first, __last); } void insert (iterator __it, const_iterator __first, const_iterator __last) { _RWSTD_INSERT_RANGE (__it, __first, __last); } #endif // _RWSTD_NO_INLINE_MEMBER_TEMPLATES void pop_front (); void pop_back (); iterator erase (iterator); iterator erase (iterator, iterator); void swap (deque&); void clear () { erase (begin (), end ()); _RWSTD_ASSERT (_C_is_valid (1 /* valid and empty */)); } private: ////////////////////////////////////////////////////////////////// // layout of a non-empty deque: // // +------------------- nodes [-1] (not used, 0 // | +----------------- nodes [0] (first usable) // | | +------------- beg.node // | | | +------- end.node // | | | | +--- nodes [node_size - 1] (last usable) // | | | | | +- allocated but not used (0) // | | | | | | // v v v v v v // +-+-+-+-+ +-+-+-+-+ // |0|X|X| |...| |X|X|0| dynamically sizable // +-+-+-+-+ +-+-+-+-+ // ^ | ||| | // | v vvv v // nodes ---+ +-+ +-+ fixed-size arrays, all of the same size // |X|...| |<-- end.node [0][0] // +-+ +-+ // beg.cur --->| | | |<-- end.node [0][1] // (begin()) +-+ +-+ // | | | |<-- end.node [0][2] // ~ ~ ~ ~ // | | | | // +-+ +-+<-- end.cur (end()) // | |...|X|<-- (bufsize - 1) // +-+ +-+ // `beg.node' points to the first fixed-size array in `nodes' // `beg.cur' points at the first element in the array pointed // to by `beg.node' (it is null iff the container is empty) _C_deque_iter _C_beg; // `end.node' points to the last fixed-size array in `nodes' // `end.cur' points just past the last element in the array // pointed to by `end.node' (null iff the container is empty) _C_deque_iter _C_end; // `nodes' points to a dynamically sizable vector of `node_size' // nodes where each node is a pointer to a fixed-size array of // elements of value_type (null iff the container is empty) _C_node_pointer _C_nodes; // the capacity of the dynamically sizable vector of nodes // `node_size' is 0 for an empty deque; each (re)allocation // grows `node_size' to __rw_new_capacity(N, this) where N // is 0 is empty() and `end.node - beg.node + 1' otherwise size_type _C_node_size; void _C_init () { // clear both `beg.cur' and `end.cur' and set both `beg.node' // and `end.node' to point to `end.cur' (instead of 0) to avoid // having to check before dereferencing the pointers _C_beg = _C_end = _C_deque_iter (pointer (), &_C_end._C_cur); _C_nodes = _C_node_pointer (); _C_node_size = 0; } void _C_push (bool, const_reference); void _C_free_at_begin (); void _C_free_at_end (); private: // implements assign with repetition void _C_assign_n (size_type, const_reference); // implements a single-element insert void _C_insert_1 (const iterator&, const_reference); // implements insert with repetition void _C_insert_n (const iterator&, size_type, const_reference); #ifndef _RWSTD_NO_MEMBER_TEMPLATES // implements range insert for BidirectionalIterators template void _C_insert_range (iterator, _BidirIter, _BidirIter, bidirectional_iterator_tag); // implements range insert for InputIterators template void _C_insert_range (iterator, _InputIter, _InputIter, input_iterator_tag); #else // if defined (_RWSTD_NO_MEMBER_TEMPLATES) public: #endif // _RWSTD_NO_MEMBER_TEMPLATES #ifndef _RWSTD_NO_INLINE_MEMBER_TEMPLATES // implements range assign template void _C_assign (_InputIter __first, _InputIter __last, void*) { _RWSTD_ASSERT_RANGE (__first, __last); _RWSTD_ASSIGN_RANGE (__first, __last, input_iterator_tag ()); } // implements assign with repetition if value_type == size_type template void _C_assign (_IntType __n, _IntType __x, int) { // see 23.1.1, p9 and DR 438 _C_assign_n (__n, __x); } // implements range insert for InputIterators template void _C_assign_range (_InputIter, _InputIter, input_iterator_tag); // implements range insert template void _C_insert (const iterator &__it, _InputIter __first, _InputIter __last, void*) { _RWSTD_ASSERT_RANGE (begin (), __it); _RWSTD_ASSERT_RANGE (__first, __last); // dispatch to an insert suitable for the category of InputIter _RWSTD_INSERT_RANGE (__it, __first, __last, _RWSTD_ITERATOR_CATEGORY (_InputIter, __first)); } // implements insert with repetition if value_type == size_type template void _C_insert (const iterator &__it, _IntType __n, _IntType __x, int) { // see 23.1.1, p9 and DR 438 _C_insert_n (__it, __n, __x); } #endif // _RWSTD_NO_INLINE_MEMBER_TEMPLATES bool _C_is_valid (int = -1) const; }; template inline void deque<_TypeT, _Allocator>::push_front (const_reference __x) { _RWSTD_ASSERT (_C_is_valid ()); if (_C_beg._C_cur == *_C_beg._C_node) { _C_push (false /* allocate at the beginning of vector */, __x); } else { _RWSTD_ASSERT (pointer () != _C_beg._C_cur); _RWSTD_VALUE_ALLOC (_C_value_alloc_type, *this, construct (_C_beg._C_cur - 1, __x)); } _RWSTD_ASSERT (pointer () != _C_beg._C_cur); --_C_beg._C_cur; _RWSTD_ASSERT (_C_is_valid (0 /* valid and non-empty */)); } template inline void deque<_TypeT, _Allocator>::push_back (const_reference __x) { _RWSTD_ASSERT (_C_is_valid ()); if ( _C_end._C_cur == *_C_end._C_node + _C_bufsize () || pointer () == _C_end._C_cur) { _C_push (true /* allocate at the end of vector */, __x); } else { _RWSTD_ASSERT (pointer () != _C_end._C_cur); _RWSTD_VALUE_ALLOC (_C_value_alloc_type, *this, construct (_C_end._C_cur, __x)); } _RWSTD_ASSERT (pointer () != _C_end._C_cur); ++_C_end._C_cur; _RWSTD_ASSERT (_C_is_valid (0 /* valid and non-empty */)); } template inline void deque<_TypeT, _Allocator>::pop_front () { _RWSTD_ASSERT (_C_is_valid (0 /* valid and non-empty */)); const pointer __first = _C_beg._C_cur; _RWSTD_VALUE_ALLOC (_C_value_alloc_type, *this, destroy (__first)); ++_C_beg._C_cur; if (empty () || _C_beg._C_cur == *_C_beg._C_node + _C_bufsize ()) _C_free_at_begin (); _RWSTD_ASSERT (_C_is_valid ()); } template inline void deque<_TypeT, _Allocator>::pop_back () { _RWSTD_ASSERT (_C_is_valid (0 /* valid and non-empty */)); const pointer __last = _C_end._C_cur - 1; _RWSTD_VALUE_ALLOC (_C_value_alloc_type, *this, destroy (__last)); --_C_end._C_cur; if (empty () || _C_end._C_cur == *_C_end._C_node) _C_free_at_end (); _RWSTD_ASSERT (_C_is_valid ()); } template inline void deque<_TypeT, _Allocator>:: swap (deque<_TypeT, _Allocator> &__rhs) { _RWSTD_ASSERT (_C_is_valid ()); _RWSTD_ASSERT (__rhs._C_is_valid ()); if (get_allocator () == __rhs.get_allocator ()) { _STD::swap (_C_beg, __rhs._C_beg); _STD::swap (_C_end, __rhs._C_end); _STD::swap (_C_nodes, __rhs._C_nodes); _STD::swap (_C_node_size, __rhs._C_node_size); } else { deque __tmp (*this); *this = __rhs; __rhs = __tmp; } } template inline void deque<_TypeT, _Allocator>:: resize (size_type __new_size, value_type __x /* = value_type () */) { _RWSTD_ASSERT (_C_is_valid ()); const size_type __size = size (); if (__size < __new_size) insert (end (), __new_size - __size, __x); else if (__new_size < __size) erase (begin () + __new_size, end ()); } template inline bool operator== (const deque<_TypeT, _Allocator> &__lhs, const deque<_TypeT, _Allocator> &__rhs) { // _RWSTD_ASSERT (__lhs._C_is_valid ()); // _RWSTD_ASSERT (__rhs._C_is_valid ()); return __lhs.size () == __rhs.size () && _STD::equal (__lhs.begin (), __lhs.end (), __rhs.begin ()); } template inline bool operator< (const deque<_TypeT, _Allocator> &__lhs, const deque<_TypeT, _Allocator> &__rhs) { // _RWSTD_ASSERT (__lhs._C_is_valid ()); // _RWSTD_ASSERT (__rhs._C_is_valid ()); return _STD::lexicographical_compare (__lhs.begin (), __lhs.end (), __rhs.begin (), __rhs.end ()); } template inline bool operator!= (const deque<_TypeT, _Allocator> &__lhs, const deque<_TypeT, _Allocator> &__rhs) { return !(__lhs == __rhs); } template inline bool operator<= (const deque<_TypeT, _Allocator> &__lhs, const deque<_TypeT, _Allocator> &__rhs) { return !(__rhs < __lhs); } template inline bool operator> (const deque<_TypeT, _Allocator> &__lhs, const deque<_TypeT, _Allocator> &__rhs) { return __rhs < __lhs; } template inline bool operator>= (const deque<_TypeT, _Allocator> &__lhs, const deque<_TypeT, _Allocator> &__rhs) { return !(__lhs < __rhs); } template inline void swap (deque<_TypeT, _Allocator> &__lhs, deque<_TypeT, _Allocator> &__rhs) { __lhs.swap (__rhs); } } // namespace end #ifdef _RWSTD_NO_IMPLICIT_INCLUSION # include #endif #ifndef _RWSTD_NO_STL_SPECIALIZATION # include "deque_spec.h" #endif // _RWSTD_NO_STL_SPECIALIZATION #endif // _RWSTD_DEQUE_INCLUDED