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// algorithm standard header #ifndef _ALGORITHM_ #define _ALGORITHM_ #include <iterator> #include <memory> #include <xutility>
#ifdef _MSC_VER #pragma pack(push,8) #endif /* _MSC_VER */ _STD_BEGIN const int _CHUNK_SIZE = 7; const int _SORT_MAX = 16; // TEMPLATE FUNCTION _Median template<class _Ty> inline _Ty _Median(_Ty _X, _Ty _Y, _Ty _Z) {if (_X < _Y) return (_Y < _Z ? _Y : _X < _Z ? _Z : _X); else return (_X < _Z ? _X : _Y < _Z ? _Z : _Y); } // TEMPLATE FUNCTION _Median WITH PRED template<class _Ty, class _Pr> inline _Ty _Median(_Ty _X, _Ty _Y, _Ty _Z, _Pr _P) {if (_P(_X, _Y)) return (_P(_Y, _Z) ? _Y : _P(_X, _Z) ? _Z : _X); else return (_P(_X, _Z) ? _X : _P(_Y, _Z) ? _Z : _Y); } // TEMPLATE FUNCTION for_each template<class _II, class _Fn> inline _Fn for_each(_II _F, _II _L, _Fn _Op) {for (; _F != _L; ++_F) _Op(*_F); return (_Op); } // TEMPLATE FUNCTION find template<class _II, class _Ty> inline _II find(_II _F, _II _L, const _Ty& _V) {for (; _F != _L; ++_F) if (*_F == _V) break; return (_F); } // TEMPLATE FUNCTION find_if template<class _II, class _Pr> inline _II find_if(_II _F, _II _L, _Pr _P) {for (; _F != _L; ++_F) if (_P(*_F)) break; return (_F); } // TEMPLATE FUNCTION adjacent_find template<class _FI> inline _FI adjacent_find(_FI _F, _FI _L) {for (_FI _Fb; (_Fb = _F) != _L && ++_F != _L; ) if (*_Fb == *_F) return (_Fb); return (_L); } // TEMPLATE FUNCTION adjacent_find WITH PRED template<class _FI, class _Pr> inline _FI adjacent_find(_FI _F, _FI _L, _Pr _P) {for (_FI _Fb; (_Fb = _F) != _L && ++_F != _L; ) if (_P(*_Fb, *_F)) return (_Fb); return (_L); } // TEMPLATE FUNCTION count template<class _II, class _Ty> inline _CNTSIZ(_II) count(_II _F, _II _L, const _Ty& _V) {_CNTSIZ(_II) _N = 0; for (; _F != _L; ++_F) if (*_F == _V) ++_N; return (_N); } // TEMPLATE FUNCTION count_if template<class _II, class _Pr> inline _CNTSIZ(_II) count_if(_II _F, _II _L, _Pr _P) {_CNTSIZ(_II) _N = 0; for (; _F != _L; ++_F) if (_P(*_F)) ++_N; return (_N); } // TEMPLATE FUNCTION search template<class _FI1, class _FI2> inline _FI1 search(_FI1 _F1, _FI1 _L1, _FI2 _F2, _FI2 _L2) {return (_Search(_F1, _L1, _F2, _L2, _Dist_type(_F1), _Dist_type(_F2))); } template<class _FI1, class _FI2, class _Pd1, class _Pd2> inline _FI1 _Search(_FI1 _F1, _FI1 _L1, _FI2 _F2, _FI2 _L2, _Pd1 *, _Pd2 *) {_Pd1 _D1 = 0; _Distance(_F1, _L1, _D1); _Pd2 _D2 = 0; _Distance(_F2, _L2, _D2); for (; _D2 <= _D1; ++_F1, --_D1) {_FI1 _X1 = _F1; for (_FI2 _X2 = _F2; ; ++_X1, ++_X2) if (_X2 == _L2) return (_F1); else if (!(*_X1 == *_X2)) break; } return (_L1); } // TEMPLATE FUNCTION search WITH PRED template<class _FI1, class _FI2, class _Pr> inline _FI1 search(_FI1 _F1, _FI1 _L1, _FI2 _F2, _FI2 _L2, _Pr _P) {return (_Search(_F1, _L1, _F2, _L2, _P, _Dist_type(_F1), _Dist_type(_F2))); } template<class _FI1, class _FI2, class _Pd1, class _Pd2, class _Pr> inline _FI1 _Search(_FI1 _F1, _FI1 _L1, _FI2 _F2, _FI2 _L2, _Pr _P, _Pd1 *, _Pd2 *) {_Pd1 _D1 = 0; _Distance(_F1, _L1, _D1); _Pd2 _D2 = 0; _Distance(_F2, _L2, _D2); for (; _D2 <= _D1; ++_F1, --_D1) {_FI1 _X1 = _F1; for (_FI2 _X2 = _F2; ; ++_X1, ++_X2) if (_X2 == _L2) return (_F1); else if (!_P(*_X1, *_X2)) break; } return (_L1); } // TEMPLATE FUNCTION search_n template<class _FI1, class _Pd2, class _Ty> inline _FI1 search_n(_FI1 _F1, _FI1 _L1, _Pd2 _N, const _Ty& _V) {return (_Search_n(_F1, _L1, _N, _V, _Dist_type(_F1))); } template<class _FI1, class _Pd2, class _Ty, class _Pd1> inline _FI1 _Search_n(_FI1 _F1, _FI1 _L1, _Pd2 _N, const _Ty& _V, _Pd1 *) {_Pd1 _D1 = 0; _Distance(_F1, _L1, _D1); for (; _N <= _D1; ++_F1, --_D1) {_FI1 _X1 = _F1; for (_Pd2 _D2 = _N; ; ++_X1, --_D2) if (_D2 == 0) return (_F1); else if (!(*_X1 == _V)) break; } return (_L1); } // TEMPLATE FUNCTION search_n WITH PRED template<class _FI1, class _Pd2, class _Ty, class _Pr> inline _FI1 search_n(_FI1 _F1, _FI1 _L1, _Pd2 _N, const _Ty& _V, _Pr _P) {return (_Search_n(_F1, _L1, _N, _V, _P, _Dist_type(_F1))); } template<class _FI1, class _Pd2, class _Ty, class _Pd1, class _Pr> inline _FI1 _Search_n(_FI1 _F1, _FI1 _L1, _Pd2 _N, const _Ty& _V, _Pr _P, _Pd1 *) {_Pd1 _D1 = 0; _Distance(_F1, _L1, _D1); for (; _N <= _D1; ++_F1, --_D1) {_FI1 _X1 = _F1; for (_Pd2 _D2 = _N; ; ++_X1, --_D2) if (_D2 == 0) return (_F1); else if (!_P(*_X1, _V)) break; } return (_L1); } // TEMPLATE FUNCTION find_end template<class _FI1, class _FI2> inline _FI1 find_end(_FI1 _F1, _FI1 _L1, _FI2 _F2, _FI2 _L2) {return (_Find_end(_F1, _L1, _F2, _L2, _Dist_type(_F1), _Dist_type(_F2))); } template<class _FI1, class _FI2, class _Pd1, class _Pd2> inline _FI1 _Find_end(_FI1 _F1, _FI1 _L1, _FI2 _F2, _FI2 _L2, _Pd1 *, _Pd2 *) {_Pd1 _D1 = 0; _Distance(_F1, _L1, _D1); _Pd2 _D2 = 0; _Distance(_F2, _L2, _D2); _FI1 _Ans = _L1; if (0 < _D2) for (; _D2 <= _D1; ++_F1, --_D1) {_FI1 _X1 = _F1; for (_FI2 _X2 = _F2; ; ++_X1) if (!(*_X1 == *_X2)) break; else if (++_X2 == _L2) {_Ans = _F1; break; }} return (_Ans); } // TEMPLATE FUNCTION find_end WITH PRED template<class _FI1, class _FI2, class _Pr> inline _FI1 find_end(_FI1 _F1, _FI1 _L1, _FI2 _F2, _FI2 _L2, _Pr _P) {return (_Find_end(_F1, _L1, _F2, _L2, _P, _Dist_type(_F1), _Dist_type(_F2))); } template<class _FI1, class _FI2, class _Pd1, class _Pd2, class _Pr> inline _FI1 _Find_end(_FI1 _F1, _FI1 _L1, _FI2 _F2, _FI2 _L2, _Pr _P, _Pd1 *, _Pd2 *) {_Pd1 _D1 = 0; _Distance(_F1, _L1, _D1); _Pd2 _D2 = 0; _Distance(_F2, _L2, _D2); _FI1 _Ans = _L1; if (0 < _D2) for (; _D2 <= _D1; ++_F1, --_D1) {_FI1 _X1 = _F1; for (_FI2 _X2 = _F2; ; ++_X1) if (!_P(*_X1, *_X2)) break; else if (++_X2 == _L2) {_Ans = _F1; break; }} return (_Ans); } // TEMPLATE FUNCTION find_first_of template<class _FI1, class _FI2> inline _FI1 find_first_of(_FI1 _F1, _FI1 _L1, _FI2 _F2, _FI2 _L2) {for (; _F1 != _L1; ++_F1) for (_FI2 _X2 = _F2; _X2 != _L2; ++_X2) if (*_F1 == *_X2) return (_F1); return (_F1); } // TEMPLATE FUNCTION find_first_of WITH PRED template<class _FI1, class _FI2, class _Pr> inline _FI1 find_first_of(_FI1 _F1, _FI1 _L1, _FI2 _F2, _FI2 _L2, _Pr _P) {for (; _F1 != _L1; ++_F1) for (_FI2 _X2 = _F2; _X2 != _L2; ++_X2) if (_P(*_F1, *_X2)) return (_F1); return (_F1); } // TEMPLATE FUNCTION iter_swap template<class _FI1, class _FI2> inline void iter_swap(_FI1 _X, _FI2 _Y) {_Iter_swap(_X, _Y, _Val_type(_X)); } template<class _FI1, class _FI2, class _Ty> inline void _Iter_swap(_FI1 _X, _FI2 _Y, _Ty *) {_Ty _Tmp = *_X; *_X = *_Y, *_Y = _Tmp; } // TEMPLATE FUNCTION swap_ranges template<class _FI1, class _FI2> inline _FI2 swap_ranges(_FI1 _F, _FI1 _L, _FI2 _X) {for (; _F != _L; ++_F, ++_X) iter_swap(_F, _X); return (_X); } // TEMPLATE FUNCTION transform WITH UNARY OP template<class _II, class _OI, class _Uop> inline _OI transform(_II _F, _II _L, _OI _X, _Uop _U) {for (; _F != _L; ++_F, ++_X) *_X = _U(*_F); return (_X); } // TEMPLATE FUNCTION transform WITH BINARY OP template<class _II1, class _II2, class _OI, class _Bop> inline _OI transform(_II1 _F1, _II1 _L1, _II2 _F2, _OI _X, _Bop _B) {for (; _F1 != _L1; ++_F1, ++_F2, ++_X) *_X = _B(*_F1, *_F2); return (_X); } // TEMPLATE FUNCTION replace template<class _FI, class _Ty> inline void replace(_FI _F, _FI _L, const _Ty& _Vo, const _Ty& _Vn) {for (; _F != _L; ++_F) if (*_F == _Vo) *_F = _Vn; } // TEMPLATE FUNCTION replace_if template<class _FI, class _Pr, class _Ty> inline void replace_if(_FI _F, _FI _L, _Pr _P, const _Ty& _V) {for (; _F != _L; ++_F) if (_P(*_F)) *_F = _V; } // TEMPLATE FUNCTION replace_copy template<class _II, class _OI, class _Ty> inline _OI replace_copy(_II _F, _II _L, _OI _X, const _Ty& _Vo, const _Ty& _Vn) {for (; _F != _L; ++_F, ++_X) *_X = *_F == _Vo ? _Vn : *_F; return (_X); } // TEMPLATE FUNCTION replace_copy_if template<class _II, class _OI, class _Pr, class _Ty> inline _OI replace_copy_if(_II _F, _II _L, _OI _X, _Pr _P, const _Ty& _V) {for (; _F != _L; ++_F, ++_X) *_X = _P(*_F) ? _V : *_F; return (_X); } // TEMPLATE FUNCTION generate template<class _FI, class _Gen> inline void generate(_FI _F, _FI _L, _Gen _G) {for (; _F != _L; ++_F) *_F = _G(); } // TEMPLATE FUNCTION generate_n template<class _OI, class _Pd, class _Gen> inline void generate_n(_OI _F, _Pd _N, _Gen _G) {for (; 0 < _N; --_N, ++_F) *_F = _G(); } // TEMPLATE FUNCTION remove template<class _FI, class _Ty> inline _FI remove(_FI _F, _FI _L, const _Ty& _V) {_F = find(_F, _L, _V); if (_F == _L) return (_F); else {_FI _Fb = _F; return (remove_copy(++_F, _L, _Fb, _V)); }} // TEMPLATE FUNCTION remove_if template<class _FI, class _Pr> inline _FI remove_if(_FI _F, _FI _L, _Pr _P) {_F = find_if(_F, _L, _P); if (_F == _L) return (_F); else {_FI _Fb = _F; return (remove_copy_if(++_F, _L, _Fb, _P)); }} // TEMPLATE FUNCTION remove_copy template<class _II, class _OI, class _Ty> inline _OI remove_copy(_II _F, _II _L, _OI _X, const _Ty& _V) {for (; _F != _L; ++_F) if (!(*_F == _V)) *_X++ = *_F; return (_X); } // TEMPLATE FUNCTION remove_copy_if template<class _II, class _OI, class _Pr> inline _OI remove_copy_if(_II _F, _II _L, _OI _X, _Pr _P) {for (; _F != _L; ++_F) if (!_P(*_F)) *_X++ = *_F; return (_X); } // TEMPLATE FUNCTION unique template<class _FI> inline _FI unique(_FI _F, _FI _L) {_F = adjacent_find(_F, _L); return (unique_copy(_F, _L, _F)); } // TEMPLATE FUNCTION unique WITH PRED template<class _FI, class _Pr> inline _FI unique(_FI _F, _FI _L, _Pr _P) {_F = adjacent_find(_F, _L, _P); return (unique_copy(_F, _L, _F, _P)); } // TEMPLATE FUNCTION unique_copy template<class _II, class _OI> inline _OI unique_copy(_II _F, _II _L, _OI _X) {return (_F == _L ? _X : _Unique_copy(_F, _L, _X, _Iter_cat(_F))); } template<class _II, class _OI> inline _OI _Unique_copy(_II _F, _II _L, _OI _X, input_iterator_tag) {return (_Unique_copy(_F, _L, _X, _Val_type(_F))); } template<class _II, class _OI, class _Ty> inline _OI _Unique_copy(_II _F, _II _L, _OI _X, _Ty *) {_Ty _V = *_F; for (*_X++ = _V; ++_F != _L; ) if (!(_V == *_F)) _V = *_F, *_X++ = _V; return (_X); } template<class _FI, class _OI> inline _OI _Unique_copy(_FI _F, _FI _L, _OI _X, forward_iterator_tag) {_FI _Fb = _F; for (*_X++ = *_Fb; ++_F != _L; ) if (!(*_Fb == *_F)) _Fb = _F, *_X++ = *_Fb; return (_X); } template<class _BI, class _OI> inline _OI _Unique_copy(_BI _F, _BI _L, _OI _X, bidirectional_iterator_tag) {return (_Unique_copy(_F, _L, _X, forward_iterator_tag())); } template<class _RI, class _OI> inline _OI _Unique_copy(_RI _F, _RI _L, _OI _X, random_access_iterator_tag) {return (_Unique_copy(_F, _L, _X, forward_iterator_tag())); } // TEMPLATE FUNCTION unique_copy WITH PRED template<class _II, class _OI, class _Pr> inline _OI unique_copy(_II _F, _II _L, _OI _X, _Pr _P) {return (_F == _L ? _X : _Unique_copy(_F, _L, _X, _P, _Iter_cat(_F))); } template<class _II, class _OI, class _Pr> inline _OI _Unique_copy(_II _F, _II _L, _OI _X, _Pr _P, input_iterator_tag) {return (_Unique_copy(_F, _L, _X, _P, _Val_type(_F))); } template<class _II, class _OI, class _Ty, class _Pr> inline _OI _Unique_copy(_II _F, _II _L, _OI _X, _Pr _P, _Ty *) {_Ty _V = *_F; for (*_X++ = _V; ++_F != _L; ) if (!_P(_V, *_F)) _V = *_F, *_X++ = _V; return (_X); } template<class _FI, class _OI, class _Pr> inline _OI _Unique_copy(_FI _F, _FI _L, _OI _X, _Pr _P, forward_iterator_tag) {_FI _Fb = _F; for (*_X++ = *_Fb; ++_F != _L; ) if (!_P(*_Fb, *_F)) _Fb = _F, *_X++ = *_Fb; return (_X); } template<class _BI, class _OI, class _Pr> inline _OI _Unique_copy(_BI _F, _BI _L, _OI _X, _Pr _P, bidirectional_iterator_tag) {return (_Unique_copy(_F, _L, _X, _P, forward_iterator_tag())); } template<class _RI, class _OI, class _Pr> inline _OI _Unique_copy(_RI _F, _RI _L, _OI _X, _Pr _P, random_access_iterator_tag) {return (_Unique_copy(_F, _L, _X, _P, forward_iterator_tag())); } // TEMPLATE FUNCTION reverse template<class _BI> inline void reverse(_BI _F, _BI _L) {_Reverse(_F, _L, _Iter_cat(_F)); } template<class _BI> inline void _Reverse(_BI _F, _BI _L, bidirectional_iterator_tag) {for (; _F != _L && _F != --_L; ++_F) iter_swap(_F, _L); } template<class _RI> inline void _Reverse(_RI _F, _RI _L, random_access_iterator_tag) {for (; _F < _L; ++_F) iter_swap(_F, --_L); } // TEMPLATE FUNCTION reverse_copy template<class _BI, class _OI> inline _OI reverse_copy(_BI _F, _BI _L, _OI _X) {for (; _F != _L; ++_X) *_X = *--_L; return (_X); } // TEMPLATE FUNCTION rotate template<class _FI> inline void rotate(_FI _F, _FI _M, _FI _L) {if (_F != _M && _M != _L) _Rotate(_F, _M, _L, _Iter_cat(_F)); } template<class _FI> inline void _Rotate(_FI _F, _FI _M, _FI _L, forward_iterator_tag) {for (_FI _X = _M; ; ) {iter_swap(_F, _X); if (++_F == _M) if (++_X == _L) break; else _M = _X; else if (++_X == _L) _X = _M; }} template<class _BI> inline void _Rotate(_BI _F, _BI _M, _BI _L, bidirectional_iterator_tag) {reverse(_F, _M); reverse(_M, _L); reverse(_F, _L); } template<class _RI> inline void _Rotate(_RI _F, _RI _M, _RI _L, random_access_iterator_tag) {_Rotate(_F, _M, _L, _Dist_type(_F), _Val_type(_F)); } template<class _RI, class _Pd, class _Ty> inline void _Rotate(_RI _F, _RI _M, _RI _L, _Pd *, _Ty *) {_Pd _D = _M - _F; _Pd _N = _L - _F; for (_Pd _I = _D; _I != 0; ) {_Pd _J = _N % _I; _N = _I, _I = _J; } if (_N < _L - _F) for (; 0 < _N; --_N) {_RI _X = _F + _N; _RI _Y = _X; _Ty _V = *_X; _RI _Z = _Y + _D == _L ? _F : _Y + _D; while (_Z != _X) {*_Y = *_Z; _Y = _Z; _Z = _D < _L - _Z ? _Z + _D : _F + (_D - (_L - _Z)); } *_Y = _V; }} // TEMPLATE FUNCTION rotate_copy template<class _FI, class _OI> inline _OI rotate_copy(_FI _F, _FI _M, _FI _L, _OI _X) {return (copy(_F, _M, copy(_M, _L, _X))); } // TEMPLATE FUNCTION random_shuffle template<class _RI> inline void random_shuffle(_RI _F, _RI _L) {if (_F != _L) _Random_shuffle(_F, _L, _Dist_type(_F)); } template<class _RI, class _Pd> inline void _Random_shuffle(_RI _F, _RI _L, _Pd *) {const int _RBITS = 15; const int _RMAX = (1U << _RBITS) - 1; _RI _X = _F; for (_Pd _D = 1; ++_X != _L; ++_D) {unsigned long _Rm = _RMAX; unsigned long _Rn = rand() & _RMAX; for (; _Rm < _D && _Rm != ~0UL; _Rm = _Rm << _RBITS | _RMAX) _Rn = _Rn << _RBITS | _RMAX; iter_swap(_X, _F + _Pd(_Rn % _D)); }} template<class _RI, class _Pf> inline void random_shuffle(_RI _F, _RI _L, _Pf& _R) {if (_F != _L) _Random_shuffle(_F, _L, _R, _Dist_type(_F)); } template<class _RI, class _Pf, class _Pd> inline void _Random_shuffle(_RI _F, _RI _L, _Pf& _R, _Pd *) {_RI _X = _F; for (_Pd _D = 1; ++_X != _L; ++_D) iter_swap(_X, _F + _Pd(_R(_D))); } // TEMPLATE FUNCTION partition template<class _BI, class _Pr> inline _BI partition(_BI _F, _BI _L, _Pr _P) {for (; ; ++_F) {for (; _F != _L && _P(*_F); ++_F) ; if (_F == _L) break; for (; _F != --_L && !_P(*_L); ) ; if (_F == _L) break; iter_swap(_F, _L); } return (_F); } // TEMPLATE FUNCTION stable_partition template<class _FI, class _Pr> inline _FI stable_partition(_FI _F, _FI _L, _Pr _P) {return (_F == _L ? _F : _Stable_partition(_F, _L, _P, _Dist_type(_F), _Val_type(_F))); } template<class _FI, class _Pr, class _Pd, class _Ty> inline _FI _Stable_partition(_FI _F, _FI _L, _Pr _P, _Pd *, _Ty *) {_Pd _N = 0; _Distance(_F, _L, _N); _Temp_iterator<_Ty> _Xb(_N); return (_Stable_partition(_F, _L, _P, _N, _Xb)); } template<class _FI, class _Pr, class _Pd, class _Ty> inline _FI _Stable_partition(_FI _F, _FI _L, _Pr _P, _Pd _N, _Temp_iterator<_Ty>& _Xb) {if (_N == 1) return (_P(*_F) ? _L : _F); else if (_N <= _Xb._Maxlen()) {_FI _X = _F; for (_Xb._Init(); _F != _L; ++_F) if (_P(*_F)) *_X++ = *_F; else *_Xb++ = *_F; copy(_Xb._First(), _Xb._Last(), _X); return (_X); } else {_FI _M = _F; advance(_M, _N / 2); _FI _Lp = _Stable_partition(_F, _M, _P, _N / 2, _Xb); _FI _Rp = _Stable_partition(_M, _L, _P, _N - _N / 2, _Xb); _Pd _D1 = 0; _Distance(_Lp, _M, _D1); _Pd _D2 = 0; _Distance(_M, _Rp, _D2); return (_Buffered_rotate(_Lp, _M, _Rp, _D1, _D2, _Xb)); }} // TEMPLATE FUNCTION sort template<class _RI> inline void sort(_RI _F, _RI _L) {_Sort_0(_F, _L, _Val_type(_F)); } template<class _RI, class _Ty> inline void _Sort_0(_RI _F, _RI _L, _Ty *) {if (_L - _F <= _SORT_MAX) _Insertion_sort(_F, _L); else {_Sort(_F, _L, (_Ty *)0); _Insertion_sort(_F, _F + _SORT_MAX); for (_F += _SORT_MAX; _F != _L; ++_F) _Unguarded_insert(_F, _Ty(*_F)); }} template<class _RI, class _Ty> inline void _Sort(_RI _F, _RI _L, _Ty *) {for (; _SORT_MAX < _L - _F; ) {_RI _M = _Unguarded_partition(_F, _L, _Median(_Ty(*_F), _Ty(*(_F + (_L - _F) / 2)), _Ty(*(_L - 1)))); if (_L - _M <= _M - _F) _Sort(_M, _L, _Val_type(_F)), _L = _M; else _Sort(_F, _M, _Val_type(_F)), _F = _M; }} template<class _RI, class _Ty> inline _RI _Unguarded_partition(_RI _F, _RI _L, _Ty _Piv) {for (; ; ++_F) {for (; *_F < _Piv; ++_F) ; for (; _Piv < *--_L; ) ; if (_L <= _F) return (_F); iter_swap(_F, _L); }} template<class _RI> inline void _Insertion_sort(_RI _F, _RI _L) {_Insertion_sort_1(_F, _L, _Val_type(_F)); } template<class _BI, class _Ty> inline void _Insertion_sort_1(_BI _F, _BI _L, _Ty *) {if (_F != _L) for (_BI _M = _F; ++_M != _L; ) {_Ty _V = *_M; if (!(_V < *_F)) _Unguarded_insert(_M, _V); else {copy_backward(_F, _M, _M + 1); *_F = _V; }}} template<class _BI, class _Ty> inline void _Unguarded_insert(_BI _L, _Ty _V) {for (_BI _M = _L; _V < *--_M; _L = _M) *_L = *_M; *_L = _V; } // TEMPLATE FUNCTION sort WITH PRED template<class _RI, class _Pr> inline void sort(_RI _F, _RI _L, _Pr _P) {_Sort_0(_F, _L, _P, _Val_type(_F)); } template<class _RI, class _Ty, class _Pr> inline void _Sort_0(_RI _F, _RI _L, _Pr _P, _Ty *) {if (_L - _F <= _SORT_MAX) _Insertion_sort(_F, _L, _P); else {_Sort(_F, _L, _P, (_Ty *)0); _Insertion_sort(_F, _F + _SORT_MAX, _P); for (_F += _SORT_MAX; _F != _L; ++_F) _Unguarded_insert(_F, _Ty(*_F), _P); }} template<class _RI, class _Ty, class _Pr> inline void _Sort(_RI _F, _RI _L, _Pr _P, _Ty *) {for (; _SORT_MAX < _L - _F; ) {_RI _M = _Unguarded_partition(_F, _L, _Median(_Ty(*_F), _Ty(*(_F + (_L - _F) / 2)), _Ty(*(_L - 1)), _P), _P); if (_L - _M <= _M - _F) _Sort(_M, _L, _P, _Val_type(_F)), _L = _M; else _Sort(_F, _M, _P, _Val_type(_F)), _F = _M; }} template<class _RI, class _Ty, class _Pr> inline _RI _Unguarded_partition(_RI _F, _RI _L, _Ty _Piv, _Pr _P) {for (; ; ++_F) {for (; _P(*_F, _Piv); ++_F) ; for (; _P(_Piv, *--_L); ) ; if (_L <= _F) return (_F); iter_swap(_F, _L); }} template<class _RI, class _Pr> inline void _Insertion_sort(_RI _F, _RI _L, _Pr _P) {_Insertion_sort_1(_F, _L, _P, _Val_type(_F)); } template<class _RI, class _Ty, class _Pr> inline void _Insertion_sort_1(_RI _F, _RI _L, _Pr _P, _Ty *) {if (_F != _L) for (_RI _M = _F; ++_M != _L; ) {_Ty _V = *_M; if (!_P(_V, *_F)) _Unguarded_insert(_M, _V, _P); else {copy_backward(_F, _M, _M + 1); *_F = _V; }}} template<class _RI, class _Ty, class _Pr> inline void _Unguarded_insert(_RI _L, _Ty _V, _Pr _P) {for (_RI _M = _L; _P(_V, *--_M); _L = _M) *_L = *_M; *_L = _V; } // TEMPLATE FUNCTION stable_sort template<class _BI> inline void stable_sort(_BI _F, _BI _L) {if (_F != _L) _Stable_sort(_F, _L, _Dist_type(_F), _Val_type(_F)); } template<class _BI, class _Pd, class _Ty> inline void _Stable_sort(_BI _F, _BI _L, _Pd *, _Ty *) {_Pd _N = 0; _Distance(_F, _L, _N); _Temp_iterator<_Ty> _Xb(_N); _Stable_sort(_F, _L, _N, _Xb); } template<class _BI, class _Pd, class _Ty> inline void _Stable_sort(_BI _F, _BI _L, _Pd _N, _Temp_iterator<_Ty>& _Xb) {if (_N <= _SORT_MAX) _Insertion_sort(_F, _L); else {_Pd _N2 = (_N + 1) / 2; _BI _M = _F; advance(_M, _N2); if (_N2 <= _Xb._Maxlen()) {_Buffered_merge_sort(_F, _M, _N2, _Xb); _Buffered_merge_sort(_M, _L, _N - _N2, _Xb); } else {_Stable_sort(_F, _M, _N2, _Xb); _Stable_sort(_M, _L, _N - _N2, _Xb); } _Buffered_merge(_F, _M, _L, _N2, _N - _N2, _Xb); }} template<class _BI, class _Pd, class _Ty> inline void _Buffered_merge_sort(_BI _F, _BI _L, _Pd _N, _Temp_iterator<_Ty>& _Xb) {_BI _M = _F; for (_Pd _I = _N; _CHUNK_SIZE <= _I; _I -= _CHUNK_SIZE) {_BI _Mn = _M; advance(_Mn, (int)_CHUNK_SIZE); _Insertion_sort(_M, _Mn); _M = _Mn; } _Insertion_sort(_M, _L); for (_Pd _D = _CHUNK_SIZE; _D < _N; _D *= 2) {_BI _Ft = _F; _Chunked_merge(_F, _L, _Xb._Init(), _D, _N); _Chunked_merge(_Xb._First(), _Xb._Last(), _Ft, _D *= 2, _N); }} template<class _BI, class _OI, class _Pd> inline void _Chunked_merge(_BI _F, _BI _L, _OI& _X, _Pd _D, _Pd _N) {_Pd _D2 = _D * 2; for (; _D2 <= _N; _N -= _D2) {_BI _F1 = _F; advance(_F1, _D); _BI _F2 = _F1; advance(_F2, _D); _X = merge(_F, _F1, _F1, _F2, _X); _F = _F2; } if (_N <= _D) copy(_F, _L, _X); else {_BI _F1 = _F; advance(_F1, _D); merge(_F, _F1, _F1, _L, _X); }} // TEMPLATE FUNCTION stable_sort WITH PRED template<class _BI, class _Pr> inline void stable_sort(_BI _F, _BI _L, _Pr _P) {if (_F != _L) _Stable_sort(_F, _L, _Dist_type(_F), _Val_type(_F), _P); } template<class _BI, class _Pd, class _Ty, class _Pr> inline void _Stable_sort(_BI _F, _BI _L, _Pd *, _Ty *, _Pr _P) {_Pd _N = 0; _Distance(_F, _L, _N); _Temp_iterator<_Ty> _Xb(_N); _Stable_sort(_F, _L, _N, _Xb, _P); } template<class _BI, class _Pd, class _Ty, class _Pr> inline void _Stable_sort(_BI _F, _BI _L, _Pd _N, _Temp_iterator<_Ty>& _Xb, _Pr _P) {if (_N <= _SORT_MAX) _Insertion_sort(_F, _L, _P); else {_Pd _N2 = (_N + 1) / 2; _BI _M = _F; advance(_M, _N2); if (_N2 <= _Xb._Maxlen()) {_Buffered_merge_sort(_F, _M, _N2, _Xb, _P); _Buffered_merge_sort(_M, _L, _N - _N2, _Xb, _P); } else {_Stable_sort(_F, _M, _N2, _Xb, _P); _Stable_sort(_M, _L, _N - _N2, _Xb, _P); } _Buffered_merge(_F, _M, _L, _N2, _N - _N2, _Xb, _P); }} template<class _BI, class _Pd, class _Ty, class _Pr> inline void _Buffered_merge_sort(_BI _F, _BI _L, _Pd _N, _Temp_iterator<_Ty>& _Xb, _Pr _P) {_BI _M = _F; for (_Pd _I = _N; _CHUNK_SIZE <= _I; _I -= _CHUNK_SIZE) {_BI _Mn = _M; advance(_Mn, (int)_CHUNK_SIZE); _Insertion_sort(_M, _Mn, _P); _M = _Mn; } _Insertion_sort(_M, _L, _P); for (_Pd _D = _CHUNK_SIZE; _D < _N; _D *= 2) {_BI _Ft = _F; _Chunked_merge(_F, _L, _Xb._Init(), _D, _N, _P); _Chunked_merge(_Xb._First(), _Xb._Last(), _Ft, _D *= 2, _N, _P); }} template<class _BI, class _OI, class _Pd, class _Pr> inline void _Chunked_merge(_BI _F, _BI _L, _OI& _X, _Pd _D, _Pd _N, _Pr _P) {_Pd _D2 = _D * 2; for (; _D2 <= _N; _N -= _D2) {_BI _F1 = _F; advance(_F1, _D); _BI _F2 = _F1; advance(_F2, _D); _X = merge(_F, _F1, _F1, _F2, _X, _P); _F = _F2; } if (_N <= _D) copy(_F, _L, _X); else {_BI _F1 = _F; advance(_F1, _D); merge(_F, _F1, _F1, _L, _X, _P); }} // TEMPLATE FUNCTION partial_sort template<class _RI> inline void partial_sort(_RI _F, _RI _M, _RI _L) {_Partial_sort(_F, _M, _L, _Val_type(_F)); } template<class _RI, class _Ty> inline void _Partial_sort(_RI _F, _RI _M, _RI _L, _Ty *) {make_heap(_F, _M); for (_RI _I = _M; _I < _L; ++_I) if (*_I < *_F) _Pop_heap(_F, _M, _I, _Ty(*_I), _Dist_type(_F)); sort_heap(_F, _M); } // TEMPLATE FUNCTION partial_sort WITH PRED template<class _RI, class _Pr> inline void partial_sort(_RI _F, _RI _M, _RI _L, _Pr _P) {_Partial_sort(_F, _M, _L, _P, _Val_type(_F)); } template<class _RI, class _Ty, class _Pr> inline void _Partial_sort(_RI _F, _RI _M, _RI _L, _Pr _P, _Ty *) {make_heap(_F, _M, _P); for (_RI _I = _M; _I < _L; ++_I) if (_P(*_I, *_F)) _Pop_heap(_F, _M, _I, _Ty(*_I), _P, _Dist_type(_F)); sort_heap(_F, _M, _P); } // TEMPLATE FUNCTION partial_sort_copy template<class _II, class _RI> inline _RI partial_sort_copy(_II _F1, _II _L1, _RI _F2, _RI _L2) {return (_Partial_sort_copy(_F1, _L1, _F2, _L2, _Dist_type(_F2), _Val_type(_F1))); } template<class _II, class _RI, class _Pd, class _Ty> inline _RI _Partial_sort_copy(_II _F1, _II _L1, _RI _F2, _RI _L2, _Pd *, _Ty *) {_RI _X = _F2; if (_X != _L2) {for (; _F1 != _L1 && _X != _L2; ++_F1, ++_X) *_X = *_F1; make_heap(_F2, _X); for (; _F1 != _L1; ++_F1) if (*_F1 < *_F2) _Adjust_heap(_F2, _Pd(0), _Pd(_X - _F2), _Ty(*_F1)); sort_heap(_F2, _X); } return (_X); } // TEMPLATE FUNCTION partial_sort_copy WITH PRED template<class _II, class _RI, class _Pr> inline _RI partial_sort_copy(_II _F1, _II _L1, _RI _F2, _RI _L2, _Pr _P) {return (_Partial_sort_copy(_F1, _L1, _F2, _L2, _P, _Dist_type(_F2), _Val_type(_F1))); } template<class _II, class _RI, class _Pd, class _Ty, class _Pr> inline _RI _Partial_sort_copy(_II _F1, _II _L1, _RI _F2, _RI _L2, _Pr _P, _Pd *, _Ty *) {_RI _X = _F2; if (_X != _L2) {for (; _F1 != _L1 && _X != _L2; ++_F1, ++_X) *_X = *_F1; make_heap(_F2, _X, _P); for (; _F1 != _L1; ++_F1) if (_P(*_F1, *_F2)) _Adjust_heap(_F2, _Pd(0), _Pd(_X - _F2), _Ty(*_F1), _P); sort_heap(_F2, _X, _P); } return (_X); } // TEMPLATE FUNCTION nth_element template<class _RI> inline void nth_element(_RI _F, _RI _Nth, _RI _L) {_Nth_element(_F, _Nth, _L, _Val_type(_F)); } template<class _RI, class _Ty> inline void _Nth_element(_RI _F, _RI _Nth, _RI _L, _Ty *) {for (; _SORT_MAX < _L - _F; ) {_RI _M = _Unguarded_partition(_F, _L, _Median(_Ty(*_F), _Ty(*(_F + (_L - _F) / 2)), _Ty(*(_L - 1)))); if (_M <= _Nth) _F = _M; else _L = _M; } _Insertion_sort(_F, _L); } // TEMPLATE FUNCTION nth_element WITH PRED template<class _RI, class _Pr> inline void nth_element(_RI _F, _RI _Nth, _RI _L, _Pr _P) {_Nth_element(_F, _Nth, _L, _P, _Val_type(_F)); } template<class _RI, class _Ty, class _Pr> inline void _Nth_element(_RI _F, _RI _Nth, _RI _L, _Pr _P, _Ty *) {for (; _SORT_MAX < _L - _F; ) {_RI _M = _Unguarded_partition(_F, _L, _Median(_Ty(*_F), _Ty(*(_F + (_L - _F) / 2)), _Ty(*(_L - 1)), _P), _P); if (_M <= _Nth) _F = _M; else _L = _M; } _Insertion_sort(_F, _L, _P); } // TEMPLATE FUNCTION lower_bound template<class _FI, class _Ty> inline _FI lower_bound(_FI _F, _FI _L, const _Ty& _V) {return (_Lower_bound(_F, _L, _V, _Dist_type(_F))); } template<class _FI, class _Ty, class _Pd> inline _FI _Lower_bound(_FI _F, _FI _L, const _Ty& _V, _Pd *) {_Pd _N = 0; _Distance(_F, _L, _N); for (; 0 < _N; ) {_Pd _N2 = _N / 2; _FI _M = _F; advance(_M, _N2); if (*_M < _V) _F = ++_M, _N -= _N2 + 1; else _N = _N2; } return (_F); } // TEMPLATE FUNCTION lower_bound WITH PRED template<class _FI, class _Ty, class _Pr> inline _FI lower_bound(_FI _F, _FI _L, const _Ty& _V, _Pr _P) {return (_Lower_bound(_F, _L, _V, _P, _Dist_type(_F))); } template<class _FI, class _Ty, class _Pd, class _Pr> inline _FI _Lower_bound(_FI _F, _FI _L, const _Ty& _V, _Pr _P, _Pd *) {_Pd _N = 0; _Distance(_F, _L, _N); for (; 0 < _N; ) {_Pd _N2 = _N / 2; _FI _M = _F; advance(_M, _N2); if (_P(*_M, _V)) _F = ++_M, _N -= _N2 + 1; else _N = _N2; } return (_F); } // TEMPLATE FUNCTION upper_bound template<class _FI, class _Ty> inline _FI upper_bound(_FI _F, _FI _L, const _Ty& _V) {return (_Upper_bound(_F, _L, _V, _Dist_type(_F))); } template<class _FI, class _Ty, class _Pd> inline _FI _Upper_bound(_FI _F, _FI _L, const _Ty& _V, _Pd *) {_Pd _N = 0; _Distance(_F, _L, _N); for (; 0 < _N; ) {_Pd _N2 = _N / 2; _FI _M = _F; advance(_M, _N2); if (!(_V < *_M)) _F = ++_M, _N -= _N2 + 1; else _N = _N2; } return (_F); } // TEMPLATE FUNCTION upper_bound WITH PRED template<class _FI, class _Ty, class _Pr> inline _FI upper_bound(_FI _F, _FI _L, const _Ty& _V, _Pr _P) {return (_Upper_bound(_F, _L, _V, _P, _Dist_type(_F))); } template<class _FI, class _Ty, class _Pd, class _Pr> inline _FI _Upper_bound(_FI _F, _FI _L, const _Ty& _V, _Pr _P, _Pd *) {_Pd _N = 0; _Distance(_F, _L, _N); for (; 0 < _N; ) {_Pd _N2 = _N / 2; _FI _M = _F; advance(_M, _N2); if (!_P(_V, *_M)) _F = ++_M, _N -= _N2 + 1; else _N = _N2; } return (_F); } // TEMPLATE FUNCTION equal_range template<class _FI, class _Ty> inline pair<_FI, _FI> equal_range(_FI _F, _FI _L, const _Ty& _V) {return (_Equal_range(_F, _L, _V, _Dist_type(_F))); } template<class _FI, class _Ty, class _Pd> inline pair<_FI, _FI> _Equal_range(_FI _F, _FI _L, const _Ty& _V, _Pd *) {_Pd _N = 0; _Distance(_F, _L, _N); for (; 0 < _N; ) {_Pd _N2 = _N / 2; _FI _M = _F; advance(_M, _N2); if (*_M < _V) _F = ++_M, _N -= _N2 + 1; else if (_V < *_M) _N = _N2; else {_FI _F2 = lower_bound(_F, _M, _V); advance(_F, _N); _FI _L2 = upper_bound(++_M, _F, _V); return (pair<_FI, _FI>(_F2, _L2)); }} return (pair<_FI, _FI>(_F, _F)); } // TEMPLATE FUNCTION equal_range WITH PRED template<class _FI, class _Ty, class _Pr> inline pair<_FI, _FI> equal_range(_FI _F, _FI _L, const _Ty& _V, _Pr _P) {return (_Equal_range(_F, _L, _V, _P, _Dist_type(_F))); } template<class _FI, class _Ty, class _Pd, class _Pr> inline pair<_FI, _FI> _Equal_range(_FI _F, _FI _L, const _Ty& _V, _Pr _P, _Pd *) {_Pd _N = 0; _Distance(_F, _L, _N); for (; 0 < _N; ) {_Pd _N2 = _N / 2; _FI _M = _F; advance(_M, _N2); if (_P(*_M, _V)) _F = ++_M, _N -= _N2 + 1; else if (_P(_V, *_M)) _N = _N2; else {_FI _F2 = lower_bound(_F, _M, _V, _P); advance(_F, _N); _FI _L2 = upper_bound(++_M, _F, _V, _P); return (pair<_FI, _FI>(_F2, _L2)); }} return (pair<_FI, _FI>(_F, _F)); } // TEMPLATE FUNCTION binary_search template<class _FI, class _Ty> inline bool binary_search(_FI _F, _FI _L, const _Ty& _V) {_FI _I = lower_bound(_F, _L, _V); return (_I != _L && !(_V < *_I)); } // TEMPLATE FUNCTION binary_search WITH PRED template<class _FI, class _Ty, class _Pr> inline bool binary_search(_FI _F, _FI _L, const _Ty& _V, _Pr _P) {_FI _I = lower_bound(_F, _L, _V, _P); return (_I != _L && !_P(_V, *_I)); } // TEMPLATE FUNCTION merge template<class _II1, class _II2, class _OI> inline _OI merge(_II1 _F1, _II1 _L1, _II2 _F2, _II2 _L2, _OI _X) {for (; _F1 != _L1 && _F2 != _L2; ++_X) if (*_F2 < *_F1) *_X = *_F2++; else *_X = *_F1++; return (copy(_F2, _L2, copy(_F1, _L1, _X))); } // TEMPLATE FUNCTION merge WITH PRED template<class _II1, class _II2, class _OI, class _Pr> inline _OI merge(_II1 _F1, _II1 _L1, _II2 _F2, _II2 _L2, _OI _X, _Pr _P) {for (; _F1 != _L1 && _F2 != _L2; ++_X) if (_P(*_F2, *_F1)) *_X = *_F2++; else *_X = *_F1++; return (copy(_F2, _L2, copy(_F1, _L1, _X))); } // TEMPLATE FUNCTION inplace_merge template<class _BI> inline void inplace_merge(_BI _F, _BI _M, _BI _L) {if (_F != _L) _Inplace_merge(_F, _M, _L, _Dist_type(_F), _Val_type(_F)); } template<class _BI, class _Pd, class _Ty> inline void _Inplace_merge(_BI _F, _BI _M, _BI _L, _Pd *, _Ty *) {_Pd _D1 = 0; _Distance(_F, _M, _D1); _Pd _D2 = 0; _Distance(_M, _L, _D2); _Temp_iterator<_Ty> _Xb(_D1 < _D2 ? _D1 : _D2); _Buffered_merge(_F, _M, _L, _D1, _D2, _Xb); } template<class _BI, class _Pd, class _Ty> inline void _Buffered_merge(_BI _F, _BI _M, _BI _L, _Pd _D1, _Pd _D2, _Temp_iterator<_Ty>& _Xb) {if (_D1 == 0 || _D2 == 0) ; else if (_D1 + _D2 == 2) {if (*_M < *_F) iter_swap(_F, _M); } else if (_D1 <= _D2 && _D1 <= _Xb._Maxlen()) {copy(_F, _M, _Xb._Init()); merge(_Xb._First(), _Xb._Last(), _M, _L, _F); } else if (_D2 <= _Xb._Maxlen()) {copy(_M, _L, _Xb._Init()); _Merge_backward(_F, _M, _Xb._First(), _Xb._Last(), _L); } else {_BI _Fn, _Ln; _Pd _D1n = 0; _Pd _D2n = 0; if (_D2 < _D1) {_D1n = _D1 / 2; _Fn = _F; advance(_Fn, _D1n); _Ln = lower_bound(_M, _L, _Ty(*_Fn)); _Distance(_M, _Ln, _D2n); } else {_D2n = _D2 / 2; _Ln = _M; advance(_Ln, _D2n); _Fn = upper_bound(_F, _M, _Ty(*_Ln)); _Distance(_F, _Fn, _D1n); } _BI _Mn = _Buffered_rotate(_Fn, _M, _Ln, _D1 - _D1n, _D2n, _Xb); _Buffered_merge(_F, _Fn, _Mn, _D1n, _D2n, _Xb); _Buffered_merge(_Mn, _Ln, _L, _D1 - _D1n, _D2 - _D2n, _Xb); }} template<class _BI1, class _BI2, class _BI3> inline _BI3 _Merge_backward(_BI1 _F1, _BI1 _L1, _BI2 _F2, _BI2 _L2, _BI3 _X) {for (; ; ) if (_F1 == _L1) return (copy_backward(_F2, _L2, _X)); else if (_F2 == _L2) return (copy_backward(_F1, _L1, _X)); else if (*--_L2 < *--_L1) *--_X = *_L1, ++_L2; else *--_X = *_L2, ++_L1; } template<class _BI, class _Pd, class _Ty> inline _BI _Buffered_rotate(_BI _F, _BI _M, _BI _L, _Pd _D1, _Pd _D2, _Temp_iterator<_Ty>& _Xb) {if (_D1 <= _D2 && _D1 <= _Xb._Maxlen()) {copy(_F, _M, _Xb._Init()); copy(_M, _L, _F); return (copy_backward(_Xb._First(), _Xb._Last(), _L)); } else if (_D2 <= _Xb._Maxlen()) {copy(_M, _L, _Xb._Init()); copy_backward(_F, _M, _L); return (copy(_Xb._First(), _Xb._Last(), _F)); } else {rotate(_F, _M, _L); advance(_F, _D2); return (_F); }} // TEMPLATE FUNCTION inplace_merge WITH PRED template<class _BI, class _Pr> inline void inplace_merge(_BI _F, _BI _M, _BI _L, _Pr _P) {if (_F != _L) _Inplace_merge(_F, _M, _L, _P, _Dist_type(_F), _Val_type(_F)); } template<class _BI, class _Pd, class _Ty, class _Pr> inline void _Inplace_merge(_BI _F, _BI _M, _BI _L, _Pr _P, _Pd *, _Ty *) {_Pd _D1 = 0; _Distance(_F, _M, _D1); _Pd _D2 = 0; _Distance(_M, _L, _D2); _Temp_iterator<_Ty> _Xb(_D1 < _D2 ? _D1 : _D2); _Buffered_merge(_F, _M, _L, _D1, _D2, _Xb, _P); } template<class _BI, class _Pd, class _Ty, class _Pr> inline void _Buffered_merge(_BI _F, _BI _M, _BI _L, _Pd _D1, _Pd _D2, _Temp_iterator<_Ty>& _Xb, _Pr _P) {if (_D1 == 0 || _D2 == 0) ; else if (_D1 + _D2 == 2) {if (_P(*_M, *_F)) iter_swap(_F, _M); } else if (_D1 <= _D2 && _D1 <= _Xb._Maxlen()) {copy(_F, _M, _Xb._Init()); merge(_Xb._First(), _Xb._Last(), _M, _L, _F, _P); } else if (_D2 <= _Xb._Maxlen()) {copy(_M, _L, _Xb._Init()); _Merge_backward(_F, _M, _Xb._First(), _Xb._Last(), _L, _P); } else {_BI _Fn, _Ln; _Pd _D1n = 0; _Pd _D2n = 0; if (_D2 < _D1) {_D1n = _D1 / 2; _Fn = _F; advance(_Fn, _D1n); _Ln = lower_bound(_M, _L, _Ty(*_Fn), _P); _Distance(_M, _Ln, _D2n); } else {_D2n = _D2 / 2; _Ln = _M; advance(_Ln, _D2n); _Fn = upper_bound(_F, _M, _Ty(*_Ln), _P); _Distance(_F, _Fn, _D1n); } _BI _Mn = _Buffered_rotate(_Fn, _M, _Ln, _D1 - _D1n, _D2n, _Xb); _Buffered_merge(_F, _Fn, _Mn, _D1n, _D2n, _Xb, _P); _Buffered_merge(_Mn, _Ln, _L, _D1 - _D1n, _D2 - _D2n, _Xb, _P); }} template<class _BI1, class _BI2, class _BI3, class _Pr> inline _BI3 _Merge_backward(_BI1 _F1, _BI1 _L1, _BI2 _F2, _BI2 _L2, _BI3 _X, _Pr _P) {for (; ; ) if (_F1 == _L1) return (copy_backward(_F2, _L2, _X)); else if (_F2 == _L2) return (copy_backward(_F1, _L1, _X)); else if (_P(*--_L2, *--_L1)) *--_X = *_L1, ++_L2; else *--_X = *_L2, ++_L1; } // TEMPLATE FUNCTION includes template<class _II1, class _II2> inline bool includes(_II1 _F1, _II1 _L1, _II2 _F2, _II2 _L2) {for (; _F1 != _L1 && _F2 != _L2; ) if (*_F2 < *_F1) return (false); else if (*_F1 < *_F2) ++_F1; else ++_F2; return (_F2 == _L2); } // TEMPLATE FUNCTION includes WITH PRED template<class _II1, class _II2, class _Pr> inline bool includes(_II1 _F1, _II1 _L1, _II2 _F2, _II2 _L2, _Pr _P) {for (; _F1 != _L1 && _F2 != _L2; ) if (_P(*_F2, *_F1)) return (false); else if (_P(*_F1, *_F2)) ++_F1; else ++_F2; return (_F2 == _L2); } // TEMPLATE FUNCTION set_union template<class _II1, class _II2, class _OI> inline _OI set_union(_II1 _F1, _II1 _L1, _II2 _F2, _II2 _L2, _OI _X) {for (; _F1 != _L1 && _F2 != _L2; ) if (*_F1 < *_F2) *_X++ = *_F1++; else if (*_F2 < *_F1) *_X++ = *_F2++; else *_X++ = *_F1++, ++_F2; return (copy(_F2, _L2, copy(_F1, _L1, _X))); } // TEMPLATE FUNCTION set_union WITH PRED template<class _II1, class _II2, class _OI, class _Pr> inline _OI set_union(_II1 _F1, _II1 _L1, _II2 _F2, _II2 _L2, _OI _X, _Pr _P) {for (; _F1 != _L1 && _F2 != _L2; ) if (_P(*_F1, *_F2)) *_X++ = *_F1++; else if (_P(*_F2, *_F1)) *_X++ = *_F2++; else *_X++ = *_F1++, ++_F2; return (copy(_F2, _L2, copy(_F1, _L1, _X))); } // TEMPLATE FUNCTION set_intersection template<class _II1, class _II2, class _OI> inline _OI set_intersection(_II1 _F1, _II1 _L1, _II2 _F2, _II2 _L2, _OI _X) {for (; _F1 != _L1 && _F2 != _L2; ) if (*_F1 < *_F2) ++_F1; else if (*_F2 < *_F1) ++_F2; else *_X++ = *_F1++, ++_F2; return (_X); } // TEMPLATE FUNCTION set_intersection WITH PRED template<class _II1, class _II2, class _OI, class _Pr> inline _OI set_intersection(_II1 _F1, _II1 _L1, _II2 _F2, _II2 _L2, _OI _X, _Pr _P) {for (; _F1 != _L1 && _F2 != _L2; ) if (_P(*_F1, *_F2)) ++_F1; else if (_P(*_F2, *_F1)) ++_F2; else *_X++ = *_F1++, ++_F2; return (_X); } // TEMPLATE FUNCTION set_difference template<class _II1, class _II2, class _OI> inline _OI set_difference(_II1 _F1, _II1 _L1, _II2 _F2, _II2 _L2, _OI _X) {for (; _F1 != _L1 && _F2 != _L2; ) if (*_F1 < *_F2) *_X++ = *_F1++; else if (*_F2 < *_F1) ++_F2; else ++_F1, ++_F2; return (copy(_F1, _L1, _X)); } // TEMPLATE FUNCTION set_difference WITH PRED template<class _II1, class _II2, class _OI, class _Pr> inline _OI set_difference(_II1 _F1, _II1 _L1, _II2 _F2, _II2 _L2, _OI _X, _Pr _P) {for (; _F1 != _L1 && _F2 != _L2; ) if (_P(*_F1, *_F2)) *_X++ = *_F1++; else if (_P(*_F2, *_F1)) ++_F2; else ++_F1, ++_F2; return (copy(_F1, _L1, _X)); } // TEMPLATE FUNCTION set_symmetric_difference template<class _II1, class _II2, class _OI> inline _OI set_symmetric_difference(_II1 _F1, _II1 _L1, _II2 _F2, _II2 _L2, _OI _X) {for (; _F1 != _L1 && _F2 != _L2; ) if (*_F1 < *_F2) *_X++ = *_F1++; else if (*_F2 < *_F1) *_X++ = *_F2++; else ++_F1, ++_F2; return (copy(_F2, _L2, copy(_F1, _L1, _X))); } // TEMPLATE FUNCTION set_symmetric_difference WITH PRED template<class _II1, class _II2, class _OI, class _Pr> inline _OI set_symmetric_difference(_II1 _F1, _II1 _L1, _II2 _F2, _II2 _L2, _OI _X, _Pr _P) {for (; _F1 != _L1 && _F2 != _L2; ) if (_P(*_F1, *_F2)) *_X++ = *_F1++; else if (_P(*_F2, *_F1)) *_X++ = *_F2++; else ++_F1, ++_F2; return (copy(_F2, _L2, copy(_F1, _L1, _X))); } // TEMPLATE FUNCTION push_heap template<class _RI> inline void push_heap(_RI _F, _RI _L) {_Push_heap_0(_F, _L, _Dist_type(_F), _Val_type(_F)); } template<class _RI, class _Pd, class _Ty> inline void _Push_heap_0(_RI _F, _RI _L, _Pd *, _Ty *) {_Push_heap(_F, _Pd(_L - _F - 1), _Pd(0), _Ty(*(_L - 1))); } template<class _RI, class _Pd, class _Ty> inline void _Push_heap(_RI _F, _Pd _H, _Pd _J, _Ty _V) {for (_Pd _I = (_H - 1) / 2; _J < _H && *(_F + _I) < _V; _I = (_H - 1) / 2) *(_F + _H) = *(_F + _I), _H = _I; *(_F + _H) = _V; } // TEMPLATE FUNCTION push_heap WITH PRED template<class _RI, class _Pr> inline void push_heap(_RI _F, _RI _L, _Pr _P) {_Push_heap_0(_F, _L, _P, _Dist_type(_F), _Val_type(_F)); } template<class _RI, class _Pd, class _Ty, class _Pr> inline void _Push_heap_0(_RI _F, _RI _L, _Pr _P, _Pd *, _Ty *) {_Push_heap(_F, _Pd(_L - _F - 1), _Pd(0), _Ty(*(_L - 1)), _P); } template<class _RI, class _Pd, class _Ty, class _Pr> inline void _Push_heap(_RI _F, _Pd _H, _Pd _J, _Ty _V, _Pr _P) {for (_Pd _I = (_H - 1) / 2; _J < _H && _P(*(_F + _I), _V); _I = (_H - 1) / 2) *(_F + _H) = *(_F + _I), _H = _I; *(_F + _H) = _V; } // TEMPLATE FUNCTION pop_heap template<class _RI> inline void pop_heap(_RI _F, _RI _L) {_Pop_heap_0(_F, _L, _Val_type(_F)); } template<class _RI, class _Ty> inline void _Pop_heap_0(_RI _F, _RI _L, _Ty *) {_Pop_heap(_F, _L - 1, _L - 1, _Ty(*(_L - 1)), _Dist_type(_F)); } template<class _RI, class _Pd, class _Ty> inline void _Pop_heap(_RI _F, _RI _L, _RI _X, _Ty _V, _Pd *) {*_X = *_F; _Adjust_heap(_F, _Pd(0), _Pd(_L - _F), _V); } template<class _RI, class _Pd, class _Ty> inline void _Adjust_heap(_RI _F, _Pd _H, _Pd _N, _Ty _V) {_Pd _J = _H; _Pd _K = 2 * _H + 2; for (; _K < _N; _K = 2 * _K + 2) {if (*(_F + _K) < *(_F + (_K - 1))) --_K; *(_F + _H) = *(_F + _K), _H = _K; } if (_K == _N) *(_F + _H) = *(_F + (_K - 1)), _H = _K - 1; _Push_heap(_F, _H, _J, _V); } // TEMPLATE FUNCTION pop_heap WITH PRED template<class _RI, class _Pr> inline void pop_heap(_RI _F, _RI _L, _Pr _P) {_Pop_heap_0(_F, _L, _P, _Val_type(_F)); } template<class _RI, class _Ty, class _Pr> inline void _Pop_heap_0(_RI _F, _RI _L, _Pr _P, _Ty *) {_Pop_heap(_F, _L - 1, _L - 1, _Ty(*(_L - 1)), _P, _Dist_type(_F)); } template<class _RI, class _Pd, class _Ty, class _Pr> inline void _Pop_heap(_RI _F, _RI _L, _RI _X, _Ty _V, _Pr _P, _Pd *) {*_X = *_F; _Adjust_heap(_F, _Pd(0), _Pd(_L - _F), _V, _P); } template<class _RI, class _Pd, class _Ty, class _Pr> inline void _Adjust_heap(_RI _F, _Pd _H, _Pd _N, _Ty _V, _Pr _P) {_Pd _J = _H; _Pd _K = 2 * _H + 2; for (; _K < _N; _K = 2 * _K + 2) {if (_P(*(_F + _K), *(_F + (_K - 1)))) --_K; *(_F + _H) = *(_F + _K), _H = _K; } if (_K == _N) *(_F + _H) = *(_F + (_K - 1)), _H = _K - 1; _Push_heap(_F, _H, _J, _V, _P); } // TEMPLATE FUNCTION make_heap template<class _RI> inline void make_heap(_RI _F, _RI _L) {if (2 <= _L - _F) _Make_heap(_F, _L, _Dist_type(_F), _Val_type(_F)); } template<class _RI, class _Pd, class _Ty> inline void _Make_heap(_RI _F, _RI _L, _Pd *, _Ty *) {_Pd _N = _L - _F; for (_Pd _H = _N / 2; 0 < _H; ) --_H, _Adjust_heap(_F, _H, _N, _Ty(*(_F + _H))); } // TEMPLATE FUNCTION make_heap WITH PRED template<class _RI, class _Pr> inline void make_heap(_RI _F, _RI _L, _Pr _P) {if (2 <= _L - _F) _Make_heap(_F, _L, _P, _Dist_type(_F), _Val_type(_F)); } template<class _RI, class _Pd, class _Ty, class _Pr> inline void _Make_heap(_RI _F, _RI _L, _Pr _P, _Pd *, _Ty *) {_Pd _N = _L - _F; for (_Pd _H = _N / 2; 0 < _H; ) --_H, _Adjust_heap(_F, _H, _N, _Ty(*(_F + _H)), _P); } // TEMPLATE FUNCTION sort_heap template<class _RI> inline void sort_heap(_RI _F, _RI _L) {for (; 1 < _L - _F; --_L) pop_heap(_F, _L); } // TEMPLATE FUNCTION sort_heap WITH PRED template<class _RI, class _Pr> inline void sort_heap(_RI _F, _RI _L, _Pr _P) {for (; 1 < _L - _F; --_L) pop_heap(_F, _L, _P); } // TEMPLATE FUNCTION max_element template<class _FI> inline _FI max_element(_FI _F, _FI _L) {_FI _X = _F; if (_F != _L) for (; ++_F != _L; ) if (*_X < *_F) _X = _F; return (_X); } // TEMPLATE FUNCTION max_element WITH PRED template<class _FI, class _Pr> inline _FI max_element(_FI _F, _FI _L, _Pr _P) {_FI _X = _F; if (_F != _L) for (; ++_F != _L; ) if (_P(*_X, *_F)) _X = _F; return (_X); } // TEMPLATE FUNCTION min_element template<class _FI> inline _FI min_element(_FI _F, _FI _L) {_FI _X = _F; if (_F != _L) for (; ++_F != _L; ) if (*_F < *_X) _X = _F; return (_X); } // TEMPLATE FUNCTION min_element WITH PRED template<class _FI, class _Pr> inline _FI min_element(_FI _F, _FI _L, _Pr _P) {_FI _X = _F; if (_F != _L) for (; ++_F != _L; ) if (_P(*_F, *_X)) _X = _F; return (_X); } // TEMPLATE FUNCTION next_permutation template<class _BI> inline bool next_permutation(_BI _F, _BI _L) {_BI _I = _L; if (_F == _L || _F == --_I) return (false); for (; ; ) {_BI _Ip = _I; if (*--_I < *_Ip) {_BI _J = _L; for (; !(*_I < *--_J); ) ; iter_swap(_I, _J); reverse(_Ip, _L); return (true); } if (_I == _F) {reverse(_F, _L); return (false); }}} // TEMPLATE FUNCTION next_permutation WITH PRED template<class _BI, class _Pr> inline bool next_permutation(_BI _F, _BI _L, _Pr _P) {_BI _I = _L; if (_F == _L || _F == --_I) return (false); for (; ; ) {_BI _Ip = _I; if (_P(*--_I, *_Ip)) {_BI _J = _L; for (; !_P(*_I, *--_J); ) ; iter_swap(_I, _J); reverse(_Ip, _L); return (true); } if (_I == _F) {reverse(_F, _L); return (false); }}} // TEMPLATE FUNCTION prev_permutation template<class _BI> inline bool prev_permutation(_BI _F, _BI _L) {_BI _I = _L; if (_F == _L || _F == --_I) return (false); for (; ; ) {_BI _Ip = _I; if (!(*--_I < *_Ip)) {_BI _J = _L; for (; *_I < *--_J; ) ; iter_swap(_I, _J); reverse(_Ip, _L); return (true); } if (_I == _F) {reverse(_F, _L); return (false); }}} // TEMPLATE FUNCTION prev_permutation WITH PRED template<class _BI, class _Pr> inline bool prev_permutation(_BI _F, _BI _L, _Pr _P) {_BI _I = _L; if (_F == _L || _F == --_I) return (false); for (; ; ) {_BI _Ip = _I; if (!_P(*--_I, *_Ip)) {_BI _J = _L; for (; _P(*_I, *--_J); ) ; iter_swap(_I, _J); reverse(_Ip, _L); return (true); } if (_I == _F) {reverse(_F, _L); return (false); }}} _STD_END #ifdef _MSC_VER #pragma pack(pop) #endif /* _MSC_VER */
#endif /* _ALGORITHM_ */
/* * Copyright (c) 1995 by P.J. Plauger. ALL RIGHTS RESERVED. * Consult your license regarding permissions and restrictions. */
/* * This file is derived from software bearing the following * restrictions: * * 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. */
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