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629 lines
18 KiB
C
629 lines
18 KiB
C
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/*
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*
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* Copyright (c) 1994
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* Hewlett-Packard Company
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*
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* Permission to use, copy, modify, distribute and sell this software
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* and its documentation for any purpose is hereby granted without fee,
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* provided that the above copyright notice appear in all copies and
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* that both that copyright notice and this permission notice appear
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* in supporting documentation. Hewlett-Packard Company makes no
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* representations about the suitability of this software for any
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* purpose. It is provided "as is" without express or implied warranty.
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*
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*
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* Copyright (c) 1996
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* Silicon Graphics Computer Systems, Inc.
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*
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* Permission to use, copy, modify, distribute and sell this software
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* and its documentation for any purpose is hereby granted without fee,
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* provided that the above copyright notice appear in all copies and
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* that both that copyright notice and this permission notice appear
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* in supporting documentation. Silicon Graphics makes no
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* representations about the suitability of this software for any
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* purpose. It is provided "as is" without express or implied warranty.
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*/
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/* NOTE: This is an internal header file, included by other STL headers.
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* You should not attempt to use it directly.
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*/
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#ifndef __SGI_STL_INTERNAL_FUNCTION_H
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#define __SGI_STL_INTERNAL_FUNCTION_H
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__STL_BEGIN_NAMESPACE
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template <class Arg, class Result>
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struct unary_function {
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typedef Arg argument_type;
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typedef Result result_type;
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};
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template <class Arg1, class Arg2, class Result>
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struct binary_function {
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typedef Arg1 first_argument_type;
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typedef Arg2 second_argument_type;
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typedef Result result_type;
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};
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template <class T>
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struct plus : public binary_function<T, T, T> {
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T operator()(const T& x, const T& y) const { return x + y; }
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};
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template <class T>
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struct minus : public binary_function<T, T, T> {
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T operator()(const T& x, const T& y) const { return x - y; }
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};
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template <class T>
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struct multiplies : public binary_function<T, T, T> {
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T operator()(const T& x, const T& y) const { return x * y; }
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};
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template <class T>
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struct divides : public binary_function<T, T, T> {
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T operator()(const T& x, const T& y) const { return x / y; }
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};
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template <class T> inline T identity_element(plus<T>) { return T(0); }
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template <class T> inline T identity_element(multiplies<T>) { return T(1); }
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template <class T>
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struct modulus : public binary_function<T, T, T> {
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T operator()(const T& x, const T& y) const { return x % y; }
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};
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template <class T>
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struct negate : public unary_function<T, T> {
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T operator()(const T& x) const { return -x; }
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};
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template <class T>
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struct equal_to : public binary_function<T, T, bool> {
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bool operator()(const T& x, const T& y) const { return x == y; }
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};
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template <class T>
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struct not_equal_to : public binary_function<T, T, bool> {
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bool operator()(const T& x, const T& y) const { return x != y; }
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};
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template <class T>
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struct greater : public binary_function<T, T, bool> {
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bool operator()(const T& x, const T& y) const { return x > y; }
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};
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template <class T>
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struct less : public binary_function<T, T, bool> {
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bool operator()(const T& x, const T& y) const { return x < y; }
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};
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template <class T>
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struct greater_equal : public binary_function<T, T, bool> {
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bool operator()(const T& x, const T& y) const { return x >= y; }
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};
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template <class T>
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struct less_equal : public binary_function<T, T, bool> {
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bool operator()(const T& x, const T& y) const { return x <= y; }
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};
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template <class T>
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struct logical_and : public binary_function<T, T, bool> {
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bool operator()(const T& x, const T& y) const { return x && y; }
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};
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template <class T>
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struct logical_or : public binary_function<T, T, bool> {
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bool operator()(const T& x, const T& y) const { return x || y; }
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};
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template <class T>
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struct logical_not : public unary_function<T, bool> {
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bool operator()(const T& x) const { return !x; }
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};
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template <class Predicate>
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class unary_negate
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: public unary_function<typename Predicate::argument_type, bool> {
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protected:
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Predicate pred;
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public:
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explicit unary_negate(const Predicate& x) : pred(x) {}
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bool operator()(const typename Predicate::argument_type& x) const {
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return !pred(x);
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}
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};
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template <class Predicate>
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inline unary_negate<Predicate> not1(const Predicate& pred) {
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return unary_negate<Predicate>(pred);
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}
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template <class Predicate>
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class binary_negate
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: public binary_function<typename Predicate::first_argument_type,
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typename Predicate::second_argument_type,
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bool> {
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protected:
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Predicate pred;
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public:
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explicit binary_negate(const Predicate& x) : pred(x) {}
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bool operator()(const typename Predicate::first_argument_type& x,
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const typename Predicate::second_argument_type& y) const {
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return !pred(x, y);
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}
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};
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template <class Predicate>
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inline binary_negate<Predicate> not2(const Predicate& pred) {
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return binary_negate<Predicate>(pred);
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}
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template <class Operation>
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class binder1st
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: public unary_function<typename Operation::second_argument_type,
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typename Operation::result_type> {
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protected:
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Operation op;
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typename Operation::first_argument_type value;
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public:
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binder1st(const Operation& x,
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const typename Operation::first_argument_type& y)
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: op(x), value(y) {}
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typename Operation::result_type
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operator()(const typename Operation::second_argument_type& x) const {
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return op(value, x);
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}
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};
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template <class Operation, class T>
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inline binder1st<Operation> bind1st(const Operation& op, const T& x) {
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typedef typename Operation::first_argument_type arg1_type;
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return binder1st<Operation>(op, arg1_type(x));
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}
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template <class Operation>
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class binder2nd
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: public unary_function<typename Operation::first_argument_type,
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typename Operation::result_type> {
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protected:
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Operation op;
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typename Operation::second_argument_type value;
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public:
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binder2nd(const Operation& x,
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const typename Operation::second_argument_type& y)
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: op(x), value(y) {}
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typename Operation::result_type
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operator()(const typename Operation::first_argument_type& x) const {
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return op(x, value);
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}
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};
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template <class Operation, class T>
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inline binder2nd<Operation> bind2nd(const Operation& op, const T& x) {
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typedef typename Operation::second_argument_type arg2_type;
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return binder2nd<Operation>(op, arg2_type(x));
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}
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template <class Operation1, class Operation2>
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class unary_compose : public unary_function<typename Operation2::argument_type,
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typename Operation1::result_type> {
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protected:
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Operation1 op1;
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Operation2 op2;
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public:
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unary_compose(const Operation1& x, const Operation2& y) : op1(x), op2(y) {}
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typename Operation1::result_type
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operator()(const typename Operation2::argument_type& x) const {
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return op1(op2(x));
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}
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};
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template <class Operation1, class Operation2>
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inline unary_compose<Operation1, Operation2> compose1(const Operation1& op1,
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const Operation2& op2) {
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return unary_compose<Operation1, Operation2>(op1, op2);
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}
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template <class Operation1, class Operation2, class Operation3>
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class binary_compose
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: public unary_function<typename Operation2::argument_type,
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typename Operation1::result_type> {
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protected:
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Operation1 op1;
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Operation2 op2;
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Operation3 op3;
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public:
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binary_compose(const Operation1& x, const Operation2& y,
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const Operation3& z) : op1(x), op2(y), op3(z) { }
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typename Operation1::result_type
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operator()(const typename Operation2::argument_type& x) const {
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return op1(op2(x), op3(x));
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}
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};
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template <class Operation1, class Operation2, class Operation3>
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inline binary_compose<Operation1, Operation2, Operation3>
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compose2(const Operation1& op1, const Operation2& op2, const Operation3& op3) {
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return binary_compose<Operation1, Operation2, Operation3>(op1, op2, op3);
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}
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template <class Arg, class Result>
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class pointer_to_unary_function : public unary_function<Arg, Result> {
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protected:
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Result (*ptr)(Arg);
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public:
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pointer_to_unary_function() {}
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explicit pointer_to_unary_function(Result (*x)(Arg)) : ptr(x) {}
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Result operator()(Arg x) const { return ptr(x); }
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};
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template <class Arg, class Result>
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inline pointer_to_unary_function<Arg, Result> ptr_fun(Result (*x)(Arg)) {
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return pointer_to_unary_function<Arg, Result>(x);
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}
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template <class Arg1, class Arg2, class Result>
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class pointer_to_binary_function : public binary_function<Arg1, Arg2, Result> {
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protected:
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Result (*ptr)(Arg1, Arg2);
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public:
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pointer_to_binary_function() {}
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explicit pointer_to_binary_function(Result (*x)(Arg1, Arg2)) : ptr(x) {}
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Result operator()(Arg1 x, Arg2 y) const { return ptr(x, y); }
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};
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template <class Arg1, class Arg2, class Result>
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inline pointer_to_binary_function<Arg1, Arg2, Result>
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ptr_fun(Result (*x)(Arg1, Arg2)) {
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return pointer_to_binary_function<Arg1, Arg2, Result>(x);
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}
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template <class T>
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struct identity : public unary_function<T, T> {
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const T& operator()(const T& x) const { return x; }
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};
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template <class Pair>
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struct select1st : public unary_function<Pair, typename Pair::first_type> {
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const typename Pair::first_type& operator()(const Pair& x) const
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{
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return x.first;
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}
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};
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template <class Pair>
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struct select2nd : public unary_function<Pair, typename Pair::second_type> {
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const typename Pair::second_type& operator()(const Pair& x) const
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{
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return x.second;
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}
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};
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template <class Arg1, class Arg2>
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struct project1st : public binary_function<Arg1, Arg2, Arg1> {
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Arg1 operator()(const Arg1& x, const Arg2&) const { return x; }
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};
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template <class Arg1, class Arg2>
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struct project2nd : public binary_function<Arg1, Arg2, Arg2> {
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Arg2 operator()(const Arg1&, const Arg2& y) const { return y; }
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};
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template <class Result>
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struct constant_void_fun
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{
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typedef Result result_type;
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result_type val;
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constant_void_fun(const result_type& v) : val(v) {}
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const result_type& operator()() const { return val; }
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};
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#ifndef __STL_LIMITED_DEFAULT_TEMPLATES
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template <class Result, class Argument = Result>
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#else
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template <class Result, class Argument>
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#endif
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struct constant_unary_fun : public unary_function<Argument, Result> {
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Result val;
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constant_unary_fun(const Result& v) : val(v) {}
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const Result& operator()(const Argument&) const { return val; }
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};
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#ifndef __STL_LIMITED_DEFAULT_TEMPLATES
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template <class Result, class Arg1 = Result, class Arg2 = Arg1>
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#else
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template <class Result, class Arg1, class Arg2>
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#endif
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struct constant_binary_fun : public binary_function<Arg1, Arg2, Result> {
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Result val;
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constant_binary_fun(const Result& v) : val(v) {}
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const Result& operator()(const Arg1&, const Arg2&) const {
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return val;
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}
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};
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template <class Result>
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||
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inline constant_void_fun<Result> constant0(const Result& val)
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{
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return constant_void_fun<Result>(val);
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}
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|
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template <class Result>
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||
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inline constant_unary_fun<Result,Result> constant1(const Result& val)
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{
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return constant_unary_fun<Result,Result>(val);
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}
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|
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template <class Result>
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inline constant_binary_fun<Result,Result,Result> constant2(const Result& val)
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{
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return constant_binary_fun<Result,Result,Result>(val);
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|
}
|
||
|
|
||
|
// Note: this code assumes that int is 32 bits.
|
||
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class subtractive_rng : public unary_function<unsigned int, unsigned int> {
|
||
|
private:
|
||
|
unsigned int table[55];
|
||
|
size_t index1;
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||
|
size_t index2;
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||
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public:
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||
|
unsigned int operator()(unsigned int limit) {
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|
index1 = (index1 + 1) % 55;
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index2 = (index2 + 1) % 55;
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table[index1] = table[index1] - table[index2];
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return table[index1] % limit;
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|
}
|
||
|
|
||
|
void initialize(unsigned int seed)
|
||
|
{
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||
|
unsigned int k = 1;
|
||
|
table[54] = seed;
|
||
|
size_t i;
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||
|
for (i = 0; i < 54; i++) {
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size_t ii = (21 * (i + 1) % 55) - 1;
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table[ii] = k;
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k = seed - k;
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seed = table[ii];
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}
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||
|
for (int loop = 0; loop < 4; loop++) {
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||
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for (i = 0; i < 55; i++)
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||
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table[i] = table[i] - table[(1 + i + 30) % 55];
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||
|
}
|
||
|
index1 = 0;
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||
|
index2 = 31;
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||
|
}
|
||
|
|
||
|
subtractive_rng(unsigned int seed) { initialize(seed); }
|
||
|
subtractive_rng() { initialize(161803398u); }
|
||
|
};
|
||
|
|
||
|
|
||
|
// Adaptor function objects: pointers to member functions.
|
||
|
|
||
|
// There are a total of 16 = 2^4 function objects in this family.
|
||
|
// (1) Member functions taking no arguments vs member functions taking
|
||
|
// one argument.
|
||
|
// (2) Call through pointer vs call through reference.
|
||
|
// (3) Member function with void return type vs member function with
|
||
|
// non-void return type.
|
||
|
// (4) Const vs non-const member function.
|
||
|
|
||
|
// Note that choice (4) is not present in the 8/97 draft C++ standard,
|
||
|
// which only allows these adaptors to be used with non-const functions.
|
||
|
// This is likely to be recified before the standard becomes final.
|
||
|
// Note also that choice (3) is nothing more than a workaround: according
|
||
|
// to the draft, compilers should handle void and non-void the same way.
|
||
|
// This feature is not yet widely implemented, though. You can only use
|
||
|
// member functions returning void if your compiler supports partial
|
||
|
// specialization.
|
||
|
|
||
|
// All of this complexity is in the function objects themselves. You can
|
||
|
// ignore it by using the helper function mem_fun, mem_fun_ref,
|
||
|
// mem_fun1, and mem_fun1_ref, which create whichever type of adaptor
|
||
|
// is appropriate.
|
||
|
|
||
|
|
||
|
template <class S, class T>
|
||
|
class mem_fun_t : public unary_function<T*, S> {
|
||
|
public:
|
||
|
explicit mem_fun_t(S (T::*pf)()) : f(pf) {}
|
||
|
S operator()(T* p) const { return (p->*f)(); }
|
||
|
private:
|
||
|
S (T::*f)();
|
||
|
};
|
||
|
|
||
|
template <class S, class T>
|
||
|
class const_mem_fun_t : public unary_function<const T*, S> {
|
||
|
public:
|
||
|
explicit const_mem_fun_t(S (T::*pf)() const) : f(pf) {}
|
||
|
S operator()(const T* p) const { return (p->*f)(); }
|
||
|
private:
|
||
|
S (T::*f)() const;
|
||
|
};
|
||
|
|
||
|
|
||
|
template <class S, class T>
|
||
|
class mem_fun_ref_t : public unary_function<T, S> {
|
||
|
public:
|
||
|
explicit mem_fun_ref_t(S (T::*pf)()) : f(pf) {}
|
||
|
S operator()(T& r) const { return (r.*f)(); }
|
||
|
private:
|
||
|
S (T::*f)();
|
||
|
};
|
||
|
|
||
|
template <class S, class T>
|
||
|
class const_mem_fun_ref_t : public unary_function<T, S> {
|
||
|
public:
|
||
|
explicit const_mem_fun_ref_t(S (T::*pf)() const) : f(pf) {}
|
||
|
S operator()(const T& r) const { return (r.*f)(); }
|
||
|
private:
|
||
|
S (T::*f)() const;
|
||
|
};
|
||
|
|
||
|
template <class S, class T, class A>
|
||
|
class mem_fun1_t : public binary_function<T*, A, S> {
|
||
|
public:
|
||
|
explicit mem_fun1_t(S (T::*pf)(A)) : f(pf) {}
|
||
|
S operator()(T* p, A x) const { return (p->*f)(x); }
|
||
|
private:
|
||
|
S (T::*f)(A);
|
||
|
};
|
||
|
|
||
|
template <class S, class T, class A>
|
||
|
class const_mem_fun1_t : public binary_function<const T*, A, S> {
|
||
|
public:
|
||
|
explicit const_mem_fun1_t(S (T::*pf)(A) const) : f(pf) {}
|
||
|
S operator()(const T* p, A x) const { return (p->*f)(x); }
|
||
|
private:
|
||
|
S (T::*f)(A) const;
|
||
|
};
|
||
|
|
||
|
template <class S, class T, class A>
|
||
|
class mem_fun1_ref_t : public binary_function<T, A, S> {
|
||
|
public:
|
||
|
explicit mem_fun1_ref_t(S (T::*pf)(A)) : f(pf) {}
|
||
|
S operator()(T& r, A x) const { return (r.*f)(x); }
|
||
|
private:
|
||
|
S (T::*f)(A);
|
||
|
};
|
||
|
|
||
|
template <class S, class T, class A>
|
||
|
class const_mem_fun1_ref_t : public binary_function<T, A, S> {
|
||
|
public:
|
||
|
explicit const_mem_fun1_ref_t(S (T::*pf)(A) const) : f(pf) {}
|
||
|
S operator()(const T& r, A x) const { return (r.*f)(x); }
|
||
|
private:
|
||
|
S (T::*f)(A) const;
|
||
|
};
|
||
|
|
||
|
#ifdef __STL_CLASS_PARTIAL_SPECIALIZATION
|
||
|
|
||
|
template <class T>
|
||
|
class mem_fun_t<void, T> : public unary_function<T*, void> {
|
||
|
public:
|
||
|
explicit mem_fun_t(void (T::*pf)()) : f(pf) {}
|
||
|
void operator()(T* p) const { (p->*f)(); }
|
||
|
private:
|
||
|
void (T::*f)();
|
||
|
};
|
||
|
|
||
|
template <class T>
|
||
|
class const_mem_fun_t<void, T> : public unary_function<const T*, void> {
|
||
|
public:
|
||
|
explicit const_mem_fun_t(void (T::*pf)() const) : f(pf) {}
|
||
|
void operator()(const T* p) const { (p->*f)(); }
|
||
|
private:
|
||
|
void (T::*f)() const;
|
||
|
};
|
||
|
|
||
|
template <class T>
|
||
|
class mem_fun_ref_t<void, T> : public unary_function<T, void> {
|
||
|
public:
|
||
|
explicit mem_fun_ref_t(void (T::*pf)()) : f(pf) {}
|
||
|
void operator()(T& r) const { (r.*f)(); }
|
||
|
private:
|
||
|
void (T::*f)();
|
||
|
};
|
||
|
|
||
|
template <class T>
|
||
|
class const_mem_fun_ref_t<void, T> : public unary_function<T, void> {
|
||
|
public:
|
||
|
explicit const_mem_fun_ref_t(void (T::*pf)() const) : f(pf) {}
|
||
|
void operator()(const T& r) const { (r.*f)(); }
|
||
|
private:
|
||
|
void (T::*f)() const;
|
||
|
};
|
||
|
|
||
|
template <class T, class A>
|
||
|
class mem_fun1_t<void, T, A> : public binary_function<T*, A, void> {
|
||
|
public:
|
||
|
explicit mem_fun1_t(void (T::*pf)(A)) : f(pf) {}
|
||
|
void operator()(T* p, A x) const { (p->*f)(x); }
|
||
|
private:
|
||
|
void (T::*f)(A);
|
||
|
};
|
||
|
|
||
|
template <class T, class A>
|
||
|
class const_mem_fun1_t<void, T, A> : public binary_function<const T*, A, void> {
|
||
|
public:
|
||
|
explicit const_mem_fun1_t(void (T::*pf)(A) const) : f(pf) {}
|
||
|
void operator()(const T* p, A x) const { (p->*f)(x); }
|
||
|
private:
|
||
|
void (T::*f)(A) const;
|
||
|
};
|
||
|
|
||
|
template <class T, class A>
|
||
|
class mem_fun1_ref_t<void, T, A> : public binary_function<T, A, void> {
|
||
|
public:
|
||
|
explicit mem_fun1_ref_t(void (T::*pf)(A)) : f(pf) {}
|
||
|
void operator()(T& r, A x) const { (r.*f)(x); }
|
||
|
private:
|
||
|
void (T::*f)(A);
|
||
|
};
|
||
|
|
||
|
template <class T, class A>
|
||
|
class const_mem_fun1_ref_t<void, T, A> : public binary_function<T, A, void> {
|
||
|
public:
|
||
|
explicit const_mem_fun1_ref_t(void (T::*pf)(A) const) : f(pf) {}
|
||
|
void operator()(const T& r, A x) const { (r.*f)(x); }
|
||
|
private:
|
||
|
void (T::*f)(A) const;
|
||
|
};
|
||
|
|
||
|
#endif /* __STL_CLASS_PARTIAL_SPECIALIZATION */
|
||
|
|
||
|
// Mem_fun adaptor helper functions. There are only four:
|
||
|
// mem_fun, mem_fun_ref, mem_fun1, mem_fun1_ref.
|
||
|
|
||
|
template <class S, class T>
|
||
|
inline mem_fun_t<S,T> mem_fun(S (T::*f)()) {
|
||
|
return mem_fun_t<S,T>(f);
|
||
|
}
|
||
|
|
||
|
template <class S, class T>
|
||
|
inline const_mem_fun_t<S,T> mem_fun(S (T::*f)() const) {
|
||
|
return const_mem_fun_t<S,T>(f);
|
||
|
}
|
||
|
|
||
|
template <class S, class T>
|
||
|
inline mem_fun_ref_t<S,T> mem_fun_ref(S (T::*f)()) {
|
||
|
return mem_fun_ref_t<S,T>(f);
|
||
|
}
|
||
|
|
||
|
template <class S, class T>
|
||
|
inline const_mem_fun_ref_t<S,T> mem_fun_ref(S (T::*f)() const) {
|
||
|
return const_mem_fun_ref_t<S,T>(f);
|
||
|
}
|
||
|
|
||
|
template <class S, class T, class A>
|
||
|
inline mem_fun1_t<S,T,A> mem_fun1(S (T::*f)(A)) {
|
||
|
return mem_fun1_t<S,T,A>(f);
|
||
|
}
|
||
|
|
||
|
template <class S, class T, class A>
|
||
|
inline const_mem_fun1_t<S,T,A> mem_fun1(S (T::*f)(A) const) {
|
||
|
return const_mem_fun1_t<S,T,A>(f);
|
||
|
}
|
||
|
|
||
|
template <class S, class T, class A>
|
||
|
inline mem_fun1_ref_t<S,T,A> mem_fun1_ref(S (T::*f)(A)) {
|
||
|
return mem_fun1_ref_t<S,T,A>(f);
|
||
|
}
|
||
|
|
||
|
template <class S, class T, class A>
|
||
|
inline const_mem_fun1_ref_t<S,T,A> mem_fun1_ref(S (T::*f)(A) const) {
|
||
|
return const_mem_fun1_ref_t<S,T,A>(f);
|
||
|
}
|
||
|
|
||
|
__STL_END_NAMESPACE
|
||
|
|
||
|
#endif /* __SGI_STL_INTERNAL_FUNCTION_H */
|
||
|
|
||
|
// Local Variables:
|
||
|
// mode:C++
|
||
|
// End:
|