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Diffstat (limited to 'src/debug/mse/mseprimitives.h')
-rw-r--r-- | src/debug/mse/mseprimitives.h | 873 |
1 files changed, 873 insertions, 0 deletions
diff --git a/src/debug/mse/mseprimitives.h b/src/debug/mse/mseprimitives.h new file mode 100644 index 000000000..b470288b9 --- /dev/null +++ b/src/debug/mse/mseprimitives.h @@ -0,0 +1,873 @@ + +// Copyright (c) 2015 Noah Lopez +// Use, modification, and distribution is subject to the Boost Software +// License, Version 1.0. (See accompanying file LICENSE_1_0.txt or copy at +// http://www.boost.org/LICENSE_1_0.txt) + +#pragma once +#ifndef MSEPRIMITIVES_H +#define MSEPRIMITIVES_H + +#include <assert.h> +#include <climits> // ULONG_MAX +#include <limits> // std::numeric_limits +#include <stdexcept> // primitives_range_error + +/*compiler specific defines*/ +#ifdef _MSC_VER +#if (1700 > _MSC_VER) +#define MSVC2010_COMPATIBLE 1 +#endif /*(1700 > _MSC_VER)*/ +#if (1900 > _MSC_VER) +#define MSVC2013_COMPATIBLE 1 +#endif /*(1900 > _MSC_VER)*/ +#if (2000 > _MSC_VER) +#define MSVC2015_COMPATIBLE 1 +#endif /*(1900 > _MSC_VER)*/ +#else /*_MSC_VER*/ +#if (defined(__GNUC__) || defined(__GNUG__)) +#define GPP_COMPATIBLE 1 +#if ((5 > __GNUC__) && (!defined(__clang__))) +#define GPP4P8_COMPATIBLE 1 +#endif /*((5 > __GNUC__) && (!defined(__clang__)))*/ +#endif /*(defined(__GNUC__) || defined(__GNUG__))*/ +#endif /*_MSC_VER*/ + +#ifdef MSE_SAFER_SUBSTITUTES_DISABLED +#define MSE_PRIMITIVES_DISABLED +#endif /*MSE_SAFER_SUBSTITUTES_DISABLED*/ + +#if defined(MSVC2013_COMPATIBLE) || defined(MSVC2010_COMPATIBLE) +#define MSE_CONSTEXPR +#else // defined(MSVC2013_COMPATIBLE) || defined(MSVC2010_COMPATIBLE) +#define MSE_CONSTEXPR constexpr +#endif // defined(MSVC2013_COMPATIBLE) || defined(MSVC2010_COMPATIBLE) + +#ifdef MSVC2015_COMPATIBLE +#ifndef MSE_FORCE_PRIMITIVE_ASSIGN_RANGE_CHECK_ENABLED +/* msvc2015's incomplete support for "constexpr" means that range checks that should be done at compile time would +be done at run time, at significant cost. So by default we disable range checks upon assignment. */ +#define MSE_PRIMITIVE_ASSIGN_RANGE_CHECK_DISABLED 1 +#endif // !MSE_FORCE_PRIMITIVE_ASSIGN_RANGE_CHECK_ENABLED +#endif // MSVC2015_COMPATIBLE + + +#ifdef MSE_CUSTOM_THROW_DEFINITION +#include <iostream> +#define MSE_THROW(x) MSE_CUSTOM_THROW_DEFINITION(x) +#else // MSE_CUSTOM_THROW_DEFINITION +#define MSE_THROW(x) throw(x) +#endif // MSE_CUSTOM_THROW_DEFINITION + + +#ifndef MSE_CINT_BASE_INTEGER_TYPE +#if SIZE_MAX <= ULONG_MAX +#define MSE_CINT_BASE_INTEGER_TYPE long int +#else // SIZE_MAX <= ULONG_MAX +#define MSE_CINT_BASE_INTEGER_TYPE long long int +#endif // SIZE_MAX <= ULONG_MAX +#endif // !MSE_CINT_BASE_INTEGER_TYPE + + +namespace mse { + + class primitives_range_error : public std::range_error { + public: + using std::range_error::range_error; + }; + + /* When the mse primitive replacements are "disabled" they lose their default initialization and may cause problems for + code that relies on it. */ +#ifdef MSE_PRIMITIVES_DISABLED + typedef bool CBool; + typedef MSE_CINT_BASE_INTEGER_TYPE CInt; + typedef size_t CSize_t; + static size_t as_a_size_t(CSize_t n) { return (n); } +#else /*MSE_PRIMITIVES_DISABLED*/ + +#ifndef NDEBUG +#ifndef MSE_SUPPRESS_CHECK_USE_BEFORE_SET +#define MSE_CHECK_USE_BEFORE_SET +#endif // !MSE_SUPPRESS_CHECK_USE_BEFORE_SET +#endif // !NDEBUG + + /* This class is just meant to act like the "bool" type, except that it has a default intialization value (false). */ + class CBool { + public: + // Constructs zero. + CBool() : m_val(false) {} + + // Copy constructor + CBool(const CBool &x) : m_val(x.m_val) { note_value_assignment(); }; + + // Assignment operator + CBool& operator=(const CBool &x) { note_value_assignment(); m_val = x.m_val; return (*this); } + + // Constructors from primitive boolean types + CBool(bool x) { note_value_assignment(); m_val = x; } + + // Casts to primitive boolean types + operator bool() const { assert_initialized(); return m_val; } + + CBool& operator |=(const CBool &x) { assert_initialized(); m_val |= x.m_val; return (*this); } + CBool& operator &=(const CBool &x) { assert_initialized(); m_val &= x.m_val; return (*this); } + CBool& operator ^=(const CBool &x) { assert_initialized(); m_val ^= x.m_val; return (*this); } + + bool m_val; + +#ifdef MSE_CHECK_USE_BEFORE_SET + void note_value_assignment() { m_initialized = true; } + void assert_initialized() const { assert(m_initialized); } + bool m_initialized = false; +#else // MSE_CHECK_USE_BEFORE_SET + void note_value_assignment() {} + void assert_initialized() const {} +#endif // MSE_CHECK_USE_BEFORE_SET + }; + + + template<typename _TDestination, typename _TSource> + MSE_CONSTEXPR static bool sg_can_exceed_upper_bound() { + return ( + ((std::numeric_limits<_TSource>::is_signed == std::numeric_limits<_TDestination>::is_signed) + && (std::numeric_limits<_TSource>::digits > std::numeric_limits<_TDestination>::digits)) + || ((std::numeric_limits<_TSource>::is_signed != std::numeric_limits<_TDestination>::is_signed) + && ((std::numeric_limits<_TSource>::is_signed && (std::numeric_limits<_TSource>::digits > (1 + std::numeric_limits<_TDestination>::digits))) + || ((!std::numeric_limits<_TSource>::is_signed) && ((1 + std::numeric_limits<_TSource>::digits) > std::numeric_limits<_TDestination>::digits)) + ) + ) + ); + } + template<typename _TDestination, typename _TSource> + MSE_CONSTEXPR static bool sg_can_exceed_lower_bound() { + return ( + (std::numeric_limits<_TSource>::is_signed && (!std::numeric_limits<_TDestination>::is_signed)) + || (std::numeric_limits<_TSource>::is_signed && (std::numeric_limits<_TSource>::digits > std::numeric_limits<_TDestination>::digits)) + ); + } + + template<typename _TDestination, typename _TSource> + void g_assign_check_range(const _TSource &x) { +#ifndef MSE_PRIMITIVE_ASSIGN_RANGE_CHECK_DISABLED + /* This probably needs to be cleaned up. But at the moment this should be mostly compile time complexity. And + as is it avoids "signed/unsigned" mismatch warnings. */ + MSE_CONSTEXPR const bool rhs_can_exceed_upper_bound = sg_can_exceed_upper_bound<_TDestination, _TSource>(); + MSE_CONSTEXPR const bool rhs_can_exceed_lower_bound = sg_can_exceed_lower_bound<_TDestination, _TSource>(); + MSE_CONSTEXPR const bool can_exceed_bounds = rhs_can_exceed_upper_bound || rhs_can_exceed_lower_bound; + if (can_exceed_bounds) { + if (rhs_can_exceed_upper_bound) { + if (x > _TSource(std::numeric_limits<_TDestination>::max())) { + MSE_THROW(primitives_range_error("range error - value to be assigned is out of range of the target (integer) type")); + } + } + if (rhs_can_exceed_lower_bound) { + /* We're assuming that std::numeric_limits<>::lowest() will never be greater than zero. */ + if (0 > x) { + if (0 == std::numeric_limits<_TDestination>::lowest()) { + MSE_THROW(primitives_range_error("range error - value to be assigned is out of range of the target (integer) type")); + } + else if (x < _TSource(std::numeric_limits<_TDestination>::lowest())) { + MSE_THROW(primitives_range_error("range error - value to be assigned is out of range of the target (integer) type")); + } + } + } + } +#endif // !MSE_PRIMITIVE_ASSIGN_RANGE_CHECK_DISABLED + } + + /* The CInt and CSize_t classes are meant to substitute for standard "int" and "size_t" types. The differences between + the standard types and these classes are that the classes have a default intialization value (zero), and the + classes, as much as possible, try to prevent the problematic behaviour of (possibly negative) signed integers + being cast (inadvertently) to the unsigned size_t type. For example, the expression (0 > (int)5 - (size_t)7) evaluates + (unintuitively) to false, whereas the expression (0 > (CInt)5 - (CSize_t)7) evaluates to true. Also, the classes do + some range checking. For example, the code "CSize_t s = -2;" will throw an exception. */ + template<typename _Ty> + class TIntBase1 { + public: + // Constructs zero. + TIntBase1() : m_val(0) {} + + // Copy constructor + TIntBase1(const TIntBase1 &x) : m_val(x.m_val) { note_value_assignment(); }; + + // Constructors from primitive integer types + explicit TIntBase1(_Ty x) { note_value_assignment(); m_val = x; } + + template<typename _Tz> + void assign_check_range(const _Tz &x) { + note_value_assignment(); + g_assign_check_range<_Ty, _Tz>(x); + } + + _Ty m_val; + +#ifdef MSE_CHECK_USE_BEFORE_SET + void note_value_assignment() { m_initialized = true; } + void assert_initialized() const { assert(m_initialized); } + bool m_initialized = false; +#else // MSE_CHECK_USE_BEFORE_SET + void note_value_assignment() {} + void assert_initialized() const {} +#endif // MSE_CHECK_USE_BEFORE_SET + }; + + class CInt : public TIntBase1<MSE_CINT_BASE_INTEGER_TYPE> { + public: + typedef MSE_CINT_BASE_INTEGER_TYPE _Ty; + typedef TIntBase1<_Ty> _Myt; + + // Constructs zero. + CInt() : _Myt() {} + + // Copy constructor + CInt(const CInt &x) : _Myt(x) {}; + CInt(const _Myt &x) : _Myt(x) {}; + + // Assignment operator + CInt& operator=(const CInt &x) { (*this).note_value_assignment(); m_val = x.m_val; return (*this); } + //CInt& operator=(const _Ty &x) { (*this).note_value_assignment(); m_val = x; return (*this); } + + CInt& operator=(long long x) { assign_check_range<long long>(x); m_val = static_cast<_Ty>(x); return (*this); } + CInt& operator=(long x) { assign_check_range<long>(x); m_val = static_cast<_Ty>(x); return (*this); } + CInt& operator=(int x) { assign_check_range<int>(x); m_val = static_cast<_Ty>(x); return (*this); } + CInt& operator=(short x) { assign_check_range<short>(x); m_val = static_cast<_Ty>(x); return (*this); } + CInt& operator=(char x) { assign_check_range<char>(x); m_val = static_cast<_Ty>(x); return (*this); } + CInt& operator=(size_t x) { assign_check_range<size_t>(x); m_val = static_cast<_Ty>(x); return (*this); } + //CInt& operator=(CSize_t x) { assign_check_range<size_t>(x.as_a_size_t()); m_val = x.as_a_size_t(); return (*this); } + /* We would have liked to have assignment operators for the unsigned primitive integer types, but one of them could + potentially clash with the size_t assignment operator. */ + //CInt& operator=(unsigned long long x) { assign_check_range<unsigned long long>(x); m_val = static_cast<_Ty>(x); return (*this); } + //CInt& operator=(unsigned long x) { assign_check_range<unsigned long>(x); m_val = static_cast<_Ty>(x); return (*this); } + //CInt& operator=(unsigned int x) { assign_check_range<unsigned int>(x); m_val = static_cast<_Ty>(x); return (*this); } + //CInt& operator=(unsigned short x) { assign_check_range<unsigned short>(x); m_val = static_cast<_Ty>(x); return (*this); } + //CInt& operator=(unsigned char x) { assign_check_range<unsigned char>(x); m_val = static_cast<_Ty>(x); return (*this); } + + // Constructors from primitive integer types + //CInt(_Ty x) { m_val = x; } + CInt(long long x) { assign_check_range<long long>(x); m_val = static_cast<_Ty>(x); } + CInt(long x) { assign_check_range< long>(x); m_val = static_cast<_Ty>(x); } + CInt(int x) { assign_check_range<int>(x); m_val = static_cast<_Ty>(x); } + CInt(short x) { assign_check_range<short>(x); m_val = static_cast<_Ty>(x); } + CInt(char x) { assign_check_range<char>(x); m_val = static_cast<_Ty>(x); } + CInt(size_t x) { assign_check_range<size_t>(x); m_val = static_cast<_Ty>(x); } + //CInt(CSize_t x) { assign_check_range<size_t>(x.as_a_size_t()); m_val = x.as_a_size_t(); } + /* We would have liked to have constructors for the unsigned primitive integer types, but one of them could + potentially clash with the size_t constructor. */ + //CInt(unsigned long long x) { assign_check_range<unsigned long long>(x); m_val = static_cast<_Ty>(x); } + //CInt(unsigned long x) { assign_check_range<unsigned long>(x); m_val = static_cast<_Ty>(x); } + //CInt(unsigned int x) { assign_check_range<unsigned int>(x); m_val = static_cast<_Ty>(x); } + //CInt(unsigned short x) { assign_check_range<unsigned short>(x); m_val = static_cast<_Ty>(x); } + //CInt(unsigned char x) { assign_check_range<unsigned char>(x); m_val = static_cast<_Ty>(x); } + + // Casts to primitive integer types + operator _Ty() const { (*this).assert_initialized(); return m_val; } + + CInt operator ~() const { (*this).assert_initialized(); return CInt(~m_val); } + CInt& operator |=(const CInt &x) { (*this).assert_initialized(); m_val |= x.m_val; return (*this); } + CInt& operator &=(const CInt &x) { (*this).assert_initialized(); m_val &= x.m_val; return (*this); } + CInt& operator ^=(const CInt &x) { (*this).assert_initialized(); m_val ^= x.m_val; return (*this); } + + CInt operator -() const { (*this).assert_initialized(); return CInt(-m_val); } + CInt& operator +=(const CInt &x) { (*this).assert_initialized(); m_val += x.m_val; return (*this); } + CInt& operator -=(const CInt &x) { (*this).assert_initialized(); m_val -= x.m_val; return (*this); } + CInt& operator *=(const CInt &x) { (*this).assert_initialized(); m_val *= x.m_val; return (*this); } + CInt& operator /=(const CInt &x) { (*this).assert_initialized(); m_val /= x.m_val; return (*this); } + CInt& operator %=(const CInt &x) { (*this).assert_initialized(); m_val %= x.m_val; return (*this); } + CInt& operator >>=(const CInt &x) { (*this).assert_initialized(); m_val >>= x.m_val; return (*this); } + CInt& operator <<=(const CInt &x) { (*this).assert_initialized(); m_val <<= x.m_val; return (*this); } + + CInt operator +(const CInt &x) const { (*this).assert_initialized(); return CInt(m_val + x.m_val); } + CInt operator +(long long x) const { (*this).assert_initialized(); return ((*this) + CInt(x)); } + CInt operator +(long x) const { (*this).assert_initialized(); return ((*this) + CInt(x)); } + CInt operator +(int x) const { (*this).assert_initialized(); return ((*this) + CInt(x)); } + CInt operator +(short x) const { (*this).assert_initialized(); return ((*this) + CInt(x)); } + CInt operator +(char x) const { (*this).assert_initialized(); return ((*this) + CInt(x)); } + CInt operator +(size_t x) const { (*this).assert_initialized(); return ((*this) + CInt(x)); } + //CInt operator +(CSize_t x) const { (*this).assert_initialized(); return ((*this) + CInt(x)); } + + CInt operator -(const CInt &x) const { (*this).assert_initialized(); return CInt(m_val - x.m_val); } + CInt operator -(long long x) const { (*this).assert_initialized(); return ((*this) - CInt(x)); } + CInt operator -(long x) const { (*this).assert_initialized(); return ((*this) - CInt(x)); } + CInt operator -(int x) const { (*this).assert_initialized(); return ((*this) - CInt(x)); } + CInt operator -(short x) const { (*this).assert_initialized(); return ((*this) - CInt(x)); } + CInt operator -(char x) const { (*this).assert_initialized(); return ((*this) - CInt(x)); } + CInt operator -(size_t x) const { (*this).assert_initialized(); return ((*this) - CInt(x)); } + //CInt operator -(CSize_t x) const { (*this).assert_initialized(); return ((*this) - CInt(x)); } + + CInt operator *(const CInt &x) const { (*this).assert_initialized(); return CInt(m_val * x.m_val); } + CInt operator *(long long x) const { (*this).assert_initialized(); return ((*this) * CInt(x)); } + CInt operator *(long x) const { (*this).assert_initialized(); return ((*this) * CInt(x)); } + CInt operator *(int x) const { (*this).assert_initialized(); return ((*this) * CInt(x)); } + CInt operator *(short x) const { (*this).assert_initialized(); return ((*this) * CInt(x)); } + CInt operator *(char x) const { (*this).assert_initialized(); return ((*this) * CInt(x)); } + CInt operator *(size_t x) const { (*this).assert_initialized(); return ((*this) * CInt(x)); } + //CInt operator *(CSize_t x) const { (*this).assert_initialized(); return ((*this) * CInt(x)); } + + CInt operator /(const CInt &x) const { (*this).assert_initialized(); return CInt(m_val / x.m_val); } + CInt operator /(long long x) const { (*this).assert_initialized(); return ((*this) / CInt(x)); } + CInt operator /(long x) const { (*this).assert_initialized(); return ((*this) / CInt(x)); } + CInt operator /(int x) const { (*this).assert_initialized(); return ((*this) / CInt(x)); } + CInt operator /(short x) const { (*this).assert_initialized(); return ((*this) / CInt(x)); } + CInt operator /(char x) const { (*this).assert_initialized(); return ((*this) / CInt(x)); } + CInt operator /(size_t x) const { (*this).assert_initialized(); return ((*this) / CInt(x)); } + //CInt operator /(CSize_t x) const { (*this).assert_initialized(); return ((*this) / CInt(x)); } + + bool operator <(const CInt &x) const { (*this).assert_initialized(); return (m_val < x.m_val); } + bool operator <(long long x) const { (*this).assert_initialized(); return ((*this) < CInt(x)); } + bool operator <(long x) const { (*this).assert_initialized(); return ((*this) < CInt(x)); } + bool operator <(int x) const { (*this).assert_initialized(); return ((*this) < CInt(x)); } + bool operator <(short x) const { (*this).assert_initialized(); return ((*this) < CInt(x)); } + bool operator <(char x) const { (*this).assert_initialized(); return ((*this) < CInt(x)); } + bool operator <(size_t x) const { (*this).assert_initialized(); return ((*this) < CInt(x)); } + //bool operator <(CSize_t x) const { (*this).assert_initialized(); return ((*this) < CInt(x)); } + + bool operator >(const CInt &x) const { (*this).assert_initialized(); return (m_val > x.m_val); } + bool operator >(long long x) const { (*this).assert_initialized(); return ((*this) > CInt(x)); } + bool operator >(long x) const { (*this).assert_initialized(); return ((*this) > CInt(x)); } + bool operator >(int x) const { (*this).assert_initialized(); return ((*this) > CInt(x)); } + bool operator >(short x) const { (*this).assert_initialized(); return ((*this) > CInt(x)); } + bool operator >(char x) const { (*this).assert_initialized(); return ((*this) > CInt(x)); } + bool operator >(size_t x) const { (*this).assert_initialized(); return ((*this) > CInt(x)); } + //bool operator >(CSize_t x) const { (*this).assert_initialized(); return ((*this) > CInt(x)); } + + bool operator <=(const CInt &x) const { (*this).assert_initialized(); return (m_val <= x.m_val); } + bool operator <=(long long x) const { (*this).assert_initialized(); return ((*this) <= CInt(x)); } + bool operator <=(long x) const { (*this).assert_initialized(); return ((*this) <= CInt(x)); } + bool operator <=(int x) const { (*this).assert_initialized(); return ((*this) <= CInt(x)); } + bool operator <=(short x) const { (*this).assert_initialized(); return ((*this) <= CInt(x)); } + bool operator <=(char x) const { (*this).assert_initialized(); return ((*this) <= CInt(x)); } + bool operator <=(size_t x) const { (*this).assert_initialized(); return ((*this) <= CInt(x)); } + //bool operator <=(CSize_t x) const { (*this).assert_initialized(); return ((*this) <= CInt(x)); } + + bool operator >=(const CInt &x) const { (*this).assert_initialized(); return (m_val >= x.m_val); } + bool operator >=(long long x) const { (*this).assert_initialized(); return ((*this) >= CInt(x)); } + bool operator >=(long x) const { (*this).assert_initialized(); return ((*this) >= CInt(x)); } + bool operator >=(int x) const { (*this).assert_initialized(); return ((*this) >= CInt(x)); } + bool operator >=(short x) const { (*this).assert_initialized(); return ((*this) >= CInt(x)); } + bool operator >=(char x) const { (*this).assert_initialized(); return ((*this) >= CInt(x)); } + bool operator >=(size_t x) const { (*this).assert_initialized(); return ((*this) >= CInt(x)); } + //bool operator >=(CSize_t x) const { (*this).assert_initialized(); return ((*this) >= CInt(x)); } + + bool operator ==(const CInt &x) const { (*this).assert_initialized(); return (m_val == x.m_val); } + bool operator ==(long long x) const { (*this).assert_initialized(); return ((*this) == CInt(x)); } + bool operator ==(long x) const { (*this).assert_initialized(); return ((*this) == CInt(x)); } + bool operator ==(int x) const { (*this).assert_initialized(); return ((*this) == CInt(x)); } + bool operator ==(short x) const { (*this).assert_initialized(); return ((*this) == CInt(x)); } + bool operator ==(char x) const { (*this).assert_initialized(); return ((*this) == CInt(x)); } + bool operator ==(size_t x) const { (*this).assert_initialized(); return ((*this) == CInt(x)); } + //bool operator ==(CSize_t x) const { (*this).assert_initialized(); return ((*this) == CInt(x)); } + + bool operator !=(const CInt &x) const { (*this).assert_initialized(); return (m_val != x.m_val); } + bool operator !=(long long x) const { (*this).assert_initialized(); return ((*this) != CInt(x)); } + bool operator !=(long x) const { (*this).assert_initialized(); return ((*this) != CInt(x)); } + bool operator !=(int x) const { (*this).assert_initialized(); return ((*this) != CInt(x)); } + bool operator !=(short x) const { (*this).assert_initialized(); return ((*this) != CInt(x)); } + bool operator !=(char x) const { (*this).assert_initialized(); return ((*this) != CInt(x)); } + bool operator !=(size_t x) const { (*this).assert_initialized(); return ((*this) != CInt(x)); } + //bool operator !=(CSize_t x) const { (*this).assert_initialized(); return ((*this) != CInt(x)); } + + // INCREMENT/DECREMENT OPERATORS + CInt& operator ++() { (*this).assert_initialized(); m_val++; return (*this); } + CInt operator ++(int) { + (*this).assert_initialized(); + CInt tmp(*this); // copy + operator++(); // pre-increment + return tmp; // return old value + } + CInt& operator --() { + (*this).assert_initialized(); + if (0 <= std::numeric_limits<_Ty>::lowest()) { + (*this).assert_initialized(); + (*this) = (*this) - 1; return (*this); + } + else { + (*this).assert_initialized(); + m_val--; return (*this); + } + } + CInt operator --(int) { + (*this).assert_initialized(); + CInt tmp(*this); // copy + operator--(); // pre-decrement + return tmp; // return old value + } + + //_Ty m_val; + }; +} + +namespace std { +#ifndef _THROW0 +#define _THROW0() +#endif // !_THROW0 +#ifndef _STCONS +#define _STCONS(ty, name, val) static constexpr ty name = static_cast<ty>(val) +#endif // !_STCONS + + template<> class numeric_limits<mse::CInt> { // limits for type int + public: + typedef MSE_CINT_BASE_INTEGER_TYPE _Ty; + + static constexpr _Ty(min)() _THROW0() + { // return minimum value + return numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::min(); + } + static constexpr _Ty(max)() _THROW0() + { // return maximum value + return numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::max(); + } + static constexpr _Ty lowest() _THROW0() + { // return most negative value + return numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::lowest(); + } + static constexpr _Ty epsilon() _THROW0() + { // return smallest effective increment from 1.0 + return numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::epsilon(); + } + static constexpr _Ty round_error() _THROW0() + { // return largest rounding error + return numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::round_error(); + } + static constexpr _Ty denorm_min() _THROW0() + { // return minimum denormalized value + return numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::denorm_min(); + } + static constexpr _Ty infinity() _THROW0() + { // return positive infinity + return numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::infinity(); + } + static constexpr _Ty quiet_NaN() _THROW0() + { // return non-signaling NaN + return numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::quiet_NaN(); + } + static constexpr _Ty signaling_NaN() _THROW0() + { // return signaling NaN + return numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::signaling_NaN(); + } + _STCONS(float_denorm_style, has_denorm, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::has_denorm); + _STCONS(bool, has_denorm_loss, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::has_denorm_loss); + _STCONS(bool, has_infinity, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::has_infinity); + _STCONS(bool, has_quiet_NaN, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::has_quiet_NaN); + _STCONS(bool, has_signaling_NaN, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::has_signaling_NaN); + _STCONS(bool, is_bounded, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::is_bounded); + _STCONS(bool, is_exact, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::is_exact); + _STCONS(bool, is_iec559, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::is_iec559); + _STCONS(bool, is_integer, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::is_integer); + _STCONS(bool, is_modulo, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::is_modulo); + _STCONS(bool, is_signed, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::is_signed); + _STCONS(bool, is_specialized, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::is_specialized); + _STCONS(bool, tinyness_before, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::tinyness_before); + _STCONS(bool, traps, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::traps); + _STCONS(float_round_style, round_style, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::round_style); + _STCONS(int, digits, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::digits); + _STCONS(int, digits10, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::digits10); + _STCONS(int, max_digits10, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::max_digits10); + _STCONS(int, max_exponent, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::max_exponent); + _STCONS(int, max_exponent10, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::max_exponent10); + _STCONS(int, min_exponent, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::min_exponent); + _STCONS(int, min_exponent10, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::min_exponent10); + _STCONS(int, radix, numeric_limits<MSE_CINT_BASE_INTEGER_TYPE>::radix); + }; +} + +namespace mse { + class CSize_t; + static size_t as_a_size_t(CSize_t n); + + /* Note that CSize_t does not have a default conversion to size_t. This is by design. Use the as_a_size_t() member + function to get a size_t when necessary. */ + class CSize_t : public TIntBase1<size_t> { + public: + typedef size_t _Ty; + typedef int _T_signed_primitive_integer_type; + typedef TIntBase1<_Ty> _Myt; + + // Constructs zero. + CSize_t() : _Myt() {} + + // Copy constructor + CSize_t(const CSize_t &x) : _Myt(x) {}; + CSize_t(const _Myt &x) : _Myt(x) {}; + + // Assignment operator + CSize_t& operator=(const CSize_t &x) { m_val = x.m_val; return (*this); } + //CSize_t& operator=(const _Ty &x) { m_val = x; return (*this); } + + CSize_t& operator=(long long x) { assign_check_range<long long>(x); m_val = static_cast<_Ty>(x); return (*this); } + CSize_t& operator=(long x) { assign_check_range<long>(x); m_val = static_cast<_Ty>(x); return (*this); } + CSize_t& operator=(int x) { assign_check_range<int>(x); m_val = static_cast<_Ty>(x); return (*this); } + CSize_t& operator=(short x) { assign_check_range<short>(x); m_val = static_cast<_Ty>(x); return (*this); } + CSize_t& operator=(char x) { assign_check_range<char>(x); m_val = static_cast<_Ty>(x); return (*this); } + CSize_t& operator=(size_t x) { assign_check_range<size_t>(x); m_val = static_cast<_Ty>(x); return (*this); } + CSize_t& operator=(CInt x) { assign_check_range<MSE_CINT_BASE_INTEGER_TYPE>(x); m_val = static_cast<_Ty>(x); return (*this); } + /* We would have liked to have assignment operators for the unsigned primitive integer types, but one of them could + potentially clash with the size_t assignment operator. */ + //CSize_t& operator=(unsigned long long x) { assign_check_range<unsigned long long>(x); m_val = static_cast<_Ty>(x); return (*this); } + //CSize_t& operator=(unsigned long x) { assign_check_range<unsigned long>(x); m_val = static_cast<_Ty>(x); return (*this); } + //CSize_t& operator=(unsigned int x) { assign_check_range<unsigned int>(x); m_val = static_cast<_Ty>(x); return (*this); } + //CSize_t& operator=(unsigned short x) { assign_check_range<unsigned short>(x); m_val = static_cast<_Ty>(x); return (*this); } + //CSize_t& operator=(unsigned char x) { assign_check_range<unsigned char>(x); m_val = static_cast<_Ty>(x); return (*this); } + + // Constructors from primitive integer types + //explicit CSize_t(_Ty x) { m_val = x; } + explicit CSize_t(long long x) { assign_check_range<long long>(x); m_val = static_cast<_Ty>(x); } + explicit CSize_t(long x) { assign_check_range< long>(x); m_val = static_cast<_Ty>(x); } + explicit CSize_t(int x) { assign_check_range<int>(x); m_val = static_cast<_Ty>(x); } + explicit CSize_t(short x) { assign_check_range<short>(x); m_val = static_cast<_Ty>(x); } + explicit CSize_t(char x) { assign_check_range<char>(x); m_val = static_cast<_Ty>(x); } + CSize_t(size_t x) { assign_check_range<size_t>(x); m_val = static_cast<_Ty>(x); } + /*explicit */CSize_t(CInt x) { assign_check_range<MSE_CINT_BASE_INTEGER_TYPE>(x); m_val = static_cast<_Ty>(x); } + /* We would have liked to have constructors for the unsigned primitive integer types, but one of them could + potentially clash with the size_t constructor. */ + //explicit CSize_t(unsigned long long x) { assign_check_range<unsigned long long>(x); m_val = static_cast<_Ty>(x); } + //explicit CSize_t(unsigned long x) { assign_check_range<unsigned long>(x); m_val = static_cast<_Ty>(x); } + //explicit CSize_t(unsigned int x) { assign_check_range<unsigned int>(x); m_val = static_cast<_Ty>(x); } + //explicit CSize_t(unsigned short x) { assign_check_range<unsigned short>(x); m_val = static_cast<_Ty>(x); } + //explicit CSize_t(unsigned char x) { assign_check_range<unsigned char>(x); m_val = static_cast<_Ty>(x); } + + // Casts to primitive integer types + operator CInt() const { (*this).assert_initialized(); return CInt(m_val); } +#ifndef MSVC2010_COMPATIBLE + explicit operator size_t() const { (*this).assert_initialized(); return (m_val); } +#endif /*MSVC2010_COMPATIBLE*/ + //size_t as_a_size_t() const { (*this).assert_initialized(); return m_val; } + + CSize_t operator ~() const { (*this).assert_initialized(); return (~m_val); } + CSize_t& operator |=(const CSize_t &x) { (*this).assert_initialized(); m_val |= x.m_val; return (*this); } + CSize_t& operator &=(const CSize_t &x) { (*this).assert_initialized(); m_val &= x.m_val; return (*this); } + CSize_t& operator ^=(const CSize_t &x) { (*this).assert_initialized(); m_val ^= x.m_val; return (*this); } + + CInt operator -() const { (*this).assert_initialized(); /* Should unsigned types even support this opperator? */ + return (-(CInt(m_val))); + } + CSize_t& operator +=(const CSize_t &x) { (*this).assert_initialized(); m_val += x.m_val; return (*this); } + CSize_t& operator -=(const CSize_t &x) { + (*this).assert_initialized(); + //assert(0 <= std::numeric_limits<_Ty>::lowest()); + if (x.m_val > m_val) { + MSE_THROW(primitives_range_error("range error - value to be assigned is out of range of the target (integer) type")); + } + m_val -= x.m_val; return (*this); + } + CSize_t& operator *=(const CSize_t &x) { (*this).assert_initialized(); m_val *= x.m_val; return (*this); } + CSize_t& operator /=(const CSize_t &x) { (*this).assert_initialized(); m_val /= x.m_val; return (*this); } + CSize_t& operator %=(const CSize_t &x) { (*this).assert_initialized(); m_val %= x.m_val; return (*this); } + CSize_t& operator >>=(const CSize_t &x) { (*this).assert_initialized(); m_val >>= x.m_val; return (*this); } + CSize_t& operator <<=(const CSize_t &x) { (*this).assert_initialized(); m_val <<= x.m_val; return (*this); } + + CSize_t operator +(const CSize_t &x) const { (*this).assert_initialized(); return (m_val + x.m_val); } + CInt operator +(const CInt &x) const { (*this).assert_initialized(); return (CInt(m_val) + x); } + CInt operator +(long long x) const { (*this).assert_initialized(); return ((*this) + CInt(x)); } + CInt operator +(long x) const { (*this).assert_initialized(); return ((*this) + CInt(x)); } + CInt operator +(int x) const { (*this).assert_initialized(); return ((*this) + CInt(x)); } + CInt operator +(short x) const { (*this).assert_initialized(); return ((*this) + CInt(x)); } + CInt operator +(char x) const { (*this).assert_initialized(); return ((*this) + CInt(x)); } + CSize_t operator +(size_t x) const { (*this).assert_initialized(); return ((*this) + CSize_t(x)); } + + CInt operator -(const CSize_t &x) const { (*this).assert_initialized(); return (CInt(m_val) - CInt(x.m_val)); } + CInt operator -(const CInt &x) const { (*this).assert_initialized(); return (CInt(m_val) - x); } + CInt operator -(long long x) const { (*this).assert_initialized(); return ((*this) - CInt(x)); } + CInt operator -(long x) const { (*this).assert_initialized(); return ((*this) - CInt(x)); } + CInt operator -(int x) const { (*this).assert_initialized(); return ((*this) - CInt(x)); } + CInt operator -(short x) const { (*this).assert_initialized(); return ((*this) - CInt(x)); } + CInt operator -(char x) const { (*this).assert_initialized(); return ((*this) - CInt(x)); } + CInt operator -(size_t x) const { (*this).assert_initialized(); return ((*this) - CSize_t(x)); } + + CSize_t operator *(const CSize_t &x) const { (*this).assert_initialized(); return (m_val * x.m_val); } + CInt operator *(const CInt &x) const { (*this).assert_initialized(); return (CInt(m_val) * x); } + CInt operator *(long long x) const { (*this).assert_initialized(); return ((*this) * CInt(x)); } + CInt operator *(long x) const { (*this).assert_initialized(); return ((*this) * CInt(x)); } + CInt operator *(int x) const { (*this).assert_initialized(); return ((*this) * CInt(x)); } + CInt operator *(short x) const { (*this).assert_initialized(); return ((*this) * CInt(x)); } + CInt operator *(char x) const { (*this).assert_initialized(); return ((*this) * CInt(x)); } + CSize_t operator *(size_t x) const { (*this).assert_initialized(); return ((*this) * CSize_t(x)); } + + CSize_t operator /(const CSize_t &x) const { (*this).assert_initialized(); return (m_val / x.m_val); } + CInt operator /(const CInt &x) const { (*this).assert_initialized(); return (CInt(m_val) / x); } + CInt operator /(long long x) const { (*this).assert_initialized(); return ((*this) / CInt(x)); } + CInt operator /(long x) const { (*this).assert_initialized(); return ((*this) / CInt(x)); } + CInt operator /(int x) const { (*this).assert_initialized(); return ((*this) / CInt(x)); } + CInt operator /(short x) const { (*this).assert_initialized(); return ((*this) / CInt(x)); } + CInt operator /(char x) const { (*this).assert_initialized(); return ((*this) / CInt(x)); } + CSize_t operator /(size_t x) const { (*this).assert_initialized(); return ((*this) / CSize_t(x)); } + + bool operator <(const CSize_t &x) const { (*this).assert_initialized(); return (m_val < x.m_val); } + bool operator <(const CInt &x) const { (*this).assert_initialized(); return (CInt(m_val) < x); } + bool operator <(long long x) const { (*this).assert_initialized(); return ((*this) < CInt(x)); } + bool operator <(long x) const { (*this).assert_initialized(); return ((*this) < CInt(x)); } + bool operator <(int x) const { (*this).assert_initialized(); return ((*this) < CInt(x)); } + bool operator <(short x) const { (*this).assert_initialized(); return ((*this) < CInt(x)); } + bool operator <(char x) const { (*this).assert_initialized(); return ((*this) < CInt(x)); } + bool operator <(size_t x) const { (*this).assert_initialized(); return ((*this) < CSize_t(x)); } + + bool operator >(const CSize_t &x) const { (*this).assert_initialized(); return (m_val > x.m_val); } + bool operator >(const CInt &x) const { (*this).assert_initialized(); return (CInt(m_val) > x); } + bool operator >(long long x) const { (*this).assert_initialized(); return ((*this) > CInt(x)); } + bool operator >(long x) const { (*this).assert_initialized(); return ((*this) > CInt(x)); } + bool operator >(int x) const { (*this).assert_initialized(); return ((*this) > CInt(x)); } + bool operator >(short x) const { (*this).assert_initialized(); return ((*this) > CInt(x)); } + bool operator >(char x) const { (*this).assert_initialized(); return ((*this) > CInt(x)); } + bool operator >(size_t x) const { (*this).assert_initialized(); return ((*this) > CSize_t(x)); } + + bool operator <=(const CSize_t &x) const { (*this).assert_initialized(); return (m_val <= x.m_val); } + bool operator <=(const CInt &x) const { (*this).assert_initialized(); return (CInt(m_val) <= x); } + bool operator <=(long long x) const { (*this).assert_initialized(); return ((*this) <= CInt(x)); } + bool operator <=(long x) const { (*this).assert_initialized(); return ((*this) <= CInt(x)); } + bool operator <=(int x) const { (*this).assert_initialized(); return ((*this) <= CInt(x)); } + bool operator <=(short x) const { (*this).assert_initialized(); return ((*this) <= CInt(x)); } + bool operator <=(char x) const { (*this).assert_initialized(); return ((*this) <= CInt(x)); } + bool operator <=(size_t x) const { (*this).assert_initialized(); return ((*this) <= CSize_t(x)); } + + bool operator >=(const CSize_t &x) const { (*this).assert_initialized(); return (m_val >= x.m_val); } + bool operator >=(const CInt &x) const { (*this).assert_initialized(); return (CInt(m_val) >= x); } + bool operator >=(long long x) const { (*this).assert_initialized(); return ((*this) >= CInt(x)); } + bool operator >=(long x) const { (*this).assert_initialized(); return ((*this) >= CInt(x)); } + bool operator >=(int x) const { (*this).assert_initialized(); return ((*this) >= CInt(x)); } + bool operator >=(short x) const { (*this).assert_initialized(); return ((*this) >= CInt(x)); } + bool operator >=(char x) const { (*this).assert_initialized(); return ((*this) >= CInt(x)); } + bool operator >=(size_t x) const { (*this).assert_initialized(); return ((*this) >= CSize_t(x)); } + + bool operator ==(const CSize_t &x) const { (*this).assert_initialized(); return (m_val == x.m_val); } + bool operator ==(const CInt &x) const { (*this).assert_initialized(); return (CInt(m_val) == x); } + bool operator ==(long long x) const { (*this).assert_initialized(); return ((*this) == CInt(x)); } + bool operator ==(long x) const { (*this).assert_initialized(); return ((*this) == CInt(x)); } + bool operator ==(int x) const { (*this).assert_initialized(); return ((*this) == CInt(x)); } + bool operator ==(short x) const { (*this).assert_initialized(); return ((*this) == CInt(x)); } + bool operator ==(char x) const { (*this).assert_initialized(); return ((*this) == CInt(x)); } + bool operator ==(size_t x) const { (*this).assert_initialized(); return ((*this) == CSize_t(x)); } + + bool operator !=(const CSize_t &x) const { (*this).assert_initialized(); return (m_val != x.m_val); } + bool operator !=(const CInt &x) const { (*this).assert_initialized(); return (CInt(m_val) != x); } + bool operator !=(long long x) const { (*this).assert_initialized(); return ((*this) != CInt(x)); } + bool operator !=(long x) const { (*this).assert_initialized(); return ((*this) != CInt(x)); } + bool operator !=(int x) const { (*this).assert_initialized(); return ((*this) != CInt(x)); } + bool operator !=(short x) const { (*this).assert_initialized(); return ((*this) != CInt(x)); } + bool operator !=(char x) const { (*this).assert_initialized(); return ((*this) != CInt(x)); } + bool operator !=(size_t x) const { (*this).assert_initialized(); return ((*this) != CSize_t(x)); } + + // INCREMENT/DECREMENT OPERATORS + CSize_t& operator ++() { (*this).assert_initialized(); m_val++; return (*this); } + CSize_t operator ++(int) { (*this).assert_initialized(); + CSize_t tmp(*this); // copy + operator++(); // pre-increment + return tmp; // return old value + } + CSize_t& operator --() { (*this).assert_initialized(); + if (0 <= std::numeric_limits<_Ty>::lowest()) { (*this).assert_initialized(); + (*this) = (*this) - 1; return (*this); + } + else { (*this).assert_initialized(); + m_val--; return (*this); + } + } + CSize_t operator --(int) { (*this).assert_initialized(); + CSize_t tmp(*this); // copy + operator--(); // pre-decrement + return tmp; // return old value + } + + //_Ty m_val; + + friend size_t as_a_size_t(CSize_t n); + }; + size_t as_a_size_t(CSize_t n) { n.assert_initialized(); return n.m_val; } +} + +namespace std { +#ifndef _THROW0 +#define _THROW0() +#endif // !_THROW0 +#ifndef _STCONS +#define _STCONS(ty, name, val) static constexpr ty name = (ty)(val) +#endif // !_STCONS + + template<> class numeric_limits<mse::CSize_t> { // limits for type int + public: + typedef size_t _Ty; + + static constexpr _Ty(min)() _THROW0() + { // return minimum value + return numeric_limits<size_t>::min(); + } + static constexpr _Ty(max)() _THROW0() + { // return maximum value + return numeric_limits<size_t>::max(); + } + static constexpr _Ty lowest() _THROW0() + { // return most negative value + return numeric_limits<size_t>::lowest(); + } + static constexpr _Ty epsilon() _THROW0() + { // return smallest effective increment from 1.0 + return numeric_limits<size_t>::epsilon(); + } + static constexpr _Ty round_error() _THROW0() + { // return largest rounding error + return numeric_limits<size_t>::round_error(); + } + static constexpr _Ty denorm_min() _THROW0() + { // return minimum denormalized value + return numeric_limits<size_t>::denorm_min(); + } + static constexpr _Ty infinity() _THROW0() + { // return positive infinity + return numeric_limits<size_t>::infinity(); + } + static constexpr _Ty quiet_NaN() _THROW0() + { // return non-signaling NaN + return numeric_limits<size_t>::quiet_NaN(); + } + static constexpr _Ty signaling_NaN() _THROW0() + { // return signaling NaN + return numeric_limits<size_t>::signaling_NaN(); + } + _STCONS(float_denorm_style, has_denorm, numeric_limits<size_t>::has_denorm); + _STCONS(bool, has_denorm_loss, numeric_limits<size_t>::has_denorm_loss); + _STCONS(bool, has_infinity, numeric_limits<size_t>::has_infinity); + _STCONS(bool, has_quiet_NaN, numeric_limits<size_t>::has_quiet_NaN); + _STCONS(bool, has_signaling_NaN, numeric_limits<size_t>::has_signaling_NaN); + _STCONS(bool, is_bounded, numeric_limits<size_t>::is_bounded); + _STCONS(bool, is_exact, numeric_limits<size_t>::is_exact); + _STCONS(bool, is_iec559, numeric_limits<size_t>::is_iec559); + _STCONS(bool, is_integer, numeric_limits<size_t>::is_integer); + _STCONS(bool, is_modulo, numeric_limits<size_t>::is_modulo); + _STCONS(bool, is_signed, numeric_limits<size_t>::is_signed); + _STCONS(bool, is_specialized, numeric_limits<size_t>::is_specialized); + _STCONS(bool, tinyness_before, numeric_limits<size_t>::tinyness_before); + _STCONS(bool, traps, numeric_limits<size_t>::traps); + _STCONS(float_round_style, round_style, numeric_limits<size_t>::round_style); + _STCONS(int, digits, numeric_limits<size_t>::digits); + _STCONS(int, digits10, numeric_limits<size_t>::digits10); + _STCONS(int, max_digits10, numeric_limits<size_t>::max_digits10); + _STCONS(int, max_exponent, numeric_limits<size_t>::max_exponent); + _STCONS(int, max_exponent10, numeric_limits<size_t>::max_exponent10); + _STCONS(int, min_exponent, numeric_limits<size_t>::min_exponent); + _STCONS(int, min_exponent10, numeric_limits<size_t>::min_exponent10); + _STCONS(int, radix, numeric_limits<size_t>::radix); + }; +} + +namespace mse { + + inline CInt operator+(size_t lhs, const CInt &rhs) { rhs.assert_initialized(); rhs.assert_initialized(); return CSize_t(lhs) + rhs; } + inline CSize_t operator+(size_t lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CSize_t(lhs) + rhs; } + inline CInt operator+(int lhs, const CInt &rhs) { rhs.assert_initialized(); return CInt(lhs) + rhs; } + inline CInt operator+(int lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CInt(lhs) + as_a_size_t(rhs); } + inline CInt operator+(const CInt &lhs, const CSize_t &rhs) { rhs.assert_initialized(); return lhs + as_a_size_t(rhs); } + inline CInt operator-(size_t lhs, const CInt &rhs) { rhs.assert_initialized(); return CSize_t(lhs) - rhs; } + inline CInt operator-(size_t lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CSize_t(lhs) - rhs; } + inline CInt operator-(int lhs, const CInt &rhs) { rhs.assert_initialized(); return CInt(lhs) - rhs; } + inline CInt operator-(int lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CInt(lhs) - as_a_size_t(rhs); } + inline CInt operator-(const CInt &lhs, const CSize_t &rhs) { rhs.assert_initialized(); return lhs - as_a_size_t(rhs); } + inline CInt operator*(size_t lhs, const CInt &rhs) { rhs.assert_initialized(); return CSize_t(lhs) * rhs; } + inline CSize_t operator*(size_t lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CSize_t(lhs) * rhs; } + inline CInt operator*(int lhs, const CInt &rhs) { rhs.assert_initialized(); return CInt(lhs) * rhs; } + inline CInt operator*(int lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CInt(lhs) * as_a_size_t(rhs); } + inline CInt operator*(const CInt &lhs, const CSize_t &rhs) { rhs.assert_initialized(); return lhs * as_a_size_t(rhs); } + inline CInt operator/(size_t lhs, const CInt &rhs) { rhs.assert_initialized(); return CSize_t(lhs) / rhs; } + inline CSize_t operator/(size_t lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CSize_t(lhs) / rhs; } + inline CInt operator/(int lhs, const CInt &rhs) { rhs.assert_initialized(); return CInt(lhs) / rhs; } + inline CInt operator/(int lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CInt(lhs) / as_a_size_t(rhs); } + inline CInt operator/(const CInt &lhs, const CSize_t &rhs) { rhs.assert_initialized(); return lhs / as_a_size_t(rhs); } + + inline bool operator<(size_t lhs, const CInt &rhs) { rhs.assert_initialized(); return CSize_t(lhs) < rhs; } + inline bool operator<(size_t lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CSize_t(lhs) < rhs; } + inline bool operator<(int lhs, const CInt &rhs) { rhs.assert_initialized(); return CInt(lhs) < rhs; } + inline bool operator<(int lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CInt(lhs) < as_a_size_t(rhs); } + inline bool operator<(long long lhs, const CInt &rhs) { rhs.assert_initialized(); return CInt(lhs) < rhs; } + inline bool operator<(long long lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CInt(lhs) < as_a_size_t(rhs); } + inline bool operator<(const CInt &lhs, const CSize_t &rhs) { rhs.assert_initialized(); return lhs < as_a_size_t(rhs); } + inline bool operator>(size_t lhs, const CInt &rhs) { rhs.assert_initialized(); return CSize_t(lhs) > rhs; } + inline bool operator>(size_t lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CSize_t(lhs) > rhs; } + inline bool operator>(int lhs, const CInt &rhs) { rhs.assert_initialized(); return CInt(lhs) > rhs; } + inline bool operator>(int lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CInt(lhs) > as_a_size_t(rhs); } + inline bool operator>(long long lhs, const CInt &rhs) { rhs.assert_initialized(); return CInt(lhs) > rhs; } + inline bool operator>(long long lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CInt(lhs) > as_a_size_t(rhs); } + inline bool operator>(const CInt &lhs, const CSize_t &rhs) { rhs.assert_initialized(); return lhs > as_a_size_t(rhs); } + inline bool operator<=(size_t lhs, const CInt &rhs) { rhs.assert_initialized(); return CSize_t(lhs) <= rhs; } + inline bool operator<=(size_t lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CSize_t(lhs) <= rhs; } + inline bool operator<=(int lhs, const CInt &rhs) { rhs.assert_initialized(); return CInt(lhs) <= rhs; } + inline bool operator<=(int lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CInt(lhs) <= as_a_size_t(rhs); } + inline bool operator<=(long long lhs, const CInt &rhs) { rhs.assert_initialized(); return CInt(lhs) <= rhs; } + inline bool operator<=(long long lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CInt(lhs) <= as_a_size_t(rhs); } + inline bool operator<=(const CInt &lhs, const CSize_t &rhs) { rhs.assert_initialized(); return lhs <= as_a_size_t(rhs); } + inline bool operator>=(size_t lhs, const CInt &rhs) { rhs.assert_initialized(); return CSize_t(lhs) >= rhs; } + inline bool operator>=(size_t lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CSize_t(lhs) >= rhs; } + inline bool operator>=(int lhs, const CInt &rhs) { rhs.assert_initialized(); return CInt(lhs) >= rhs; } + inline bool operator>=(int lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CInt(lhs) >= as_a_size_t(rhs); } + inline bool operator>=(long long lhs, const CInt &rhs) { rhs.assert_initialized(); return CInt(lhs) >= rhs; } + inline bool operator>=(long long lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CInt(lhs) >= as_a_size_t(rhs); } + inline bool operator>=(const CInt &lhs, const CSize_t &rhs) { rhs.assert_initialized(); return lhs >= as_a_size_t(rhs); } + inline bool operator==(size_t lhs, const CInt &rhs) { rhs.assert_initialized(); return CSize_t(lhs) == rhs; } + inline bool operator==(size_t lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CSize_t(lhs) == rhs; } + inline bool operator==(int lhs, const CInt &rhs) { rhs.assert_initialized(); return CInt(lhs) == rhs; } + inline bool operator==(int lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CInt(lhs) == as_a_size_t(rhs); } + inline bool operator==(long long lhs, const CInt &rhs) { rhs.assert_initialized(); return CInt(lhs) == rhs; } + inline bool operator==(long long lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CInt(lhs) == as_a_size_t(rhs); } + inline bool operator==(const CInt &lhs, const CSize_t &rhs) { rhs.assert_initialized(); return lhs == as_a_size_t(rhs); } + inline bool operator!=(size_t lhs, const CInt &rhs) { rhs.assert_initialized(); return CSize_t(lhs) != rhs; } + inline bool operator!=(size_t lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CSize_t(lhs) != rhs; } + inline bool operator!=(int lhs, const CInt &rhs) { rhs.assert_initialized(); return CInt(lhs) != rhs; } + inline bool operator!=(int lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CInt(lhs) != as_a_size_t(rhs); } + inline bool operator!=(long long lhs, const CInt &rhs) { rhs.assert_initialized(); return CInt(lhs) != rhs; } + inline bool operator!=(long long lhs, const CSize_t &rhs) { rhs.assert_initialized(); return CInt(lhs) != as_a_size_t(rhs); } + inline bool operator!=(const CInt &lhs, const CSize_t &rhs) { rhs.assert_initialized(); return lhs != as_a_size_t(rhs); } +#endif /*MSE_PRIMITIVES_DISABLED*/ + + static void s_type_test1() { +#ifdef MSE_SELF_TESTS + CInt i1(3); + CInt i2 = 5; + CInt i3; + i3 = 7; + CInt i4 = i1 + i2; + i4 = i1 + 17; + i4 = 19 + i1; + i4 += i2; + i4 -= 23; + i4++; + CBool b1 = (i1 < i2); + b1 = (i1 < 17); + b1 = (19 < i1); + b1 = (i1 == i2); + b1 = (i1 == 17); + b1 = (19 == i1); + + CSize_t szt1(3); + CSize_t szt2 = 5; + CSize_t szt3; + szt3 = 7; + CSize_t szt4 = szt1 + szt2; + szt4 = szt1 + 17; + szt4 = 19 + szt1; + CInt i11 = 19 + szt1; + szt4 += szt2; + szt4 -= 23; + szt4++; +#ifndef MSVC2010_COMPATIBLE + size_t szt5 = size_t(szt4); +#endif /*MSVC2010_COMPATIBLE*/ + bool b3 = (szt1 < szt2); + b3 = (szt1 < 17); + b3 = (19 < szt1); + CBool b2 = (19 < szt1); + b3 = (szt1 == szt2); + b3 = (szt1 == 17); + b3 = (19 == szt1); + CBool b4 = (b1 < b2); + b4 = (b1 == b2); + b4 = (b1 > b3); + b4 = (b3 >= b1); + b4 = (b3 == b1); + b4 = (b1 && b2); + b4 = (b1 || b3); + b4 = (b3 && b1); + b4 |= b1; + b4 &= b3; +#endif // MSE_SELF_TESTS + } +} + +#undef MSE_THROW + +#endif /*ndef MSEPRIMITIVES_H*/ |