Files
openvehicle-api/export/support/any.inl
tompzf 6ed4b1534e Precommit (#1)
* first commit

* cleanup
2025-11-04 13:28:06 +01:00

1460 lines
59 KiB
C++

#ifndef SDV_ANY_INL
#define SDV_ANY_INL
#ifndef SDV_ANY_H
#error Do not include "any.inl" directly. Include "any.h" instead!
#endif //!defined SDV_ANY_H
#include "string.h"
// Prevent warnings about unitialized union members during static code analysis.
#ifdef _MSC_VER
#pragma warning(push)
#pragma warning(disable : 26495)
#endif
namespace sdv
{
/**
* @brief Range overflow exception.
*/
except ERange
{};
inline any_t::any_t()
{}
inline any_t::~any_t()
{
clear();
}
template <typename TType>
inline any_t::any_t(TType tVal) : any_t()
{
set(tVal);
}
inline any_t::any_t(const string& rssVal) : any_t()
{
eValType = EValType::val_type_string;
new (&ssVal) string(rssVal);
}
inline any_t::any_t(const u8string& rssVal) : any_t()
{
eValType = EValType::val_type_u8string;
new (&ss8Val) u8string(rssVal);
}
inline any_t::any_t(const u16string& rssVal) : any_t()
{
eValType = EValType::val_type_u16string;
new (&ss16Val) u16string(rssVal);
}
inline any_t::any_t(const u32string& rssVal) : any_t()
{
eValType = EValType::val_type_u32string;
new (&ss32Val) u32string(rssVal);
}
inline any_t::any_t(const wstring& rssVal) : any_t()
{
eValType = EValType::val_type_wstring;
new (&sswVal) wstring(rssVal);
}
inline any_t::any_t(const char* sz) : any_t(sdv::u8string(sz))
{}
inline any_t::any_t(const char16_t* sz) : any_t(sdv::u16string(sz))
{}
inline any_t::any_t(const char32_t* sz) : any_t(sdv::u32string(sz))
{}
inline any_t::any_t(const wchar_t* sz) : any_t(sdv::wstring(sz))
{}
inline any_t::any_t(const std::string& rssVal) : any_t()
{
eValType = EValType::val_type_string;
new (&ssVal) string(rssVal);
}
inline any_t::any_t(const std::u16string& rssVal) : any_t()
{
eValType = EValType::val_type_u16string;
new (&ss16Val) u16string(rssVal);
}
inline any_t::any_t(const std::u32string& rssVal) : any_t()
{
eValType = EValType::val_type_u32string;
new (&ss32Val) u32string(rssVal);
}
inline any_t::any_t(const std::wstring& rssVal) : any_t()
{
eValType = EValType::val_type_wstring;
new (&sswVal) wstring(rssVal);
}
template <typename TType>
inline any_t::any_t(TType tVal, EValType eValTypeParam) : any_t()
{
set(tVal, eValTypeParam);
}
inline any_t::any_t(const any_t& rany) : eValType(rany.eValType)
{
switch (eValType)
{
#ifdef __GNUC__
#pragma GCC diagnostic push
#pragma GCC diagnostic ignored "-Wmaybe-uninitialized"
#endif
case EValType::val_type_bool: bVal = rany.bVal; break;
case EValType::val_type_int8: i8Val = rany.i8Val; break;
case EValType::val_type_uint8: ui8Val = rany.ui8Val; break;
case EValType::val_type_int16: i16Val = rany.i16Val; break;
case EValType::val_type_uint16: ui16Val = rany.ui16Val; break;
case EValType::val_type_int32: i32Val = rany.i32Val; break;
case EValType::val_type_uint32: ui32Val = rany.ui32Val; break;
case EValType::val_type_int64: i64Val = rany.i64Val; break;
case EValType::val_type_uint64: ui64Val = rany.ui64Val; break;
case EValType::val_type_char: cVal = rany.cVal; break;
case EValType::val_type_char16: c16Val = rany.c16Val; break;
case EValType::val_type_char32: c32Val = rany.c32Val; break;
case EValType::val_type_wchar: cwVal = rany.cwVal; break;
case EValType::val_type_float: fVal = rany.fVal; break;
case EValType::val_type_double: dVal = rany.dVal; break;
case EValType::val_type_long_double: ldVal = rany.ldVal; break;
//case EValType::val_type_fixed: new (&fixValue) fixed(rany.fixValue); break;
case EValType::val_type_string: new (&ssVal) string(rany.ssVal); break;
case EValType::val_type_u8string: new (&ss8Val) u8string(rany.ss8Val); break;
case EValType::val_type_u16string: new (&ss16Val) u16string(rany.ss16Val); break;
case EValType::val_type_u32string: new (&ss32Val) u32string(rany.ss32Val); break;
case EValType::val_type_wstring: new (&sswVal) wstring(rany.sswVal); break;
case EValType::val_type_interface: new (&ifcVal) interface_t(rany.ifcVal); break;
case EValType::val_type_interface_id: idIfcVal = rany.idIfcVal; break;
case EValType::val_type_exception_id: idExceptVal = rany.idExceptVal; break;
default: break;
#ifdef __GNUC__
#pragma GCC diagnostic pop
#endif
}
}
inline any_t::any_t(any_t&& rany) noexcept : eValType(rany.eValType)
{
switch (eValType)
{
#ifdef __GNUC__
#pragma GCC diagnostic push
#pragma GCC diagnostic ignored "-Wmaybe-uninitialized"
#endif
case EValType::val_type_bool: bVal = rany.bVal; break;
case EValType::val_type_int8: i8Val = rany.i8Val; break;
case EValType::val_type_uint8: ui8Val = rany.ui8Val; break;
case EValType::val_type_int16: i16Val = rany.i16Val; break;
case EValType::val_type_uint16: ui16Val = rany.ui16Val; break;
case EValType::val_type_int32: i32Val = rany.i32Val; break;
case EValType::val_type_uint32: ui32Val = rany.ui32Val; break;
case EValType::val_type_int64: i64Val = rany.i64Val; break;
case EValType::val_type_uint64: ui64Val = rany.ui64Val; break;
case EValType::val_type_char: cVal = rany.cVal; break;
case EValType::val_type_char16: c16Val = rany.c16Val; break;
case EValType::val_type_char32: c32Val = rany.c32Val; break;
case EValType::val_type_wchar: cwVal = rany.cwVal; break;
case EValType::val_type_float: fVal = rany.fVal; break;
case EValType::val_type_double: dVal = rany.dVal; break;
case EValType::val_type_long_double: ldVal = rany.ldVal; break;
//case EValType::val_type_fixed: new (&fixValue) fixed(std::move(rany.fixValue)); break;
case EValType::val_type_string: new (&ssVal) string(std::move(rany.ssVal)); break;
case EValType::val_type_u8string: new (&ss8Val) u8string(std::move(rany.ss8Val)); break;
case EValType::val_type_u16string: new (&ss16Val) u16string(std::move(rany.ss16Val)); break;
case EValType::val_type_u32string: new (&ss32Val) u32string(std::move(rany.ss32Val)); break;
case EValType::val_type_wstring: new (&sswVal) wstring(std::move(rany.sswVal)); break;
case EValType::val_type_interface: new (&ifcVal) interface_t(std::move(rany.ifcVal)); break;
case EValType::val_type_interface_id: idIfcVal = rany.idIfcVal; break;
case EValType::val_type_exception_id: idExceptVal = rany.idExceptVal; break;
default: break;
#ifdef __GNUC__
#pragma GCC diagnostic pop
#endif
}
rany.eValType = EValType::val_type_empty;
}
template <typename TType>
inline any_t& any_t::operator=(TType tVal)
{
set(tVal);
return *this;
}
inline any_t& any_t::operator=(const any_t& rany)
{
clear();
eValType = rany.eValType;
switch (eValType)
{
#ifdef __GNUC__
#pragma GCC diagnostic push
#pragma GCC diagnostic ignored "-Wmaybe-uninitialized"
#endif
case EValType::val_type_bool: bVal = rany.bVal; break;
case EValType::val_type_int8: i8Val = rany.i8Val; break;
case EValType::val_type_uint8: ui8Val = rany.ui8Val; break;
case EValType::val_type_int16: i16Val = rany.i16Val; break;
case EValType::val_type_uint16: ui16Val = rany.ui16Val; break;
case EValType::val_type_int32: i32Val = rany.i32Val; break;
case EValType::val_type_uint32: ui32Val = rany.ui32Val; break;
case EValType::val_type_int64: i64Val = rany.i64Val; break;
case EValType::val_type_uint64: ui64Val = rany.ui64Val; break;
case EValType::val_type_char: cVal = rany.cVal; break;
case EValType::val_type_char16: c16Val = rany.c16Val; break;
case EValType::val_type_char32: c32Val = rany.c32Val; break;
case EValType::val_type_wchar: cwVal = rany.cwVal; break;
case EValType::val_type_float: fVal = rany.fVal; break;
case EValType::val_type_double: dVal = rany.dVal; break;
case EValType::val_type_long_double: ldVal = rany.ldVal; break;
//case EValType::val_type_fixed: new (&fixValue) fixed(rany.fixValue); break;
case EValType::val_type_string: new (&ssVal) string(rany.ssVal); break;
case EValType::val_type_u8string: new (&ss8Val) u8string(rany.ss8Val); break;
case EValType::val_type_u16string: new (&ss16Val) u16string(rany.ss16Val); break;
case EValType::val_type_u32string: new (&ss32Val) u32string(rany.ss32Val); break;
case EValType::val_type_wstring: new (&sswVal) wstring(rany.sswVal); break;
case EValType::val_type_interface: new (&ifcVal) interface_t(rany.ifcVal); break;
case EValType::val_type_interface_id: idIfcVal = rany.idIfcVal; break;
case EValType::val_type_exception_id: idExceptVal = rany.idExceptVal; break;
default: break;
#ifdef __GNUC__
#pragma GCC diagnostic pop
#endif
}
return *this;
}
inline any_t& any_t::operator=(any_t&& rany) noexcept
{
clear();
eValType = rany.eValType;
switch (eValType)
{
#ifdef __GNUC__
#pragma GCC diagnostic push
#pragma GCC diagnostic ignored "-Wmaybe-uninitialized"
#endif
case EValType::val_type_bool: bVal = rany.bVal; break;
case EValType::val_type_int8: i8Val = rany.i8Val; break;
case EValType::val_type_uint8: ui8Val = rany.ui8Val; break;
case EValType::val_type_int16: i16Val = rany.i16Val; break;
case EValType::val_type_uint16: ui16Val = rany.ui16Val; break;
case EValType::val_type_int32: i32Val = rany.i32Val; break;
case EValType::val_type_uint32: ui32Val = rany.ui32Val; break;
case EValType::val_type_int64: i64Val = rany.i64Val; break;
case EValType::val_type_uint64: ui64Val = rany.ui64Val; break;
case EValType::val_type_char: cVal = rany.cVal; break;
case EValType::val_type_char16: c16Val = rany.c16Val; break;
case EValType::val_type_char32: c32Val = rany.c32Val; break;
case EValType::val_type_wchar: cwVal = rany.cwVal; break;
case EValType::val_type_float: fVal = rany.fVal; break;
case EValType::val_type_double: dVal = rany.dVal; break;
case EValType::val_type_long_double: ldVal = rany.ldVal; break;
//case EValType::val_type_fixed: new (&fixValue) fixed(std::move(rany.fixValue)); break;
case EValType::val_type_string: new (&ssVal) string(std::move(rany.ssVal)); break;
case EValType::val_type_u8string: new (&ss8Val) u8string(std::move(rany.ss8Val)); break;
case EValType::val_type_u16string: new (&ss16Val) u16string(std::move(rany.ss16Val)); break;
case EValType::val_type_u32string: new (&ss32Val) u32string(std::move(rany.ss32Val)); break;
case EValType::val_type_wstring: new (&sswVal) wstring(std::move(rany.sswVal)); break;
case EValType::val_type_interface: new (&ifcVal) interface_t(std::move(rany.ifcVal)); break;
case EValType::val_type_interface_id: idIfcVal = rany.idIfcVal; break;
case EValType::val_type_exception_id: idExceptVal = rany.idExceptVal; break;
default: break;
#ifdef __GNUC__
#pragma GCC diagnostic pop
#endif
}
rany.eValType = EValType::val_type_empty;
return *this;
}
inline any_t::operator bool() const
{
return get<bool>();
}
inline any_t::operator int8_t() const
{
return get<int8_t>();
}
inline any_t::operator uint8_t() const
{
return get<uint8_t>();
}
inline any_t::operator int16_t() const
{
return get<int16_t>();
}
inline any_t::operator uint16_t() const
{
return get<uint16_t>();
}
inline any_t::operator int32_t() const
{
return get<int32_t>();
}
inline any_t::operator uint32_t() const
{
return get<uint32_t>();
}
inline any_t::operator int64_t() const
{
return get<int64_t>();
}
inline any_t::operator uint64_t() const
{
return get<uint64_t>();
}
inline any_t::operator char() const
{
return get<char>();
}
inline any_t::operator char16_t() const
{
return get<char16_t>();
}
inline any_t::operator char32_t() const
{
return get<char32_t>();
}
inline any_t::operator wchar_t() const
{
return get<wchar_t>();
}
inline any_t::operator float() const
{
return get<float>();
}
inline any_t::operator double() const
{
return get<double>();
}
inline any_t::operator long double() const
{
return get<long double>();
}
//inline any_t::operator fixed() const
//{
// return get<fixed>();
//}
inline any_t::operator string() const
{
return get<string>();
}
inline any_t::operator u8string() const
{
return get<u8string>();
}
inline any_t::operator u16string() const
{
return get<u16string>();
}
inline any_t::operator u32string() const
{
return get<u32string>();
}
inline any_t::operator wstring() const
{
return get<wstring>();
}
inline any_t::operator interface_t() const
{
return get<interface_t>();
}
// Cast already covered by operator uint64()
//inline any_t::operator interface_id() const
//{
// return get<interface_id>();
//}
// Assignment already covered by operator uint64()
//inline any_t::operator exception_id() const
//{
// return get<exception_id>();
//}
inline any_t::operator std::string() const
{
return get<std::string>();
}
inline any_t::operator std::u16string() const
{
return get<std::u16string>();
}
inline any_t::operator std::u32string() const
{
return get<std::u32string>();
}
inline any_t::operator std::wstring() const
{
return get<std::wstring>();
}
inline bool any_t::empty() const
{
return eValType == EValType::val_type_empty;
}
inline void any_t::clear()
{
switch (eValType)
{
case EValType::val_type_string: ssVal.~string_base(); break;
case EValType::val_type_u8string: ss8Val.~string_base(); break;
case EValType::val_type_u16string: ss16Val.~string_base(); break;
case EValType::val_type_u32string: ss32Val.~string_base(); break;
case EValType::val_type_wstring: sswVal.~string_base(); break;
default: break;
}
eValType = EValType::val_type_empty;
}
/**
* @brief Set the boolean value (specialization)
* @param[in] bValParam The boolean value.
*/
template <>
inline void any_t::set(bool bValParam)
{
clear();
eValType = EValType::val_type_bool;
bVal = bValParam;
}
/**
* @brief Set the integer value (specialization)
* @param[in] iValParam The integer value.
*/
template <>
inline void any_t::set(int8_t iValParam)
{
clear();
eValType = EValType::val_type_int8;
i8Val = iValParam;
}
/**
* @brief Set the unsigned integer value (specialization)
* @param[in] uiValParam The unsigned integer value.
*/
template <>
inline void any_t::set(uint8_t uiValParam)
{
clear();
eValType = EValType::val_type_uint8;
ui8Val = uiValParam;
}
/**
* @brief Set the integer value (specialization)
* @param[in] iValParam The integer value.
*/
template <>
inline void any_t::set(int16_t iValParam)
{
clear();
eValType = EValType::val_type_int16;
i16Val = iValParam;
}
/**
* @brief Set the unsigned integer value (specialization)
* @param[in] uiValParam The unsigned integer value.
*/
template <>
inline void any_t::set(uint16_t uiValParam)
{
clear();
eValType = EValType::val_type_uint16;
ui16Val = uiValParam;
}
/**
* @brief Set the integer value (specialization)
* @param[in] iValParam The integer value.
*/
template <>
inline void any_t::set(int32_t iValParam)
{
clear();
eValType = EValType::val_type_int32;
i32Val = iValParam;
}
#ifdef _WIN32
/**
* @brief Set the long value (specialization)
* @param[in] iValParam The long value.
*/
template <>
inline void any_t::set(long lValParam)
{
clear();
eValType = EValType::val_type_int32;
i32Val = static_cast<int32_t>(lValParam);
}
#endif
/**
* @brief Set the unsigned integer value (specialization)
* @param[in] uiValParam The unsigned integer value.
*/
template <>
inline void any_t::set(uint32_t uiValParam)
{
clear();
eValType = EValType::val_type_uint32;
ui32Val = uiValParam;
}
#ifdef _WIN32
/**
* @brief Set the unsigned long value (specialization)
* @param[in] uiValParam The unsigned long value.
*/
template <>
inline void any_t::set(unsigned long ulValParam)
{
clear();
eValType = EValType::val_type_uint32;
ui32Val = static_cast<uint32_t>(ulValParam);
}
#endif
/**
* @brief Set the integer value (specialization)
* @param[in] iValParam The integer value.
*/
template <>
inline void any_t::set(int64_t iValParam)
{
clear();
eValType = EValType::val_type_int64;
i64Val = iValParam;
}
#ifdef __linux__
/**
* @brief Set the long long value (specialization)
* @param[in] iValParam The integer value.
*/
template <>
inline void any_t::set(long long llValParam)
{
clear();
eValType = EValType::val_type_int64;
i64Val = static_cast<int64_t>(llValParam);
}
#endif
/**
* @brief Set the unsigned integer value (specialization)
* @param[in] uiValParam The unsigned integer value.
*/
template <>
inline void any_t::set(uint64_t uiValParam)
{
clear();
eValType = EValType::val_type_uint64;
ui64Val = uiValParam;
}
#ifdef __linux__
/**
* @brief Set the unsigned long long value (specialization)
* @param[in] uiValParam The unsigned long long value.
*/
template <>
inline void any_t::set(unsigned long long ullValParam)
{
clear();
eValType = EValType::val_type_uint64;
ui64Val = static_cast<uint64_t>(ullValParam);
}
#endif
/**
* @brief Set the character value (specialization)
* @param[in] cValParam The character value.
*/
template <>
inline void any_t::set(char cValParam)
{
clear();
eValType = EValType::val_type_char;
cVal = cValParam;
}
/**
* @brief Set the character value (specialization)
* @param[in] c16ValParam The character value.
*/
template <>
inline void any_t::set(char16_t c16ValParam)
{
clear();
eValType = EValType::val_type_char16;
c16Val = c16ValParam;
}
/**
* @brief Set the character value (specialization)
* @param[in] c32ValParam The character value.
*/
template <>
inline void any_t::set(char32_t c32ValParam)
{
clear();
eValType = EValType::val_type_char32;
c32Val = c32ValParam;
}
/**
* @brief Set the character value (specialization)
* @param[in] cwValParam The character value.
*/
template <>
inline void any_t::set(wchar_t cwValParam)
{
clear();
eValType = EValType::val_type_wchar;
cwVal = cwValParam;
}
/**
* @brief Set the float value (specialization)
* @param[in] fValParam The float value.
*/
template <>
inline void any_t::set(float fValParam)
{
clear();
eValType = EValType::val_type_float;
fVal = fValParam;
}
/**
* @brief Set the double value (specialization)
* @param[in] dValParam The double value.
*/
template <>
inline void any_t::set(double dValParam)
{
clear();
eValType = EValType::val_type_double;
dVal = dValParam;
}
/**
* @brief Set the long double value (specialization)
* @param[in] ldValParam The long double value.
*/
template <>
inline void any_t::set(long double ldValParam)
{
clear();
eValType = EValType::val_type_long_double;
ldVal = ldValParam;
}
/// @cond DOXYGEN_IGNORE
///**
// * @brief Set the fixed value (specialization)
// * @param[in] fixValParam The SDV fixed value.
// */
//template <>
//inline void any_t::set(fixed fixValParam)
//{
// clear();
// eValType = EValType::val_type_fixed;
// fixVal = fixValParam;
//}
/// @endcond
/**
* @brief Set the string value (specialization)
* @param[in] rssValParam The string value.
*/
template <>
inline void any_t::set(const string& rssValParam)
{
clear();
eValType = EValType::val_type_string;
new (&ssVal) string(rssValParam);
}
/**
* @brief Set the string value (specialization)
* @param[in] rss8ValParam The string value.
*/
template <>
inline void any_t::set(const u8string& rss8ValParam)
{
clear();
eValType = EValType::val_type_u8string;
new (&ss8Val) u8string(rss8ValParam);
}
/**
* @brief Set the string value (specialization)
* @param[in] rssValParam The string value.
*/
template <>
inline void any_t::set(const std::string& rssValParam)
{
clear();
eValType = EValType::val_type_u8string;
new (&ss8Val) u8string(rssValParam);
}
/**
* @brief Set the string value (specialization)
* @param[in] pszValParam The string value.
*/
template <>
inline void any_t::set(const char* pszValParam)
{
clear();
eValType = EValType::val_type_u8string;
new (&ss8Val) u8string(pszValParam ? pszValParam : "");
}
/**
* @brief Set the string value (specialization)
* @param[in] rss16ValParam The string value.
*/
template <>
inline void any_t::set(const u16string& rss16ValParam)
{
clear();
eValType = EValType::val_type_u16string;
new (&ss16Val) u16string(rss16ValParam);
}
/**
* @brief Set the string value (specialization)
* @param[in] rss16ValParam The string value.
*/
template <>
inline void any_t::set(const std::u16string& rss16ValParam)
{
clear();
eValType = EValType::val_type_u16string;
new (&ss16Val) u16string(rss16ValParam);
}
/**
* @brief Set the string value (specialization)
* @param[in] psz16ValParam The string value.
*/
template <>
inline void any_t::set(const char16_t* psz16ValParam)
{
clear();
eValType = EValType::val_type_u16string;
new (&ss16Val) u16string(psz16ValParam ? psz16ValParam : u"");
}
/**
* @brief Set the string value (specialization)
* @param[in] rss32ValParam The string value.
*/
template <>
inline void any_t::set(const u32string& rss32ValParam)
{
clear();
eValType = EValType::val_type_u32string;
new (&ss32Val) u32string(rss32ValParam);
}
/**
* @brief Set the string value (specialization)
* @param[in] rss32ValParam The string value.
*/
template <>
inline void any_t::set(const std::u32string& rss32ValParam)
{
clear();
eValType = EValType::val_type_u32string;
new (&ss32Val) u32string(rss32ValParam);
}
/**
* @brief Set the string value (specialization)
* @param[in] psz32ValParam The string value.
*/
template <>
inline void any_t::set(const char32_t* psz32ValParam)
{
clear();
eValType = EValType::val_type_u32string;
new (&ss32Val) u32string(psz32ValParam ? psz32ValParam : U"");
}
/**
* @brief Set the string value (specialization)
* @param[in] rsswValParam The string value.
*/
template <>
inline void any_t::set(const wstring& rsswValParam)
{
clear();
eValType = EValType::val_type_wstring;
new (&sswVal) wstring(rsswValParam);
}
/**
* @brief Set the string value (specialization)
* @param[in] rsswValParam The string value.
*/
template <>
inline void any_t::set(const std::wstring& rsswValParam)
{
clear();
eValType = EValType::val_type_wstring;
new (&sswVal) wstring(rsswValParam);
}
/**
* @brief Set the string value (specialization)
* @param[in] pszwValParam The string value.
*/
template <>
inline void any_t::set(const wchar_t* pszwValParam)
{
clear();
eValType = EValType::val_type_wstring;
new (&sswVal) wstring(pszwValParam ? pszwValParam : L"");
}
/**
* @brief Set the interface value (specialization)
* @param[in] ifcValParam The interface value.
*/
template <>
inline void any_t::set(interface_t ifcValParam)
{
clear();
eValType = EValType::val_type_interface;
new (&ifcVal) interface_t(ifcValParam);
}
// Assignment already covered by operator=(uint64)
//template <>
//inline void any_t::set(interface_id idIfcValParam)
//{
// clear();
// eValType = EValType::val_type_interface_id;
// idIfcVal = idIfcValParam;
//}
// Assignment already covered by operator=(uint64)
//template <>
//inline void any_t::set(exception_id idExceptValParam)
//{
// clear();
// eValType = EValType::val_type_exception;
// idExceptVal = idExceptValParam;
//}
template <typename TType>
inline void any_t::set(TType tVal, EValType eValTypeParam)
{
clear();
eValType = eValTypeParam;
switch (eValType)
{
case EValType::val_type_bool: convert(tVal, bVal); break;
case EValType::val_type_int8: convert(tVal, i8Val); break;
case EValType::val_type_uint8: convert(tVal, ui8Val); break;
case EValType::val_type_int16: convert(tVal, i16Val); break;
case EValType::val_type_uint16: convert(tVal, ui16Val); break;
case EValType::val_type_int32: convert(tVal, i32Val); break;
case EValType::val_type_uint32: convert(tVal, ui32Val); break;
case EValType::val_type_int64: convert(tVal, i64Val); break;
case EValType::val_type_uint64: convert(tVal, ui64Val); break;
case EValType::val_type_char: convert(tVal, cVal); break;
case EValType::val_type_char16: convert(tVal, c16Val); break;
case EValType::val_type_char32: convert(tVal, c32Val); break;
case EValType::val_type_wchar: convert(tVal, cwVal); break;
case EValType::val_type_float: convert(tVal, fVal); break;
case EValType::val_type_double: convert(tVal, dVal); break;
case EValType::val_type_long_double: convert(tVal, ldVal); break;
//case EValType::val_type_fixed: new (&fixValue) fixed(); convert(tVal, fixValue); break;
case EValType::val_type_string: new (&ssVal) string(); convert(tVal, ssVal); break;
case EValType::val_type_u8string: new (&ss8Val) u8string(); convert(tVal, ss8Val); break;
case EValType::val_type_u16string: new (&ss16Val) u16string(); convert(tVal, ss16Val); break;
case EValType::val_type_u32string: new (&ss32Val) u32string(); convert(tVal, ss32Val); break;
case EValType::val_type_wstring: new (&sswVal) wstring(); convert(tVal, sswVal); break;
case EValType::val_type_interface: new (&ifcVal) interface_t(); convert(tVal, ifcVal); break;
case EValType::val_type_interface_id: convert(tVal, idIfcVal); break;
case EValType::val_type_exception_id: convert(tVal, idExceptVal); break;
default: break;
}
}
template <typename TType>
inline TType any_t::get() const
{
TType tVal;
switch (eValType)
{
case EValType::val_type_bool: convert(bVal, tVal); break;
case EValType::val_type_int8: convert(i8Val, tVal); break;
case EValType::val_type_uint8: convert(ui8Val, tVal); break;
case EValType::val_type_int16: convert(i16Val, tVal); break;
case EValType::val_type_uint16: convert(ui16Val, tVal); break;
case EValType::val_type_int32: convert(i32Val, tVal); break;
case EValType::val_type_uint32: convert(ui32Val, tVal); break;
case EValType::val_type_int64: convert(i64Val, tVal); break;
case EValType::val_type_uint64: convert(ui64Val, tVal); break;
case EValType::val_type_char: convert(cVal, tVal); break;
case EValType::val_type_char16: convert(c16Val, tVal); break;
case EValType::val_type_char32: convert(c32Val, tVal); break;
case EValType::val_type_wchar: convert(cwVal, tVal); break;
case EValType::val_type_float: convert(fVal, tVal); break;
case EValType::val_type_double: convert(dVal, tVal); break;
case EValType::val_type_long_double: convert(ldVal, tVal); break;
//case EValType::val_type_fixed: convert(fixValue, tVal); break;
case EValType::val_type_string: convert(ssVal, tVal); break;
case EValType::val_type_u8string: convert(ss8Val, tVal); break;
case EValType::val_type_u16string: convert(ss16Val, tVal); break;
case EValType::val_type_u32string: convert(ss32Val, tVal); break;
case EValType::val_type_wstring: convert(sswVal, tVal); break;
case EValType::val_type_interface: convert(ifcVal, tVal); break;
case EValType::val_type_interface_id: convert(idIfcVal, tVal); break;
case EValType::val_type_exception_id: convert(idExceptVal, tVal); break;
default: tVal = TType(); break;
}
return tVal;
}
namespace internal
{
/**
* @brief Type classification.
*/
enum class ETypeClass
{
arithmetic, ///< Arihtmetic type classification.
string, ///< String type classification.
other ///< Non-arithmetic and non-string type .
};
/**
* @brief Classify the type into arithmetic, string and others.
* @tparam TType The type to classify.
* @return The classification.
*/
template <typename TType>
inline constexpr ETypeClass Classify()
{
if constexpr (std::is_arithmetic_v<TType>)
return ETypeClass::arithmetic;
else if constexpr (std::is_same_v<TType, string> || std::is_same_v<TType, u8string> ||
std::is_same_v<TType, u16string> || std::is_same_v<TType, u32string> || std::is_same_v<TType, wstring> ||
std::is_same_v<TType, std::string> || std::is_same_v<TType, std::u16string> ||
std::is_same_v<TType, std::u32string> || std::is_same_v<TType, std::wstring> ||
std::is_same_v<TType, const char*> || std::is_same_v<TType, const char16_t*> ||
std::is_same_v<TType, const char32_t*> || std::is_same_v<TType, const wchar_t*>)
return ETypeClass::string;
else
return ETypeClass::other;
}
/**
* @brief Conversion struct from one type to another
* @tparam TSrcType The source type.
* @tparam TDstType The destination type.
* @tparam eSrcClass The source type classification
* @tparam eDstClass The destination type classification
*/
template <typename TSrcType, typename TDstType, ETypeClass eSrcClass = Classify<TSrcType>(),
ETypeClass eDstClass = Classify<TDstType>()>
struct SConvert
{
/**
* @brief Convert from one type to another (default implementation only assigns when the variables are identical).
* @param[in] tVal The source value.
* @return The target value.
*/
static TDstType convert([[maybe_unused]] TSrcType tVal)
{
if constexpr (std::is_same_v<TSrcType, TDstType>)
return tVal;
else
return TDstType();
}
};
/**
* @brief Conversion struct specialization from an arithmetic value to another.
* @tparam TSrcType The arithmetic value type.
* @tparam TDstType The arithmetic destrination value type.
*/
template <typename TSrcType, typename TDstType>
struct SConvert<TSrcType, TDstType, ETypeClass::arithmetic, ETypeClass::arithmetic>
{
/**
* @brief Convert from an arithmetic value into another arithmetic value.
* @param[in] tVal The arithmetic value.
* @return The target value.
*/
static TDstType convert(TSrcType tVal) { return static_cast<TDstType>(tVal); }
};
/**
* @brief Conversion struct specialization for converting an arithmetic value into a string.
* @tparam TSrcType The arithmetic value type.
* @tparam TDstType The destination type string.
*/
template <typename TSrcType, typename TDstType>
struct SConvert<TSrcType, TDstType, ETypeClass::arithmetic, ETypeClass::string>
{
/**
* @brief Convert from an arithmetic value to a SDV string.
* @param[in] tVal The arithmetic value.
* @return The SDV target string.
*/
static TDstType convert(TSrcType tVal)
{
if constexpr (std::is_same_v<TSrcType, char>)
{
char sz[] = { tVal, '\0' };
return MakeString<char, typename TDstType::value_type, true, 0>(sz);
} else if constexpr (std::is_same_v<TSrcType, char16_t>)
{
char16_t sz[] = { tVal, u'\0' };
return MakeString<char16_t, typename TDstType::value_type, true, 0>(sz);
} else if constexpr (std::is_same_v<TSrcType, char32_t>)
{
char32_t sz[] = { tVal, U'\0' };
return MakeString<char32_t, typename TDstType::value_type, true, 0>(sz);
} else if constexpr (std::is_same_v<TSrcType, wchar_t>)
{
wchar_t sz[] = { tVal, L'\0' };
return MakeString<wchar_t, typename TDstType::value_type, true, 0>(sz);
} else
return MakeString<char, typename TDstType::value_type, true, 0>(std::to_string(tVal));
}
};
/**
* @brief Conversion struct specialization for converting a string into an arithmetic value.
* @tparam TSrcType The source type string.
* @tparam TDstType The arithmetic value type.
*/
template <typename TSrcType, typename TDstType>
struct SConvert<TSrcType, TDstType, ETypeClass::string, ETypeClass::arithmetic>
{
/**
* @brief Convert from an arithmetic value to a SDV string.
* @param[in] tVal The arithmetic value.
* @return The SDV target string.
*/
static TDstType convert(TSrcType tVal)
{
string ssTemp = MakeUtf8String(tVal);
if (ssTemp.empty()) return static_cast<TDstType>(0); // Prevent an exception.
try
{
if constexpr (std::is_integral_v<TDstType> && std::is_signed_v<TDstType>)
return static_cast<TDstType>(std::stoll(ssTemp));
else if constexpr (std::is_integral_v<TDstType> && !std::is_signed_v<TDstType>)
return static_cast<TDstType>(std::stoull(ssTemp));
else if constexpr (std::is_floating_point_v<TDstType>)
return static_cast<TDstType>(std::stold(ssTemp));
}
catch (std::exception&)
{}
return static_cast<TDstType>(0);
}
};
/**
* @brief Conversion struct specialization for converting one string into another.
* @tparam TSrcType The source type string.
* @tparam TDstType The destination type string.
*/
template <typename TSrcType, typename TDstType>
struct SConvert<TSrcType, TDstType, ETypeClass::string, ETypeClass::string>
{
/**
* @brief Convert from one string (SDV, C or C++) to another string (SDV).
* @param[in] tVal The source string.
* @return The SDV target string.
*/
static TDstType convert(TSrcType tVal)
{
if constexpr (std::is_pointer_v<TSrcType>)
{
using TSrcCharType = std::remove_const_t<std::remove_pointer_t<TSrcType>>;
return MakeString<TSrcCharType, true, 0, typename TDstType::value_type, true, 0>(string_base<TSrcCharType, true, 0>(tVal));
}
else if constexpr (std::is_same_v<TSrcType, std::basic_string<typename TSrcType::value_type>>)
return MakeString<typename TSrcType::value_type, typename TDstType::value_type, typename TDstType::is_unicode, 0>(tVal);
else if constexpr (std::is_same_v<TDstType, std::basic_string<typename TDstType::value_type>>)
return MakeString<typename TSrcType::value_type, TSrcType::is_unicode, 0, typename TDstType::value_type, true, 0>(tVal);
else
return MakeString<typename TSrcType::value_type, TSrcType::is_unicode, 0, typename TDstType::value_type, TDstType::is_unicode, 0>(tVal);
}
};
}
template <typename TSourceType, typename TDestType>
inline void any_t::convert(const TSourceType& rtSrcVal, TDestType& rtDstVal)
{
rtDstVal = internal::SConvert<TSourceType, TDestType>::convert(rtSrcVal);
}
/**
* @brief Namespace for internal definitions.
*/
namespace internal
{
/**
* @brief Structure to help determining the conversion/target type priority during comparison.
* @tparam TType1 First type
* @tparam TType2 Second type
*/
template <typename TType1, typename TType2>
struct SCompareTypePriority
{
/// Are both types equal?
static constexpr bool bEqualType = std::is_same_v<TType1, TType2>;
/// Are both types arithmetic and one of them floating?
static constexpr bool bFloatingPoint = std::is_arithmetic_v<TType1> && std::is_arithmetic_v<TType2> &&
(std::is_floating_point_v<TType1> || std::is_floating_point_v<TType2>);
/// Are both types integral types and one of the signed?
static constexpr bool bSignedInteger = std::is_integral_v<TType1> && std::is_integral_v<TType2> &&
(std::is_signed_v<TType1> || std::is_signed_v<TType2>);
/// Are both types integral types and both unsigned?
static constexpr bool bUnsignedInteger = std::is_integral_v<TType1> && std::is_integral_v<TType2> &&
!bSignedInteger;
/// Is the provided type a SDV string?
/// @tparam The type to check.
template <typename T>
static constexpr bool bSdvString = std::is_same_v<T, sdv::string> || std::is_same_v<T, sdv::u8string> ||
std::is_same_v<T, sdv::u16string> || std::is_same_v<T, sdv::u32string> ||
std::is_same_v<T, sdv::wstring>;
/// Is the provided type a STD string?
/// @tparam The type to check.
template <typename T>
static constexpr bool bStdString = std::is_same_v<T, std::string> || std::is_same_v<T, std::u16string> ||
std::is_same_v<T, std::u32string> || std::is_same_v<T, std::wstring>;
/// Are both types a SDV or STD string or one of the type SDV or STD string and the other C string?
static constexpr bool bString = (bSdvString<TType1> || bStdString<TType1>) &&
(bSdvString<TType2> || bStdString<TType2>);
/// Type to use when any of these conditions occur.
using TType = std::conditional_t<bEqualType, TType1,
std::conditional_t<bFloatingPoint, long double,
std::conditional_t<bSignedInteger, int64_t,
std::conditional_t<bUnsignedInteger, uint64_t,
std::conditional_t<bSdvString<TType1> && bString, TType1,
std::conditional_t<bSdvString<TType2> && bString, TType2,
void>>>>>>;
/// Is the type combination invalid?
static constexpr bool bInvalid = std::is_same_v<TType, void>;
};
/**
* @brief The type to use based on the priority extracted from both supplied types.
* @tparam TType1 The first type.
* @tparam TType2 The second type.
*/
template <typename TType1, typename TType2>
using compare_priority_t = typename SCompareTypePriority<TType1, TType2>::TType;
/**
* @brief Is the type combination invalid.
* @tparam TType1 The first type.
* @tparam TType2 The second type.
*/
template <typename TType1, typename TType2>
static constexpr bool compare_invalid_v = SCompareTypePriority<TType1, TType2>::bInvalid;
/**
* @brief Compare the values of two types based on the priority rules.
* @tparam TType1 The type of the first value.
* @tparam TType2 The type of the second value
* @tparam eType Type of comparison to do.
* @param[in] rtVal1 Reference to the first value.
* @param[in] rtVal2 Reference to the second value.
* @return Returns the result of the comparison.
*/
template <typename TType1, typename TType2, sdv::any_t::ECompareType eType>
bool Compare(const TType1& rtVal1, const TType2& rtVal2)
{
if constexpr (compare_invalid_v<TType1, TType2>)
{
if constexpr (eType == any_t::ECompareType::compare_inequal)
return true;
else
return false;
}
else if constexpr (eType == any_t::ECompareType::compare_equal)
return static_cast<compare_priority_t<TType1, TType2>>(rtVal1) ==
static_cast<compare_priority_t<TType1, TType2>>(rtVal2);
else if constexpr (eType == any_t::ECompareType::compare_inequal)
return static_cast<compare_priority_t<TType1, TType2>>(rtVal1) !=
static_cast<compare_priority_t<TType1, TType2>>(rtVal2);
else if constexpr (eType == any_t::ECompareType::compare_smaller)
return static_cast<compare_priority_t<TType1, TType2>>(rtVal1) <
static_cast<compare_priority_t<TType1, TType2>>(rtVal2);
else if constexpr (eType == any_t::ECompareType::compare_smaller_equal)
return static_cast<compare_priority_t<TType1, TType2>>(rtVal1) <=
static_cast<compare_priority_t<TType1, TType2>>(rtVal2);
else if constexpr (eType == any_t::ECompareType::compare_larger)
return static_cast<compare_priority_t<TType1, TType2>>(rtVal1) >
static_cast<compare_priority_t<TType1, TType2>>(rtVal2);
else if constexpr (eType == any_t::ECompareType::compare_larger_equal)
return static_cast<compare_priority_t<TType1, TType2>>(rtVal1) >=
static_cast<compare_priority_t<TType1, TType2>>(rtVal2);
else
return false;
}
}
template <typename TType, any_t::ECompareType eType>
bool any_t::Compare(const TType& rtVal) const
{
switch (eValType)
{
case EValType::val_type_bool: return internal::Compare<bool , TType, eType>(bVal, rtVal); break;
case EValType::val_type_int8: return internal::Compare<int8_t , TType, eType>(i8Val, rtVal); break;
case EValType::val_type_uint8: return internal::Compare<uint8_t , TType, eType>(ui8Val, rtVal); break;
case EValType::val_type_int16: return internal::Compare<int16_t , TType, eType>(i16Val, rtVal); break;
case EValType::val_type_uint16: return internal::Compare<uint16_t , TType, eType>(ui16Val, rtVal); break;
case EValType::val_type_int32: return internal::Compare<int32_t , TType, eType>(i32Val, rtVal); break;
case EValType::val_type_uint32: return internal::Compare<uint32_t , TType, eType>(ui32Val, rtVal); break;
case EValType::val_type_int64: return internal::Compare<int64_t , TType, eType>(i64Val, rtVal); break;
case EValType::val_type_uint64: return internal::Compare<uint64_t , TType, eType>(ui64Val, rtVal); break;
case EValType::val_type_char: return internal::Compare<char , TType, eType>(cVal, rtVal); break;
case EValType::val_type_char16: return internal::Compare<char16_t , TType, eType>(c16Val, rtVal); break;
case EValType::val_type_char32: return internal::Compare<char32_t , TType, eType>(c32Val, rtVal); break;
case EValType::val_type_wchar: return internal::Compare<wchar_t , TType, eType>(cwVal, rtVal); break;
case EValType::val_type_float: return internal::Compare<float , TType, eType>(fVal, rtVal); break;
case EValType::val_type_double: return internal::Compare<double , TType, eType>(dVal, rtVal); break;
case EValType::val_type_long_double: return internal::Compare<long double , TType, eType>(ldVal, rtVal); break;
//case EValType::val_type_fixed: return internal::Compare<sdv::fixed , TType, eType>(fixVal, rtVal); break;
case EValType::val_type_string:
if constexpr (std::is_same_v<TType, const char*>)
return internal::Compare<sdv::string, sdv::string, eType>(ssVal, sdv::string(rtVal));
else
return internal::Compare<sdv::string, TType, eType>(ssVal, rtVal);
break;
case EValType::val_type_u8string:
if constexpr (std::is_same_v<TType, const char*>)
return internal::Compare<sdv::u8string, sdv::u8string, eType>(ss8Val, sdv::u8string(rtVal));
else
return internal::Compare<sdv::u8string, TType, eType>(ss8Val, rtVal);
break;
case EValType::val_type_u16string:
if constexpr (std::is_same_v<TType, const char16_t*>)
return internal::Compare<sdv::u16string, sdv::u16string, eType>(ss16Val, sdv::u16string(rtVal));
else
return internal::Compare<sdv::u16string, TType, eType>(ss16Val, rtVal);
break;
case EValType::val_type_u32string:
if constexpr (std::is_same_v<TType, const char32_t*>)
return internal::Compare<sdv::u32string, sdv::u32string, eType>(ss32Val, sdv::u32string(rtVal));
else
return internal::Compare<sdv::u32string, TType, eType>(ss32Val, rtVal);
break;
case EValType::val_type_wstring:
if constexpr (std::is_same_v<TType, const wchar_t*>)
return internal::Compare<sdv::wstring, sdv::wstring, eType>(sswVal, sdv::wstring(rtVal));
else
return internal::Compare<sdv::wstring, TType, eType>(sswVal, rtVal);
break;
case EValType::val_type_interface: return internal::Compare<sdv::interface_t , TType, eType>(ifcVal, rtVal); break;
case EValType::val_type_interface_id: return internal::Compare<sdv::interface_id, TType, eType>(idIfcVal, rtVal); break;
case EValType::val_type_exception_id: return internal::Compare<sdv::exception_id, TType, eType>(idExceptVal, rtVal); break;
default: return false; break;
}
}
template <any_t::ECompareType eType>
inline bool any_t::Compare(const any_t& ranyVal) const
{
switch (ranyVal.eValType)
{
case EValType::val_type_empty: return ranyVal.eValType == EValType::val_type_empty; break;
case EValType::val_type_bool: return Compare<bool , eType>(ranyVal.bVal); break;
case EValType::val_type_int8: return Compare<int8_t , eType>(ranyVal.i8Val); break;
case EValType::val_type_uint8: return Compare<uint8_t , eType>(ranyVal.ui8Val); break;
case EValType::val_type_int16: return Compare<int16_t , eType>(ranyVal.i16Val); break;
case EValType::val_type_uint16: return Compare<uint16_t , eType>(ranyVal.ui16Val); break;
case EValType::val_type_int32: return Compare<int32_t , eType>(ranyVal.i32Val); break;
case EValType::val_type_uint32: return Compare<uint32_t , eType>(ranyVal.ui32Val); break;
case EValType::val_type_int64: return Compare<int64_t , eType>(ranyVal.i64Val); break;
case EValType::val_type_uint64: return Compare<uint64_t , eType>(ranyVal.ui64Val); break;
case EValType::val_type_char: return Compare<char , eType>(ranyVal.cVal); break;
case EValType::val_type_char16: return Compare<char16_t , eType>(ranyVal.c16Val); break;
case EValType::val_type_char32: return Compare<char32_t , eType>(ranyVal.c32Val); break;
case EValType::val_type_wchar: return Compare<wchar_t , eType>(ranyVal.cwVal); break;
case EValType::val_type_float: return Compare<float , eType>(ranyVal.fVal); break;
case EValType::val_type_double: return Compare<double , eType>(ranyVal.dVal); break;
case EValType::val_type_long_double: return Compare<long double , eType>(ranyVal.ldVal); break;
//case EValType::val_type_fixed: return Compare<sdv::fixed , eType>(ranyVal.fixVal); break;
case EValType::val_type_string: return Compare<sdv::string , eType>(ranyVal.ssVal); break;
case EValType::val_type_u8string: return Compare<sdv::u8string , eType>(ranyVal.ss8Val); break;
case EValType::val_type_u16string: return Compare<sdv::u16string , eType>(ranyVal.ss16Val); break;
case EValType::val_type_u32string: return Compare<sdv::u32string , eType>(ranyVal.ss32Val); break;
case EValType::val_type_wstring: return Compare<sdv::wstring , eType>(ranyVal.sswVal); break;
case EValType::val_type_interface: return Compare<sdv::interface_t , eType>(ranyVal.ifcVal); break;
case EValType::val_type_interface_id: return Compare<sdv::interface_id, eType>(ranyVal.idIfcVal); break;
case EValType::val_type_exception_id: return Compare<sdv::exception_id, eType>(ranyVal.idExceptVal); break;
default: return false; break;
}
}
template <typename TType>
inline bool operator==(const sdv::any_t& ranyVal1, TType tVal2)
{
return ranyVal1.Compare<TType, any_t::ECompareType::compare_equal>(tVal2);
}
template <typename TType>
inline bool operator==(TType tVal1, const sdv::any_t& ranyVal2)
{
return ranyVal2.Compare<TType, any_t::ECompareType::compare_equal>(tVal1);
}
inline bool operator==(const sdv::any_t& ranyVal1, const sdv::any_t& ranyVal2)
{
return ranyVal1.Compare<any_t::ECompareType::compare_equal>(ranyVal2);
}
template <typename TType>
inline bool operator!=(const sdv::any_t& ranyVal1, TType tVal2)
{
return ranyVal1.Compare<TType, any_t::ECompareType::compare_inequal>(tVal2);
}
template <typename TType>
inline bool operator!=(TType tVal1, const sdv::any_t& ranyVal2)
{
return ranyVal2.Compare<TType, any_t::ECompareType::compare_inequal>(tVal1);
}
inline bool operator!=(const sdv::any_t& ranyVal1, const sdv::any_t& ranyVal2)
{
return ranyVal1.Compare<any_t::ECompareType::compare_inequal>(ranyVal2);
}
template <typename TType>
inline bool operator<(const sdv::any_t& ranyVal1, TType tVal2)
{
return ranyVal1.Compare<TType, any_t::ECompareType::compare_smaller>(tVal2);
}
template <typename TType>
inline bool operator<(TType tVal1, const sdv::any_t& ranyVal2)
{
return ranyVal2.Compare<TType, any_t::ECompareType::compare_larger>(tVal1);
}
inline bool operator<(const sdv::any_t& ranyVal1, const sdv::any_t& ranyVal2)
{
return ranyVal1.Compare<any_t::ECompareType::compare_smaller>(ranyVal2);
}
template <typename TType>
inline bool operator<=(const sdv::any_t& ranyVal1, TType tVal2)
{
return ranyVal1.Compare<TType, any_t::ECompareType::compare_smaller_equal>(tVal2);
}
template <typename TType>
inline bool operator<=(TType tVal1, const sdv::any_t& ranyVal2)
{
return ranyVal2.Compare<TType, any_t::ECompareType::compare_larger_equal>(tVal1);
}
inline bool operator<=(const sdv::any_t& ranyVal1, const sdv::any_t& ranyVal2)
{
return ranyVal1.Compare<any_t::ECompareType::compare_smaller_equal>(ranyVal2);
}
template <typename TType>
inline bool operator>(const sdv::any_t& ranyVal1, TType tVal2)
{
return ranyVal1.Compare<TType, any_t::ECompareType::compare_larger>(tVal2);
}
template <typename TType>
inline bool operator>(TType tVal1, const sdv::any_t& ranyVal2)
{
return ranyVal2.Compare<TType, any_t::ECompareType::compare_smaller>(tVal1);
}
inline bool operator>(const sdv::any_t& ranyVal1, const sdv::any_t& ranyVal2)
{
return ranyVal1.Compare<any_t::ECompareType::compare_larger>(ranyVal2);
}
template <typename TType>
inline bool operator>=(const sdv::any_t& ranyVal1, TType tVal2)
{
return ranyVal1.Compare<TType, any_t::ECompareType::compare_larger_equal>(tVal2);
}
template <typename TType>
inline bool operator>=(TType tVal1, const sdv::any_t& ranyVal2)
{
return ranyVal2.Compare<TType, any_t::ECompareType::compare_smaller_equal>(tVal1);
}
inline bool operator>=(const sdv::any_t& ranyVal1, const sdv::any_t& ranyVal2)
{
return ranyVal1.Compare<any_t::ECompareType::compare_larger_equal>(ranyVal2);
}
}
#ifdef _MSC_VER
#pragma warning(pop)
#endif
#endif // !defined SDV_ANY_INL