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/*******************************************************************************
* Copyright (c) 2016 CEA LIST.
*
* All rights reserved. This program and the accompanying materials
* are made available under the terms of the Eclipse Public License v1.0
* which accompanies this distribution, and is available at
* http://www.eclipse.org/legal/epl-v10.html
*
* Created on: 17 mai 2016
*
* Contributors:
* Arnault Lapitre (CEA LIST) arnault.lapitre@cea.fr
* - Initial API and Implementation
******************************************************************************/
#ifndef FML_NUMERIC_BOOST_FLOATIMPL_H_
#define FML_NUMERIC_BOOST_FLOATIMPL_H_
#include <boost/multiprecision/cpp_dec_float.hpp>
#include <boost/multiprecision/detail/default_ops.hpp>
#include <fml/numeric/Number.h>
#include <fml/numeric/Integer.h>
#include <fml/numeric/Rational.h>
namespace sep
{
class Float :
public Number,
public GenericNumberClass< boost::multiprecision::number<
boost::multiprecision::cpp_dec_float<0> > , Float >
{
AVM_DECLARE_CLONABLE_CLASS( Float )
/**
* TYPEDEF
*/
public:
typedef boost::multiprecision::number<
boost::multiprecision::cpp_dec_float<0> > RawValueType;
private:
typedef GenericNumberClass< RawValueType , Float > ThisNumberClass;
public:
/**
* CONSTRUCTOR
* Default
*/
// RawValueType
Float(const RawValueType & aValue)
: Number( CLASS_KIND_T( Float ) ),
ThisNumberClass( RawValueType( aValue ) )
{
//!! NOTHING
}
// Rational
Float(const Rational & aRational)
: Number( CLASS_KIND_T( Float ) ),
ThisNumberClass( RawValueType( aRational.getValue() ) )
{
//!! NOTHING
}
// Integer
Float(const Integer & anInteger)
: Number( CLASS_KIND_T( Float ) ),
ThisNumberClass( RawValueType( anInteger.getValue() ) )
{
//!! NOTHING
}
// avm_float_t i.e. double
Float(avm_float_t aValue)
: Number( CLASS_KIND_T( Float ) ),
ThisNumberClass( RawValueType(aValue) )
{
//!! NOTHING
}
// float
Float(float aValue)
: Number( CLASS_KIND_T( Float ) ),
ThisNumberClass( RawValueType(aValue) )
{
//!! NOTHING
}
#ifdef _AVM_NEED_INT64_T_OVERLOADS_
// avm_integer_t i.e. avm_int64_t
Float(avm_integer_t aValue)
: Number( CLASS_KIND_T( Float ) ),
ThisNumberClass( RawValueType( static_cast< long >(aValue) ) )
{
//!! NOTHING
}
// avm_uinteger_t i.e. avm_uint64_t
Float(avm_uinteger_t aValue)
: Number( CLASS_KIND_T( Float ) ),
ThisNumberClass( RawValueType( static_cast< unsigned long >(aValue) ) )
{
//!! NOTHING
}
// long
Float(long aValue)
: Number( CLASS_KIND_T( Float ) ),
ThisNumberClass( RawValueType( aValue ) )
{
//!! NOTHING
}
Float(unsigned long aValue)
: Number( CLASS_KIND_T( Float ) ),
ThisNumberClass( RawValueType( aValue ) )
{
//!! NOTHING
}
#else
// avm_integer_t i.e. avm_int64_t
Float(avm_integer_t aValue)
: Number( CLASS_KIND_T( Float ) ),
ThisNumberClass( RawValueType(aValue) )
{
//!! NOTHING
}
// avm_uinteger_t i.e. avm_uint64_t
Float(avm_uinteger_t aValue)
: Number( CLASS_KIND_T( Float ) ),
ThisNumberClass( RawValueType(aValue) )
{
//!! NOTHING
}
#endif /* _AVM_NEED_INT64_T_OVERLOADS_ */
// int32_t
Float(int aValue)
: Number( CLASS_KIND_T( Float ) ),
ThisNumberClass( RawValueType(aValue) )
{
//!! NOTHING
}
// uint32_t
Float(unsigned int aValue)
: Number( CLASS_KIND_T( Float ) ),
ThisNumberClass( RawValueType(aValue) )
{
//!! NOTHING
}
// std::string
Float(const std::string & aValue)
: Number( CLASS_KIND_T( Float ) ),
ThisNumberClass( RawValueType(aValue) )
{
//!! NOTHING
}
/**
* CONSTRUCTOR
* Copy
*/
Float(const Float & aFloat)
: Number( aFloat ),
ThisNumberClass( aFloat )
{
//!! NOTHING
}
/**
* DESTRUCTOR
*/
virtual ~Float()
{
//!! NOTHING
}
/**
* BASICS TESTS
*/
virtual inline int sign() const
{
return( ThisNumberClass::mValue.sign() );
}
virtual inline bool isZero() const
{
return( ThisNumberClass::mValue.is_zero() );
}
virtual inline bool isOne() const
{
return( ThisNumberClass::mValue == 1 );
}
virtual inline bool isNegativeOne() const
{
return( ThisNumberClass::mValue == -1 );
}
/**
* CONVERSION
*/
#define CPP_FLOAT_IS_INTEGER(CPP_FLOAT, INT_T) \
( CPP_FLOAT == CPP_FLOAT.convert_to< INT_T >() )
// && boost::multiprecision::default_ops::check_in_range< INT_T >( CPP_FLOAT )
#define CPP_FLOAT_IS_POSITIVE_INTEGER(CPP_FLOAT, INT_T) \
( CPP_FLOAT.sign() >= 0 ) \
&& ( CPP_FLOAT == CPP_FLOAT.convert_to< INT_T >() )
// && boost::multiprecision::default_ops::check_in_range< INT_T >( CPP_FLOAT )
inline virtual bool isInt32() const
{
return( CPP_FLOAT_IS_INTEGER(ThisNumberClass::mValue, avm_int32_t) );
}
inline virtual avm_int32_t toInt32() const
{
return( ThisNumberClass::mValue.convert_to< avm_int32_t >() );
}
inline virtual bool isInt64() const
{
return( CPP_FLOAT_IS_INTEGER(ThisNumberClass::mValue, avm_int64_t) );
}
inline virtual avm_int64_t toInt64() const
{
return( ThisNumberClass::mValue.convert_to< avm_int64_t >() );
}
inline virtual bool isInteger() const
{
return( CPP_FLOAT_IS_INTEGER(ThisNumberClass::mValue, avm_integer_t) );
}
inline virtual avm_integer_t toInteger() const
{
return( ThisNumberClass::mValue.convert_to< avm_integer_t >() );
}
inline virtual bool isPosInteger() const
{
return( CPP_FLOAT_IS_POSITIVE_INTEGER(
ThisNumberClass::mValue, avm_uinteger_t) );
}
inline virtual bool isUInteger() const
{
return( CPP_FLOAT_IS_POSITIVE_INTEGER(
ThisNumberClass::mValue, avm_uinteger_t) );
}
inline virtual avm_uinteger_t toUInteger() const
{
return( ThisNumberClass::mValue.convert_to< avm_uinteger_t >() );
}
inline virtual bool isRational() const
{
return( isInteger() );
}
virtual avm_integer_t toNumerator() const
{
return( ThisNumberClass::mValue.convert_to< avm_integer_t >() );
}
virtual avm_integer_t toDenominator() const
{
return( static_cast< avm_integer_t >( 1 ) );
}
#define CPP_FLOAT_IS_FLOAT(CPP_FLOAT, FLOAT_T) \
( CPP_FLOAT == CPP_FLOAT.convert_to< FLOAT_T >() )
// && boost::multiprecision::default_ops::check_in_range< FLOAT_T >( CPP_FLOAT )
inline virtual bool isFloat() const
{
// return( false );
return( CPP_FLOAT_IS_FLOAT(ThisNumberClass::mValue, avm_float_t) );
}
inline virtual avm_float_t toFloat() const
{
return( ThisNumberClass::mValue.convert_to< avm_float_t >() );
}
inline virtual bool isReal() const
{
// return( false );
return( CPP_FLOAT_IS_FLOAT(ThisNumberClass::mValue, avm_real_t) );
}
inline virtual avm_real_t toReal() const
{
return( ThisNumberClass::mValue.convert_to< avm_real_t >() );
}
/**
* math function
*/
inline void set_pow(avm_uinteger_t anExponent)
{
ThisNumberClass::mValue = boost::multiprecision::pow(
ThisNumberClass::mValue, anExponent);
}
inline void set_pow(double aValue, avm_uinteger_t anExponent)
{
ThisNumberClass::mValue = boost::multiprecision::pow(
RawValueType(aValue), anExponent);
}
/**
* Serialization
*/
virtual void toStream(OutStream & os) const
{
os << TAB /*<< OS_FLOAT_PRECISION*/ << mValue.str();
AVM_DEBUG_REF_COUNTER(os);
os << EOL_FLUSH;
}
virtual std::string str() const
{
return( mValue.str() );
}
inline virtual std::string strNum(
avm_uint8_t precision = AVM_MUMERIC_PRECISION) const
{
return( OSS() << std::fixed
<< std::setprecision( precision ) << mValue );
}
};
/**
* Operators
*/
inline Float::RawValueType operator+ (Float::RawValueType aFLoat,
const Rational::RawValueType & aRational)
{
return( static_cast< Float::RawValueType >( aFLoat +
aRational.convert_to< Float::RawValueType >() ) );
}
inline Float::RawValueType operator- (Float::RawValueType aFLoat,
const Rational::RawValueType & aRational)
{
return( static_cast< Float::RawValueType >( aFLoat -
aRational.convert_to< Float::RawValueType >() ) );
}
inline Float::RawValueType operator* (Float::RawValueType aFLoat,
const Rational::RawValueType & aRational)
{
return( static_cast< Float::RawValueType >( aFLoat *
aRational.convert_to< Float::RawValueType >() ) );
}
inline Float::RawValueType operator/ (Float::RawValueType aFLoat,
const Rational::RawValueType & aRational)
{
return( static_cast< Float::RawValueType >( aFLoat /
aRational.convert_to< Float::RawValueType >() ) );
}
} /* namespace sep */
#endif /* FML_NUMERIC_BOOST_FLOATIMPL_H_ */