EvilNumber Class Reference

this is a class that kinda mimics how python polymorph's numbers. More...

#include "EvilNumber.h"

Public Member Functions
	EvilNumber ()
	EvilNumber (int8 val)
	EvilNumber (uint8 val)
	EvilNumber (int16 val)
	EvilNumber (uint16 val)
	EvilNumber (int32 val)
	EvilNumber (uint32 val)
	EvilNumber (int64 val)
	EvilNumber (float val)
	EvilNumber (double val)
EvilNumber	operator* (const EvilNumber &val)
EvilNumber	operator*= (const EvilNumber &val)
EvilNumber	operator/ (const EvilNumber &val)
EvilNumber	operator/= (const EvilNumber &val)
EvilNumber	operator+ (const EvilNumber &val)
EvilNumber	operator+= (const EvilNumber &val)
EvilNumber	operator- (const EvilNumber &val)
EvilNumber	operator- ()
EvilNumber	operator-= (const EvilNumber &val)
EvilNumber	operator% (const EvilNumber &val)
EvilNumber	operator%= (const EvilNumber &val)
EvilNumber	operator++ ()
EvilNumber	operator++ (int)
EvilNumber	operator-- ()
EvilNumber	operator-- (int)
bool	operator== (const EvilNumber &val)
	'==' operator overload More...
bool	operator!= (const EvilNumber &val)
bool	operator< (const EvilNumber &val)
bool	operator> (const EvilNumber &val)
bool	operator<= (const EvilNumber &val)
bool	operator>= (const EvilNumber &val)
std::string	to_str ()
	converts the EvilNumber value into a string More...
PyRep *	GetPyObject ()
	converts the EvilNumber into a python object. More...
EVIL_NUMBER_TYPE	get_type ()
bool	isInt ()
bool	isFloat ()
bool	isNaN ()
bool	isInf ()
bool	get_bool ()
int64	get_int ()
uint32	get_uint32 ()
float	get_float ()
double	get_double ()

Static Public Member Functions
static EvilNumber	sin (const EvilNumber &val)
	?? More...
static EvilNumber	cos (const EvilNumber &val)
static EvilNumber	tan (const EvilNumber &val)
static EvilNumber	asin (const EvilNumber &val)
static EvilNumber	acos (const EvilNumber &val)
static EvilNumber	atan (const EvilNumber &val)
static EvilNumber	sqrt (const EvilNumber &val)
static EvilNumber	pow (const EvilNumber &val1, const EvilNumber &val2)
static EvilNumber	log (const EvilNumber &val)
static EvilNumber	log10 (const EvilNumber &val)
static EvilNumber	exp (const EvilNumber &val)

Protected Member Functions
void	CheckIntegrity ()
	check if its possible a integer and do the conversion More...
EvilNumber	_Multiply (const EvilNumber &val1, const EvilNumber &val2)
	multiply this with More...
EvilNumber	_SelfMultiply (const EvilNumber &val)
EvilNumber	_Divide (const EvilNumber &val1, const EvilNumber &val2)
	divide this with More...
EvilNumber	_SelfDivide (const EvilNumber &val)
EvilNumber	_Add (const EvilNumber &val1, const EvilNumber &val2)
	add this with More...
EvilNumber	_SelfAdd (const EvilNumber &val)
EvilNumber	_Subtract (const EvilNumber &val1, const EvilNumber &val2)
	subtract this with More...
EvilNumber	_SelfSubtract (const EvilNumber &val)
EvilNumber	_Modulus (const EvilNumber &val1, const EvilNumber &val2)
	modulus this with More...
EvilNumber	_SelfModulus (const EvilNumber &val)
EvilNumber	_SelfIncrement ()
	increment by 1 More...
EvilNumber	_SelfDecrement ()
	decrement by 1 More...

Private Attributes
double	fVal
int64	iVal
EVIL_NUMBER_TYPE	mType

Detailed Description

this is a class that kinda mimics how python polymorph's numbers.

This is a class that kinda mimics how python polymorph's numbers. VARIANT design style number class.

Author

Captnoord.

Date

Juni 2010

Todo:

try to create a performance test for this.

Definition at line 59 of file EvilNumber.h.

Constructor & Destructor Documentation

EvilNumber::EvilNumber

(

)

Definition at line 46 of file EvilNumber.cpp.

References fVal, and iVal.

Referenced by _Add(), _Divide(), _Modulus(), _Multiply(), _Subtract(), acos(), asin(), atan(), cos(), exp(), log(), log10(), operator-(), pow(), sin(), sqrt(), and tan().

                       : mType(evil_number_int)
{
    iVal = 0;
    fVal = 0.0;
}

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EvilNumber::EvilNumber

(

int8

val

)

Definition at line 52 of file EvilNumber.cpp.

References fVal, and iVal.

                                 : mType(evil_number_int)
{
    iVal = val;
    fVal = 0.0;
}

EvilNumber::EvilNumber

(

uint8

val

)

Definition at line 58 of file EvilNumber.cpp.

References fVal, and iVal.

                                  : mType(evil_number_int)
{
    iVal = val;
    fVal = 0.0;
}

EvilNumber::EvilNumber

(

int16

val

)

Definition at line 64 of file EvilNumber.cpp.

References fVal, and iVal.

                                  : mType(evil_number_int)
{
    iVal = val;
    fVal = 0.0;
}

EvilNumber::EvilNumber

(

uint16

val

)

Definition at line 70 of file EvilNumber.cpp.

References fVal, and iVal.

                                   : mType(evil_number_int)
{
    iVal = val;
    fVal = 0.0;
}

EvilNumber::EvilNumber

(

int32

val

)

Definition at line 76 of file EvilNumber.cpp.

References fVal, and iVal.

                                  : mType(evil_number_int)
{
    iVal = val;
    fVal = 0.0;
}

EvilNumber::EvilNumber

(

uint32

val

)

Definition at line 82 of file EvilNumber.cpp.

References fVal, and iVal.

                                   : mType(evil_number_int)
{
    iVal = val;
    fVal = 0.0;
}

EvilNumber::EvilNumber

(

int64

val

)

Definition at line 88 of file EvilNumber.cpp.

References fVal, and iVal.

                                  : mType(evil_number_int)
{
    iVal = val;
    fVal = 0.0;
}

EvilNumber::EvilNumber

(

float

val

)

Definition at line 94 of file EvilNumber.cpp.

References fVal, and iVal.

                                  : mType(evil_number_float)
{
    fVal = val;
    iVal = 0;
}

EvilNumber::EvilNumber

(

double

val

)

Definition at line 100 of file EvilNumber.cpp.

References fVal, and iVal.

                                   : mType(evil_number_float)
{
    fVal = val;
    iVal = 0;
}

Member Function Documentation

EvilNumber EvilNumber::_Add ( const EvilNumber &  val1, const EvilNumber &  val2  )

protected

add this with

Add this with .

Parameters

[in]

val

the value we are adding by.

Definition at line 456 of file EvilNumber.cpp.

References evil_number_float, evil_number_int, EvilNumber(), fVal, iVal, and mType.

Referenced by operator+().

{
    EvilNumber result = EvilNumber();

    // WARNING!  There should be NO implicit or explicit use of the 'this' pointer here!
    if (val2.mType == val1.mType) {
        if (val1.mType == evil_number_float) {
            result.fVal = val1.fVal + val2.fVal;
            result.mType = evil_number_float;
        } else if (val1.mType == evil_number_int) {
            result.iVal = val1.iVal + val2.iVal;
            result.mType = evil_number_int;
        } else {
            assert(false); // crash
        }
    } else {
        // we assume that the val argument is the opposite of the 'this' type
        if (val1.mType == evil_number_float) {
            result.fVal = val1.fVal + val2.iVal;
        } else if (val1.mType == evil_number_int) {
            result.fVal = val1.iVal + val2.fVal;
        } else {
            assert(false); // crash
        }
        result.mType = evil_number_float;
    }
    //result.CheckIntegrity();

    return result;
}

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EvilNumber EvilNumber::_Divide ( const EvilNumber &  val1, const EvilNumber &  val2  )

protected

divide this with

Divide this with .

Parameters

[in]

val

the value we are dividing by.

Todo:

handle "int(2) / int(4) = float(0.5)" in a fast enough way

Definition at line 398 of file EvilNumber.cpp.

References evil_number_float, evil_number_int, EvilNumber(), fVal, iVal, and mType.

Referenced by operator/().

{
    EvilNumber result = EvilNumber();

    // WARNING!  There should be NO implicit or explicit use of the 'this' pointer here!
    if (val2.mType == val1.mType) {
        if (val1.mType == evil_number_float) {
            result.fVal = val1.fVal / val2.fVal;
        } else if (val1.mType == evil_number_int) {
            // make sure we can do things like 2 / 4 = 0.5f
            result.fVal = double(val1.iVal) / double(val2.iVal);
        } else {
            assert(false); // crash
        }
    } else {
        // we assume that the val1 argument type is the opposite of the val2 argument type
        if (val1.mType == evil_number_float) {
            result.fVal = val1.fVal / val2.iVal;
        } else if (val1.mType == evil_number_int) {
            result.fVal = val1.iVal / val2.fVal;
        } else {
            assert(false); // crash
        }
    }
    result.mType = evil_number_float;
   // result.CheckIntegrity();

    return result;
}

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EvilNumber EvilNumber::_Modulus ( const EvilNumber &  val1, const EvilNumber &  val2  )

protected

modulus this with

this modulus .

Parameters

[in]

val

the value we are using as the rvalue in the modulus.

Definition at line 574 of file EvilNumber.cpp.

References evil_number_float, evil_number_int, EvilNumber(), fVal, iVal, and mType.

Referenced by operator%().

{
    EvilNumber result = EvilNumber();

    // WARNING!  There should be NO implicit or explicit use of the 'this' pointer here!
    if (val2.mType == val1.mType) {
        if (val1.mType == evil_number_float) {
            result.iVal = (int64)(val1.fVal) % (int64)(val2.fVal);
            result.mType = evil_number_int;
        } else if (val1.mType == evil_number_int) {
            result.iVal = val1.iVal % val2.iVal;
            result.mType = evil_number_int;
        } else {
            assert(false); // crash
        }
    } else {
        // we assume that the val1 argument type is the opposite of the val2 argument type
        if (val1.mType == evil_number_float) {
            result.iVal = (int64)(val1.fVal) % val2.iVal;
            result.mType = evil_number_int;
        } else if (val1.mType == evil_number_int) {
            result.iVal = val1.iVal % (int64)(val2.fVal);
            result.mType = evil_number_int;
        } else {
            assert(false); // crash
        }
    }
   // result.CheckIntegrity();

    return result;
}

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EvilNumber EvilNumber::_Multiply ( const EvilNumber &  val1, const EvilNumber &  val2  )

protected

multiply this with

Multiply this with .

Parameters

[in]

val

the value we are multiplying with.

Definition at line 342 of file EvilNumber.cpp.

References evil_number_float, evil_number_int, EvilNumber(), fVal, iVal, and mType.

Referenced by operator*(), and operator-().

{
    EvilNumber result = EvilNumber();
    // WARNING!  There should be NO implicit or explicit use of the 'this' pointer here!
    if (val2.mType == val1.mType) {
        if (val1.mType == evil_number_float) {
            result.fVal = val1.fVal * val2.fVal;
            result.mType = evil_number_float;
        } else if (val1.mType == evil_number_int) {
            result.iVal = val1.iVal * val2.iVal;
            result.mType = evil_number_int;
        } else {
            assert(false); // crash
        }
    } else {
        // we assume that the val1 argument type is the opposite of the val2 argument type
        if (val1.mType == evil_number_float) {
            result.fVal = val1.fVal * val2.iVal;
        } else if (val1.mType == evil_number_int) {
            result.fVal = val2.fVal * val1.iVal;
        } else {
            assert(false); // crash
        }
        result.mType = evil_number_float;
    }
    //result.CheckIntegrity();

    return result;
}

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EvilNumber EvilNumber::_SelfAdd ( const EvilNumber &  val )

protected

Definition at line 487 of file EvilNumber.cpp.

References evil_number_float, evil_number_int, fVal, iVal, and mType.

Referenced by _SelfIncrement(), and operator+=().

{
    if (val.mType == mType) {
        if (mType == evil_number_float) {
            this->fVal = this->fVal + val.fVal;
        } else if (mType == evil_number_int) {
            this->iVal = this->iVal + val.iVal;
        } else {
            assert(false); // crash
        }
    } else {
        // we assume that the val argument is the opposite of the 'this' type
        if (mType == evil_number_float) {
            this->fVal = this->fVal + double(val.iVal);
        } else if (mType == evil_number_int) {
            double tVal = (double)iVal; // normal integer number
            this->fVal = tVal + val.fVal;
            mType = evil_number_float;
        } else {
            assert(false); // crash
        }
    }
    //CheckIntegrity();

    return *this;
}

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EvilNumber EvilNumber::_SelfDecrement ( )

protected

decrement by 1

decrement by 1

Definition at line 641 of file EvilNumber.cpp.

References _SelfSubtract().

Referenced by operator--().

{
    return _SelfSubtract(EvilOne);
}

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EvilNumber EvilNumber::_SelfDivide ( const EvilNumber &  val )

protected

Definition at line 428 of file EvilNumber.cpp.

References evil_number_float, evil_number_int, fVal, iVal, and mType.

Referenced by operator/=().

{
    if (val.mType == mType) {
        if (mType == evil_number_float) {
            this->fVal = this->fVal / val.fVal;
        } else if (mType == evil_number_int) {
            // make sure we can do things like 2 / 4 = 0.5f
            this->fVal = double(this->iVal) / double(val.iVal);
            mType = evil_number_float;
        } else {
            assert(false); // crash
        }
    } else {
        // we assume that the val argument is the opposite of the 'this' type
        if (mType == evil_number_float) {
            this->fVal = this->fVal / val.iVal;
        } else if (mType == evil_number_int) {
            this->fVal = iVal / val.fVal;
            mType = evil_number_float;
        } else {
            assert(false); // crash
        }
    }
    //CheckIntegrity();

    return *this;
}

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EvilNumber EvilNumber::_SelfIncrement ( )

protected

increment by 1

increment by 1

Definition at line 636 of file EvilNumber.cpp.

References _SelfAdd().

Referenced by operator++().

{
    return _SelfAdd(EvilOne);
}

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EvilNumber EvilNumber::_SelfModulus ( const EvilNumber &  val )

protected

Definition at line 606 of file EvilNumber.cpp.

References evil_number_float, evil_number_int, fVal, iVal, and mType.

Referenced by operator%=().

{
    if (val.mType == mType) {
        if (mType == evil_number_float) {
            this->iVal = (int64)(this->fVal) % (int64)(val.fVal);
            mType = evil_number_int;
        } else if (mType == evil_number_int) {
            this->iVal = this->iVal % val.iVal;
            mType = evil_number_int;
        } else {
            assert(false); // crash
        }

    } else {
        // we assume that the val argument is the opposite of the 'this' type
        if (mType == evil_number_float) {
            this->iVal = (int64)(this->fVal) % val.iVal;
            mType = evil_number_int;
        } else if (mType == evil_number_int) {
            this->iVal = this->iVal % (int64)(val.fVal);
            mType = evil_number_int;
        } else {
            assert(false); // crash
        }
    }
   // CheckIntegrity();

    return *this;
}

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EvilNumber EvilNumber::_SelfMultiply ( const EvilNumber &  val )

protected

Definition at line 372 of file EvilNumber.cpp.

References evil_number_float, evil_number_int, fVal, iVal, and mType.

Referenced by operator*=().

{
    if (val.mType == mType) {
        if (mType == evil_number_float) {
            this->fVal = this->fVal * val.fVal;
        } else if (mType == evil_number_int) {
            this->iVal = this->iVal * val.iVal;
        } else {
            assert(false); // crash
        }
    } else {
        // we assume that the val argument is the opposite of the 'this' type
        if (mType == evil_number_float) {
            this->fVal = this->fVal * val.iVal;
        } else if (mType == evil_number_int) {
            this->fVal = val.fVal * iVal;
            mType = evil_number_float;
        } else {
            assert(false); // crash
        }
    }
   // CheckIntegrity();

    return *this;
}

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EvilNumber EvilNumber::_SelfSubtract ( const EvilNumber &  val )

protected

Definition at line 547 of file EvilNumber.cpp.

References evil_number_float, evil_number_int, fVal, iVal, and mType.

Referenced by _SelfDecrement(), and operator-=().

{
    if (val.mType == mType) {
        if (mType == evil_number_float) {
            this->fVal = this->fVal - val.fVal;
        } else if (mType == evil_number_int) {
            this->iVal = this->iVal - val.iVal;
        } else {
            assert(false); // crash
        }
    } else {
        // we assume that the val argument is the opposite of the 'this' type
        if (mType == evil_number_float) {
            this->fVal = this->fVal - double(val.iVal);
        } else if (mType == evil_number_int) {
            double tVal = (double)iVal; // normal integer number
            this->fVal = tVal - val.fVal;
            mType = evil_number_float;
        } else {
            assert(false); // crash
        }
    }
    //CheckIntegrity();

    return *this;
}

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EvilNumber EvilNumber::_Subtract ( const EvilNumber &  val1, const EvilNumber &  val2  )

protected

subtract this with

Subtract this with .

Parameters

[in]

val

the value we are subtracting by.

Definition at line 514 of file EvilNumber.cpp.

References evil_number_float, evil_number_int, EvilNumber(), fVal, iVal, and mType.

Referenced by operator-().

{
    EvilNumber result = EvilNumber();

    // WARNING!  There should be NO implicit or explicit use of the 'this' pointer here!
    if (val2.mType == val1.mType) {
        if (val1.mType == evil_number_float) {
            result.fVal = val1.fVal - val2.fVal;
            result.mType = evil_number_float;
        } else if (val1.mType == evil_number_int) {
            result.iVal = val1.iVal - val2.iVal;
            result.mType = evil_number_int;
        } else {
            assert(false); // crash
        }
    } else {
        // we assume that the val argument is the opposite of the 'this' type
        if (val1.mType == evil_number_float) {
            result.fVal = val1.fVal - double(val2.iVal);
            result.mType = evil_number_float;
        } else if (val1.mType == evil_number_int) {
            double tVal = (double)val1.iVal; // normal integer number
            result.fVal = tVal - val2.fVal;
            result.mType = evil_number_float;
        } else {
            assert(false); // crash
        }
    }
    //result.CheckIntegrity();

    return result;
}

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EvilNumber EvilNumber::acos ( const EvilNumber &  val )

static

Definition at line 248 of file EvilNumber.cpp.

References evil_number_float, EvilNumber(), fVal, iVal, and mType.

Referenced by utils_EvilNumberTest().

{
    EvilNumber result = EvilNumber();
    if ( val.mType == evil_number_float )
        result.fVal = std::acos( val.fVal );
    else
        result.fVal = std::acos( (double)(val.iVal) );

    result.mType = evil_number_float;
    return result;
}

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EvilNumber EvilNumber::asin ( const EvilNumber &  val )

static

Definition at line 236 of file EvilNumber.cpp.

References evil_number_float, EvilNumber(), fVal, iVal, and mType.

Referenced by utils_EvilNumberTest().

{
    EvilNumber result = EvilNumber();
    if ( val.mType == evil_number_float )
        result.fVal = std::asin( val.fVal );
    else
        result.fVal = std::asin( (double)(val.iVal) );

    result.mType = evil_number_float;
    return result;
}

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EvilNumber EvilNumber::atan ( const EvilNumber &  val )

static

Definition at line 260 of file EvilNumber.cpp.

References evil_number_float, EvilNumber(), fVal, iVal, and mType.

Referenced by utils_EvilNumberTest().

{
    EvilNumber result = EvilNumber();
    if ( val.mType == evil_number_float )
        result.fVal = std::atan( val.fVal );
    else
        result.fVal = std::atan( (double)(val.iVal) );

    result.mType = evil_number_float;
    return result;
}

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void EvilNumber::CheckIntegrity ( )

inlineprotected

check if its possible a integer and do the conversion

checking every calculation for float/int conversion can be a drain on performance. But integer math is faster than floating point math.

Definition at line 126 of file EvilNumber.cpp.

References evil_number_int, fVal, iVal, and mType.

{
    // check if we are already an integer
    if (mType == evil_number_int)
        return;
    int64 cmp_val = (int64)fVal;
    if (double(cmp_val) == fVal) {
        iVal = cmp_val;
        fVal = 0;
        mType = evil_number_int;
    }
}

EvilNumber EvilNumber::cos ( const EvilNumber &  val )

static

Definition at line 212 of file EvilNumber.cpp.

References evil_number_float, EvilNumber(), fVal, iVal, and mType.

Referenced by utils_EvilNumberTest().

{
    EvilNumber result = EvilNumber();
    if ( val.mType == evil_number_float )
        result.fVal = std::cos( val.fVal );
    else
        result.fVal = std::cos( (double)(val.iVal) );

    result.mType = evil_number_float;
    return result;
}

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EvilNumber EvilNumber::exp ( const EvilNumber &  val )

static

Definition at line 327 of file EvilNumber.cpp.

References evil_number_float, EvilNumber(), fVal, iVal, and mType.

Referenced by utils_EvilNumberTest().

{
    EvilNumber result = EvilNumber();
    if ( val.mType == evil_number_float )
        result.fVal = std::exp( val.fVal );
    else
        result.fVal = std::exp( (double)(val.iVal) );

    result.mType = evil_number_float;
    return result;
}

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bool EvilNumber::get_bool

(

)

Definition at line 157 of file EvilNumber.cpp.

References evil_number_float, evil_number_int, fVal, iVal, and mType.

Referenced by ModuleManager::AddModule(), InventoryItem::IsOnline(), ShipItem::MoveModuleSlot(), and InventoryItem::Populate().

{
    if (mType == evil_number_float)
        return (fVal != 0.0);
    if (mType == evil_number_int)
        return (iVal != 0);
    return false;
}

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double EvilNumber::get_double

(

)

Definition at line 191 of file EvilNumber.cpp.

References evil_number_int, fVal, iVal, and mType.

Referenced by DynamicSystemEntity::AwardBounty(), SystemEntity::AwardSecurityStatus(), ProbeSE::MakeDamageState(), ItemSystemEntity::MakeDamageState(), ObjectSystemEntity::MakeDamageState(), DynamicSystemEntity::MakeDamageState(), NPCAIMgr::NPCAIMgr(), SystemEntity::SendDamageStateChanged(), TargetManager::StartTargeting(), SystemEntity::SystemEntity(), ObjectSystemEntity::UpdateDamage(), and DynamicSystemEntity::UpdateDamage().

{
    if (mType == evil_number_int)
        return (double)iVal;
    return fVal;
}

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float EvilNumber::get_float

(

)

Definition at line 184 of file EvilNumber.cpp.

References evil_number_int, fVal, iVal, and mType.

Referenced by Concord::_UpdateDamage(), StructureSE::Activate(), ActiveModule::ActiveModule(), AnomalyMgr::AddSignal(), ShipSE::ApplyBoost(), TurretModule::ApplyDamage(), SystemEntity::ApplyDamage(), FxProc::ApplyEffects(), DroneAIMgr::AttackTarget(), ConcordAI::AttackTarget(), SystemEntity::AwardSecurityStatus(), RamMethods::Calculate(), MiningLaser::CanActivate(), ActiveModule::CanActivate(), Command_status(), Concord::Concord(), ConcordAI::ConcordAI(), CynoModule::CynoModule(), Damage::Damage(), ModuleManager::DamageModule(), ActiveModule::DeactivateCycle(), DroneSE::DroneSE(), ShipItem::GenerateHeat(), TurretFormulas::GetDroneToHit(), PIDataMgr::GetMaxOutput(), MiningLaser::GetMiningVolume(), TurretFormulas::GetNPCToHit(), TurretFormulas::GetSentryToHit(), ShipItem::GetShipArmorHP(), ShipItem::GetShipCapacitorLevel(), ShipItem::GetShipCPULevel(), ShipItem::GetShipHullHP(), ShipItem::GetShipPGLevel(), ShipItem::GetShipShieldHP(), SentryAI::GetTargetTime(), NPCAIMgr::GetTargetTime(), ConcordAI::GetTargetTime(), TurretFormulas::GetToHit(), ShipItem::HeatDamageCheck(), Missile::HitTarget(), ModuleManager::Initialize(), ModuleManager::InstallRig(), ActiveModule::LaunchMissile(), TurretModule::LoadCharge(), MiningLaser::LoadCharge(), ModuleManager::LoadCharge(), Concord::MakeDamageState(), Missile::MakeDamageState(), DroneSE::MakeDamageState(), CelestialSE::MakeDamageState(), ShipSE::MakeDamageState(), DestinyManager::MakeMissile(), NPCAIMgr::MissileLaunched(), NPC::NPC(), NPCAIMgr::NPCAIMgr(), GenericModule::Online(), DestinyManager::Orbit(), ProbeSE::ProbeSE(), ShipSE::Process(), ActiveModule::ProcessActiveCycle(), MiningLaser::ProcessCycle(), ShipItem::ProcessHeat(), Prospector::Prospector(), ProbeSE::RecoverProbe(), Sentry::Sentry(), SentryAI::SentryAI(), AttributeMap::SetAttribute(), DestinyManager::SetMaxVelocity(), ModuleItem::SetOnline(), ShipItem::SetShipArmor(), ShipItem::SetShipCapacitorLevel(), ShipItem::SetShipHull(), ShipItem::SetShipShield(), DestinyManager::SpeedBoost(), DestinyManager::TractorBeamStart(), ModuleManager::UninstallRig(), ActiveModule::UnloadCharge(), Prospector::Update(), ActiveModule::Update(), ProbeSE::UpdateProbe(), DestinyManager::UpdateShipVariables(), Concord::UseArmorRepairer(), NPC::UseArmorRepairer(), Concord::UseShieldRecharge(), NPC::UseShieldRecharge(), DestinyManager::WarpTo(), and DestinyManager::WebbedMe().

{
    if (mType == evil_number_int)
        return (float)iVal;
    return (float)fVal;
}

int64 EvilNumber::get_int

(

)

Definition at line 166 of file EvilNumber.cpp.

References evil_number_float, fVal, iVal, and mType.

Referenced by APICharacterManager::_SkillInTraining(), APICharacterManager::_SkillQueue(), Prospector::Activate(), ReprocessingServiceBound::CalcReprocessingEfficiency(), Prospector::CheckSuccess(), Concord::Concord(), Colony::CreatePin(), ActiveModule::DoCycle(), PIDataMgr::GetMaxOutput(), PIDataMgr::GetProgramResultInfo(), SentryAI::GetTargetTime(), ConcordAI::GetTargetTime(), RamMethods::JobsCheck(), CustomsSE::Killed(), ShipSE::Killed(), MiningLaser::MiningLaser(), RigModule::RemoveRig(), GenericModule::Repair(), SentryAI::SentryAI(), StructureSE::SetAnchor(), AttributeMap::SetAttribute(), TowerSE::SetOnline(), SentryAI::Target(), DroneAIMgr::Target(), ConcordAI::Target(), SentryAI::Targeted(), ConcordAI::Targeted(), and TowerSE::TowerSE().

{
    if (mType == evil_number_float)
        return (int64)floor(fVal);
    return iVal;
}

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EVIL_NUMBER_TYPE EvilNumber::get_type ( )

inline

Definition at line 379 of file EvilNumber.h.

References mType.

{ return mType; }

uint32 EvilNumber::get_uint32

(

)

Definition at line 173 of file EvilNumber.cpp.

References evil_number_float, fVal, iVal, and mType.

Referenced by StructureSE::Activate(), ActiveModule::ActiveModule(), ShipItem::AddItem(), ModuleManager::addModuleRef(), Character::AddToSkillQueue(), ShipSE::ApplyBoost(), DroneAIMgr::AttackTarget(), NPCAIMgr::AttackTarget(), ActiveModule::CanActivate(), Character::CancelSkillInTraining(), ModuleManager::deleteModuleRef(), ActiveModule::DoCycle(), Skill::FitModuleSkillCheck(), ModuleManager::GetAvailableSlotInBank(), Skill::GetCurrentSP(), PIDataMgr::GetMaxOutput(), Skill::GetRemainingSP(), Character::GetSPPerMin(), TurretFormulas::GetToHit(), Skill::GetTrainingTime(), StructureSE::Init(), ModuleManager::Initialize(), Character::InjectSkillIntoBrain(), StructureSE::Killed(), Character::LoadPausedSkillQueue(), NPCAIMgr::NPCAIMgr(), Scan::ProcessScan(), StructureSE::PullAnchor(), ProbeSE::RecoverProbe(), ShipItem::RemoveItem(), Scan::RequestScans(), StructureSE::SetAnchor(), Skill::SkillPrereqsComplete(), TargetManager::StartTargeting(), DroneAIMgr::Target(), TargetManager::TimeToLock(), ShipItem::TryModuleLimitChecks(), ProbeSE::UpdateProbe(), ShipItem::ValidateBoardShip(), and ShipItem::VerifyHoldType().

{
    uint32 value(0);
    if (mType == evil_number_float)
        value = (uint32)floor(fVal);
    else
        value = (uint32)iVal;

    return value;
}

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PyRep * EvilNumber::GetPyObject

(

)

converts the EvilNumber into a python object.

Returns

the python object of the EvilNumber.

Definition at line 109 of file EvilNumber.cpp.

References evil_number_float, evil_number_int, fVal, iVal, mType, PyStatic, sLog, and EvE::traceStack().

Referenced by AttributeMap::Add(), AttributeMap::Change(), and InventoryItem::Populate().

{
    if (mType == evil_number_int) {
        if ( iVal > INT_MAX || iVal < INT_MIN)
            return (PyRep*)new PyLong(iVal);
        else
            return (PyRep*)new PyInt((int32)(iVal));
    } else if (mType == evil_number_float) {
        return (PyRep*)new PyFloat(fVal);
    } else {
        sLog.Error("EvilNumber::GetPyObject()", "EvilNumber is neither integer nor float.  Returning None");
        EvE::traceStack();
        assert(false);
        return PyStatic.NewNone();
    }
}

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bool EvilNumber::isFloat ( )

inline

Definition at line 382 of file EvilNumber.h.

References evil_number_float.

Referenced by AttributeMap::SetAttribute().

{ return ( mType == evil_number_float ); }

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bool EvilNumber::isInf

(

)

Definition at line 148 of file EvilNumber.cpp.

References evil_number_int, evil_number_nan, fVal, and mType.

Referenced by AttributeMap::MultiplyAttribute(), and AttributeMap::SetAttribute().

{
    if ( mType == evil_number_nan )
        return true;
    if ( mType == evil_number_int )
        return false;
    return std::isinf(fVal);
}

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bool EvilNumber::isInt ( )

inline

Definition at line 381 of file EvilNumber.h.

References evil_number_int.

{ return ( mType == evil_number_int ); }

bool EvilNumber::isNaN

(

)

Definition at line 139 of file EvilNumber.cpp.

References evil_number_int, evil_number_nan, fVal, and mType.

Referenced by AttributeMap::MultiplyAttribute(), and AttributeMap::SetAttribute().

{
    if( mType == evil_number_nan )
        return true;
    if ( mType == evil_number_int )
        return false;
    return std::isnan(fVal);
}

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EvilNumber EvilNumber::log ( const EvilNumber &  val )

static

Definition at line 303 of file EvilNumber.cpp.

References evil_number_float, EvilNumber(), fVal, iVal, and mType.

Referenced by utils_EvilNumberTest().

{
    EvilNumber result = EvilNumber();
    if ( val.mType == evil_number_float )
        result.fVal = std::log( val.fVal );
    else
        result.fVal = std::log( (double)(val.iVal) );

    result.mType = evil_number_float;
    return result;
}

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EvilNumber EvilNumber::log10 ( const EvilNumber &  val )

static

Definition at line 315 of file EvilNumber.cpp.

References evil_number_float, EvilNumber(), fVal, iVal, and mType.

Referenced by utils_EvilNumberTest().

{
    EvilNumber result = EvilNumber();
    if ( val.mType == evil_number_float )
        result.fVal = std::log10( val.fVal );
    else
        result.fVal = std::log10( (double)(val.iVal) );

    result.mType = evil_number_float;
    return result;
}

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bool EvilNumber::operator!= ( const EvilNumber &  val )

inline

Definition at line 264 of file EvilNumber.h.

References evil_number_float, evil_number_int, fVal, iVal, and mType.

    {
        if (this->mType == evil_number_int && val.mType == evil_number_int)
            return this->iVal != val.iVal;
        else if (this->mType == evil_number_float && val.mType == evil_number_float)
            return this->fVal != val.fVal;
        else if (this->mType == evil_number_float)
            return this->fVal != double(val.iVal);
        else
            return double(this->iVal) != val.fVal;
    }

EvilNumber EvilNumber::operator% ( const EvilNumber &  val )

inline

Definition at line 111 of file EvilNumber.h.

References _Modulus().

    {    return _Modulus(*this, val);    }

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EvilNumber EvilNumber::operator%= ( const EvilNumber &  val )

inline

Definition at line 114 of file EvilNumber.h.

References _SelfModulus().

    {    return _SelfModulus(val);      }

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EvilNumber EvilNumber::operator* ( const EvilNumber &  val )

inline

Definition at line 84 of file EvilNumber.h.

References _Multiply().

    {    return _Multiply(*this, val);    }

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EvilNumber EvilNumber::operator*= ( const EvilNumber &  val )

inline

Definition at line 87 of file EvilNumber.h.

References _SelfMultiply().

    {    return _SelfMultiply(val);      }

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EvilNumber EvilNumber::operator+ ( const EvilNumber &  val )

inline

Definition at line 96 of file EvilNumber.h.

References _Add().

    {    return _Add(*this, val);        }

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EvilNumber EvilNumber::operator++ ( )

inline

Definition at line 117 of file EvilNumber.h.

References _SelfIncrement().

    {    return _SelfIncrement();       }

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EvilNumber EvilNumber::operator++ ( int  )

inline

Definition at line 120 of file EvilNumber.h.

References _SelfIncrement().

    {
        EvilNumber temp = *this;
        _SelfIncrement();
        return temp;
    }

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EvilNumber EvilNumber::operator+= ( const EvilNumber &  val )

inline

Definition at line 99 of file EvilNumber.h.

References _SelfAdd().

    {    return _SelfAdd(val);          }

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EvilNumber EvilNumber::operator- ( const EvilNumber &  val )

inline

Definition at line 102 of file EvilNumber.h.

References _Subtract().

    {    return _Subtract(*this, val);   }

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EvilNumber EvilNumber::operator- ( )

inline

Definition at line 105 of file EvilNumber.h.

References _Multiply(), and EvilNumber().

    {    return _Multiply(EvilNumber(-1.0), *this);   }

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EvilNumber EvilNumber::operator-- ( )

inline

Definition at line 127 of file EvilNumber.h.

References _SelfDecrement().

    {    return _SelfDecrement();       }

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EvilNumber EvilNumber::operator-- ( int  )

inline

Definition at line 130 of file EvilNumber.h.

References _SelfDecrement().

    {
        EvilNumber temp = *this;
        _SelfDecrement();
        return temp;
    }

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EvilNumber EvilNumber::operator-= ( const EvilNumber &  val )

inline

Definition at line 108 of file EvilNumber.h.

References _SelfSubtract().

    {    return _SelfSubtract(val);     }

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EvilNumber EvilNumber::operator/ ( const EvilNumber &  val )

inline

Definition at line 90 of file EvilNumber.h.

References _Divide().

    {    return _Divide(*this, val);     }

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EvilNumber EvilNumber::operator/= ( const EvilNumber &  val )

inline

Definition at line 93 of file EvilNumber.h.

References _SelfDivide().

    {    return _SelfDivide(val);        }

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bool EvilNumber::operator< ( const EvilNumber &  val )

inline

Definition at line 276 of file EvilNumber.h.

References evil_number_float, evil_number_int, fVal, iVal, and mType.

    {
        if (this->mType == evil_number_int && val.mType == evil_number_int)
            return this->iVal < val.iVal;
        else if (this->mType == evil_number_float && val.mType == evil_number_float)
            return this->fVal < val.fVal;
        else if (this->mType == evil_number_float)
            return this->fVal < double(val.iVal);
        else
            return double(this->iVal) < val.fVal;
    }

bool EvilNumber::operator<= ( const EvilNumber &  val )

inline

Definition at line 300 of file EvilNumber.h.

References evil_number_float, evil_number_int, fVal, iVal, and mType.

    {
        if (this->mType == evil_number_int && val.mType == evil_number_int)
            return this->iVal <= val.iVal;
        else if (this->mType == evil_number_float && val.mType == evil_number_float)
            return this->fVal <= val.fVal;
        else if (this->mType == evil_number_float)
            return this->fVal <= double(val.iVal);
        else
            return double(this->iVal) <= val.fVal;
    }

bool EvilNumber::operator== ( const EvilNumber &  val )

inline

'==' operator overload

Parameters

[in]

val

Returns

will return true when this and val are equal

Note

can I create 2 floats that would be equal when doing normal float compare and not equal when doing integer compare.

Definition at line 251 of file EvilNumber.h.

References evil_number_float, and evil_number_int.

    {
        if (this->mType == evil_number_int && val.mType == evil_number_int)
            return this->iVal == val.iVal;
        else if (this->mType == evil_number_float && val.mType == evil_number_float)
            return this->fVal == val.fVal;
        else if (this->mType == evil_number_float)
            return this->fVal == double(val.iVal);
        else
            return double(this->iVal) == val.fVal;
    }

bool EvilNumber::operator> ( const EvilNumber &  val )

inline

Definition at line 288 of file EvilNumber.h.

References evil_number_float, evil_number_int, fVal, iVal, and mType.

    {
        if (this->mType == evil_number_int && val.mType == evil_number_int)
            return this->iVal > val.iVal;
        else if (this->mType == evil_number_float && val.mType == evil_number_float)
            return this->fVal > val.fVal;
        else if (this->mType == evil_number_float)
            return this->fVal > double(val.iVal);
        else
            return double(this->iVal) > val.fVal;
    }

bool EvilNumber::operator>= ( const EvilNumber &  val )

inline

Definition at line 312 of file EvilNumber.h.

References evil_number_float, evil_number_int, fVal, iVal, and mType.

    {
        if (this->mType == evil_number_int && val.mType == evil_number_int)
            return this->iVal >= val.iVal;
        else if (this->mType == evil_number_float && val.mType == evil_number_float)
            return this->fVal >= val.fVal;
        else if (this->mType == evil_number_float)
            return this->fVal >= double(val.iVal);
        else
            return double(this->iVal) >= val.fVal;
    }

EvilNumber EvilNumber::pow ( const EvilNumber &  val1, const EvilNumber &  val2  )

static

Definition at line 284 of file EvilNumber.cpp.

References evil_number_float, EvilNumber(), fVal, iVal, and mType.

Referenced by utils_EvilNumberTest().

{
    EvilNumber exponent = EvilNumber();
    EvilNumber result = EvilNumber();
    if ( val2.mType == evil_number_float )
        exponent.fVal = val2.fVal;
    else
        exponent.fVal = (double)(val2.iVal);
    exponent.mType = evil_number_float;

    if( val1.mType == evil_number_float )
        result.fVal = std::pow( val1.fVal, exponent.fVal );
    else
        result.fVal = std::pow( (double)(val1.iVal), exponent.fVal );

    result.mType = evil_number_float;
    return result;
}

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EvilNumber EvilNumber::sin ( const EvilNumber &  val )

static

??

Parameters

[in]

val

Returns

Definition at line 200 of file EvilNumber.cpp.

References evil_number_float, EvilNumber(), fVal, iVal, and mType.

Referenced by utils_EvilNumberTest().

{
    EvilNumber result = EvilNumber();
    if ( val.mType == evil_number_float )
        result.fVal = std::sin( val.fVal );
    else
        result.fVal = std::sin( (double)(val.iVal) );

    result.mType = evil_number_float;
    return result;
}

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EvilNumber EvilNumber::sqrt ( const EvilNumber &  val )

static

Definition at line 272 of file EvilNumber.cpp.

References evil_number_float, EvilNumber(), fVal, iVal, and mType.

Referenced by utils_EvilNumberTest().

{
    EvilNumber result = EvilNumber();
    if ( val.mType == evil_number_float )
        result.fVal = std::sqrt( val.fVal );
    else
        result.fVal = std::sqrt( (double)(val.iVal) );

    result.mType = evil_number_float;
    return result;
}

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EvilNumber EvilNumber::tan ( const EvilNumber &  val )

static

Definition at line 224 of file EvilNumber.cpp.

References evil_number_float, EvilNumber(), fVal, iVal, and mType.

Referenced by utils_EvilNumberTest().

{
    EvilNumber result = EvilNumber();
    if ( val.mType == evil_number_float )
        result.fVal = std::tan( val.fVal );
    else
        result.fVal = std::tan( (double)(val.iVal) );

    result.mType = evil_number_float;
    return result;
}

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std::string EvilNumber::to_str ( )

inline

converts the EvilNumber value into a string

Returns

the text representative of the value.

Definition at line 360 of file EvilNumber.h.

References evil_number_float, evil_number_int, and snprintf.

Referenced by utils_EvilNumberTest().

    {
        char buff[32]; // max uint32 will result in a 10 char string, a float will result in a ? char string.
        if (mType == evil_number_int)
            snprintf(buff, 32, "%li", iVal);
        else if (mType == evil_number_float)
            snprintf(buff, 32, "%f", fVal);
        else
            assert(false); // bleh crash..
        return std::string(buff);
    }

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Member Data Documentation

double EvilNumber::fVal

private

Definition at line 63 of file EvilNumber.h.

Referenced by _Add(), _Divide(), _Modulus(), _Multiply(), _SelfAdd(), _SelfDivide(), _SelfModulus(), _SelfMultiply(), _SelfSubtract(), _Subtract(), acos(), asin(), atan(), CheckIntegrity(), cos(), EvilNumber(), exp(), get_bool(), get_double(), get_float(), get_int(), get_uint32(), GetPyObject(), isInf(), isNaN(), log(), log10(), operator!=(), operator<(), operator<=(), operator>(), operator>=(), pow(), sin(), sqrt(), and tan().

int64 EvilNumber::iVal

private

Definition at line 64 of file EvilNumber.h.

Referenced by _Add(), _Divide(), _Modulus(), _Multiply(), _SelfAdd(), _SelfDivide(), _SelfModulus(), _SelfMultiply(), _SelfSubtract(), _Subtract(), acos(), asin(), atan(), CheckIntegrity(), cos(), EvilNumber(), exp(), get_bool(), get_double(), get_float(), get_int(), get_uint32(), GetPyObject(), log(), log10(), operator!=(), operator<(), operator<=(), operator>(), operator>=(), pow(), sin(), sqrt(), and tan().

EVIL_NUMBER_TYPE EvilNumber::mType

private

Definition at line 65 of file EvilNumber.h.

Referenced by _Add(), _Divide(), _Modulus(), _Multiply(), _SelfAdd(), _SelfDivide(), _SelfModulus(), _SelfMultiply(), _SelfSubtract(), _Subtract(), acos(), asin(), atan(), CheckIntegrity(), cos(), exp(), get_bool(), get_double(), get_float(), get_int(), get_type(), get_uint32(), GetPyObject(), isInf(), isNaN(), log(), log10(), operator!=(), operator<(), operator<=(), operator>(), operator>=(), pow(), sin(), sqrt(), and tan().

---

The documentation for this class was generated from the following files:

• /backups/local/src/eve/EvEmu_Crucible/src/eve-common/utils/EvilNumber.h
• /backups/local/src/eve/EvEmu_Crucible/src/eve-common/utils/EvilNumber.cpp