GCS::GEnergy Class Reference

Everything consists of energy, it thus classifies the element. More...

#include <GEnergy.h>

Inheritance diagram for GCS::GEnergy:

[legend]Collaboration diagram for GCS::GEnergy:

[legend]List of all members.

Public Member Functions
	GEnergy ()
	GEnergy (double level, double amount, double sigma)
	GEnergy (const GEnergy &original)
virtual	~GEnergy ()
double	level () const
double	amount () const
double	sigma () const
void	set (double level, double amount, double sigma)
void	set (const GEnergy original)
void	operator= (const GEnergy &original)
GEnergy	take (double fraction)
void	put (GEnergy &energy)
Protected Attributes
double	Level
double	Amount
double	Sigma

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Detailed Description

Everything consists of energy, it thus classifies the element.

Author:

Raphael Langerhorst

Everything consists of energy. So, naturally, the "content" of objects are certain energies. Only with energy can anything be done, thus, agents should be programmed with heavy usage of energy to determine their actions. Also, to actually perform an action an agent normally uses energy to determine the strength and character of the action.

Energy consists of:

• level
• amount
• sigma

See the description of the attributes for details about how energy is represented.

Togehter with the element's form the energy characterises the element. agents make the element "alive".

Note:

The great idea behind the whole G System is that everything actually influences each other AND that the only attribute ever needed (if we don't specialise anything) is energy. This results in the fact that elements influence each other depending on their energies. Influencing behaviour is defined by the agents of an element.

See also:

GAgent, GForm

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Constructor & Destructor Documentation

GCS::GEnergy::GEnergy (   )  [inline]

Construct an empty energy object.

GCS::GEnergy::GEnergy (  double  level, double  amount, double  sigma )  [inline]

This constructor initalizes with given attributes.

GCS::GEnergy::GEnergy (  const GEnergy &  original  )  [inline]

Copy constructor

virtual GCS::GEnergy::~GEnergy (   )  [inline, virtual]

if GEnergy is subclassed then a virtual destructor ensures proper deletion of a GEnergy object Note: There should be no reason for subclassing. Please contact the author if you think there is.

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Member Function Documentation

double GCS::GEnergy::amount (   )  const [inline]

Returns: energy amount.

double GCS::GEnergy::level (   )  const [inline]

Returns: energy level.

void GCS::GEnergy::operator= (  const GEnergy &  original  )  [inline]

Copies values from given energy.

void GCS::GEnergy::put (  GEnergy &  energy  )  [inline]

Adds given energy. Note: The attributes are not just summed up, it's more like mixing two kinds of liquids together. Todo: depending on sigma and energy level not all energy should be accepted!

void GCS::GEnergy::set (  const GEnergy  original  )  [inline]

Copies values from given energy.

void GCS::GEnergy::set (  double  level, double  amount, double  sigma )  [inline]

Sets the energy to given values.

double GCS::GEnergy::sigma (   )  const [inline]

Returns: energy sigma.

GEnergy GCS::GEnergy::take (  double  fraction  )  [inline]

Removes given fraction of this energy and returns it. This can be useful for sending out influences with some fraction of the elements own energy. Returns: fraction of own energy

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Member Data Documentation

double GCS::GEnergy::Amount [protected]

Since it is not possible (hardware limitations) to represent every atom as a seperate element the amount attribute is used to tell how much of this energy is in the element.

double GCS::GEnergy::Level [protected]

The energy level is just like a frequency - put on a very large scale it can either represent sound (low frequency) or light (high frequency). Even different light colours are just represented by different energy levels. Thus every object gets its individual characteristic by its energy.

double GCS::GEnergy::Sigma [protected]

Sigma tells the range of the energy "level" ( in frequency, not space ); the smaller sigma is the more "distinct" and less changeable the energy is; it should thus be only influencable by a narrow band of frequency (with low sigma). This is needed because we don't work on (sub-)atomic levels where there is really only one energy level. So we get a collection of energies with a general average level (this is where the attribute "level" is set to) and a divergence around this average value. The result is a certain amount of energy with a energy level of a "normal distribution".

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

• GEnergy.h

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