Information elements - the fusion of Kępiński and Jung

Information elements - the fusion of Kępiński and Jung

Everything that happens in observable reality, including our own bodies, may be reduced to energy changing its forms. Here, energy is understood in the strictest physical sense.

The equivalence of matter and energy was proved by Einstein and therefore matter is not considered a separate category. Although Kępiński used the notion of Energy Metabolism (EM) only in association with the dynamics of the life processes of a biological organism, Augustinavičiūtė used it to describe energy conversions in general. The latter convention will  be used  in this  section, where  the derivation  of  information elements  (a  novel concept developed by Augustinavičiūtė) will be presented.

Let us assume that the psyche is observing an event. Any transformation of energy – a unit act of EM – is accompanied by the generation of some information (e.g. if an object moves, explodes, collides with another object – we notice the change). Augustinavičiūtė chose to define  the  units of  information  metabolism  as corresponding  to  specific  observable transformations of energy. To find out what these energy transformations might be, an object that is representative of all existing objects should be considered. The consideration of  inanimate objects only is  too narrow, as  the psyche deals with  much more complex objects, such as people and their emotions and needs (as well as its own).

Therefore, an analysis of energy transformations during the activity of the human body would be appropriate. The founder of socionics compared living organisms to an internal combustion engine  and to a bouncing  elastic ball (Augustinavičiūtė, 1998).  Before the presentation of these analogies, a short, clarifying introduction will be given. 

One should notice that organisms are frequently treated as open thermodynamic systems and  such  a description  is  quite common  in  engineering (Cengel  &  Boles,  2006).  The internal energy  of an  open thermodynamic  system may  be altered  by transfers  of enthalpy, heat and work. For biological organisms, the contribution of enthalpy transfers the overall energy balance is very small and can be neglected. Heat is released during the numerous chemical reactions taking place in the cells. In these reactions, nutritional components are metabolized, therefore we can think of food as fuel. Let us notice that heat is a disorganized form of energy, associated with chaotic motions of particles.

Uncontrolled heat transfer leads to the thermal death of the system – the state at which it can no  longer perform  any work. By contrast, work  is an organized  form of  energy in which particles are moved in an orderly way, in a specified direction (consider a body pushed by a piston). This motion can be directed to desired locations through mechanical links,  to  perform  various  tasks.  In  the  case  of  a  living  body,  we  can  think  of  blood circulation, breathing, peristalsis and motor functions in general. 

A device which uses heat to generate work is basically a heat engine. This type of modeling was  used  by  Augustinavičiūtė  regarding  organisms.  She  divided  the  general  activity pattern of an organism into 4 stages. Firstly, let us observe that any activity requires some form  of  potential energy.  This energy  is contained  in  the  structure,  like the  chemical energy stored in  fuel, or the potential energy of elasticity contained in a squeezed rubber ball. Augustinavičiūtė assigned the symbol () to this energy state. The next stage is the release of potential energy from the object and its conversion into kinetic energy – the process  of mobilization.  This  stage is  dynamic  and  includes  a change  in  the  internal structure of the object. It corresponds to the compression of the fuel-air mixture, or the return of the elastic ball to its unsqueezed shape. This dynamic act of EM was assigned the symbol (). At some point, the object reaches its moment of maximal mobilization, where it  has  the greatest  kinetic  energy.  This  corresponds  to  the moment  of ignition  in  an internal combustion engine, or the ball state just after decompression, and at the start of its upward motion. This phase of EM is assigned the symbol (). The last stage of this cycle is work. The combusted mixture expands and is able to move the piston. The ball can overcome the Earth’s gravitational pull and jump off the floor. As work is done, the kinetic energy of the body decreases. This is the dynamic stage and is assigned the symbol (). 

Humans and animals also act according to the aforementioned stages. If the person is at rest, there is the potential of action () which can be realized if they  get excited  by a stimulus. The process of mobilization () may be linked to the first phase of IM mentioned by Kępiński,  in which  emotional evaluation  of the stimulus  takes place.  It invokes  an attitude 'for' or 'against' the perceived change. The body is rapidly prepared to execute an adequate physical reaction, for example to escape or to draw nearer to the source of the stimulus. At the beginning of the execution of the physical reaction, it possesses maximum kinetic energy. This state is referred to as (). To accomplish the selected goal, the body must  expend  energy.  In  physics,  this  is  called  work  ().  This  process  also requires thinking – for example planning an appropriate sequence of actions or applying tools. In the process, the person tires. Please note that these are phases of EM, but by observing them, the  psyche learns and  obtains information. It means  that each stage  of EM mentioned  is  accompanied  by information  content  characteristic for  that stage.  Each change in the body itself or in its position is not only an act of energy metabolism, but also an  informational  signal  to  surrounding  living  beings.  This  understanding  of  the  link between EM and IM was accentuated by Augustinavičiūtė.

Let us notice that Augustinavičiūtė divided the EM process into phases which can be easily linked to the 4 Jungian functions. As a matter of fact, if the Jungian paradigm is adopted, the  information  about potentials  of objects  is related  to  imagination and  acquired by intuition, specifically by its extraverted version (Ne). The information about releasing this potential - mobilizing the body into action, is related to extroverted feeling (Fe).

Consequently, the information about the object in its full explicit power is obtained by extroverted sensing (Se), while information about work done by objects in the physical world is obtained through extraverted thinking (Te). There is one apparent inconsistency, as Jung pointed out, that the input into the psyche is only via sensing and intuition, and not  by thinking  or  feeling. Indeed,  thinking  and feeling  work  on the  stimuli  received through senses  and intuition, but, here, the information obtained  through Te or Fe  is considered something which, of course, has its basis in sensory inputs and intuitions, but is focused more on further reflections than raw input data.

For completeness, it is necessary to discuss the introverted side of the 4 functions, as only their extraverted versions have been mentioned thus far. As noticed  by the founder of socionics, introverts think not in terms of objects and what happens to them, but in terms of relationships between objects, especially the relationship between the subject and the external world. To refer to relationships, Augustinavičiūtė utilized the concept of a field, taken from theoretical physics. This association should be considered metaphorical and can be easily explained. Celestial bodies interact mostly from afar due to fields. The field is a sum of relationships of one body with other bodies. It becomes clear if we imagine a particle. We cannot say if it has an electric charge (and therefore an electric field around it) unless  we put  another charged particle  nearby and see how it  reacts. It may  move closer, drift away or stay in place. Only then can we say something about the relationship between  the  charges  of  these  particles. Other  physical  fields work  in  the  same way.

Therefore, the concept of a field is somehow akin to the concept of a relationship. Now, let us consider that any transformation of the energy of an object – e.g. motion, excitation, deceleration, work – is accompanied by  change in the surrounding fields. An object might have changed its position in space, so its spatial location with respect to other objects may have changed. The person might get excited or depressed, and thus their energy level will change relative to another person or people. In the last example, the term “energy” was used in the psychological sense, but it should be kept in mind that behind all activities there are physical processes of energy conversion.

In  the  previous paragraph,  it  was  demonstrated that  every  element  of EM  (and Information Metabolism - IM) referring to  objects can be  assigned a  corresponding element related  to fields. Among object-elements, there  are 2 static and  2 dynamic elements.  In the  Jungian model, the functions are characterized by symmetries, so symmetry is also expected between object-and field-elements. The first object-element is potential energy () and it is static. The field  version of  this  element is  denoted by  a  white  triangle (),  and it  refers  to the dynamics of  the field  of potential  energies of objects. Potentials possessed  by various objects may unfold in the future. This element  is associated  with time,  as time  is the manifestation  of  events  which  had  previously  been mere  potentials.  This  element  is dynamic as it describes the process of unfolding, and relational as it describes the field. It corresponds to Jungian introverted intuition (Ni)

Now let us think of the field version of element (). It will be denoted by white symbol of the  same  shape ().  The  process  of  internal mobilization of  the  object  is  dynamic, therefore the field-element associated with it should be static, by the law of symmetry.

Living organisms become motivated  to action due to the feeling of attraction (or repulsion) to something. Such a feeling of attraction or repulsion can be seen as a static moment (still snapshot) of ().  Therefore, () is the static field of attraction/repulsion (between all objects, with the emphasis on the place of oneself in it).The explicit state of energy is (). Its field-element should be dynamic and is denoted by a white circle (). It can be described as the dynamics of the relationship between explicit energy states of objects. If Jungian functions are considered, it is related to introverted sensing (Si).

The field-element associated with work is related to Jungian introverted thinking (Ti). As work () is dynamic and requires purposeful procedures, the information about explicit statics of  relationships between objects ()  is needed to  avoid chaotic (and therefore useless) actions. Treating objects as aggregates of  static (frozen) properties allows  for their comparison and classification, which helps in making decisions and building mental models of reality (Kępiński, 1977b).

As before, any field-element of EM implies the existence of an associated IM element. In summary, Augustinavičiūtė  classified the information received  by the  psyche into two categories: 

(1) sensations that are formed into perceptions and bring information about the qualities and condition of objects (black elements of IM);

(2) sensations that are formed into impressions and bring information about fields (white elements of IM).

The quality of received information depends on the characteristics of external stimuli and the quality, strength,  development, and  training of the personal information-receiving system.  At this  stage  it  is worth  mentioning  that various  authors have  given slightly different definitions  of IM elements. Even Augustinavičiūtė’s  definitions changed from paper to paper, yet still the qualities which these descriptions tried to convey were always the same. In some socionic papers, descriptions of IM elements involve many examples, which is good for beginners and people with weaker intuition (Eglit, 2010). At the same time, these kinds of descriptions can be too specific, and the necessary level of generality may be lost.