Reiniš S.: Objective and subjective signs of human consciousness

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PSYCHOSOM, 2009;7(4), Teorie, s.264-269

Stanislav Reiniš

Department of Psychology,
University of Waterloo,
Waterloo, ON, Canada



Human mind and consciousness are a function of the whole brain as a whole, although some brain areas may play a more important role than the others. The existing quantum theories are unable to explain all the aspects of the mind and consciousness. Our theory is based on free electrons released during the electrophysiological changes such as postsynaptic potentials, depolarization and hyperpolarization of the neuronal membrane and action potentials moving along the axons. The quantum systems form a quantum electron field in which the electrons are able to communicate one with another by means of the Pauli force. This communication force may be a carrier of the subjective consciousness which integrates and unifies functions of various parts of the brain. The input producing the content of consciousness comes from the neuronal activity in various parts of the cerebral cortex and other brain areas.


Lidská mysl a lidské vědomí jsou jedna funkce mozku jako celku, ačkoli některé oblasti mozku mohou hrát důležitější roli než jiné. Existující kvantové teorie nejsou schopné vysvětlit všechny aspekty lidské mysli a vědomí. Naše teorie je založena na volných elektronech, které se uvolňují během elektrofyziologických změn, jako jsou např. postsynaptické potenciály, depolarizace a hyperpolarizace neuronové membrány a akčních potenciálů pohybujících se podél axonů. Kvantové systémy formují kvantové elektronové pole, ve kterém jsou elektrony schopny spolu komunikovat prostřednictvím Pauliho síly. Tento způsob spojení může být nosičem subjektivního vědomí, které integruje a unifikuje funkce různých částí mozku. Daná vstupní veličina produkující obsah vědomí pochází z aktivity neuronů v různých částech mozkové kůry a dalších oblastech mozku.


In recent years, I published a series of papers describing various aspects of human consciousness (Reinis 1996, 2002, 2005, 2007, 2008). When working on them, I gradually developed a theory of human mind and consciousness based on quantum relations in the brain. In short, it seems acceptable that any neuronal membrane activities, pre- and postsynaptic potentials, nerve impulses and their propagation along the nerve fibers are accompanied by a generation of quantum particles, mainly electrons, that are translocated throughout the brain and elsewhere and are responsible for mutual binding of the parts of the brain into a unified  functional system (binding problem), for the creation of human mind and consciousness (mind/brain problem) and for the creation of EEG. A question that I did not touch in detail in the past is the subjectivity of consciousness.

Statement of the problem

The hard problem of consciousness refers to the fact that the function of the brain considered to be a great information processor may eventually be explored and analyzed to the slightest detail, but we are still unable to explain even the most basic subjective sensations, such as those called qualia, feeling of colors, sounds and shapes. Subjective consciousness itself is sometimes characterized as our most elementary internal experience. Everything in the universe was considered to be made up of atoms, molecules, photons, fields etc., but it seemed that the components of the mind and consciousness do not belong into any of these categories. It is believed that the consciousness is real, but utterly unexplainable in any terms familiar to science. Thus, consciousness stands as an extra fact that demands a special explanation. To approach this problem means first to find and explore the simplest phenomena which may be involved and assembled into a fully developed human mind and consciousness. Perhaps, we might find, in these simple phenomena, the clue for the assembly of the more complex events. Therefore, we searched for events taking place at the most basic biological and physical level, common both to the brain and to the entire universe. Such events must stand as a fundamental building block of the universe, and at the same time they must be able to aggregate into full-blown human consciousness.

Brain Quantum Fields

The human mind and consciousness has to be considered, under normal circumstances, as a unified phenomenon involving probably the whole brain or at least a major part of it. For this reason, we have to draw on a general knowledge on quantum fields, if and how they function in the brain. As stated by Stapp (2004, p. 250), the problem of consciousness cannot be solved without considering quantum mechanics. The question is how to use it and what kind of dynamics is suitable for this task. There are at least three advantages to this quantum approach: First, the temporary connection of various systems might be sufficiently fast; second, connections may be quickly initiated and terminated; and third, quantum interactions may also help to explain subjective consciousness. From the very beginning of quantum physics, the quantum field theory has been considered a connection of quantum mechanics and special relativity (Dirac, 1925). For us, the problem is that quantum systems are incomprehensible from the viewpoint of our everyday perception and we actually do not know how they look like (Auyang, 1995). In our previous papers, we listed several electrical phenomena in the brain which generate free electrons. This is a basis of our idea that the quantum field of the brain is formed by the electrons and quantum electron particles. They are generated continuously by all functioning neurons. The brain function is therefore represented by a state of the system of electrons. The electron system field has, of course, its own Hilbert state. A field is a continuous system of interactions. This field has an infinite degrees of freedom, and also the physical effects which may be continuous. A field system is a continuous whole that can be characterized by several field variables and their interactions. It is a continuous but not amorphous entity (Auyang, 1995).

Pauli Exclusion Principle

Another component of the quantum mechanics, the Pauli Exclusion Principle, has to be considered as well. Each electron has four quantum numbers which characterize it sufficiently. When two of the electrons differ in one number, e.g. in spin, they communicate this fact one to another and they may exist as closest neighbours. If they have the same spin number, they repulse each other. This is the Pauli principle and depends on Pauli force, a rather weak force of communication between the particles. This repulsive force is more than just an electrostatic repulsion between the electrons. It has a quantum mechanical character rooted in the Pauli exclusion principle, and is often called the "exclusion principle repulsion". Although this rule is primarily valid in the atoms, it is no doubt that this is a general rule controlling the free electrons as well. This Pauli exclusive force is not very strong. It influences only electrons close to each other. This limitation might be important. Pauli observed that relativistic quantum field theory requires that particles with half-integer spin (s=1/2, 3/2, . . .) must have antisymmetric wave functions and articles with integer spin (s=0, 1, . . .) must have symmetric wave functions. Such observation is usually introduced as an additional postulate of quantum mechanics: The wave function of a system of electrons must be antisymmetric with respect to interchange of any two electrons. As a consequence of such principle is that two electrons with the same spin can not have the same coordinates. The free electrons in the brain therefore communicate one with another its quantum state by means of  "Pauli force”, which is always repulsive and becomes very important at small distances, but is negligible at large distances. This Pauli force is quantum mechanical in origin, and keeps the charges from collapsing into a point (i.e., it keeps a negative particle and a positive particle from sitting exactly on top of one another). Some authors () believe that the Pauli force has a statistical character.

Playground for mind and consciousness

In the brain, the particles form, all of them together, an enormously complex system of interactions which is one of the unifying principles of the brain, the human “mind”. This communication is the basic fact of the Pauli principle. The electrons “feel” the presence of other electrons at a distance and respond to it. This basic function of electrons is therefore closest to the feeling of “consciousness”. We propose that this communication ability is also the most basic unit of consciousness, a basic “protoconsciousness”. Intuitively, we might believe that the “spin-up” and “spin-down” units may form some kind of binary code, but probably it is not so because the neighboring units cannot have the same spin. To describe completely the quantum mechanical behavior of electrons in solids or semisolids, it is strictly necessary to calculate the many-electron wavefunction for the system. In principle this may be obtained from the time-independent Schrodinger equation, but in practice the potential experienced by each electron is dictated by the behavior of all the other electrons in the solid. The motion of any one electron is strongly coupled to the motion of the other electrons in the system. To solve the Schrödinger equation directly for all these electrons would thus require us to solve a system of around at least 10²³ simultaneous differential equations. Such a calculation is beyond the capabilities of present-day computers, and is likely to remain so for the foreseeable future. We have to stress that this model of mind and consciousness is composed of two components. One is the mass activity of neurons, responsible for the informational content of the brain activity, and the second is the massive action of electron field. The neurons send electrons in the quantum state all over the brain. The neurons and electrons make together the highest controlling system in the brain, the human mind, associated also with the consciousness.

Boundary between physical and psychical

We propose that the transition betwen physical and psychical lies just here, in the Pauli force interacting between electrons. Pauli force of one electron transmits a very simple information only, but a mass of electrons may store a massive amount of information sufficient to construct images contained in a human mind. The real model of such system cannot be constructed at the moment because it contains a neuronal complex and quantum complex as well, dipoles and others. Although we must admit that the concept such as the one offered here is purely hypothetical and may be completely wrong, it is the only one that may describe sufficiently the subjectivity of human consciousness. It was necessary to find a system where individual particles interact on a simple level. The information transferred must be simple in order to form more complex images. Therefore, the concepts such as attraction vs. repulsion, spin up and down and others have to be introduced into the model. The actual modeling of functions will be possible in the future, hopefully. At present, the described hypothesis is very close to the truth, closer than the other hypotheses. When one gets to this point of reasoning, all problems of previous philosophies disappear. There is no more division into spirit and body, all the body processes move on this side of the world. There is no more idealism and its mirror image, materialism.


Auyang, SY: How is quantum field theory possible? Oxford University Press, 1995.
Reiniš, S.: Fyziologie vědomí. Čs. fyziol., 45, 1996,  s. 53 -  58
Reiniš, S.:  Fyziologie vědomí II. Čs. Fyziol. 51, 2002, No.4, s. 181-187
Reiniš,S.: Fyziologie vědomí III.
Reiniš, S.:Současný stav kvantové teorie vědomí. Čs. Fyziol. 56/4: 134 –137 (2007)

O autorovi:

reiniš_graf_1Stanislav Reiniš

(* 1931 v Nitře) je český exilový spisovatel a profesor medicíny. Působil na universitě ve Waterloo, Ontario. Od 90. let přednáší fyziologii na 3. lékařské fakultě Univerzity Karlovy, kde byl také čestným členem Vědecké rady. Proslavil se zejména pracemi v oboru neuropsychologie a zkoumáním souvislostí mezi vědomím a kvantovou mechanikou. Text přišel do redakce začátkem roku 2009, koloval po internetu. Podařilo se nám navázat s autorem kontakt a získat autorův souhlas k publikaci v původním znění.

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