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Dissipation and memory domains in the quantum model of brain, Mathematical Sciences (Tokyo, Japan), Special Issue: Quantum Theory of Brain and Mind, 448, 49 (2000)

Giuseppe Vitiello, Eleonora Alfinito

Published Jan 1, 2000• 0 citations
OpenAlex

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Following on the observation in Vedanta that mind is restless and faster than matter, we propose that memory and thought in the brain involve tachyons. Although experiments to detect faster-than-light particles have not been successful so far, recently, there has been renewed interest in tachyon theories in various branches of physics. We suggest that tachyon theory may be applicable to brain physics as well. As a first step, in an earlier work, it was shown that in the quantum mechanical model of exocytosis by Beck and Eccles, a zero energy tachyon can precisely do the task of an Eccles’s psychon and therefore that our proposal can mathematically model mind’s action on the brain. We see below that our proposal can mathematically describe how the brain acts on the mind as well. Assuming that the brain is a non-relativistic quantum system, and representing mind-brain interaction as tachyon interaction with ordinary matter, we see that the brain creates subjective experience in the form of tachyons if the mind made up of tachyons, pays attention to the brain while it receives sensory inputs.
When the achievements of quantum theory and the theory of relativity made physics develop from classical physics to modern physics,quantum psychology came into being.Quantum psychology gives its own explainations on mind-brain relationships,that is mind and brain activities are controlled by the quantum domain,consciousness plays a leading role in mind-brain system.There is good chance that consciousness,memory and other mental phenomena comply with quantum laws.In this paper,quantum psychology theories have been summarized,and some thoughts have been given.
In quantum approaches to consciousness, the authors try to propose a model and mechanism for the mind-brain interaction using modern physics and some quantum concepts which do not exist in the classical physics. The independent effect of mind on the brain has been one of the challenging issues in the history of science and philosophy. In some recent mind-brain interaction models, the direct influence of mind on matter is either not accepted (as in Stapp's model) or not clear, and there have not been any clear mechanism for it (as in Penrose-Hameroff's model or in Eccles's model). In this manuscript we propose a model and mechanism for mind's effect on the matter using an extended Bohmian quantum mechanics and Avicenna's ideas. We show that mind and mental states can affect brain's activity without any violation of physical laws. This is a mathematical and descriptive model which shows the possibility of providing a causal model for mind's effect on matter. It is shown that this model guarantees the realistic philosophical constraints and respects the laws of nature. In addition, it is shown that it is in agreement with the Libet style experimental results and parapsychological data. To propose this model, we obtained a modified (non-unitary) Schrödinger equation via second quantization method which affects the particle through a modified quantum potential and a new term in the continuity equation. At the second quantized level, which is equivalent to quantum field theory level (QFT), we can use the path integral formalism of Feynman. We show that there are three methods to extend Bohmian QM via path integral formalism, which has different interpretations. By numerical simulation of trajectories in the two-slits experiment, we show their differences and choose one of these methods for our mind-brain model which can be the basis for explaining some phenomena which are not possible to explain in the standard Bohmian QM.