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Building Blocks for the Development of a Self-Consistent Electromagnetic Field Theory of Consciousness.

Joachim Keppler

Frontiers in Human Neuroscience September 28, 2021 DOI: 10.3389/fnhum.2021.723415 (opens in new tab)

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AI-extracted from the abstract
Characteristics Theoretical or philosophical paper Peer reviewed
Keywords Resonance Neurotransmitters Consciousness Phase transitions Quantum electrodynamics Zero-point field Electromagnetic field theory Coherent states
Key points Proposes that the zero-point field of quantum electrodynamics is the fundamental substrate of consciousness, with each of its normal modes corresponding to an elementary shade of consciousness. Argues that the brain acts as a resonant oscillator coupling to a selectively filtered set of these modes, and that neurotransmitters regulate this brain-ZPF interface.

Abstract

The goal of this work is to compile the basic components for the construction of an electromagnetic field theory of consciousness that meets the standards of a fundamental theory. An essential cornerstone of the conceptual framework is the vacuum state of quantum electrodynamics which, contrary to the classical notion of the vacuum, can be viewed as a vibrant ocean of energy, termed zero-point field (ZPF). Being the fundamental substrate mediating the electromagnetic force, the ubiquitous ZPF constitutes the ultimate bedrock of all electromagnetic phenomena. In particular, resonant interaction with the ZPF is critical for understanding rapidly forming, long-range coherent activity patterns that are characteristic of brain dynamics. Assuming that the entire phenomenal color palette is rooted in the vibrational spectrum of the ZPF and that each normal mode of the ZPF is associated with an elementary shade of consciousness, it stands to reason that conscious states are caused by the coupling of the brain to a particular set of normal modes selectively filtered from the full frequency spectrum of the ZPF. From this perspective, the brain is postulated to function as a resonant oscillator that couples to a specific range of ZPF modes, using these modes as a keyboard for the composition of an enormous variety of phenomenal states. Theoretical considerations suggest that the brain-ZPF interface is controlled by altering the concentrations of neurotransmitters, placing the detailed study of the neurotransmitter-ZPF interaction at the center of future research activities.

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