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Biological observables and quantum measurements

E. Conte

Published Dec 1, 1987• 0 citations
OpenAlex

Related papers

Biological observables and quantum measurements

ConteE.

Cybernetica•Dec 1, 1987•0 citations

Inversion of the Measurement Problem: The Body as a Biological Observer of the Superposition of Consciousness

Robert Kujat

This paper presents an original ontological hypothesis that radically inverts the classical measurement problem in quantum mechanics. It posits that the human mind exists in a state of superposition while the biological body functions as an external measurement apparatus, redefining the mechanisms of the circadian cycle and death. You can read more about this on Zenodo.

•Oct 12, 2026•0 citations

Biological measurement beyond the quantum limit

Michael A. Taylor, Jiří Janoušek, Vincent R. Daria +4 more

arXiv:1206.6928•Nature Photonics•Feb 1, 2013•578 citations

Biological Measurement Beyond the Quantum Limit

Michael A. Taylor

Springer theses•Jan 1, 2015•2 citations

Theoretical discussion for quantum computation in biological systems

Wolfgang Baer

Analysis of the brain as a physical system, that has the capacity of generating a display of every day observed experiences and contains some knowledge of the physical reality which stimulates those experiences, suggests the brain executes a self-measurement process described by quantum theory. Assuming physical reality is a universe of interacting self-measurement loops, we present a model of space as a field of cells executing such self-measurement activities. Empty space is the observable associated with the measurement of this field when the mass and charge density defining the material aspect of the cells satisfy the least action principle. Content is the observable associated with the measurement of the quantum wave function ψ interpreted as mass-charge displacements. The illusion of space and its content incorporated into cognitive biological systems is evidence of self-measurement activity that can be associated with quantum operations.

Proceedings of SPIE, the International Society for Optical Engineering/Proceedings of SPIE•Mar 31, 2010•3 citations

Quantum physics and biological systems

Alexander W. Stern

Journal of Theoretical Biology•Sep 1, 1964•6 citations
Analysis of the brain as a physical system, that has the capacity of generating a display of every day observed experiences and contains some knowledge of the physical reality which stimulates those experiences, suggests the brain executes a self-measurement process described by quantum theory. Assuming physical reality is a universe of interacting self-measurement loops, we present a model of space as a field of cells executing such self-measurement activities. Empty space is the observable associated with the measurement of this field when the mass and charge density defining the material aspect of the cells satisfy the least action principle. Content is the observable associated with the measurement of the quantum wave function ψ interpreted as mass-charge displacements. The illusion of space and its content incorporated into cognitive biological systems is evidence of self-measurement activity that can be associated with quantum operations.