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Cell Microtubules as Cavities: Quantum Coherence and Energy Transfer?

A model is presented for dissipationless energy transfer in cell microtubules due to quantum coherent states. The model is based on conjectured (hydrated) ferroelectric properties of microtubular arrangements. Ferroelectricity is essential in providing the necessary isolation against thermal losses...

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Autor principal: Mavromatos, Nikolaos E
Lenguaje:eng
Publicado: 2000
Materias:
Acceso en línea:http://cds.cern.ch/record/462697
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author Mavromatos, Nikolaos E
author_facet Mavromatos, Nikolaos E
author_sort Mavromatos, Nikolaos E
collection CERN
description A model is presented for dissipationless energy transfer in cell microtubules due to quantum coherent states. The model is based on conjectured (hydrated) ferroelectric properties of microtubular arrangements. Ferroelectricity is essential in providing the necessary isolation against thermal losses in thin interior regions, full of ordered water, near the tubulin dimer walls of the microtubule. These play the role of cavity regions, which are similar to electromagnetic cavities of quantum optics. As a result, the formation of (macroscopic) quantum coherent states of electric dipoles on the tubulin dimers may occur. Some experiments, inspired by quantum optics, are suggested for the falsification of this scenario.
id cern-462697
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2000
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spelling cern-4626972019-09-30T06:29:59Zhttp://cds.cern.ch/record/462697engMavromatos, Nikolaos ECell Microtubules as Cavities: Quantum Coherence and Energy Transfer?General Theoretical PhysicsA model is presented for dissipationless energy transfer in cell microtubules due to quantum coherent states. The model is based on conjectured (hydrated) ferroelectric properties of microtubular arrangements. Ferroelectricity is essential in providing the necessary isolation against thermal losses in thin interior regions, full of ordered water, near the tubulin dimer walls of the microtubule. These play the role of cavity regions, which are similar to electromagnetic cavities of quantum optics. As a result, the formation of (macroscopic) quantum coherent states of electric dipoles on the tubulin dimers may occur. Some experiments, inspired by quantum optics, are suggested for the falsification of this scenario.quant-ph/0009089oai:cds.cern.ch:4626972000-09-21
spellingShingle General Theoretical Physics
Mavromatos, Nikolaos E
Cell Microtubules as Cavities: Quantum Coherence and Energy Transfer?
title Cell Microtubules as Cavities: Quantum Coherence and Energy Transfer?
title_full Cell Microtubules as Cavities: Quantum Coherence and Energy Transfer?
title_fullStr Cell Microtubules as Cavities: Quantum Coherence and Energy Transfer?
title_full_unstemmed Cell Microtubules as Cavities: Quantum Coherence and Energy Transfer?
title_short Cell Microtubules as Cavities: Quantum Coherence and Energy Transfer?
title_sort cell microtubules as cavities: quantum coherence and energy transfer?
topic General Theoretical Physics
url http://cds.cern.ch/record/462697
work_keys_str_mv AT mavromatosnikolaose cellmicrotubulesascavitiesquantumcoherenceandenergytransfer