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ФИЗИКА ЭЛЕМЕНТАРНЫХ ЧАСТИЦ И АТОМНОГО ЯДРА

Моделирование процесса миграции квантовых запутанных состояний в микротрубочках клетки : Аннотации

S.Eh. Shirmovsky, A. V. Chizhov, А. Чижов

Published Jun 24, 2024• 0 citations
OpenAlex

Abstract

We simulate the process of migration of quantum entangled states between tryptophans in cell microtubules connected by dipole–dipole interaction, so that microtubules can be considered as a signaling system for transmitting information via the quantum channel. We show that the rate of propagation of entangled states falls within the range of the nerve impulse velocity.

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We simulate the process of migration of quantum entangled states between tryptophans in cell microtubules connected by dipole–dipole interaction, so that microtubules can be considered as a signaling system for transmitting information via the quantum channel. We show that the rate of propagation of entangled states falls within the range of the nerve impulse velocity.
This paper aims to address the possibility of parametric resonance effects in microtubules via tryptophan qubits, using the Hamiltonian of the cavity quantum electrodynamics (QED) model involving photons in a waveguide and the surrounding environment. The time evolution equations for qubits and photons are derived using the input–output formulation. Input signals with a 560 nm wavelength are amplified by Rabi oscillations for tryptophan qubits in excited states. Here, the qubits organized in multiple layers are all in excited states. When an appropriate decay to the environment occurs as internal loss, which is prepared in multiple layers, we find binary patterns of the parametric amplification of input signals and the reduction of output signals. This property might help us to understand the information processing of optical signals by filtering them with the use of tryptophan residues in microtubules and diffused nonlocal processing spreading over the whole brain in the form of holograms.
Here is shown analysis of the properties of entangled particles (Bell-states). It is shown that after rotation of qubits on gate Hadamard, two of Bell's states transformed into each other. Путенихин Петр Васильевич. Приведён анализ свойств запутанных частиц (состояний Белла). Показано, что после поворота гейтом Адамара белловских состояний два из них переходят друг в друга.