Mechanism of Action of the Low-Frequency Electromagnetic Field on Aqueous Solutions of Biopolymers

IF 4.033 Q4 Biochemistry, Genetics and Molecular Biology
E. E. Tekutskaya, G. P. Ilchenko, M. G. Baryshev
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Abstract

This paper presents the transformation mechanism of a signal from the magnetic component of a low-frequency electromagnetic field with extremely low energy into a chemical and biochemical response in aqueous solutions of nucleic acids and proteins. The developed theoretical model shows that oxidative DNA damage and conformational transitions in proteins are based on a universal mechanism for changing the amount of the most long-lived form, hydrogen peroxide, in a chemical oscillator of mutual transformations of reactive oxygen species under a low-intensity electromagnetic field. It has been experimentally found that the content of hydrogen peroxide in solutions of biopolymers resonantly depends on the frequency of the applied field. Conformational changes in proteins are accompanied by increasing accessibility and activity of the nucleophilic centers, which are potential targets for reactive oxygen species. Complete unfolding and denaturation of the protein amino-acid chain in a low-frequency electromagnetic field did not occur. It has been shown that the enhanced formation of hydrogen peroxide at 3 and 50 Hz leads to oxidative modification of nitrogenous bases in DNA.

Abstract Image

低频电磁场对生物聚合物水溶液的作用机制
摘要 本文介绍了能量极低的低频电磁场磁分量信号在核酸和蛋白质水溶液中转化为化学和生化反应的机制。所建立的理论模型表明,在低强度电磁场下,活性氧相互转化的化学振荡器中,DNA 的氧化损伤和蛋白质的构象转变是基于一种改变最长寿形式--过氧化氢--数量的普遍机制。实验发现,生物聚合物溶液中过氧化氢的含量与应用场的频率有共振关系。蛋白质的构象变化伴随着亲核中心的可及性和活性的增加,而亲核中心是活性氧的潜在目标。在低频电磁场中,蛋白质氨基酸链不会完全展开和变性。研究表明,在 3 赫兹和 50 赫兹频率下,过氧化氢的形成增强,导致 DNA 中的含氮碱基发生氧化修饰。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Biophysics
Biophysics Biochemistry, Genetics and Molecular Biology-Biophysics
CiteScore
1.20
自引率
0.00%
发文量
67
期刊介绍: Biophysics is a multidisciplinary international peer reviewed journal that covers a wide scope of problems related to the main physical mechanisms of processes taking place at different organization levels in biosystems. It includes structure and dynamics of macromolecules, cells and tissues; the influence of environment; energy transformation and transfer; thermodynamics; biological motility; population dynamics and cell differentiation modeling; biomechanics and tissue rheology; nonlinear phenomena, mathematical and cybernetics modeling of complex systems; and computational biology. The journal publishes short communications devoted and review articles.
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