350 rub
Journal Biomedical Radioelectronics №2 for 2020 г.
Article in number:
Techniques for investigating the electromagnetic sensitivity of biological systems
DOI: 10.18127/j15604136-202002-01
UDC: 621.372.8
Keywords: Biological effects of microwave radiation biophysical methods and devices acoustic detection of absorbed power generation of surface acoustic waves lipid monolayers models of biological membranes wavelength and attenuation of surface acoustic waves lipid peroxidation (LPO) chemiluminescence (CL) transepithelial water transport human skin absorption coefficient aqueous solutions hydrocarbon mixtures water content monitoring waveguide dielectric resonance chamber
Authors:

K.D. Kazarinov – Ph.D. (Biol.), Senior Research Scientist, Leading Research Scientist,  Kotelnikov Institute of Radio Engineering and Electronics of RAS, 

Fryazino Branch (FIRE RAS) (Fryazino, Moscow region)

E-mail: kazarinovkonstantin@yandex.ru

Abstract:

Statement of the problem. The conditions of a biological experiment and the goals of research dictate the requirements for a fundamental rationalization of traditional experimental methods and devices for their implementation. In addition, in the process of biological research, as a result of adaptation of the known methods, it is necessary to create new biophysical methods and devices.

Aim of the work. Development of methods and instruments for biophysical diagnostics that can be used to study the effects of microwave radiation on biological and model systems.

Results. The method of acoustic detection of absorbed power in the millimeter wavelength range was developed. Based on this method, results of experimental skin research were obtained. An experimental method has been developed to investigate the surface properties of lipid monolayers to study microwave biological effects and the results of its implementation in the field of physical chemistry are presented. A new equipment and a waveguide-dielectric method for studying liquids with high absorption capacity are presented. The biological effect of microwave radiation is given using the developed device and an effective chemiluminescent method for the analysis of fast biochemical reactions accompanying the formation of free radicals, as well as a method for measuring the rate of transepithelial water flow through human skin.

Practical significance. The new device and methods for studying the biological effects of microwave radiation presented in the article can be useful for a wide range of specialists in the field of bioelectromagnetobiology.

Pages: 5-14
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Date of receipt: 20 января 2020 г.