SOME ANALOGIES BETWEEN PLASMA AND BIOLOGY
( Pp. 91-107)

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Mineev Anatolij Borisovich kand. fiz.-mat. nauk, veduschiy nauchnyy sotrudnik, nauchno-issledovatelskogo instituta elektrofizicheskoy apparatury im. D.V. Efremova (AO «NIIEFA»), docent Sankt-Peterburgskogo gosudarstvennogo universiteta (SPbGU), Sankt Peterburg, Rossiya.
JSC «D.V. Efremov Institute of Electrophysical Apparatus»; SPb State University, Saint-Petersburg, Russia
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Abstract:
This work is thanks to the order generation of plasma scientists from NRC «Kurchatov Institute», both living and gone. Some of them, hand in hand with successful work in the field of plasma physics, also engaged in the analysis of biological phenomena (A.A. Vedenov, B.A. Trubnikov, B.B. Kadomtsev). In addition, there are direct analogies between plasma physics and biology (similar dependencies, similar methods of problems solving…). Such parallels are formed the basis of publication.Here are some of them touched in the article:monotonous dependencies with a plateau. In general physics and plasma physics such dependencies usually indicate a phase transition or a topology change. Explanation biological example of such dependency that is related to the geometrical parameters of trees, more complex and determined by different limitations for small, medium and tall trees, and temporal evolution;universal distributions, such as Pareto’s law or 80 : 20 principle (mass distribution of celestial bodies or parts of volcanic aches, power distribution of number of earthquakes etc.). To follow such analogies in biology for renewable covers leads to the conclusion that the main part of energy from the food is spent on renewal short-lived cells in organism;presence of minimum size (if size is lower, than there is complex structure, for higher sizes - there is no structure). Samples are Debye radius in plasma physics and cell size in biology;formation of blisters and whiskers during plasma-wall interaction and botanical analogies;scaling, invariants, fractals;limits of heat removal in plasma devices and in biology.
How to Cite:
Mineev A.B., (2018), SOME ANALOGIES BETWEEN PLASMA AND BIOLOGY. Computational Nanotechnology, 1 => 91-107.
Reference list:
Mineev A. O vysokikh derev yakh // Kvant. 1992. № 3. S. 13-17; № 4. S. 10-15; stat ya perepechatana v zhurnale Quantum. Jan/Feb, 1994. R. 4-10 pod nazvaniem Trees Worthy of Paul Bunyan (physics and tree growth) .
West G.B., Brown J.H., Enquist B.J. A general model for the structure and allometry of plant vascular systems // Nature. 1999. V. 400. P. 664.
Vedenov A., Ivanov O. S kakoy skorost yu rastet zelenyy list // Kvant. 1990. № 4. S. 11.
Vedenov A. Modelirovanie elementov myshleniya. Ser.: Sovremennye problemy fiziki. M.: Nauka, gl. red. fiz.-mat. literatury, 1988. Razdel Rost rasteniy .
Mineev A. O kambii i rel efe kory na stvole dereva // Kvant. 2004. № 3. S. 11-15.
Mineev A. Ot myshi do slona // Kvant. 1993. № 6. S. 11-15.
Mineev A. Sprintery i stayery // Kvant. 2017. № 11. S. 11-14.
ZHdanov S.K., Trubnikov B.A. Kvazigazovye neustoychivye sredy. M.: Nauka, gl. red. fiz.-mat. literatury, 1991.
Tpubnikov B.A., Trubnikova O.B. Pyat velikikh raspredeleniy veroyatnostey // Priroda. 2004. № 11. S. 13.
Mineev A. Printsip 80 : 20 v biologii // Kvant. 2017. № 11. S. 6-10.
SHafranov V.D. Nenauchnye trudy. M.: RNTS Kurchatovskiy institut , 2009.
Pastukhov V.P., Arsenin V.V., Kukushkin A.B., Kurnaev V.A., Morozov D.KH., Trubnikova O.B., Trubnikov A.S. V pamyat o Borise Andreeviche Trubnikove // Doklad na 44-y konferentsii po fizike plazmy i upravlyaemomu termoyadernomu sintezu. Zvenigorod, 2017.
Kadomtsev B.B. Na pul sare. M.: UFN, 2001.
Kadomtsev B.B. Dinamika i informatsiya. M.: UFN, 1999. Mineev A. Fauna i flora // Kvant. 2001. № 4. S. 13-15.
SHmidt-Niel sen K. Razmery zhivotnykh: pochemu oni tak vazhny M.: Mir, 1987.
West G.R., Brown J.H. Life s Universal Scaling Laws // Physics Today. Sept. 2004, P. 36.
West G.B., Brown J.H., Enquist B.J. A General model for the Origin of Allometric Scaling Laws in Biology // Science. 1997. V. 276. P. 122.
Begun P.I., SHukeylo YU.A. Biomekhanika. SPb.: Politekhnika, 2000. C. 331.
Etienne R.S., Apol M.E.F., Olff H. Demystifying the West, Brown Enquist model of the allometry of metabolism // Functional Ecology. 2006. V. 20. P. 394.
Apol M.E.F., Etienne R.S., Olff H. Revisiting the evolutionary origin of allometric metabolic scaling in biology // Functional Ecology. 2008. V. 22. P. 1070.
West G.B., Brown J.H., Enquist B.J. A General model for ontogenetic growth // Nature. 2001. V. 413. P. 628.
Dnestrovskiy YU.N., Kostomarov D.P. Matematicheskoe modelirovanie plazmy. M.: Nauka, 1982; 1993 (2-e izd.).
Dnestrovskiy YU.N. Samoorganizatsiya goryachey plazmy. M.: NITS Kurchatovskiy institut , 2013.
Dnestrovskij Yu.N., Melnikov A.V., Pustovitov V.D. Approach to canonical pressure profiles in stellarators // Plasma Phys. Control. Fusion. 2009. V. 51. P. 015010.
Melnikov A.V., Eliseev L.G., Pastor I., et al. Pressure profile shape constancy in L-mode stellarator plasmas // 34-th EPS Conf. on Plasma Phys. Warsaw. 2-6 July 2007. ECA, V. 31F, Rep. P-2.060.
Mineev A. List ya ulybayutsya // Kvant. 2006. № 4. S. 37-39.
Proskurin I.K. Biokhimiya. M.: VLADOS-PRESS, 2004. S. 177.
Begrambekov L.B. Protsessy v tverdom tele pod deystviem ionnogo i plazmennogo oblucheniya. M.: MIFI, 2008.
Krauz V.I., Martynenko YU.V., Svechnikov N.YU., Smirnov V.P., Stankevich V.G., KHimchenko L.N. Nanostruktury v ustanovkakh upravlyaemogo termoyadernogo sinteza // Uspekhi fizicheskikh nauk. 2010. T. 180, № 10. S. 1055.
ZHitlukhin A.M., Klimov N.S., Podkovyrov V.L., KHimchenko L.N. Eroziya zashchitnykh pokrytiy pervoy stenki i divertora ITER i formirovanie pyli v usloviyakh, imitiruyushchikh peremennye nagruzki: ELMy i sryvy plazmy // Doklad na Zvenigorodskoy konferentsii po fizike plazmy, 2009.
Kolbasov B.N., Guseva M.I., Svechnikov N.YU., Stankevich V.G., KHripunov B.I., Romanov P.V., Zimin A.M. Issledovaniya nakopleniya izotopov vodoroda v kontaktiruyushchikh s plazmoy materialakh, provedennye v Rossii v poslednie gody // Trudy 8-go mezhdunarodnogo rabochego soveshchaniya po izotopam vodoroda v materialakh termoyadernykh reaktorov. KHuanshan , KNR. 29-30 maya 2006.
Ivanov K.P. Osnovy energetiki organizma: Teoreticheskie i prakticheskie aspekty. V 5-i t. L., SPb: Nauka (RAN, Institut fiziologii im. I.P. Pavlova). 1990-2007; T. 4. Energoresursy organizma i fiziologiya vyzhivaniya, 2004.
Azizov E.A., Ayrapetov A.A., Begrambekov L.B., Buzhinskiy O.I., Vergazov S.V. i dr. Ustanovka dlya naneseniya pokrytiya karbida bora i testirovaniya materialov i pokrytiy pri intensivnom plazmennom obluchenii // Voprosy atomnoy nauki i tekhniki. Ser.: Termoyadernyy sintez. 2014. T. 37, vyp. 4. S. 30.
Mirnov S.V., Azizov E.A., Evtikhin V.A., Lazarev V.B., Lyublinski I.E., Vertkov A.V., Prokhorov D.Yu. Experiments with lithium limiter on T-11M tokamak and applications of the lithium capillary-pore system in future fusion reactor devices // Plasma Physics and Controlled Fusion. 2006. V. 48. P. 821.
Keywords:
plasma, biology, phase transitions, the size of cells, Debye radius, Lavrovsky radius, ener - goblins, scaling, the canonical profile, fractal, invariant, self-organization, continuing coverage.


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