Seismoelectromagnetism and spatio-temporal structures
New ideas, approaches and methods of modern seismology are being considered, which are focused on highly organized spatio-temporal structures in dissipative media far from thermodynamic equilibrium, auto-structures in particular. Some details of studies conducted and some of their consequences, which were paid not enough attention but which might be decisive to conduct further studies are being considered. In this case, instead of widespread understanding of seismicity as a fundamental consequence of evolution of geo-systems toward the state of self-organized criticality limited to the framework of systems with anomalously slow dynamics, its interpretation as meta-stable states of geo-medium and the succession of such states is under consideration. The essence of new approach is a paradigm of transitions of spatial shapes in heterogenous multi-scale hierarchically organized active geo-medium, which are reflected in the spatial structure of spontaneous emissions of lithospheric origin – seismic and electromagnetic ones. Here the problems of the theory of transitions of spatial shapes instead of known problems of the theory of bifurcations of dynamic systems are brought to the fore. The role and impact on dynamic processes running into geo-medium of noise of different intensity and chromaticity, which promote induction of the regimes of its functioning, impossible to be realized without are being accentuated. Possible and visible applications of the proposed approach are being discussed.
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Anishchenko V. S., Vadivasova T. E., Strelkova G. I., 2010. Self-sustained oscillations of dynamical and stochastic systems and their mathematical image — an attractor. Nelineynaya dinamika 6(1), 107—126 (in Russian).
Bak P., 2014. How does nature. Moscow: Book House «Librokom», 276 p. (in Russian).
Birger B. I., 2012. Transient creep and its role in geodynamics. Fizika Zemli (6), 34—42 (in Russian).
Bochkov G. N., Kuzovlev Yu. E., 1983. New research 1/f-noise. Uspekhi fizicheskikh nauk 152(is. 1), 151—176 (in Russian).
Vasiliev A. N., Romanovskiy Yu. M., Yakhno V. G., 1979. Autowave processes in distributed kinetic systems. Uspekhi fizicheskikh nauk 128(is. 4), 625—666 (in Russian).
Gaponov-Grekhov A. V., Rabinovich M. I., 1987a. Nonlinear dynamics of nonequilibrium media and turbulence. Uspekhi fizicheskikh nauk 152(is. 5), 159—162 (in Russian).
Gaponov-Grekhov A. V., Rabinovich M. I., 1987b. Autostructures. Chaotic dynamics of ensembles. In: Nonlinear waves. Structures and bifurcation. Moscow: Nauka, P. 7—47 (in Russian).
Ginzburg V. L., Tsytovich V. N., 1984. Transition radiation and transition scattering (some questions of the theory). Moscow: Nauka, 360 p. (in Russian).
Guglielmi A. V., 2007. Ultralow frequency wave in the crust and in the Earth's magnetosphere. Uspekhi fizicheskikh nauk 177(12), 1257—1276 (in Russian).
Guglielmi A. V., 2015. Foreshocks and aftershocks of strong earthquakes in the catastrophe theory. Uspekhi fizicheskikh nauk 185(4), 415—429 (in Russian).
Gufeld I. L., 2013. Is the forecast of strong crustal earthquakes? Vestnik RAN 83(3), 236—245 (in Russian).
Gufeld I. L., 2007. Seismic process. Physico-chemical aspects. Korolev: TsNIIMash Publ., 160 p. (in Russian).
Gufeld I. L., Novoselov O. N., 2014. Seismic process in the subduction zone. Monitoring the background. Moscow: MSFU Publ., 100 p. (in Russian).
Davydov V. A., Zykov V. S., Mikhaylov A. S., 1991. Kinematics of autowave structures in excitable media. Uspekhi fizicheskikh nauk 161(8), 45—86 (in Russian).
Zakharov V. S., 2014. Self-similarity of structures and processes in the lithosphere as a result of a fractal and dynamic analysis: the Abstract of dissertations of the Dr. geol. and min. sci. Moscow, 35 p. (in Russian).
Zelenyy L. M., Milovanov A. V., 2004. Fractal topology and strange kinetics: from percolation theory to problems in cosmic electrodynamics. Uspehi fizicheskih nauk 174(8), 810—851 (in Russian).
Iudin D. I., 2005. Fractal dynamics of the active systems: the Abstract of dissertations of the Dr. phys. and math. sc. Nizhny Novgorod, 30 p. (in Russian).
Kadomtsev B. B., 1994. Dynamics and information. Uspehi fizicheskih nauk 164(5), 449—530 (in Russian).
Kerner B. S., Osipov V. V., 1989. Autosolitons. Uspehi fizicheskih nauk 137(is. 2), 201—261 (in Russian).
Klimontovich Yu., 2002. Introduction to the physics of open systems. Moscow: Yanus-K, 284 p. (in Russian).
Koronovskiy N. Naimark A., 2012. The unpredictability of earthquakes as a fundamental consequence of the nonlinearity of geodynamic systems. Vestnik Moskovskogo universitetata (6), 3—11 (in Russian).
Loskutov A. Yu., 2010. Fascination of chaos. Uspehi fizicheskih nauk 180(2), 1305—1329 (in Russian).
Makarov N. V., 2012. Capabilities of modern methods of geomechanical modeling as applied to the Earth science. Moscow: IPE RAS Publ., 14 p. (in Russian).
Naimark O. B., 2008. Structural-scaling transitions and self-development patterns of earthquakes. Fizicheskaya mezomekhanika 1(2), 89—106 (in Russian).
Naimark A. A., Zakharov V. S., 2012. Ratios of direction, cyclicity and non-linearity in geological processes. Vestnik KRAESC. Nauki o zemle (1), 181—189 (in Russian).
Panteleev I. A., Plekhov O. A., Naimark O. B., 2012. Nonlinear dynamics of structures exacerbation in ensembles of defects as a mechanism for the formation of foci of earthquakes. Fizika Zemli (6), 43—55 (in Russian).
Rabinovich M. I., Myuezinolu M. K., 2010. Nonlinear dynamics of the brain: emotion and cognition. Uspehi fizicheskih nauk 180(4), 371—387 (in Russian).
Rodkin M. V., Pisarenko V. F., Ngo Thi Ly, Rukavishnikova T. A., 2014. On the feasibility of the law of distribution of rare strongest zemletryaseniyyu. Electronic Journal "Geodynamics and Tectonophysics" 5(4), 893—904 (in Russian).
Rumanov E. N., 2013. Critical phenomena far from equilibrium. Uspehi fizicheskih nauk 183(1), 103—112 (in Russian).
Samarskiy A. A. Elenin G. G., Zmitrenko N. V., Kurdyumov S. G., 1977. The combustion of a nonlinear medium in the form of complex structures. Doklady AN SSSR 237(6), 1330—1333 (in Russian).
Surkov V. V., 2000. Electromagnetic effects during earthquakes and explosions. Moscow: Publ. House. MEPI, 235 p. (in Russian).
Taranenko V. B., Sleksis S. P., Weiss K. O., 2008. Resonator spatial solitons. In the book .: dissipative solitons. Moscow: Fizmatlit, P. 109—200 (in Russian).
Turuntaev S. B., Vorokhobina S. V., Melchaeva O. Yu., 2012. Detection of man-made changes in the seismic regime in using the methods of nonlinear dynamics. Fizika Zemli (3), 52—65 (in Russian).
Fridman A. M., Polyachenko E. V., Nasyrkanov N. R., 2010. On some correlations in seismodynamics and two components of Earth's seismic activity. Uspehi fizicheskih nauk 180(3), 303—312 (in Russian).
Hayakawa M., Korovkin N. V., 2011. Seismoelectromagnetic phenomena as a new field of study radio wave phenomena: XII World Electrotechnical Congress. 4—5 October 2011 Presentations. (in Russian). http://www.ruscable.ru//article/report/
Chebotarev I. A., 2011. Structure and dynamics of seismic noise in geoenvironment fields. Methods and experimental results. The acoustics of inhomogeneous media. Ezhegodnik RAO (is. 12), 147—156 (in Russian).
Shapoval A. B., 2011. Questions predictability in isotropic models with self-organized criticality: Abstract of the Dissertation Dr. geol.-min. sci. Moscow, 35 p. (in Russian).
Shapoval A. B., Shnirman M. G., 2011. Universal algorithmic forecast extreme events time series. Informatsionnye tehnologii i vychislitelnye sistemy (4), 58—65 (in Russian).
Shuman V. N., 2014a. Nonlinear dynamics of geomedium: transitional processes and critical phenomena. Geofizicheskiy zhurnal 36(6), 129—142 (in Russian).
Shuman V. N., 2015. Nonlinear dynamics, seismic activity and aerospace sounding systems. Geofizicheskiy zhurnal 37(2), 38—55 (in Russian).
Shuman V. N., 2014b. Seismic processes and advanced monitoring system. Geofizicheskiy zhurnal 36(4), 50—64 (in Russian).
Shuman V. N., 2012. Electrodynamics of fractal media, transitional fractal dispersion and electromagnetic noise of the lithosphere. Geofizicheskiy zhurnal 34(1), 3—13 (in Russian).
Shuman V. N., Kobolev V. P., Starostenko V. I., Burkinskiy I. B., Loyko N. P., Zakharov I. G., Yatsiuta D. A., 2012. A method of analysis of spontaneous electromagnetic emission of the Earth: physical backgrounds , elements of theory, field experiment. Geofizicheskiy zhurnal 34(4), 40—61 (in Russian).
Ebeling B., 1979. Education structures in irreversible processes. Introduction to the theory of dissipative structures. Moscow: Mir, 277 p. (in Russian).
Aschwanden M. J., Crosby N. B., Dimitropoulou M., Georgoulis M. K., Hergarten S., McAteer J., Milovanov A. V., Mineshige S., Morales L., Nishizuka, N. Pruessner G., Sanchez R., Sharma A. S., Strugarek A., Uritsky V., 2014. 25 Years of Self-Organized Criticality: Solar and Astrophysics. Spase Sci. Rev., 1—120. doi 10. 1007/S. 11214-014-0054-6.
Bak P., Tang C., Wiesenfeld K., 1987. Self-Organized Criticality: an Explanations of 1/f Noise. Phys. Rev. Lett. 59, 381—384.
Geller R. J., 1997. Earthquake preduction: A critical review. Geophys. J. Int. 131, 425—450.