Abstract
As already noted, solar-terrestrial physics as a whole has already gone far beyond the initial understanding of this term, and the fields of its research are closely intertwined with the fields of research of other sciences about the Earth and Space. For example, the physics of solar flares is a kind of cut through many areas of modern physics: from the kinetic theory of plasma to the physics of high-energy particles. Another example is heliobiology, where the interests of specialists from such distant fields as stellar physics, geophysics, biology, medicine, and psychology converged (and sometimes decisively collided!). Such areas of socio-cultural studies as history and archeology, economics and sociology were in the same row. At the same time, however, many fundamental problems remain unresolved and some of the most important processes that determine the essence of these scientific directions have not been investigated. Below, using specific and most convincing examples, we will try to discuss a number of them without pretending to be complete.
Along with fundamental problems and concepts, the applied aspects of solar-terrestrial physics are of great interest, in particular, radiation hazard in space, forecasting helio-geophysical disturbances, socio-economic losses due to fluctuations in space weather, and many others. Let us recall in this connection the words of A. Einstein: “Intellectual instruments, without which the development of modern technology would have been impossible, came mainly from observing the stars.” There is no doubt also the enormous ideological significance (Weltanschauung, or epistemology) of the results of solar-terrestrial physics.
We are children of the Cosmos. And our dear home
So welded together and inextricably strong,
That we feel merged in one,
That at every point the world—
the whole world is concentrated.
A.L. Chizhevsky (“Terrestrial echo of solar storms”)
Access this chapter
Tax calculation will be finalised at checkout
Purchases are for personal use only
References
Alekseev VR, Hwang J-S, Tseng M-H (2006) Diapause in aquatic invertebrates: what’s known and what’s next in research and medical application? J Mar Sci Technol 14:269–286
Alekseev VR Sychev, VN, Novikova ND (2007) Studying the phenomenon of dormancy: why it is important for space exploration. In: Diapause in aquatic invertebrates theory and human use Alekseev, V.R, De Stasio, B.T., Gilbert, J.J., Eds.) Springer: Dordrecht 207–214
Alekseev VR, Levinskikh MA, Novikova ND, Sychev VN (2019) Studying dormancy in space conditions. In: Alekseev VR, Pinel-Alloul B (eds) Dormancy in aquatic organisms. Theory, human use and modeling. Springer, Cham, pp 97–119
Alekseev VR, Hwang J-S, Levinskikh MA (2022) Effect of space flight factor on dormant stages in aquatic organisms: a review of International Space Station and terrestrial experiments. Life 12(1):47–65. https://doi.org/10.3390/life12010047
Arestova IN, Lyagushin VI, Mar’in BV, Saraeva MA, Tel’tsov MV, Shavrin PI (1991) Radiation conditions at the orbital Mir complex in September-October 1989. Kosmich. Issledovaniya (Space Research in Russian) 29(5):794–797
Avdonina EN, Lukyanov VB (1995) Heliogeophysical effects in measurement results of radioactivity by liquid scintillation counting methods and statistics radioactive decay. Biophysics (in Russian) 40(4):871–881
Breus TK (2003) Influence of solar activity on biological objects. Abstract of dissertation for the degree of Doctor of Physical and Mathematical Sciences. Moscow IKI RAN, p 32
Breus TK, Bingi VN, Petrukovich AA (2016) The magnetic factor of solar-terrestrial relations and its impact on humans: physical problems and perspectives. Phys Uspekhi 186(5):568–576. http://mi.mathnet.ru/eng/ufn5478
Chizhenkov VA (2002) Analysis of the relationship between operational anomalies of equipment on board are standard satellites of the “Cosmos” series and solar-terrestrial activity. PhD Thesis, Institute of the Physics of the Earth, RAS, Moscow, p 112
Dodson HW, Hedeman ER, Kreplin RW, et al (1975) In: Svestka Z, Simon P (eds) Catalogue of solar proton events 1955-1969. D. Reidel Publ, Dordrecht, p 430
Gosling JT (1993) The solar flare myth. J Geophys Res 98(A11):18937–18949
Kahler SW (1982) The role of the big flare syndrome in correlation of solar energetic proton fluxes and associated microwave bursts parameters. J Geophys Res 87(A5):3439–3448
Kislovsky LD (1971) Possible molecular mechanism of the influence of solar activity on the processes in the biosphere. In: Influence of solar activity on the atmosphere and biosphere of the Earth. Leningrad Nauka, pp 147–164
Kislovsky LD (1982) The reaction of the biological system to adequate weak low frequency electromagnetic fields. Space Biol Prob Moscow Nauka 43:148–166
Krymsky GF, Pavlov GS (2008) Electric model of water cluster condensation. Doklady RAS 420(6):750–751
Krymsky GF, Petukhov SI, Pavlov GS (2015) Modeling of water vapor condensation. Four-point potential. Optics Atmos Ocean 28(12):1059–1064. https://doi.org/10.15372/AOO20151202
Logachev YI, Bazilevskaya GA, Vashenyuk EV, Daibog EI, Ishkov VN, Lazutin LL, Miroshnichenko LI, Nazarova MN, Petrenko IE, Stupishin AG, Surova GM, Yakovchouk OS (2016) Catalogue of Solar Proton Events in the 23rd Cycle of Solar Activity (1996–2008). Electronic Book. Ed.: Yu. I. Logachev. ESDB repository, Geophysical Center RAS Moscow. https://doi.org/10.2205/ESDB-SAD-P-001. URL for downloading: http://www.wdcb.ru/stp/data/SPE/Catalog_SPE_23_cycle_SA.pdf (in English), http://www.wdcb.ru/stp/data/SPE/Catalog_SPE_23_cycle_SA.ru.pdf (in Russian). Publication date: September 2016 Publisher: Geophysical Center RAS, Moscow, Russia (http://www.gcras.ru/eng/), The data are stored in the World Data Center for Solar-Terrestrial Physics, Moscow (http://www.wdcb.ru/stp/index.en.html). https://doi.org/10.2205/ESDB-SAD-P-001-RU
Marsh N, Svensmark H (2000) Cosmic rays, clouds and climate. Space Sci Rev 94:215–230
Miroshnichenko LI, Karpov SN (2004) Cosmophysical factors and registration of rare events at the Baksan Underground Scintillation Telescope. Geomagnetism Aeron 44(5):601–606
Obridko VN, Miroshnichenko LI, Ragulskaya MV, Khabarova OV, Khramova EG, Katsova MM, Livshits MA (2013) Cosmic factors of the biosphere evolution: New directions of research. Problems of the evolution of the biosphere. Conference proceedings, dedicated to the memory of academician G.A. Zavarzin, March 21–22, 2012. Series “Geo-biological systems in the past”. Moscow Paleontological Institute (PIN) RAS, pp 66–94. http://www.paleo.ru/institute/files/biosphere.pdf
Ozheredov VA (2010) Investigation of solar-terrestrial connections using optimization algorithms. Abstract of dissertation for the PhD degree - Moscow, IKI RAN, 2010, p 30
Ozheredov VA, Breus TK (2008) New approaches to statistical analysis of series long-term observations of helio-geomagnetic activity and medical biological indicators that respond to it. Geophys Process Biosphere (in Russian) 7(1):27–32
Pyt’ev YuP (2004) Methods of mathematical modeling of measuring and computational systems. Moscow, Fizmatlit p 400
Ragulskaya MV (2005) Synergetic aspects of the behavior of biological systems in exposure to external fields. Biomed Technol Radio Electron (1–2):57–68
Ragulskaya MV (2019) The sun and the biosphere. Moscow Radiotekhnika, p 170
Ragulskaya MV, Khabarova OV (2001) Influence of solar disturbances on human organism. Biomed Radio Electron 2:5–15
Shnol SE (1985) Macroscopic fluctuations with discrete amplitude distribution in processes of various physical nature. Results of science and technology. Common problems of physical and chemical biology. VINITI No. 5, pp 130–201
Shnol SE, Colombet VA, Pozharsky EV, Zenchenko TA, Zvereva IM, Konradov AA (1998) Realization of discrete states during fluctuations in macroscopic processes. Physics Uspekhi 168(10):1129–1140
Udaltsova NV, Kolombet VA, Shnol SE (1987) Possible cosmophysical conditionality of macroscopic fluctuations in processes of different nature. Institute of Biophysics USSR Academy of Sciences Pushchino-on-Oka, p 96
Veretenenko SV, Ogurtsov MG (2015) Low clouds and cosmic rays: possible reasons for correlation changes. Sun and Geosphere. Special edition: 6th Workshop “Solar Influences on the Magnetosphere, Ionosphere and Atmosphere” (Sunny Beach, Bulgaria, 26–20 May 2014) 10(1), pp 51–58
Vladimirsky BM, Temuryants NA (2000) Influence of solar activity on the biosphere-noosphere. Moscow, MNEPU, p 374
Zenchenko TA, Breus TK (2021) The possible effect of space weather factors on various physiological systems of the human organism. Atmosphere 12:346. https://doi.org/10.3390/atmos12030346
Author information
Authors and Affiliations
Rights and permissions
Copyright information
© 2023 The Author(s), under exclusive license to Springer Nature Switzerland AG
About this chapter
Cite this chapter
Miroshnichenko, L. (2023). Future of Solar-Terrestrial Physics. In: Solar-Terrestrial Relations. Springer, Cham. https://doi.org/10.1007/978-3-031-22548-2_13
Download citation
DOI: https://doi.org/10.1007/978-3-031-22548-2_13
Published:
Publisher Name: Springer, Cham
Print ISBN: 978-3-031-22547-5
Online ISBN: 978-3-031-22548-2
eBook Packages: Physics and AstronomyPhysics and Astronomy (R0)