Abstract
Chapter 1 discussed the plasma chemistry of the near-ground layer of the atmosphere under the action of ionization processes. It was demonstrated that ion-induced nucleation (IIN) leads to the formation of large cluster ions, which can reach an aerosol size of several microns. The growth of particles happens mainly due to the ion hydration process, which is accompanied by latent heat release. However, we should keep in mind that as ionization creates charged particles, high ion production rates will locally change the electric properties of the near-ground layer of the atmosphere and modify the balance of the global electric circuit (GEC) within the earthquake preparation zone. In this chapter, we try to estimate the expected changes and how they can affect our planet's ionosphere.
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References
Alekseev VA, Alekseeva NG (1992) Investigation of metal transfer in the biosphere during gaseous emission in zones of tectonic activity using methods of nuclear-physics. Nucl Geophys 6:99–110
Alekseev VA, Alekseeva NG, Ichankuliev J (1995) On the relation between fluxes of metals in waters and radon in Turkmenistan region of seismic activity. Radiation Meas 25:637–639
Aleshina ME, Voronov SA, Galper AM, Koldashev SV, Maslennikov LV (1992) On the interrelation of the earthquakes sources positions and the areas of energetic particles precipitation from the radiation belt. Cosmic Res 30:79–83
Aleshina ME, Voronov SA, Galper AM, Koldashev SV, Maslennikov LV (1993) Precipitation of the high energy particles from the Earth’s radiation belt and seismic activity. Izvestiya USSR Acad Sci Physics 57:97–99
Ampferer M, Denisenko VV, Hausleitner W, Krauss S, Stangl G, Boudjada MY, Biernat HK (2010) Decrease of the electric field penetration into the ionosphere due to low conductivity at the near ground atmospheric layer. Ann Geophys 28:779–787
Anagnostopoulos GC, Efthymios V, Pulinets S (2012) Characteristics of flux-time profiles, temporal evolution, and spatial distribution of radiation-belt electron precipitation bursts in the upper ionosphere before great and giant earthquakes. Annals gGeophys 55:21–36
Anisimov SV, Mareev EA, Shikhova NM et al (2003) Electrodynamic properties of fog. Proceedings of the Fifth Russian conference on atmospheric electricity. Vladimir: Vl.SU Publishing House, vol 1, pp 112–115
Artsimovich LA, Sagdeev RZ (1974) Plasma physics for physicists. Moscow, Atomizdat. In Russian
Ashour-Abdalla M (1972) Amplification of whistler waves in the magnetosphere. Planet Space Sci 20:639–662
Berthelier JJ, Godefroy M, Leblanc F, Malingre M, Menvielle M, Lagoutte D, Brochot JY, Colin F, Elie F, Legendre C, Zamora P, Benoist D, Chapuis Y, Artru J, Pfaff R (2006) ICE, The electric field experiment on DEMETER. Planet Space Sci 54:456–471
Biagi PF, Ermini A, Kingsley SP (2001) Disturbances in LF radiosignals and the Umbria-Marche (Italy) seismic sequence in 1997–1998. Phys Chem Earth 26:755–759
Boyarchuk KA, Lomonosov AM, Pulinets SA (1997) Electrode effect as an earthquake precursor. BRAS Phys/Suppl Phys Vibr 61(3):175–179
Boyarchuk KA, Karelin AV, Shirokov RV (2005) Neutral cluster and its influence on electromagnetic effects in the atmosphere. Izvestiya RAS. Phys Atmos Ocean 41:537–549
Boyarchuk KA, Karelin AV, Shirokov RV (2006) The basic model of the ionized atmosphere kinetics. VNIIEM Publ, Moscow, p 320
Briant CL, Burton JJ (1976) A molecular model for the nucleation of water on ions. J Atm Sci 33:1357–1361
Brice N (1964) Fundamentals of very low frequency emission generation mechanisms. J Geophys Res 69:4515–4522
Chmyrev VM, Sorokin VM, Shklyar DR (2008) VLF transmitter signals as a possible tool for detection of seismic effects on the ionosphere. J Atm Solar-Terr Phys 70:2053–2060
Cushman-Roisin B (2014) Atmospheric Boundary Layer. In Environment fluid dynamics, Wiley, New York/Chichester/Weinheim/Brisbane/Singa-pore/Toronto, pp 165–186
Davies K (1990) Ionospheric radio. Peter Peregrinus, London
Davies К, Baker DM (1965) Ionospheric effects observed around the time of the Alaskan earthquake of March 28 1964. J Geophys Res 70:2251–2253
Denisenko VV (2014) Electric current penetration from a thunderstorm cloud into the middle-latitude ionosphere. Proceedings of the 10th international conference problems of geocosmos (Oct 6–10, 2014, St. Petersburg, Russia), pp 76–81
Denisenko VV (2015) Estimate for the strength of the electric field penetrating from the Earth’s surface to the ionosphere. Russ J Phys Chem B 9:789–795. https://doi.org/10.1134/S199079311505019X
Denisenko VV, Boudjada MY, Horn M, Pomozov EV, Biernat HK, Schwingenschuh K, Lammer H, Prattes G, Cristea E (2008) Ionospheric conductivity effects on electrostatic field penetration into the ionosphere. Nat Hazard 8:1009–1017
Denisenko VV, Hausleitner W, Stangl G, Biernat HK (2012) Mathematical simulation of quasi-stationary electric fields penetration through the earth’s atmosphere. Proceedings of the 9th international conference problems of geocosmos (Oct 8–12, 2012, St. Petersburg, Russia), pp 81–86
Denisenko VV, Ampferer M, Pomozov EV, Kitaev AV, Hausleitner W, Stangl G, Biernat HK (2013) On electric field penetration from ground into the ionosphere. J Atmos Solar Terr Phys 102:341–353
Dobrovolsky IR, Zubkov SI, Myachkin VI (1979) Estimation of the size of earthquake preparation zones. Pageoph 117:1025–1044
Dungey JW (1963) Loss of Van Allen electrons due to whistlers. Planet Space Sci 11:591–602
Dysthe B (1971) Some studies of triggered whistler. J Geophys Res 76:6915–6931
Emersic C (2006) Investigations into thunderstorm electrification processes. PhD thesis, The University of Manchester, Manchester, UK
Eresmaa N, Härkönen J, Joffre SM, Schultz DM, Karppinen A, Kukkonen J (2012) A three-step method for estimating the mixing height using ceilometer data from the Helsinki testbed. J Appl Meteorol Climatol 51:2172–2187
Fedorenko AK, Lizunov GV, Rothkaehl H (2005) Satellite observations of quasi-wave atmospheric disturbances at heights of the F region caused by powerful earthquakes. Geomag Aeron 45:380–387
Fischer HJ (1977) Das luftelektrische Feld in Abhängigkeit von Wetterlage und Luftverunreinigung. in Luftelektrizität I. Promet. Meteorologische Fortbildung 2:4–12
Fortov VE, Khrapak AG, Khrapak SA, Molotkov VI, Petrov OF (2004) Dusty plasmas. Phys Usp 47:447–492
Frenkel Y (2007) Theory of the phenomena of atmospheric electricity. KomKniga, Moscow, p 160
Freund F (2000) Time-resolved study of charge generation and propagation in igneous rocks. J. Goephys. Res. 105:11001–11019
Freund FT (2011) Pre-earthquake signals: underlying physical processes. J Asian Earth Sci 41:383–400
Füllekrug M (2003) ULF/ELF Interferometry. XXIII general assembly of the international union of geodesy and geophysics, Abstracts, Week B, GAII.04.07A/A8–002, p. B.193
Galper AM, Grachev VM, Dmitrienko VV, Kirillov-Ugryumov VG, Polukhina NG, Tzarkov RN, Ulin SE (1983) Saptial-temporal correlation of the earthquakes and variations of high energy flux in the inner radiation belt. Cosmic Res 21:707–717
Galper AM, Dmitrienko VV, Nikitina NV, Grachev VM, Ulin SE (1989) Connection of the fluxes of charged particles of high energy in radiation belt with the Earth’s seismicity. Cosm Res 27:789–792
Galper AM, Koldashov SV, Voronov SA (1995) High energy particle flux variations as earthquake predictors. Adv Space Res 15:(11)131–134
Galperin YI, Gladyshev VA, Jorjio NV, Larkina VI, Mogilevsky MM (1992) Energetic particle precipitation from the magnetosphere above the epicenter of approaching earthquake. Cosm Res 30:89–106
Gendrin R (1975) Waves and wave-particle interaction in the magnetosphere; a review. Space Sci Rev 18:145–200
Gokhberg MB, Pilipenko VA, Pokhotelov OA (1983) Seismic Precursors in the ionosphere. Izvestiya Earth Physics 19:762–765
Gokhberg MB, Morgounov VA, Pokhotelov OA (1995) Earthquake Prediction. Gordon and Breach Science Publishers, Amsterdam, Seismo-electromagnetic phenomena
Gong SS, Yang GT, Wang JM, Liu BM, Cheng XW, Xu JY, Wan WX (2002) Occurrence and characteristics of sporadic sodium layer observed by lidar at a mid-latitude location. J Atm Sol Ter Phys 64:1957–1966
Green HL and Lane WR (1957) Particulate clouds: dusts, smokes and mists. Their physics and physical chemistry and industrial and environmental aspects. Van Nostrand, Princeton
Griffithes RF, Latham J, Myers V (1974) The ionic conductivity of electrified clouds. Q J R Meteorol Soc 100:181–190
Griffiths AD, Parkes SD, Chambers SD, McCabe MF, Williams AG (2013) Improved mixing height monitoring through a combination of lidar and radon measurements. Atmos Meas Tech 6:207–218
Grimalsky VV, Hayakawa M, Ivchenko VN, Rapoport YuG, Zadoroznii VI (2003) Penetration of electrostatic field from the lithosphere into the ionosphere and its effect on the D-region before earthquake. JASTP 65(4):391–407
Gringel W, Rosen JM, Hoffman DJ (1986) Electrical structure from 0 up to 30 kilometers. The Earth’s Electrical Environment. National Academic Press, Washington D.C., pp 166–182
Hao J, Tang T, Li D (2000) Progress in the research of atmospheric electric field anomaly as an index for short-impending prediction of earthquakes. J Earthq Pred Res 8:241–255
Hata M, Takumi I, Yabashi S (1998) A Model of Earthquake Seen by Electromagnetic Observation, Proc. of European Geophysical Society XXIII General Assembly, Nice, France 20–24 April 1998. Annales Geophysicae, Supplement IV, 16: 1188
Hayakawa M (2015) Earthquake prediction with radio techniques. Wiley, Singapore Pte. Ltd.
Hegai VV, Kim VP (1990) The formation of a cavity in the night-time midlatitude ionospheric E-region above a thundercloud. Planet Space Sci 38:703–707
Hegai VV, Kim VP, Liu JY (2015) On a possible seismomagnetic effect in the topside ionosphere. Adv Space Res 56:1707–1713
Holzer RE (1972) Atmospheric electrical effects of nuclear explosions. J Geophys Res 77:5845–5855
Hoppel WA (1962) Electrode effect. Comparison of theory and measurement. Planet Electrodyn 2:167–181
Hoppel WA (1967) Theory of electrode effect. J Atmos Terr Phys 29:709–721
Hoppel WA, Anderson RV, Willett JC (1986) Atmospheric Electricity in the Planetary Boundary Layer, - in Studies in Geophysics. The Earth’s Electrical Environment. National Academy Press, Washington, D.C, pp 149–165
Hõrrak U (2001) Air ion mobility spectrum at a rural area. PhD Thesis. Tartu Ülikooli Kirjastuse trükikoda
Ilin NV, Slyunyaev NN, and Mareev EA (2020) Toward a realistic representation of global electric circuit generators in models of atmospheric dynamics. J Geophys Res Atmos 125:e2019JD032130. https://doi.org/10.1029/2019JD032130
Inan US, Bell TF, Helliwell RA (1978) Nonlinear pitch angle scattering of energetic electrons by coherent VLF waves in the magnetosphere. J Geophys Res 83:3235–3248
Kaimal JC, Finnigan JJ (1994) Atmospheric boundary layer flows: their structure and measurement. Oxford University Press, New York, NY
Kakinami Y, Kamogawa M, Liu J-Y, Watanabe S, Mogi T (2011) Ionospheric disturbance associated with radiation accidents of Fukushima I nuclear power plant damaged by the M9.0 2011 Tohoku Earthquake. Adv Space Res 48:1613–1616
Kelley MC (1989) The earth's ionosphere: plasma physics and electrodynamics. Academic Press Inc
Khegai VV (2020) Analytical model of a seismogenic electric field according to data of measurements in the surface layer of the Midlatitude atmosphere and calculation of its magnitude at the ionospheric level. Geomagn Aeron 60:507–520. https://doi.org/10.1134/S0016793220030081
Kikuchi H (2001) Electrohydrodynamics in dusty and dirty plasmas. Kluwer Academic Publishers, Dordrecht, The Netherlands, p 2001
Kim VP, Hegai VV, Illich-Svitych PV (1994) On the possibility of a metallic ion layer forming in the E-region of the night midlatitude ionosphere before great earthquakes. Geomag Aeron 33:658–662
Kim VP, Hegai VV, Nikiforova LI (1995) On the possible disturbance of the Night E-region of the ionosphere over the large scale tectonic fault. Phys Earth No 7:35–39
Kim VP, Hegai VV (1997) On possible changes in the midlatitude upper ionosphere before strong earthquakes. J Earthq Predict Res 6:275–280
Kim VP, Hegai VV (1999) A Possible presage of strong earthquakes in the night-time mid-latitude F2region ionosphere. In: Hayakawa M (ed) In atmospheric and ionospheric electromagnetic phenomena associated with earthquakes. Terra Scientific Publishing Company, Tokyo, pp 619–627
Kim VP, Pulinets SA, Hegai VV (2002) The theoretical model of the possible changes in the night-time midlatitude D-region of the ionosphere over the zone of strong earthquake preparation. Radiophys Quant Radiophys 45:289–296
Kim VP, Liu JY, Hegai VV (2012) Modeling the pre-earthquake electrostatic effect on the F region ionosphere. Adv Space Res 50:1524–1533
King BV, Freund F (1984) Surface charges and subsurface space charge distribution in magnesium oxide containing dissolved traces of water. Phys Rev B 29:5814–5824
Klimenko MV, Klimenko VV, Zakharenkova IE, Pulinets SA, Zhao B, Tzidilina MN (2011) Formation mechanism of great positive disturbances prior to wenchuan earthquake on May 12, 2008. Adv Space Res 48:488–499
Korepanov V, Hayakawa M, Yampolski Y, Lizunov G (2009) AGW as a seismo-ionospheric coupling responsible agent. Phys Chem Earth Parts a/b/c 34:485–495. https://doi.org/10.1016/j.pce.2008.07.014
Korsunova LP, Mikhailov YuM, Khegai VV, Leshchenko LN, Smirnov SE, Bogdanov VV (2010) Experimental evidence of the correlation between possible precursors of earthquakes in near-surface quasistatic electric fields and in the ionosphere. Geomag Aeron 50:920–926
Korsunova LP, Hegai VV, Mikhailov YuM, Smirnov SE (2013) Regularities in the manifestation of precursors earthquakes in the ionosphere and near-surface atmospheric electric fields in Kamchatka. Geomag Aeron 53:227–233
Korsunova LP, Hegai VV (2015) Effectiveness criteria for methods of identifying ionospheric earthquake precursors by parameters of a sporadic E layer and regular F2 layer. J Astron Space Sci 32:137–140
Kuo CL, Huba JD, Joyce G, Lee LC (2011) Ionosphere plasma bubbles and density variations induced by preearthquake rock currents and associated surface charges. J Geophys Res 116:A10317. https://doi.org/10.1029/2011JA016628
Kuo CL, Lee LC, Huba JD (2014), An improved coupling model for the lithosphere-atmosphere-ionosphere system. J Geophys Res Space Phys 119. https://doi.org/10.1002/2013JA019392
Leblanc F, Aplin KL, Yair Y, Harrison RG, Lebreton JP, Blanc M, Editors (2008) Planetary atmospheric electricity. Springer, Dordrecht, Boston, London
Lozansky ED, Firsov OB (1975) Spark theory. Atomizdat, Moscow, p 242
Maiorov SA, Tkachev AN, Yakovlenko SI (1994) Metastable supercooled plasma. Phys Uspekhi 164(3):S.297–307
Mareev EA (2010) Global electric circuit research: achievements and prospects. Physics- Uspekhi 53:504–511
Markson R (2007) The global circuit intensity: its measurement and variation over the last 50 years. Bull Am Meteorol Soc 88:223–241
McCormick RJ, Rodger CJ, Thomson NR (2002) Reconsidering the effectiveness of quasi-static thunderstorm electric fields for whistler duct formation. J Geophys Res 107:art.no.1396 NOV 2002
Moriya T, Mogi T, Takada M (2010) Anomalous pre-seismic transmission of VHF-band radio waves resulting from large earthquakes, and its statistical relationship to magnitude of impending earthquakes. Geophys J Int 180:858–870
Morozova LI (2014) Private communication
Mühleisen R (1958) The influence of water on the atmospheric electrical field. In: Recent advances in atmospheric electricity. Proceed. of the Second conference on atmospheric., Electricity, Mar 20–23, 1958, Portsmouth, NH, Pergamon Press, pp 213–221
Namgaladze AA, Zolotov OV, Prokhorov BE (2013) Numerical simulation of the variations in the total electron content of the ionosphere observed before the Haiti earthquake of January 12, 2010. Geomag Aeron 53:522–528
Nikiforova NN, Michnowski S (1995): Atmospheric electric field anomalies analysis during great Carpatian Earthquake at Polish Observatory Swider. IUGG XXI General Assembly Abstracts. Boulder, CO. VA11D-16
Nunn D (1971) A theory VLF emissions. Planet Space Sci 19:1141–1167
Oikonomou C, Haralambous H, Muslim B (2016) Investigation of ionospheric TEC precursors related to the M7.8 Nepal and M8.3 Chile earthquakes in 2015 based on spectral and statistical analysis. Nat Hazards 83:97–https://doi.org/10.1007/s11069-016-2409-7
Ondoh T, Marubashi K (eds) (2001) Science of space environment. IOS Press, Ohmsha, p 280
Park CG, Dejnakarintra M (1973) Penetration of thundercloud electric fields into the ionosphere and magnetosphere, 1. Middle and auroral latitudes. J Geophys Res 84:960–964
Park CG, Dejnakarintra M (1977) Thundercloud electric fields in the ionosphere. In: Dolezhalek H, Reiter R (eds) Electrical Processes in Atmospheres. Steinkopff, Darmstadt, pp 544–551
Pestova O, Pestov D, Shishenya A, Kupovykh G, Redin A, Klovo A (2014) Electrode layer structure generating under Radon-222 transfer across land-atmosphere interface. XV international conference on atmospheric electricity, 15-20 June 2014, Norman, OK. http://www.nssl.noaa.gov/users/mansell/icae2014/preprints/Pestova_215.pdf
Pierce ET (1976) Atmospheric electricity and earthquake prediction. Geophys Res Lett 3:185–188
Pierce ET, Whitson AL (1964) The variation of potential gradient with altitude above ground of high radioactivity. J Geophys Res 69:2895–2898
Pulinets SA (1989) Prospects of Topside Sounding. In: WITS handbook Vol 2, Liu CH ed., Chapter 3, SCOSTEP Publishing, Urbana, IL pp 99–127
Pulinets SA (2009) Physical mechanism of the vertical electric field generation over active tectonic faults. Adv Space Res 44:767–773
Pulinets SA, Legen'ka AD, Alekseev VA (1994) Pre-earthquakes effects and their possible mechanisms in “Dusty and Dirty Plasmas, Noise and Chaos in Space and in the Laboratory”. Plenum Publishing, New York, pp 545–557
Pulinets SA, Alekseev VA, Legen'ka AD, Khegai VV (1997) Radon and metallic aerosols emanation before strong earthquakes and their role in atmosphere and ionosphere modification, Adv Space Res, 20:2173–2176
Pulinets SA, Legen’ka AD, Zelenova TI (1998a) Local-time dependence of seismo-ionospheric variations at the f-layer maximum. Geomag Aeron 38:400–402
Pulinets SA, Khegai VV, Boyarchuk KA, Lomonosov AM (1998b) Atmospheric electric field as a source of ionospheric variability. Phys Usp 41:515–522
Pulinets SA, Kim VP, Hegai VV, Depuev VK, Radicella SM (1998c) Unusual longitude modification of the nighttime midlatitude F2 region ionosphere in July 1980 over the array of tectonic faults in the Andes area: observations and interpretation. Geophys Res Let 25:4143–4136
Pulinets SA, Boyarchuk KA, Khegai VV, Kim VP, Lomonosov AM (2000) Quasielectrostatic model of atmosphere-thermosphere-ionosphere coupling. Adv Space Res 26:1209–1218
Pulinets SA, Boyarchuk KA, Lomonosov AM, Khegai VV, Liu JY (2002) Ionospheric precursors to earthquakes: a preliminary analysis of the foF2 critical frequencies at chung-li ground-based station for vertical sounding of the ionosphere (Taiwan Island). Geomag Aeron 42:508–513
Pulinets SA, Boyarchuk KA (2004) Ionospheric precursors of earthquakes. Springer, Berlin, Germany, p 315
Pulinets SA, Contreras AL, Kostoglodov V, De Tejada HP, Urrutia-Fucugauchi J (2004) Prevention project: a complex geophysical observatory in Mexico as a test facility for lithosphere-atmosphere-ionosphere coupling models. Phys Chem Earth 29:657–662
Pulinets SA, Bondur VG, Tsidilina MN, Gaponova MV (2010) Verification of the concept of seismoionospheric relations under quiet heliogeomagnetic conditions, using the Wenchuan (China) Earthquake of May 12, 2008, as an example. Geomag Aeron 50:231–242
Pulinets S (2011) The synergy of earthquake precursors. Earthquake Sci 24:535–548
Pulinets S, Ouzounov D (2011) Lithosphere-Atmosphere-Ionosphere Coupling (LAIC) model—an unified concept for earthquake precursors validation. J Asian Earth Sci 41:371–382
Pulinets S, Davidenko D (2014) Ionospheric precursors of earthquakes and global electric circuit. Adv Space Res 53:709–723
Pulinets SA, Ouzounov DP, Davidenko DV (2014) Is earthquake forecasting possible?! Integral technologies of multiparameter monitoring of geoeffective phenomena in the framework of the complex model of the Earth’s Lithosphere–Atmosphere–Ionosphere Coupling, Moscow: Trovant, (in Russian)
Pulinets SA, Ouzounov DP, Karelin AV, Davidenko DV (2015) Physical bases of the generation of short-term earthquake precursors: a complex model of ionization-induced geophysical processes in the lithosphere–atmosphere–ionosphere–magnetosphere system. Geomag Aeron 55:540–558
Pulinets SA, Davidenko DV (2018) The nocturnal positive ionospheric anomaly of electron density as a short-term earthquake precursor and the possible physical mechanism of its formation. Geomag Aeron 58:559–570. https://doi.org/10.1134/S0016793218040126
Pulinets S, Ouzounov D, Karelin A, and Davidenko D (2018) Lithosphere–atmosphere–ionosphere–magnetosphere coupling—a concept for pre‐earthquake signals generation in: pre‐earthquake processes: a multidisciplinary approach to earthquake prediction studies, Eds Dimitar Ouzounov, Sergey Pulinets, Katsumi Hattori, Patrick Taylor. AGU/Wiley, pp 77–98. https://doi.org/10.1002/9781119156949.ch6
Pulinets S, Ouzounov D (2018) The possibility of earthquake forecasting. Learning from Nature. IOP Publishing, Bristol, https://iopscience.iop.org/book/978-0-7503-1248-6
Rapoport Yu, Grimalsky V, Krankowski A, Pulinets S, Fedorenko A, Petrishchevskii S (2019) Algorithm for modeling electromagnetic channel of seismo-ionospheric coupling (SIC) and the variations in the electron concentration. Acta Geophysica. 68:253–278. https://doi.org/10.1007/s11600-019-00385-0
Redin AA, Klovo AG, Kypovykh GV, Morozov VN (2010) Generation of Volumetric charge near the ground surface taking into account interaction of aerosol particles with aero-ions. Natural Sciences. Physics of Atmosphere. Izvestiya of Tertiary Education Institutions. Northern Caucasus Region, pp 81–85
Redin A, Kupovykh G, Kudrinskaya T, Boldyreff A (2014) Surface layer electrodynamic structure under severe aerosol pollution. XV International conference on atmospheric electricity, 15-20 June 2014, Norman, OKP-07-11. 6 p. http://www.nssl.noaa.gov/users/mansell/icae2014/preprints/Redin_231.pdf
Rees MH (1963) Auroral ionization and excitation by incident energetic electrons. Planet Space Sci 11:1209–1218
Roberts CS (1969) Pitch-angle diffusion of electrons in the magnetosphere. Rev Geophys Space Phys 7:305–337
Roble RG (1991) On modeling component processes in the Earth’s global electric circuit. J Atmos Terr Phys 53:831–847
Roble RG, Tzur I (1986) The Global Atmospheric-Electrical Circuit. The Earth’s Electrical Environment. Studies in Geophysics series, National Academy Press, Washington D.C., pp 206–231
Rodger CJ, Thomson NR, Dowden RL (1998) Testing the formulation of Park and Dejnakarintra to calculate thunderstorm dc electric fields. J Geophys Res 103:2171–2178
Rozhnoi A, Solovieva M, Molchanov O, Schwingenschuh K, Boudjada M, Biagi PF, Maggipinto T, Castellana L, Ermini A, Hayakawa M (2009) Anomalies in VLF radio signals prior the Abruzzo earthquake (M=6.3) on 6 April 2009. Nat Hazards Earth Syst Sci 9:1727–1732
Rulenko OP (2000) Operative Precursors of Earthquakes in the Near-Ground Atmosphere Electricity. Volcanology and Seismology 4:57–68
Rulenko OP (2001) Immediate earthquake precursors in near-ground atmospheric electricity. Volcanol Seismol 22:435–451
Rundle JB, Turcotte DL, Klein W (eds) (2000) GeoComplexity and the physics of earthquakes. Geophysical Monographs series, American Geophysical Union, Washington DC
Rycroft MJ, Odzimek A, Arnold NF, Fullekrug M, Kulak A, Neubert T (2007) New model simulations of the global atmospheric electric circuit driven by thunderstorms and electrified shower clouds: the roles of lightning and sprites. JASTP 69:2485–2509
Rycroft MJ, Nicoll KA, Aplin KL, Harrison RG (2012) Recent advances in global electric circuit coupling between the space environment and the troposphere. J Atmos Sol Terr Phys 90–91:198–211
Ryu K, Parrot M, Kim SG, Jeong KS, Chae JS, Pulinets S, Oyama K-I (2014) Suspected seismo-ionospheric coupling observed by satellite measurements and GPS TEC related to the M7.9 Wenchuan earthquake of 12 May 2008. J Geophys Res Space Phys 119:10305–10323
Sagalyn RC, Burke HK, Fitzgerald DR (1985) Atmospheric electricity Chapter 20 in Handbook of geophysics and the space environment. Jursa AS Sci. Ed. Air Force Geophysics Laboratory Air Force Systems Command. United States Air Force. Document Accession Number: ADA 167000
Sauvaud JA, Moreau T, Maggiolo R, Treilhou J-P, Jacquey C, Cros A, Coutelier J, Rouzaud J, Penou E, Gangloff M (2006) High-energy electron detection onboard DEMETER: the IDP spectrometer, description and first results on the inner belt. Planet Space Sci 54:502–511
Schunk RW (1988) A mathematical model of the middle and high latitude ionosphere. Pure Appl Geophys 127:255–303
Shamansky YuV (2003) Global and local variations of the electric field. Proceedings of the Fifth Russian conference on atmospheric electricity. Vladimir: Publishing House of Vl.SU, vol 1, pp 46–49
Shklyar DR, Nagano I (1998) On VLF wave scattering in plasma with density irregularities. J Geophys Res 103:29515–29526
Sidiropoulos NF, Anagnostopoulos G, Rigas V (2011) Comparative study on earthquake and ground based transmitter induced radiation belt electron precipitation at middle latitudes. Nat Hazards Earth Syst Sci 11:1901–1913
Slyunyaev NN, Mareev EA, and Zhidkov AA (2015) On the variation of the ionospheric potential due to large-scale radioactivity enhancement and solar activity. J Geophys Res Space Phys 120:7060–7082. https://doi.org/10.1002/2015JA021039.
Smirnov VV Ionization in troposphere (1992) Gidrometeoizdat Publ., St Petersburg (in Russian)
Smythe WR (1939) Static and dynamic electricity. McGraw-Hill Book Co., Inc
Solovyov VA (1941) Experiments on the atmosphere ionization by the X-rays. Meteorol Hydrol No. 3:19–30
Sorokin VM, Chmyrev VM, Yaschenko AK (2001) Electrodynamic model of the lower atmosphere and the ionosphere. JASTP 63:681–1691
Sorokin VM (2007) Plasma and Electromagnetic Effects in the Ionosphere Related to the Dynamics of Charged Aerosols in the Lower Atmosphere. Russian Journal of Physical Chemistry B 1:138–170
Sorokin V, Hayakawa M (2013) Generation of seismic-related DC electric fields and lithosphere–atmosphere–ionosphere coupling. Mod Appl Sci 7:1–25
Sounders C (2008) Charge separation mechanisms in clouds. Space Sci Rev 137:335–353
Stakhanov IP (1979) The physical nature of the ball lightning. Atomizdat, Moscow, p 240
Stull RB (ed) (1988) An introduction to boundary layer meteorology. Kluwer Academic, Dordrecht, Boston, London, p 667
Stull R. (2015) Atmospheric boundary layer. Ch. 18 in Practical Meteorology: an Algebra-based Survey of Atmospheric Science. University of British Columbia Publishing, pp 687–722
Svensmark H, Friis-Christensen E (1997) Variation of cosmic ray flux and global cloud coverage—a missing link in solar-climate relationships. J Atm Solar-Terr Phys 59:1225–1232
Svensmark H, Pedersen JOP, Marsch ND, Enghoff MB, Uggerhøj UI (2007) Experimental evidence for the role of ions in particle nucleation under atmospheric conditions. Proc R Soc A 463:385–396
Takeda M, Yamauchi M, Makino M, Owada T (2011) Initial effect of the Fukushima Accident on atmospheric electricity. Geophys Res Lett 38:L15811. https://doi.org/10.1029/2011/2011GL048511
Tertyshnikov AV, Vazhenin AA (2012) The anomalous 5-days variations of aerosol optical thickness over the seismic-prone regions before strong crust earthquakes. Heliogeophys Res 2:33–39 (in Russian)
Thomas H, Morfill GE, Demmel V, Goree J (1994) Plasma crystal: coulomb crystallization in a dusty plasma. Phys Rev Lett 73:652–655
Titova MA, Zakharov VI, Pulinets SA (2019) Detection of ionospheric disturbances over the region of Haiti Island for period of January 1–15, 2010, according to GPS data in quiet geomagnetic conditions. Geomag Aeron 59:743–751. https://doi.org/10.1134/S0016793219060136
Titova MA, Zakharov VI, Pulinets SA (2021) Recognition and interpretation of the spatial irregularities in ionosphere for February—March 2010 over the seismic zones of South America by radiophysical methods. Radio Commun Technol. Issue 1(48):07–23. https://doi.org/10.33286/2075-8693-2021-48-07-23
Tributsch H (1978) Do aerosol anomalies precede earthquake? Nature 276:606–608
Tsukuda T (1997) Size and some features of luminous sources associated with the 1995 Hyogo-ken Nanbu earthquake. J Phys Earth 45:73–82
Tzur I, Roble RG (1985) The interaction of a dipolar thunderstorm with its global electrical environment. J Geophys Res 90:5989–5999
Vampola AL, Kuck GA (1978) Induced precipitation of inner zone electrons 1. Observations J Geophys Res 83:2543–2551
Vinuesa J-F, Basu S, Galmarini S (2007) The diurnal evolution of 222Rn and its progeny in the atmospheric boundary layer during the Wangara experiment. Atmos Chem Phys 7:5003–5019
Vonnegut B (1953) Possible mechanism for the formation of thunderstorm electricity. Bull Amer Meteor Soc 34:378–381
Voronov SA, Galper AM, Koldashev SV, Maslennikov LV, Mikhailov VV, Nikitina NV, Popov AV (1990) The increase of charged particles of high energy fluxes in the area of Brazilian anomaly and the Earth’s seismicity. Cosmic Res 28:789–791
Williams ER (2009) The global electrical circuit: a review. Atmos Res 91:140–152
Wilson CTR (1920) Investigations on lightning discharges and on the electric field of thunderstorms. Phil Trans Roy Soc Lond A 221:73–115
Yakovlenko SI (1995) Metastable plasma of hydrated ions. Russ Phys J 38:3–10
Zatsepina GN (1998) Physical properties and structure of water. M.: Publishing House of Moscow State University
Zolotov OV (2015) Earthquake effects in variations of total electron content, PhD Thesis, St Petersburg
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Pulinets, S., Ouzounov, D., Karelin, A., Boyarchuk, K. (2022). Earthquake Precursors in the Ionosphere. In: Earthquake Precursors in the Atmosphere and Ionosphere. Springer, Dordrecht. https://doi.org/10.1007/978-94-024-2172-9_3
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