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BY 4.0 license Open Access Published by De Gruyter Open Access August 28, 2020

Some kinematics of halo coronal mass ejections

  • Virendra Kumar Verma , Nishant Mittal EMAIL logo and Ramesh Chandra
From the journal Open Astronomy

Abstract

We present an investigation of halo coronal mass ejections (HCMEs) kinematics and other facts about the HCMEs. The study of HCMEs is very important because HCMEs are regarded as the main causes of heliospheric and geomagnetic disturbances. In this study, we have investigated 313 HCMEs observed during 1996-2012 by LASCO, coronal holes, and solar flares. We find that HCMEs are of two types: accelerated HCMEs and decelerated HCMEs. The mean space speed of HCMEs is 1283 km/s while the mean speed of decelerated HCMEs and accelerated HCMEs is 1349 km/s and 1174 km/s, respectively. The investigation shows that 1 (0.3%) HCME was associated with class A SXR, 14 (4.7%) HCMEs were associated with class B SXR-flares, 87 (29.4%) HCMEs were associated with class C SXR-flares, 125 (42.2%) HCMEs were associated with class M SXR-flares and 69 (23.3%) HCMEs were associated with class X SXR-flares. The speed of HCMEs increases with the importance of solar SXR-flares. The various results obtained in the present analysis are discussed in the light of the existing scenario of heliospheric physics.

References

Andrews MD. 2002. The front-to-back asymmetry of coronal emission. Sol Phys. 208(2):317–324.Search in Google Scholar

Brueckner GE, Howard RA, Koomen MJ, Korendyke CM, Michels DJ, Moses JD, et al. 1995. The Large Angle Spectroscopic Corona-graph (LASCO). Sol Phys. 162(1-2):357–402.10.1007/BF00733434Search in Google Scholar

Chen J, Krall J. 2003. Acceleration of coronal mass ejections. J Geophys Res. 108(A11):1410.10.1029/2003JA009849Search in Google Scholar

Chen PF. 2011. Coronal Mass Ejections: models and their observational basis. Living Rev Sol Phys. 8:1. DOI: https://doi.org/10.12942/lrsp-2011-110.12942/lrsp-2011-1Search in Google Scholar

Feinstein VG, Egorov YaI, Zagainova YuS. 2018. Kinematics of CMEs and related shocks from LASCO data: Comparative analysis. J Atmos Sol Terr Phys. 179:538-544.10.1016/j.jastp.2018.09.003Search in Google Scholar

Gopalswamy N. 2004, A global picture of CMEs in the inner heliosphere. In: Poletto G, Suess ST, Editors. The Sun and the Heliosphere as an Integrated System. Astrophysics and Space Science Library, Vol 317. Springer, Dordrecht, p. 201-251.Search in Google Scholar

Gopalswamy N, Akiyama S, Yashiro S, Makela P. 2010a. Coronal mass ejections from sunspot and non-sunspot regions. In: Hasan SS, Rutten RJ, Editors. The Magnetic coupling between the interior and the atmosphere of the Sun. Springer, Berlin, Heidelberg, p. 289-307.Search in Google Scholar

Gopalswamy N, Yashiro S, Michalek G, Xie H, Mäkelä P, Vourlidas A, Howard RA. 2010b. Catalog of Halo Coronal Mass Ejections from SOHO. Sun Geosph. 5(1):7-16.Search in Google Scholar

Gosling JT, Hildner E, MacQueen RM, Munro RH, Poland AI, Ross CL. The speeds of coronal mass ejection events. Sol Phys. 1976;48(2):389–397.10.1007/BF00152004Search in Google Scholar

Gosling JT. 1997. Coronal mass ejections: An overview. Crooker N, Joselyn JA, Feynman J. Editors. Washington, AGU: Geophys. Monogr. Ser. 99:9–16. DOI: 10.1029/GM099p0009.10.1029/GM099p0009Search in Google Scholar

Howard RA, Brueckner GE, St. Cyr OC, Biesecker DA, Dere KP, Koomen MJ, et al. 1997. Observations of CMEs from SOHO/LASCO. Crooker N, Joselyn JA, Feynman J. Editors. Washington, AGU: Geophys. Monogr. Ser. 99:17–26. DOI: 10.1029/GM099p0017.10.1029/GM099p0017Search in Google Scholar

Hundhausen AJ. 1999. Coronal Mass Ejections. In: Strong KT, Saba, JLR, Haisch BM, Schmelz JT. Editors. The many faces of the Sun. New York: Springer, p. 143–200.Search in Google Scholar

Komitov, B., Duchlev, P., Penev, K., Koleva, K., Dechev, M. 2010. The sub- and quasi- centurial cycles in solar and geomagnetical data series /(s2). Available from: arXiv.org, 1007.3143Search in Google Scholar

Low BC, Zhang M. 2002. The Hydromagnetic Origin of the Two Dynamical Types of Solar Coronal Mass Ejections. ApJ. 2002;564(1):L53–L56.10.1086/338798Search in Google Scholar

Michalek G, Gopalswamy N, Yashiro Y. 2019. On the Coronal Mass Ejection Detection Rate during Solar Cycles 23 and 24. ApJ. 880(1):51.Search in Google Scholar

Moon Y-J, Choe GS, Wang H, Park YD, Gopalswamy N, Yang G, et al. 2002. Statistical Study of Two Classes of Coronal Mass Ejections. ApJ. 581(1):694–702.Search in Google Scholar

Reeves KR, Torok T, Mikic Z, Linker J, Murphy NA. 2019. Exploring Plasma Heating in the Current Sheet Region in a Three-dimensional Coronal Mass Ejection Simulation. ApJ. 887(1):103.Search in Google Scholar

Sheeley NJ Jr, Watter JH, Wang YM, Howard RA. 1999. Continuous tracking of coronal outflows: two kinds of coronal mass ejections. J Geophys Res. 104(A11):24739–24767.10.1029/1999JA900308Search in Google Scholar

Verma VK, Pande MC. 1989. On the association between coronal mass ejections and coronal holes, Proceedings of IAU Colloq. 104” Solar and Stellar Flares” (Poster Papers), Stanford University, Stanford, USA, p.23910.1017/S0252921100154259Search in Google Scholar

Verma VK. 1992. Coronal mass ejections and their associations with solar flares and coronal holes. Indian J Radio Space Phys. 21(1):64–69.Search in Google Scholar

Verma VK. 1998. Journal of Indian Geophysical Union. 2:65.10.1007/BF02761153Search in Google Scholar

Verma VK. 2002, Coronal mass ejections: Relationship with solar flares and coronal holes, In: Martens PCH, Cauffman D. Editors. Multi-Wavelength Observations of Coronal Structure and Dynamics, COSPAR Colloquia Series, Elsevier Science Ltd, 13, p. 319-320.Search in Google Scholar

Verma VK. 2011. Relationship of great soft X-ray flares with other solar activity phenomena. Astrophys Space Sci. 334(1):83–102.Search in Google Scholar

Verma VK, Mittal N. 2019. On the origin of solar halo coronal mass ejections. Astron Lett. 45(3):164–176.10.1134/S106377371903006XSearch in Google Scholar

Webb DF, Howard TA. 2012. Coronal mass ejections: observations. Living Rev Sol Phys. 9:3.10.12942/lrsp-2012-3Search in Google Scholar

Webb DF. 2002, CMEs and the solar cycle variation in their Geoeffectiveness. In: Wilson A. Editor. Proceedings of the SOHO 11 Symposium, ESA Publication, p. 409.Search in Google Scholar

Xie H, Ofman L, Lawrence G. 2004. Cone model for halo CMEs: Application to space weather forecasting. J Geophys Res. 109(A3):A03109.10.1029/2003JA010226Search in Google Scholar

Yashiro S, Gopalswamy N, Michalek G, St Cyr OC, Plunkett SP, Rich NB, et al. 2004. A catalog of white light coronal mass ejections observed by the SOHO spacecraft. J Geophys Res. 109(A7):7105.10.1029/2003JA010282Search in Google Scholar

Yurchyshyn V, Yashiro S, Abramenko V, Wang H, Gopalswamy N. 2005. Statistical distributions of speeds of coronal mass ejections. ApJ. 619(1):599–603.Search in Google Scholar

Zagainova YuS, Fainshtein VG. 2015. How do fast impulse CMEs related to powerful flares but unrelated to eruptive filaments appear and move? Adv Space Res. 55(3):822–834.10.1016/j.asr.2014.05.032Search in Google Scholar

Zhang QM, Guo Y, Chen PF, Ding MD, Fang C. 2010. Why are halo coronal mass ejections faster? J. Res. Astron. Astrophys. 10(5):461–472.Search in Google Scholar

Received: 2019-12-06
Accepted: 2020-05-20
Published Online: 2020-08-28

© 2020 Virendra Kumar Verma et al., published by De Gruyter

This work is licensed under the Creative Commons Attribution 4.0 International License.

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