The role of sun activity variations in condition changes of subpolar ozonosphere during spring

Authors

  • Александр Вадимович Холопцев Sevastopol Maritime Academy,
  • Мария Павловна Никифорова Sevastopol Maritime Academy st. Rybakov 7, g Sevastopol, 99055,

DOI:

https://doi.org/10.15587/2313-8416.2015.39146

Keywords:

total ozone amount, sun activity, ozone hole, correlation, Arctic, Antarctic

Abstract

The influence of sun activity variations on interannual distribution changes of total ozone amount over North and South hemispheres subpolar regions in different months was studied. It was established, that in springtime this influence is maximal. Correlation of studied processes in this time of year is significant and positive. The sun activity role in subpolar ozonosphere changes was revealed

Author Biographies

Александр Вадимович Холопцев, Sevastopol Maritime Academy

Professor, Doctor of Geographical Sciences

member of the Crimean Academy of Sciences and the Polish Academy of Sciences (Committee on Meteorology and Agroclimatology)

Navigation faculty

 

Scopus profile: link

GoogleScholar profile: link

ID ORCID: http://orcid.org/0000-0002-8293-0062

Professional (scientific) interests: physical geography, climatology

 

Selected Publications:

1. Kholopcev, A. V., Bol'shih, A. V. (2014). Tendencii izmenenij srednemesjachnyh znachenij poverhnostnyh temperatur atlanticheskogo okeana v nachale HHI veka. Ljudina ta dovkіllja. Problemi neoekologіi,1-2, 62‑69.

2. Kholopcev, A. V., Parubec, O. V. (2014). Prognozirovanie klimaticheskih norm srednegodovyh temperatur prizemnogo sloja atmosfery na Juzhnom beregu Kryma s ispol'zovaniem metoda mnozhestvennoj regressii. Issledovanija v oblasti estestvennyh nauk, 8.

3. Kholopcev, A. V., Bol'shih, A. V. (2014). Mezhgodovye izmenenija sostojanij arkticheskogo i severoatlanticheskogo kolebanij kak faktory variacij oso v zemnoj atmosphere. Vіsnik HNU іmenі V. N. Karazіna, Serіja «Ekologіja», 1104 (10), 46‑54.

4. Kholopcev, A. V., Nikiforova, M. P. (2012). Izmenenija raspredelenija srednegodovyh temperatur poverhnosti Atlanticheskogo okeana pri sovremennom poteplenii klimata. Ljudina ta dovkіllja. Problemi neoekologіi, 3-4, 36‑48.

5. Kholopcev, A. V., Burakova, A. V., Sevrikov, V. V. (2008). O vozmozhnostjah ispol'zovanija metoda trianguljacii Delone pri jekstrapoljacii znachenij srednemesjachnyh temperatur prizemnogo sloja atmosfery nad razlichnymi punktami na territorii Ukrainy. Kul'tura narodov Prichernomor'ja, 155‑159.

6. Kholopcev, A. V., Shilovskaja, Ju. E. (2013). Svjazi prostranstvenno-vremennoj izmenchivosti poverhnostnyh temperatur okeanicheskih akvatorij, a takzhe temperatur vozduha i modulja skorosti vetra v prizemnom sloe atmosfery, nad zonami ih vlijanija. Vіsnik ONU. Ser.: Geografіchnі ta geologіchnі nauki, 18/2(18), 61 72.

7. Kholopcev, A. V.The approximate forecast of winter temperatures in Crimean mountains with accounting the suboptimal set of factors. ScienceRise, . 4/1 (4), 37‑46. doi: 10.15587/2313-8416.2014.28595

 

Мария Павловна Никифорова, Sevastopol Maritime Academy st. Rybakov 7, g Sevastopol, 99055

Candidate of geographical sciences, senior lecturer

Navigation and Maritime Safety department

References

Aleksandrov, E. L., Izrael, Y. A., Karol, I. L., Hrgian, A. H. (1992). Ozone shield Earth and its changes. SPb. Gidrometeoizdat, 288.

Ivanov-Kholodny, G. S., Tsushin, A. A. (1987). Shortwave solar radiation and its effects on the upper atmosphere and ionosphere. Moscow:VINITI, Space exploration. The results of science and technology. Sat. scientific. tr., 26, 80–154.

Douglass, A. R., Newman, P. A., Solomon, S. (2014). The Antarctic ozone hole: An update. Physics Today, 67 (7), 42–48. doi: 10.1063/pt.3.2449

Kapitsa, P., Gavrilov, A. A. (1999). Confirmation of the hypothesis of a natural origin of the Antarctic ozone hole. DAN USSR, 366 (4), 543–546.

Farman, J. C., Gardiner, B. G., Shanklin, J. D. (1985). Large losses of total ozone in Antarctica reveal seasonal ClOx/NOx interaction. Nature, 315 (6016), 207. doi: 10.1038/315207a0

Manney, G. L. et. al. (2011). Unprecedented Arctic ozone loss in 2011. Nature, 12, 9. doi: 10.1038/nature10556

Bekoryukov, V. I. (2009). Long-term changes in global ozone // Izvestiya RAN, Physics of the atmosphere and ocean, 45 (5), 607–616.

Vitinskii, Y. I., Kopecky, M. A., Kuklin, G. V. (1986). Statistics sunspot. Moscow: Nauka, 201.

Dessler (2000). The Chemistry and Physics of Stratospheric Ozone. N-Y and L, Academic Press, 214.

Dobson. G. M. B. (1968). 40 Years Research on Atmospheric Ozone at Oxford – A History. Applied Optics, 7 (3), 387–405. doi: 10.1364/ao.7.000387

Fesenkov, V. G. (1934) Determining the equivalent thickness of the atmospheric ozone produced in Kupcino. Reports of the USSR Academy of Sciences, 2 (8), 448–449.

Database on Total ozone changes. Available at: http://www.woudc.org

Database on Wolf index changes. Available at: http://www.gao.spb.ru/database/esai

Kobzar (2006). Applied Mathematical Statistics. Moscow: FIZMATLIT, 816.

Skvortsov, V. (2002). Delaunay triangulation and its application. Tomsk. Publishing House of Tomsk State University, 128.

Published

2015-03-22

Issue

Section

Geological and geographical sciences