FEATURES OF SUSPENDED MATTER DISTRIBUTION AT THE ATMOSPHERE-WATER BOUNDARY IN THE ATLANTIC AND SOUTHERN OCEANS
Abstract and keywords
Abstract (English):
The new results of studying the particle size distribution of aerosol, suspended matter and organic compounds in the suspended matter of surface waters of the South and Atlantic Oceans along the Africa-Antarctic-Southern America-English Channel route are presented. The measurements show that the fraction of 0-3 µm prevails in the particle size distribution of aerosols. The maximum amount of aerosols was found in the coastal regions of Europe (on average 29,353 p/L), and the minimum - in the coastal regions of Antarctica (on average 5197 p/L), that is due to the Antarctic ice cover on the continent. In surface waters, the distribution of suspended particulate matter and organic matter in it is mainly influenced by the frontal zones. In the Antarctic region, the development of phytoplankton at the ice - water interface in the surface water layer leads to an increase in the concentrations of suspended particulate matter and chlorophyll a and, to a lesser extent, of lipids and hydrocarbons. In the open waters of the arid oceanic zones, the influx of aerosols from the atmosphere has the most significant effect on the formation of suspended matter and organic matter in surface waters in comparison with the another parts of the oceans.

Keywords:
Aerosols, surface water, suspended particulate matter, organic matter, 𝐶org, chlorophyll a; lipids, hydrocarbons
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References

1. Afeti, G. M., F. J. Resch (2000), Physical characteristics of Saharan dust near The Gulf of Guinea, Atmospheric Env., 34, 1273-1279, Crossref

2. Anglada, J. M., et al. (2020), Photoinduced Oxidation Reactions at the Air-Water Interface, J. Am. Chem. Soc., 142, 16,140-16,155, Crossref

3. Antipov, N. N., A. v. Klepikov (2011), Thermal structure of upper layer of an ocean between Africa and Antarctica according to the oceanographic data of the Arctic and Antarctic Research Institute (Russia) of 2004-2010, Input of Russia to the International Polar Year 2007/08, Oceanography and Marine Ice, I. E. Frolov (Ed.) p. 280-290, Paulsen, Moscow. (in Russian)

4. Antipov, N. N., A. I. Danilov, A. v. Klepikov (2014), Studies of the Southern Ocean within AARI Research Programs: From the «Poleks-Yug» Program, Probl. Arkt. Antarkt., 1, 65-85. (in Russian)

5. Arar, J., G. B. Collins (1997), Method 445.0. In vitro Determination of Chlorophyll «a» and Pheophytin «a» in Marine and Fresh water Algae by Fluorescence, Revision 1.2, U. S. Environmental Protection Agency, Cincinnati

6. Brimblecombe, P., R. v. Martin, et al. (2020), Factors controlling marine aerosol size distributions and their climate effects over the Northwest Atlantic Ocean region, Atmos. Chem. Phys. Discuss., 21, 1889-1916, Crossref

7. Butler, R. N., A. G. Coyne (2016), Organic synthesis reactions on-water at the organic-liquid water interface, Org. Biomol. Chem., 14, 9945-9960, Crossref

8. Cabos, W., D. v. Sein, et al. (2017), The South Atlantic Anticyclone as a key player for the representation of the tropical Atlantic climate in coupled climate models, Climate Dynamics, 48, 4051-4069, Crossref

9. Croft, B., R. v. Martin, et al. (2020), Factors controlling marine aerosol size distributions and their climate effects over the Northwest Atlantic Ocean region, Atmos. Chem. Phys. Discuss., 8, Crossref

10. Deacon, G. E. R. (1982), Physical and biological zonation in the Southern Ocean, Deep-Sea Res., 29, 1-15, Crossref

11. Demidov, A. B., v. I. Vedernikov, S. v. Sheberstov (2007), Spatiotemporal variability of chlorophyll a in the Atlantic and Indian sectors of the Southern Ocean during February-April of 2000 according to satellite and expeditionary data, Oceanology (Engl. Transl.), 47, 507-518, Crossref

12. Diaz, M. A., B. J. Adams, et al. (2018), Aeolian material transport and its role in landscape connectivity in the McMurdo Dry Valleys, Antarctica, J. Geoph. Res. Earth Surface, 123, 3323-3337, Crossref

13. Gogou, A. I., M. Apostolaki, E. G. Stephanou (1998), Determination of organic molecular markers in marine aerosols and sediments: one-step flash chromatography compound class fractionation and capillary gas chromatographic analysis, J. Chromatography, 799, 215-231, Crossref

14. Golobokova, L. P., v. V. Polkin, et al. (2016), Chemical composition of aerosol in the near-ground layer of the coastal zone of East Antarctica, Ice and Snow, 56, 177-188, (in Russian)Crossref

15. Gooseff, M. N., A. E. Blum, et al. (2002), Weathering reactions and hyporheic exchange controls on stream water chemistry in a glacial meltwater stream in the McMurdo Dry Valleys, Water Resources Research, 38, No. 12, 1279, Crossref

16. Goudie, A. S., N. J. Middleton (2001), Saharan dust storms: nature and consequences, Earth-Science Reviews, 56, 179-204, Crossref

17. Haywood, J., P. Francis, et al. (2003), Radiative properties and direct radiative effect of Saharan dust measured by the C-130 aircraft during SHADE: 1. Solar spectrum, J. Geophys. Res., 108, No. D18, 8577, Crossref

18. Ivlev, L. S., Yu. A. Dovgalyuk (1999), Physics of Atmospheric Aerosol Systems, 256 pp. SPbSU, S.-Pb

19. Klemas, v. , X.-H. Yan (2014), Subsurface and Deeper Ocean Remote Sensing from Satellites: An Overview and New Results, Progress in Oceanography, 122, 1-9, Crossref

20. Klyuvitkin, A. A. (2008), Atmospheric aerosols and sedimentation in arid zones of the Atlantic Ocean, Dokl. Earth Sci., 421, 848-852, Crossref

21. Korshenko, A., (Ed.) (2019), Marine Water Pollution. Annual Report 2018, 190 pp. Nauka, Moscow. (in Russian)

22. Lappo, S. S., S. K. Gulev, et al. (2003), North Atlantic and its influence on the climate of Europe, Actual Problems of Oceanology p. 8-59, Nauka, Moscow. (in Russian)

23. Laurent, B., B. Marticorena, et al. (2008), Modeling mineral dust emissions from the Sahara desert using new surface properties and soil database, J. Geophys. Res., 113, No. D14218, 1-20, Crossref

24. Lisitzin, A. P. (2014), Modern concepts of sedimentation in the oceans and seas. Ocean as a natural recorder of geospheres’ interaction, The World Ocean, Lobkovsky, L. I. et al. (Eds.), v. 2 p. 331- 571, Nauchnyi Mir, Moscow. (in Russian)

25. Lisitzin, A. P., A. A. Klyuvitkin, et al. (2016), Distribution and composition of suspended particulate matter in the Atlantic ocean: direct measurements and satellite data, Doklady Earth Sciences, 466, 221-224, Crossref

26. Lohmann, R., I. M. Belkin (2014), Organic pollutions and ocean fronts across the Atlantic ocean: A review, Progress in Oceanography, 128, 172-184, Crossref

27. Lohmann, R., J. Klanova, et al. (2013), PAHs on a West-to-East Transect Across the Tropical Atlantic Ocean, Environ. Sci. Technol., 47, 2570-2578

28. Lukashin, V. N., A. B. Isaeva, et al. (2002), The geochemistry of sedimentary matter and particle fluxes in the Eastern Equatorial Atlantic, Geochem. Int., 40, 306-318

29. Maslennikov, V. V. (2003), Climatic Fluctuations and Marine Ecosystem of Antarctic, VNIRO, Moscow. (in Russian)

30. Massel, S. R. (2007), Fundamentals of marine aerosols, Ocean Waves Breaking and Marine Aerosol Fluxes. Atmospheric and Oceanographic Sciences Library, 38 p. 207-228, Springer, New York. Crossref

31. Mitra, A., C. Sharma (2002), Indian aerosols: present status, Chemosphere, 49, 1175-1190, Crossref

32. Mitra, B., S. A. Papuga, et al. (2020), Allometric relationships between primary size measures and sapwood area for six common tree species in snow-dependent ecosystems in the Southwest United States, J. For. Res., 31, 2171-2180, Crossref

33. Monin, A. S., V. V. Gordeev (1988), Amazonia, 216 pp. Nauka, Moscow. (in Russian)

34. Na, G., Y. Gao, et al. (2020), Occurrence and sources of polycyclic aromatic hydrocarbons in atmosphere and soil from 2013 to 2019 in the Fildes Peninsula, Antarctica. Mar. Pol. Bul., 156, 111- 173, Crossref

35. Nemirovskaya, I. A. (2006), Organic Compounds in the Snow-Ice Cover of Eastern Antarctica, Geochem. Int., 8, 825-834, Crossref

36. Nemirovskaya, I. A. (2013), Oil in Ocean, Pollution and Natural Fluxes, 343 pp. Nauchnyi Mir, Moscow. (in Russian)

37. Nemirovskaya, I. A. (2017), Sedimentary matter and organic compounds in the aerosols and surface waters along the Transatlantic section, Geochem. Int., 55, 367-379, Crossref

38. Nemirovskaya, I. A., V. A. Artem’ev (2013), Partic- ulate matter and components of the organic substance in the surface waters of the Southern and Atlantic oceans, Oceanology (Engl. Transl.), 53, 36-46, Crossref

39. Nemirovskaya, I. A., V. P. Shevchenko (2020), Organic Compounds and Suspended Particulate Matter in Snow of High Latitude Areas (Arctic and Antarctic), Atmosphere, 11, No. 928, 1-23, Crossref

40. Nemirovskaya, I. A., A. M. Titova (2018), Exchange of Suspended Matter and Organic Compounds at the Water Atmosphere Boundary in Indian and Atlantic Oceans, J. Environ. Sci. Nat. Res., 10, No. 3, 1-3, Crossref

41. Nemirovskaya, I. A., A. M. Titova (2019), Peculiarities of the distribution of suspended matter on the water - atmosphere geochemical barrier on the transoceanic sections, Oceanology, 59, 558-568, Crossref

42. Nemirovskaya, I. A., et al. (2013), Variability of suspended matter and organic compounds in surface waters of the Atlantic and Southern oceans according to the materials of the 57th Russian Antarctic Expe- dition, Probl. Arkt. Antarkt., 1, No. 95, 31-43. (in Russian)

43. Orsi, A., H. I. Whitworth, W. D. Nowlin, Jr. (1995), On the meridional extent and fronts of the Antarc- tic Circumpolar Current, Deep Sea Res., Part I, 42, 641-673, Crossref

44. Pedrosa-Pamiesa, R., M. H. Conte, et al. (2018), Carbon cycling in the Sargasso Sea water column: Insights from lipid biomarkers in suspended particles, Progress in Oceanography, 168, 248-278, Crossref

45. Politova, N. V., V. A. Artem’ev, V. V. Zernova (2015), Distribution and composition of suspended matter at meridional section in the Western Atlantic, Oceanology (Engl. Transl.), 55, 889-898, Crossref

46. Prakash, P., G. Stenchikov, et al. (2015), The impact of dust storms on the Arabian Peninsula and the Red Sea, Atmos. Chem. Phys., 15, 199-222, Crossref

47. Sakerin, S., L. Golobokova, et al. (2017), Spatiotemporal variability of aerosol characteristics on the route of the Indo-Atlantic expedition of the R/V Akademik Nikolai Strakhov, Optics of the Atmosphere and Ocean, 30, 42-52, (in Russian)Crossref

48. Shevchenko, V. P. (2006), The Effect of Aerosols on the Environment and Marine Sedimentation in the Arctic, 226 pp. Nauka, Moscow. (in Russian)

49. Simard, R., J. Hasegawa, et al. (1951), Infrared spectrometric determination of oil and phenol in wa- ter, Anal. Chem., 23, 13,784-13,789, Crossref

50. Stokes, M. D., G. B. Deane, et al. (2013), Marine Aerosol Reference Tank system as a breaking wave analogue for the production of foam and seaspray aerosols, Atmos. Meas. Tech., 6, 1085-1094, Crossref

51. Uno, I., K. Harada, et al. (2005), Meteorological characteristics and dust distribution of the Tarim Basin simulated by the nesting RAMS/CFORS dust model, J. Meteorol. Soc. Jpn., 83A, 219-239, Crossref

52. Van Eijk, A. M., J. T. Kusmierczyk-Michulec, et al. (2011), Sea-spray aerosol particles generated in the surface zone, J. Geoph. Res., 116, 1-20, Crossref

53. Vasilenko, V. N., I. M. Nazarov, S. D. Fridman (1985), Monitoring of Snow Cover Pollution, Gidrometeoizdat, Leningrad, Russia. (in Russian)

54. Wozniak, A. S., A. S. Willoughby, et al. (2014), Distinguishing molecular characteristics of aerosol wa- ter soluble organic matter from the 2011 trans-North Atlantic US Geotraces cruise, Atmos. Chem. Phys., 14, 8419-8434, Crossref

55. Yoshizue, M., Y. Iwamoto, et al. (2019), Individual particle analysis of marine aerosols collected during the North-South transect cruise in the Pacific Ocean and its marginal seas, J. Oceanography, 75, 513-524, Crossref

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