Pollution of the snow surface with polycyclic aromatic hydrocarbons during the formation of frost


https://doi.org/10.15356/2076-6734-2019-4-405

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Abstract

When analyzing chemical compositions of snow the high variability of content of polycyclic aromatic hydrocarbons (PAHs) in snow cover between snowfalls is observed. Researchers explain this by concentrating of snow. However, another mechanism of atmospheric contamination of the snow cover surface is possible. It may be a precipitation of fine crystals of PAHs from the atmosphere in the composition of cryohydrates, which can form aerogenic anomalies on the snow surface at formation of hoarfrost. The process starts in the atmosphere during the interaction of finely dispersed crystals of PAHs with cloud supercooled drops. This results in the cryogenic concentration of solid particles of PAHs by way of formation of solid eutectic mixture – cryohydrates, which are a two-phase system consisting of a fine mixture of crystals of solid particles and ice. Evidence of their manifestation is the presence of the Forel hatching on the surface of the facets of the hoarfrost crystals appearing due to the different optical density of alternating zones, which consist of interpenetrating domains of crystallized solid aerosols and ice. At the same time, due to the presence of temperature inversion over the snow cover and its drying effect on the near-snow layer of air, a stable mass transport of water vapor down to the snow cover is formed, which can initiate the flow of fine cryohydrates from the PAHs. Therefore, the growth of atmospheric ice crystals, begun in the surface atmosphere, continues on the snow surface during formation of hoarfrost, thus creating a special nano-relief of snow cover. The paper presents the results of observations of changes in the concentration of individual PAHs in the upper 18 mm layer of snow at accumulation of the surface hoarfrost during a long period between snowfalls. Some micro-morphological features of the forms of skeletal rime micro-crystals are shown, with which an increase in the nano-roughness of the snow surface is associated, as well as the manifestation of the signal of the aerogenic PAH anomaly on the snow surface. Since the conditions for the formation of surface hoarfrost occur more often than for snowfalls, the hoarfrost may be an informative object of testing when detecting hydrocarbon contamination of snow cover during the intervals between snowfalls.

About the Authors

M. P. Tentyukov
Syktyvkar State University named after Pitirim Sorokin
Russian Federation


D. N. Gabov
Institute of Biology of Komi Scientific Centre of the Ural Branch of the Russian Academy of Sciences
Russian Federation


D. V. Simonenkov
V.E. Zuev Institute of Atmospheric Optics of Siberian Branch of the Russian Academy of Science
Russian Federation


E. G. Yazikov
Tomsk Polytechnic University
Russian Federation


References

1. Rovinsky F.Ya., Teplitskaya T.A., Alekseeva T.A. Fonovyy monitoring politsiklicheskikh aromaticheskikh uglevodorodov. Background monitoring of polycyclic aromatic hydrocarbons. Leningrad: Gidrometeoizdat, 1988: 223 p. [In Russian].

2. Klar A. Politsiklicheskiye uglevodorody. Polycyclic hydro carbons. Translation from English. Moscow: Chemistry, 1971: 442 p. [In Russian].

3. Baek S., Field R., Goldstone M., Kirk P., Lester J., Perry R. A review of atmospheric polycyclic aromatic hydrocarbons: sources, fate and behavior. Water, Air, and Soil Pollution. 1991, 60: 279–300.

4. Pratt G.C., Herbrandson C., Krause M.J., Schmitt C., Lippert C.J., McMahon C.R., Ellickson K.M. Measurements of gas and particle polycyclic aromatic hydrocarbons (PAHs) in air at urban, rural and near-roadway sites. Atmospheric Environment. 2018, 179: 268–278.

5. Tian Y.Z., Li W.H., Shi G.L., Feng Y.C., Wang Y.Q. Relationships between PAHs and PCBs, and quantitative source apportionment of PAHs toxicity in sediments from Fenhe reservoir and watershed. Journ. of Hazardous Materials. 2013, 248: 89–96. doi: org/10.1016/j.jhazmat.2012.12.054.

6. Sayet Yu.Ye., Revich B.A., Yanin Ye.P. Smirnova R.S., Basharkevich I.L., Onishchenko T.L., Pavlova L.N., Trefilova N.Ya., Achkasov A.I., Sarkisyan S.Sh. Geokhimiya okruzhayushchey sredy. Environmental Geo chemistry. Moscow: Nedra, 1990: 335 p. [In Russian].

7. Lei Ying D., Wania F. Is rain or snow a more efficient scavenger of organic chemicals? Atmospheric Environment. 2004, 38 (22): 3557–3571. doi: 10.1016/j.atmosenv.2004.03.039.

8. Herbert B.M., Halsall C.J. O., Villa S., Fitzpatrick L., Jones K.C.O., Lee R.G., Kallenborn R. Polychlorinated naphthalenes in air and snow in the Norwegian Arctic: a local source or an Eastern Arctic phenomenon? Science of the Total Environment. 2005, 342 (1–3): 145– 160. doi: 10.1016/j.scitotenv.2004.12.029/.

9. Mazin I.P. O klassifikatsii oblakov po ikh fazovomu stroyeniyu. Indeks fazovogo stroyeniya oblakov. On the clas sification of clouds according to their phase structure. Index of the phase structure of clouds. Meteorology and Hydrology. 2001, 11: 5–10. [In Russian].

10. Ivlev L.S., Dovgalyuk Yu.A. Fizika atmosfernykh aerozol'nykh sistem. Physics of atmospheric aerosol systems. St. Petersburg State University, 1999. 258 p. [In Russian].

11. Teoreticheskiye osnovy inzhenernoy geologii. Theoretical foundations of engineering geology. Moscow: Nedra, 1985: 288 p. [In Russian].

12. Hock C., Schmidt M., Kuhnen R., Bartels C. Calorimetric observation of the melting of free water nanoparticles at cryogenic tempertures. Physical Review Letters. 2009, 103 (7): 073401. doi: 10.1103/PhysRevLett.103.073401.

13. Golubev V.N. The role of aerosol particles in the formation of atmospheric ice. Meteorologiya i gidrologiya. Meteorology and Hydrology. 2015, 12: 19–28. [In Russian].

14. Hobbs P.V. Ice physics. Oxford: Clarendon Press, 1974, xvii: 837 p. doi: org/10.3189/S0022143000030847.

15. Golokhvast K.S., Kupriyanov A.N., Manakov YU. A., Nikiforov P.A., Chayka V.V., Gul'kov A.N. Atmospheric suspensions of the Karakansky coal mine of Kuzbass: particle size analysis. Ekologiya cheloveka. Human Ecology. 2014, 10: 19–24. [In Russian].

16. Cort A., Scot T.M. Atmospheric nanoparticles. Rev. Mineral. Geochem. 2001, 44 (1): 293–349. doi: 10.2138/rmg.2001.44.08.

17. Tentyukov M.P. Frosty condensation of sulfur dioxide and pollution of the snow surface. Meteorologiya i gidrologiya. Meteorology and Hydrology. 2011, 12: 29–35. [In Russian].

18. Elektronnyy resurs: meteodannyye VNII GMI-MTSO Rosgidrometa. Electronic resource: weather data of the Institute of Hydrometeorology and Geotechnical Analysis of Roshydromet. http://meteo.ru/data. [In Russian].

19. Tentyukov M.P. Patent № 2554303 Rossiyskaya Federatsiya, MPK G 01 W 1/14 (2006.01). Sposob izmereniya narastayushchikh otlozheniy sublimatsionnogo l'da-ineya na poverkhnosti snezhnogo pokrova. Patent № 2554303 Russian Federation, IPC G 01 W 1/14 (2006.01). The method of measuring the growing deposits of freeze-frost ice on the snow cover surface. the applicant and the patent holder Institute of Biology Komi Scientific Center Ural branch Russian Academy of Science. № 2013121714; apply 08.05.2013; published 27.06.2015, 18: 10 p. [In Russian].

20. Tentyukov M.P. Atlas form kristallov poverkhnosti iz morozi (rezul'taty statsionarnykh nablyudeniy sezonnogo snezhnogo pokrova). Atlas of surface hoarfrost crystals' forms (results of seasonal snow cover stationary observations). Syktyvkar: Pitirim Sorokin Syktyvkar State University, 2019: 19 p. Dep. in VINITI 28.06.2019. № 51 - B2019. [In Russian].

21. Dublyanskiy V.N., Kadebskaya O.I., Lavrov I.A., Lavrova N.V., Pyatunin M.S., Kadebskiy YU.V., Ni kiforova I.A., Khuden'kikh K.O., Dublyanskaya G.N., Katayev V.N., Moloshtanova N.Ye., Pan'kov N.N., Shuvalov V.M., Maksimovich N.G., Nazarova U.V., Ma vlyudov B.R. Kungurskaya ledyanaya peshchera: opyt rezhimnykh nablyudeniy. Kungur Ice Cave: Regime Observation Experience. Ed. V.N. Dublyansky. Ekater inburg: Ural Branch of RAS, 2005: 375 p. [In Russian].

22. Voytekhovskiy Yu.L. 12 etyudov na temy kristallomorfologii, mineralogii i petrografii. 12 studies on the topics of crystallomorphology, mineralogy and petrography. Apatity: K & M Publishing House, 2011: 204 c. [In Russian].

23. Grigoryev D.P. Ontogeniya mineralov. Ontogeny of minerals. Lvov: University of Lvov publishing, 1961: 284 p. [In Russian].

24. Yushkin N.P. Ultra- and a microdisperse condition of mineral substance and a problem of nanomineralogy. Nanomineralogiya. Ul'tra- i mikrodispersnoye sostoya niye mineral'nogo veshchestva. Nanomineralogy. Ultraand microdispersed state of the mineral substance. St.Petersburg: Science, 2005: 10–61. [In Russian].

25. Glyatsilogicheskiy Slovar’. Glaciological Glossary. Ed. V.M. Kotlyakov. Leningrad: Gidrometeoizdat, 1984: 528 p. [In Russian]. http://www.slovopedia. com/26/216/1661801.html)

26. Rikhter G.D. Snezhnyy pokrov, yego formirovaniye i svoystva. Snow cover, its formation and properties. Moscow: Publishing House of the USSR Academy of Sciences, 1945: 120 p. [In Russian].

27. Kuz’min P.P. Fizicheskiye svoystva snezhnogo pokrova. Physical features of snow cover. Leningrad: Gidrome teoizdat, 1957: 179 p. [In Russian].

28. Rikhter G.D. The role of snow cover in the physiographic process. Tr. In-ta geografii AN SSSR. Vyp. 40. Tr. Institute of Geography AN USSR. Release. 40. Moscow-Leningrad: Russian Academy of Sciences, 1948: 171 p. [In Russian].


Supplementary files

For citation: Tentyukov M.P., Gabov D.N., Simonenkov D.V., Yazikov E.G. Pollution of the snow surface with polycyclic aromatic hydrocarbons during the formation of frost. Ice and Snow. 2019;59(4):483-493. https://doi.org/10.15356/2076-6734-2019-4-405

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