Glaciological and geophysical investigations aimed at organization of a new airfield at the Station Mirny (East Antarctica)

S. V. Popov; S. V. Mezhonov; S. P. Polyakov; V. L. Mart'yanov; V. V. Lukin

doi:10.15356/2076-6734-2016-3-413-426

Glaciological and geophysical investigations aimed at organization of a new airfield at the Station Mirny (East Antarctica)

S. V. Popov, S. V. Mezhonov, S. P. Polyakov, V. L. Mart'yanov, V. V. Lukin

https://doi.org/10.15356/2076-6734-2016-3-413-426

Full Text:

Abstract

Main results of glaciological and geophysical engineering surveys, conducted during three summer field seasons of 2013– 2016 (59–61st Russian Antarctic Expeditions – RAE) near the Russian Station Mirny (East Antarctica), are discussed in the paper. Objective of these works was to site and then to organize a new airfield for landing of medium-range aircrafts with ski landing gears. Investigations included aerial photography, GPR surveys (georadar profiling), ice core drilling, and installation of landmarks to measure velocity of the glacier motion. The GSSI ground-penetrating radars with the main frequencies of 270 MHz and 900 MHz were used. In addition, special explorations were conducted for detecting the englacial crevasses by means of remote-sensing methods. The GPR data allowed a revealing the boundary between snow-andfirn thickness and atmospheric ice. In the course of processing of 252 travel-time curves of the diffracted waves a kinematic model of the sub-surface part of the glacier has been constructed. It was found that the dielectric permittivity of the snowfirn thickness averages 2.43; similar value for the atmospheric ice amounts to 3.0. The GPR data made it possible to determine intraglacial (englacial) crevasses and to choose the most favorable field for the landing. On February 10, 2016, the first middle-range aircraft DC-3T (BT-67) had landed onto the new run-way near the station Mirny.

Keywords

airfield, crevasse detection, East Antarctica, GPR profiling, Station Mirny,

About the Authors

S. V. Popov

Polar Marine Geosurvey Expedition
Russian Federation
St. Petersburg

S. V. Mezhonov

Arctic and Antarctic Research Institute
Russian Federation
St. Petersburg

S. P. Polyakov

Polar Marine Geosurvey Expedition
Russian Federation
St. Petersburg

V. L. Mart'yanov

Polar Marine Geosurvey Expedition
Russian Federation
St. Petersburg

V. V. Lukin

Polar Marine Geosurvey Expedition
Russian Federation
St. Petersburg

References

1. Polyakov S.P., Mart'yanov V.L., Lukin V.V. Snezhno-ledovye vzletno-posadochnye polosy Rossiyskoy antarkticheskoy ekspeditsii – osobennosti podgotovki i perspektivy razvitiya. Snow-ice runways of the Russian Antarctic Expedition – features of preparation and development prospects. Rossiyskie polyarnye issledovaniya. 2015, 2 (20): 31–35. [In Russian].

2. Savatyugin L.M. Rossiyskie issledovaniya v Antarktike. Tom III. 31 SAE – 40 RAE. Russian investigations in Antarctic. V. III. 31 SAE – 40 RAE. St.-Petersburg: Hydrometeoizdat, 2001: 344 p. [In Russian].

3. Rignot E., Thomas R.H. Mass balance of polar ice sheets. Science. 2002, 297 (5586): 1502–1506.

4. Popov S.V., Polyakov S.P. Ground-penetrating radar sounding of the ice crevasses in the area of the Russian stations Progress and Mirny (East Antarctica) during the field season 2014/15. Kriosfera Zemli. Earth Cryosphere. 2016, XX (1): 90–98. [In Russian].

5. Daniels D. Ground Penetrating Radar, 2nd edition, IEE Radar, Sonar and Navigation series 15. New York, the Institution of Electrical Engineering 2004: 761 p.

6. Eder K., Reidler C., Mayer C., Leopold M. Crevasse detection in Alpine areas using ground penetrating radar as a component for a mountain guide system. Intern. Archive Photogrammetry. Remote Sens. Spat. Inf. Sci. Beijing, 2008, XXXVII (B8): 837–841.

7. Jol H.M. Ground penetrating radar: Theory and applications. Elsevier, 2009: 543 p.

8. Popov S.V., Polyakov S.P., Pr yakhin S.S., Mart'yanov V.L., Lukin V.V. Structure of the upper part of glacier in the region of the planned runway near the Mirny Station, East Antarctica, according to materials of 2014/15. Kriosfera Zemli. Earth Cryosphere. 2016. In press. [In Russian].

9. Pryakhin S.S., Popov S.V., Sandalyuk N.V., Mart'yanov V.L., Polyakov S.P. Aerofotos'emka rayonov rossiyskikh antarkticheskikh stantsiy Mirnyy i Progress v sezon 2014/15 g. Aerial photography of Russian Antarctic stations Mirny and Progress in summer of 2014/15. Led i Sneg. Ice and Snow. 2015, 55 (4): 107–113. doi:10.15356/2076-67342015-4-107-113. [In Russian].

10. Bogorodskiy V.V., Bently Ch.R., Gudmandsen P. Radioglyatsiologiya. Radioglaciology. Leningrad: Hidrometeoizdat, 1983: 308 p. [In Russian].

11. Glazovsky A.F., Macheret Yu.Ya. Voda v lednikah. Metody i rezul'taty geofizicheskikh i distantsionnykh issledovaniy. Water in glaciers. Methods and results of geophysical and remote sensing studies. Moscow: GEOS, 2014, 527 p. [In Russian].

12. Macheret Yu.Ya. Radiozondirovanie lednikov. Radioecho sounding of glaciers. Moscow: Scientific World, 2006: 392 p. [In Russian].

13. Galley R.J., Trachtenberg M., Langlois A., Barber D.G., Shafai L. Observations of geophysical and dielectric properties and ground penetrating radar signatures for discrimination of snow, sea ice and freshwater ice thickness. Cold Region Science Technology. 2009, 57 (1): 29–38.

14. Plewes L.A., Hubbard B. A review of the use of radioecho sounding in glaciology. Prog. Phys. Geogr. 2001, 25 (2): 203–236.

15. Instruktsiya po proektirovaniyu, stroitel'stvu i otsenke ekspluatatsionnoy prigodnosti snezhnykh i snezhnoledovykh aerodromov Antarktidy VSN37-76. Manual for design, construction and serviceability assessment of snow and snow-ice Antarctic airfields. Leningrad: Ministry of Civil Aviation of the USSR, 1976: 67 p. [In Russian].

16. Попов С.В. Determination of dielectric permeability of the medium according to hodographs of diaphragm waves in the frame of model of foliated and inclined medium. Kriosfera Zemli. Earth Cryosphere. 2016. In press. [In Russian].

17. Vladov M.L., Starovoytov A.V. Vvedenie v georadiolokatsiyu. Introduction to GPR. Moscow State University, 2004: 153 p. [In Russian].

18. Popov S.V., Eberlein L. Investigation of snow-firn thickness and ground in the East Antarctica by means of geophysical radar. Led i Sneg. Ice and Snow. 2014, 54 (4): 95–106. doi:10.15356/2076-6734-2014-4-95-106. [In Russian].

19. Robin G. de Q. Ice Movement and Temperature Distribution in Glaciers and Ice Sheets. Journ. of Glaciology. 1955, 2 (18): 523–532.

Supplementary files

For citation: Popov S.V., Mezhonov S.V., Polyakov S.P., Mart'yanov V.L., Lukin V.V. Glaciological and geophysical investigations aimed at organization of a new airfield at the Station Mirny (East Antarctica). Ice and Snow. 2016;56(3):413-426. https://doi.org/10.15356/2076-6734-2016-3-413-426

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