格连吉克黑海沿岸段地表低频形变的现场观测
DOI:
https://doi.org/10.29006/1564-2291.JOR-2026.54(2).4关键词:
氡-222, 地表, 局部形变, 黑海沿岸, 测地定位, 地球物理过程, 氡体积活度摘要
本文介绍了对近地表大气中氡波动进行长期连续监测的成果。所获数据已成为区域地震稳定性研究以 及地表当前和长期形变过程研究的重要组成部分。为评估地表垂直形变幅度与氡体积活度变化之间的关 系，采用了卫星测地定位站的数据。通过分析长期实验资料，构建了关联这些参数的数学模型。数据记录 方法的特点是采用氡体积活度变化光谱测量法。上述研究的硬件和软件系统能够实现氡变化的逐小时记 录，并以毫米级精度测量地表垂直形变幅度。
参考
- Adushkin, V. V., V. I. Nifad’ev, B. B. Chen, S. I. Popel, G. A. Kogai, A. Yu. Dubinsky, and P. G. Waidler, 2019: On changes in the parameters of internal gravitational waves in the atmosphere of Central Asia before earthquakes. Reports of the Academy of Sciences, 487 (3), 299–303, EDN: KGYZNR, https://doi.org/10.31857/S0869-56524873299-303.[in Russian].
- Babeshko, V. A., V. L. Shestopalov, E. A. Glazyrin, and V. M. Sheremet’ev, 2019: Research of seismic activity of the greater Sochi area by methods of satellite geodynamics. Science in the South of Russia, 15 (1), 3–11, EDN: ZWYBLR, https://doi.org/10.7868/S25000640190101.[in Russian].
- Babeshko, V. A., V. V. Kalinchuk, V. L. Shestopalov, E. A. Glazyrin, B. N. Alyoshin, I. V. Leont’ev, O. V. Didikin, A. M. Borodako, V. A. Fomenko, and V. M. Sheremet’ev, 2022: Geodynamic monitoring of the Crimean Bridge area. Science in the South of Russia, 18 (2), 35–40, EDN: OSKGWS, https://doi.org/10.7868/S25000640220205.[in Russian].
- Earthquake in Kamchatka, 2025. The “Russian Journal of Earth Sciences” special issue. Available at https://www.gcras.ru/news.php?n=1186.(accessed 20.11.2025)
- Santorini volcano (Greece) – the seismic crisis of 2025. Available at https://www.volcanodiscovery.com/ru/santorini/current-activity.html.(accessed 20.11.2025).
- Glazyrin, E. A. and V. L. Shestopalov, 2018: Modern movements of the Earth’s surface of the Russian segment of the Black sea coastline according to GPS observations. Lisitsin A. P. [ed.] Moscow, The scientific world, 76–84, EDN: OAMTRW, https://doi.org/10.29006/978-5-91522-473-4.2018.76.[in Russian].
- The European-Mediterranean Seismological Centre (EMSC). Available at https://www.emsc-csem.org/Earthquake_information/.(accessed 20.11.2025).
- Podymov, I. S. and T. M. Podymova, 2018: Some results of long-term monitoring radon volumetric activity in the surface atmosphere of the northeastern sector of Black Sea. Collection of scientific research results: Modern research in the field of natural, technical and physical-mathematical sciences. Kirov, 243–256, EDN: XRMQMX
- Podymov, I. S. and T. M. Podymova, 2022: Variations of the internal gravitational waves parameters and the radon volumetric activity in the surface atmosphere before the earthquakes. Ufa: Innovative scientific research, 10 (22), 52–63, EDN: ASMXUU, https://doi.org/10.5281/zenodo.7236518.
- Pulinets, S. and D. Ouzounov, 2011: There is no Alternative to Satellite Technologies. On the Problem of Monitoring Natural and Man-Made Disasters. Proceedings of Institute of Applied Geophysics. Moscow, IPG, 89, 173–185.
- Pulinets, S., I. Mironova, P. Miklyaev, T. Petrova, A. Shitov, and A. Karagodin, 2024: Radon Variability as a Result of Interaction with the Environment. Atmosphere, 15 (2), 2–29, EDN: XRSBGZ, https://doi.org/10.3390/atmos15020167.
已出版
2026-06-30
期次
栏目
海洋地质学、地球物理学与地球化学
License
Transfer of copyrights occurs on the basis of a license agreement between the Author and Shirshov Institute of Oceanology, RAS
