P. V. Gaisky*, I. E. Kozlov
Marine Hydrophysical Institute of RAS, Sevastopol, Russia
* e-mail: gaysky@inbox.ru
Abstract
The paper describes the technical and methodological aspects of development of an experimental sample of a distributed temperature sensor. The thermoprofilemeter is created for Arctic studies of the thermal near-surface structure of marine environment, including vertical temperature profiles, detection of thermocline and internal waves. The temperature-sensitive part of the sensor built on the basis of continuous spatially modulated conductors measures 48 m. The spatial-averaged resolution is 1.5 m. The sensor can be used in static and dynamic measurement modes, including sounding and towing. Control of the depth of the measuring part is carried out using hydrostatic pressure sensors located at the ends of the sensor. The specialized software provides the display with measuring information in the form of instantaneous temperature profiles as well as in the form of the dynamics of temperature isolines with reference to depth and time, in telemetric mode and during post-processing. The calculated isolines provide automatic control of the spatial vertical displacement of the thermocline, and the amplitude and period of internal waves. An experimental sample of the device was used in Arctic studies in 2021.
Keywords
distributed temperature sensor, thermoprofilemeter, isotherm, heat storage, thermocline, internal waves, temperature field, heat exchange, termistor chain
Acknowledgments
The research was performed under state assignment on topic no. 0555-2021-0004 (creation of the thermoprofilemeter) and RSF grant no. 21-17-00278 (in situ measurements of internal waves in the Arctic Ocean).
For citation
Gaisky, P.V. and Kozlov, I.E., 2023. Thermoprofilemeter for Measuring the Vertical Temperature Distribution in the Upper 100-Meter Layer of the Sea and its Testing in the Arctic Basin. Ecological Safety of Coastal and Shelf Zones of Sea, (1), pp. 137–145. doi:10.29039/2413-5577-2021-3-137-145
DOI
10.29039/2413-5577-2021-3-137-145
References
- Ivanov, V.V., Arkhipkin, V.S., Lemeshko, E.M., Myslenkov, S.A., Smirnov, A.V., Surkova, G.V., Tuzov, F.K., Chechin, D.G. and Shestakova, A.A., 2022. Changes in Hydrometeorological Conditions in the Barents Sea as an Indicator of Climatic Trends on the Eurasian Arctic on the 21st Century. Vestnik Moskovskogo Universiteta. Seria 5, Geografia, (1), pp. 13–25 (in Russian).
- Ashik, I.M., Alekseev, V.V., Bloshkina, E.V., Kulakov, M.Yu., Makhotin, M.S., Tarasenko, A.D. and Filchuk, K.V., 2022. State and Development Prospects of the Hydrological Monitoring System of the Arctic Ocean. Arctic and Antarctic Research, 68(1), pp. 8–25. doi:10.30758/0555-2648-2022-68-1-8-25 (in Russian).
- Bukatov, A.A., Solovei, N.M. and Pavlenko, E.A., 2021. Free Short-Period Internal Waves in the Arctic Seas of Russia. Physical Oceanography, 28(6), pp. 599–611. EDN MYIODE. doi:10.22449/1573-160X-2021-6-599-611
- Svergun, E.I., Zimin, A.V. and Zhegulin, G.V., 2022. Observations of the Second Mode Internal Waves in the White and Barents Seas. Physical Oceanography, 29(2), pp. 172–181. doi:10.22449/1573-160X-2022-2-172-181
- Morozov, E.G. and Paka, V.T., 2010. Internal Waves in a High-Latitude Region. Oceanology, 50(5), pp. 668–674. doi:10.1134/S0001437010050048
- Kozlov, I., Kudryavtsev, V., Zubkova, E.V., Zimin, A.V. and Chapron, B. Characteristics of Short-Period Internal Waves in the Kara Sea Inferred from Satellite SAR Data. Izvestiya: Atmospheric and Oceanic Physics, 51(9), pp. 1073–1087. doi:10.1134/S0001433815090121
- Kozlov, I.E., Kudryavtsev, V.N., Zubkova, E.V., Atadjanova, O.A., Zimin, A.V., Romanenkov, D.A., Chapron, B. and Myasoedov, A.G., 2014. Generation Sites of Nonlinear Internal Waves in the Barents, Kara and White Seas from Spaceborn SAR Observations. Sovremennye Problemy Distantsionnogo Zondirovaniya Zemli iz Kosmosa, 11(4), pp. 338–345 (in Russian).
- Ocherednik, V.V., Baranov, V.I., Zatsepin, A.G. and Kyklev, S.B., 2018. Thermochains of the Southern Branch, Shirshov Institute of Oceanology, Russian Academy of Sciences: Design, Methods, and Results of Metrological Investigations of Sensors. Oceanology, 58(5), pp. 661–671. doi:10.1134/S0001437018050090
- Nikolaev, N.I., Vasilyeva, N.V. and Nikolaeva, I.V., 2021. Development of a Device for Remote Monitoring of “Thermo-Braid” Temperature Environment. Science and Business: Development Ways, (11), pp. 17–23 (in Russian).
- Tolstosheev, A.P., Lunev, E.G. and Motyzhev, S.V., 2014. [Analysis of the Results of in situ Experiments with Thermoprofiling Drifting Buoys in the Black Sea and other Areas of the World Ocean]. Morskoy Gidrofizicheskiy Zhurnal, (5), pp. 9–32 (in Russian).
- Gaisky, V.A. and Gaisky, P.V., 2001. Distributed Thermoprofilometers and their Capabilities in Oceanographic Investigations. Physical Oceanography, 11(6), pp. 543–577. doi:10.1007/BF02509846
- Gayskiy, V.A. and Gayskiy, P.V., 2018. Use of Distributed Sensors for Sea Temperature Measurements. Sevastopol: IPTS, 175 p. https://doi.org/10.33075/978-5-6040795-4-6 (in Russian).
- Kopyshov, I.O., Kozlov, I.E., Zhuk, V.R., Artamonova, A.V., Silvestrova, K.P., Mekho-va, O.S., Korzhenovskaya, A.I., Frey, D.I., Jamalova, A.G., Gaisky, P.V. et al., 2021. Study of High-Amplitude Internal Waves in the Kara Gate Strait in August 2021. In: MRC MSU, 2021. Proceedings of X International Conference “Marine Research and Education”, 25–29 October 2021. Tver: OOO “PoliPRESS”, pp. 238–241 (in Russian).