Pop-up devices for marine probes

I.Yu. Semykina, O.Y. Shapovalov

Institute of Natural and Technical Systems, RF, Sevastopol, Lenin St., 28

E-mail: neoton@list.ru

DOI: 10.33075/2220-5861-2025-4-147-157

UDC 62-1/-9 – 53.084.2                                            

EDN: https://elibrary.ru/xxfmnm

Abstract:

This article surveys dive-surface systems used in ocean measurement platforms, which allow their operation at a specified depth, movement between horizons returning to the surface with data, and promising directions for the design of marine probe ascent devices. Failures in dive-surface systems can lead to significant financial losses or even result in the complete failure of the platform, which is crucial for various scientific studies. The article classifies pop-up devices into two categories: passive and active systems, each with its own advantages and applications. It is noted that passive systems, which do not require propulsion or external power, are typically used for one-time missions and emergency systems. Examples of these systems include chemical gas generators and diving and ascending floats, and their designs and operating principles are outlined. It is also noted that active systems are necessary for multiple missions and underwater robotic applications. The features of active systems, which draw power from an external source, are also discussed. Special attention is given to underwater releases, which are essential for the successful ascent of autonomous probes. The design and control principles of these releases are also discussed. Requirements for an underwater release to ensure the ascent of an autonomous seawater density profiler are outlined. These include electric control, ease of manufacture and operation, as well as low cost and environmental friendliness of the lost anchor weight.

Keywords: promising areas of surfacing devices, marine probe, offshore measuring platforms, diving and surfacing systems, diving float, underwater releases, electromagnetic actuator, sacrificial anchor

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REFERENCES

  1. Sagalevich A.M. and Sagalevich V.D. Razvitie morskih tehnologij i nauchnye otkrytija v okeane (Development of marine technologies and scientific discoveries in the ocean). Priroda, 2022, No. 5(1281), pp. 3–17. DOI: 10.7868/S0032874X22050015
  2. Zemlyanov I.V. Sovremennoe sostojanie sistemy monitoringa morskoj sredy Rossijskoj Federacii (obzor) (Current state of the marine environment monitoring system in the Russian Federation (review)). Okeanologicheskie issledovanija, 2024, Vol 52, No. 2, pp. 107–120. DOI: 10.29006/1564-2291.JOR-2024.52(2).6.
  3. Bernalte Sánchez P.J., García Márquez F.P., Papaelias M., and Lee D. Life cycle cost analysis of an autonomous underwater vehicle that employs hydrogen fuel cell. Ocean Engineering, 2024, Vol. 299, pp. 117300. DOI: 10.1016/j.oceaneng.2024.117300.
  4. Martinez Vargas S., Vitale A.J., Genchi S.A., Nogueira S.F., Arias A.H., Perillo G.M., Siben A., and Delrieux C.A. Monitoring multiple parameters in complex water scenarios using a low-cost open-source data acquisition platform. HardwareX, 2023, Vol. 16, pp. e00492. DOI: 10.1016/j.ohx.2023.e00492
  5. Adam Olejnik A., Waldemar Walczowski, Marek Dawidziuk, Bartłomiej Jakus, and Piotr Wieczorek. Rescue device concept for the ARGO profiling float. Polish Hyperbaric Research, 2022, Vol. 80(3), pp. 23–38. DOI: 10.2478/phr-2022-0014
  6. Eliseenko G.D., Inzartsev A.V., and Pavin A.M. Mnogourovnevaja raspredelennaja kontrol’no-avarijnaja sistema ANPA (AUV layered distributed emergency control system). Podvodnye issledovanija i robototehnika, 2020, No. 4(34), pp. 23–30. DOI: 10.37102/24094609.2020.34.4.003
  7. Tengberg A., De Bovee F., Hall P., Berelson W., Chadwick D., Ciceri G., Crassous P., Devol A., Emerson S., Gage J., Glud R., Graziottini F., Gundersen J., Hammond D., Helder W., Hinga K., Holby O., Jahnke R., Khripounoff A., and De Wilde P. Benthic chamber and profiling landers in oceanography – A review of design, technical solutions and functioning. Progress in Oceanography, 1994, Vol. 35(3), pp. 253–294. DOI: 10.1016/0079-6611(95)00009-6
  8. Trask R.P. and Weller R.A. Moorings. Earth Systems and Environmental Sciences, 2019, Vol. 5, pp. 133–149. DOI: 10.1016/B978-0-12-409548-9.11334-X
  9. Simons, F.J., Nolet, G., Georgief, P., Babcock, J.M., Regier, L.A., and Davis, R.E. On the potential of recording earthquakes for global seismic tomography by low-cost autonomous instruments in the oceans. Journal of Geophysical Research: Solid Earth, 2009, Vol. 114, pp. B05307. DOI: 10.1029/2008JB006088
  10. Inzartcev A.V., Kiselev L.V., Kostenko V.V., Matvienko Iu.V., Pavin A.M., and Shcherbatiuk A.F. Podvodnye robototehnicheskie kompleksy: sistemy, tehnologii, primenenie (Underwater robotic systems: systems, technologies, applications). Vladivostok: IPMT DVO RAN, 2018, 368 p.
  11. Innovative Sensor Carriers for Cost-Effective Global Ocean Sampling. Challenges and Innovations in Ocean in Situ Sensors. Elsevier, 2018, Chap. 5, pp. 173–288. DOI: 10.1016/B978-0-12-809886-8.00005-3
  12. DeVries G. High-pressure gas from lithium hydride and sea water. American Society of Mechanical Engineers, 1966, 8 p.
  13. Borchsenius J. and Pinder Sh. Underwater glider propulsion using chemical hydrides. OCEANS’10 IEEE SYDNEY IEEE, 24–27 May 2010, pp. 1–8. DOI: 10.1109/OCEANSSYD.2010.5603515
  14. Anchors, Cables and Buoywork. Fleet seamanship, rigging and procedures manual. CEMFM, 2019, Chap. 7, 80 p.
  15. Hardy K. Lander Lab #4: Underwater Releases. Marine Technology, November 2, 2022. URL: https://www.marinetechnologynews.com/news/lander-underwater-releases-623706 (September 1, 2025).
  16. Blott A.J. A Preliminary study of timed release mechanisms for lobster traps. Marine Fisheries Review, 1978, Vol. 40(5-6), pp. 44–49.
  17. Makarov O. «Vitiaz-D»: kak ustroen unikal’nyj podvodnyj apparat dlja raboty na zapredel’noj glubine (Vityaz-D: How the unique underwater vehicle for operation at extreme depths works). TechInsider, July 15, 2025. URL: https://www.techinsider.ru/science/603103-zapredelnaya-glubina-kak-ustroen-podvodnyy-apparat-vityaz-d/ (September 1, 2025).
  18. Xue G., Liu Y., Si W., Ji C., Guo F., and Li Z. Energy recovery and conservation utilizing seawater pressure in the working process of Deep-Argo profiling float. Energy, 2020, Vol. 195, pp. 116845. DOI: 10.1016/j.energy.2019.116845
  19. Jensen H.F. Variable Buoyancy System Metric: MSc thesis. Woods Hole Oceanographic Institution, 2009, 112 p.

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