DEVELOPMENT OF A TEST BENCH FOR TESTING THE UNDERWATER ROBOT CONTROL SYSTEM WITH VARIABLE GEOMETRY OF THE BODY

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Abstract

For underwater robots in the past three decades, the problem of energy efficiency and acoustic noiselessness has arisen sharply. The solution of these problems is inextricably linked with the solution  of the problems of dynamics and vibroacoustics arising in the flow of a liquid under the flow of underwater bodies. These problems include the problem of the pressure pulsations occurrence and velocity distributed over the surface of the object, as well as noise and vibrations caused by these pulsations. To create energy-efficient and low-noise underwater robots, it is necessary to create methods for influencing the structure of wall currents and the shape of the aerodynamic surfaces of the robot in order to reduce its surface friction, as well as impedance. In this paper, we consider the development of an experimental bench for testing the main executive systems of an underwater robot with an anisotropic hull, including a buoyancy variation system, a trim and roll change system, and a hull geometry changing system.

About the authors

I D Galushko

Samara University

Author for correspondence.
Email: neeva2804@gmail.com
Russian Federation

V A Salmina

Samara University

Email: salmina.va@yandex.ru
Russian Federation

G M Makaryants

Samara University

Email: georgy.makaryants@gmail.com
Russian Federation

References

  1. Bandyopadhyay, R. (2005), “Trends in Biorobotic Autonomous Undersea Vehicles”, IEEE Journal of Oceanic Engineering, vol. 30, no. 1, pp. 109-139.
  2. Ayers, J. (2004), Architectures for Adaptive Behavior in Biomimetic Underwater Robots, Northeastern University, pp. 9.
  3. Lu, J.C.Z., Chen, W. and Wang, L. (2000), “A new type of under water turbine imitating fish-fin for under water robot”, Robot, vol. 22, issue 5, pp. 427-432.
  4. Xie, H.Z.D. and Shen, L. (2006), “Control System Design and Realization of Bionic Underwater Vehicle Propelled by the Long Flexible Fin Undulation”, Journal of Control & Automation, vol. 22, issue 8-2, pp. 218-221.
  5. Eriksen, C.C., Osse, T.J., Light, R.D., Wen, T., Lehman, T.W., Sabin, P.L., Ballard, J.W. and Chiodi, A.M. (2001), “Seaglider: a long-range autonomous underwater vehicle for oceanographic research”, IEEE J. Ocean. Eng., vol. 26, issue 4, pp. 424-436. doi: 10.1109/48.972073.
  6. Mahmoudian, N., Woolsey, C.A., (2008). “Underwater Glider Motion Control”, IEEE Conf. on Decision Control, pp. 552- 557.
  7. Crespi, A. at. al. (2005), “Swimming and Crawling with an Amphibious Snake Robot”, Robotics and Automation, ICRA Proceedings of the 2005 IEEE International Conference on. 2005, pp. 3024 – 3028.
  8. Crespi, A. at. al. (2005), “AmphiBot I: an amphibious snakelike robot”, Robotics and Automation Systems, vol. 50, issue 4, pp. 163-175.
  9. Ayers, J. (2004), Architectures for Adaptive Behavior in Biomimetic Underwater Robots, Northeastern University, p. 9.
  10. Tohnghui, L., Yanhui, W. and Zhu, G. (2012), “Analysis of hydrodynamic noise around acoustic modem on the AUV using Hybrid LES-Lighthill Method”, Advanced Material Research, vol. 546-547, pp.176-181. ISSN: 1662-8985.
  11. Gafurov, S., Salmina, V., Greshnyakov, P., Mukhametzyanov, A. and Handroos, H. (2017), Semi-natural test bench for buoyancy variation system of underwater robots investigations, Proceedings of the 24th International Congress on Sound and Vibration, ICSV 2017, London, UK.
  12. doi: 10.18287/2409-4579-2019-5-3-6-13

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Copyright (c) 2020 И Д Галушко, В А Салмина, Г М Макарьянц

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