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Design considerations for contact-less underwater power delivery: a systematic review and critical analysis

Published online by Cambridge University Press:  13 February 2020

Jing Zhou Open the ORCID record for Jing Zhou [Opens in a new window] ,
Kan Guo ,
Zhonghua Chen ,
Hui Sun  and
Sideng Hu
Jing Zhou
Affiliation:
College of Electrical Engineering, Zhejiang University, Hangzhou, China Polytechnic Institute, Zhejiang University, Hangzhou, China
Kan Guo
Affiliation:
College of Electrical Engineering, Zhejiang University, Hangzhou, China
Zhonghua Chen
Affiliation:
System Design Center, Hangzhou Electric Power Design Institute Co. Ltd, Hangzhou, China
Hui Sun
Affiliation:
College of Electrical Engineering, Zhejiang University, Hangzhou, China
Sideng Hu*
Affiliation:
College of Electrical Engineering, Zhejiang University, Hangzhou, China
*
Author for correspondence: Sideng Hu, College of Electrical Engineering, Zhejiang University, Hangzhou, China. E-mail: [email protected]
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Abstract

Wireless power transfer (WPT) has attracted attention from academia and industry in recent years. WPT has natural electrical isolation between primary and secondary side, which ensures safe charging in an underwater environment. This breakthrough technology greatly facilitates the deep-sea power transmission. However, at the current stage the transferred power and energy efficiency level are not up to that of the WPT system in the air. The major concerns include the attenuation is seawater, extreme temperature and pressure conditions, disturbance of ocean currents, and bio-security. Three questions are answered in this paper: first, the expressions of eddy current loss and attenuation of electromagnetic wave in seawater are unified, and the influence of seawater as transmission medium on the WPT system is discussed. Second, the evolution of electromagnetic coupling structure suitable for underwater applications is studied. Third, the loss and heating effects of an underwater WPT system and the corresponding bio-fouling phenomenon are investigated. The questions above were addressed through analysis of electrical properties, coupler structures, and bio-fouling effects of the underwater WPT system. This paper will facilitate the study and research on underwater WPT applications.

Keywords

Efficiency and optimizationfrequencyinductive
Type
Review Article
Information
Wireless Power Transfer , Volume 7 , Issue 1 , March 2020 , pp. 76 - 85
Copyright
Copyright © Cambridge University Press 2020

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References

Zhang, K, Zhu, Z, Du, L and Song, B (2018) Eddy loss analysis and parameter optimization of the WPT system in seawater. Journal of Power Electronics 18, 778–788.Google Scholar
Yan, Z, Song, B, Zhang, K, Wen, H, Mao, Z and Hu, Y (2018) Eddy current loss analysis of underwater wireless power transfer systems with misalignments. AIP Advances 8, 101421.CrossRefGoogle Scholar
Zhang, K, Ma, Y, Yan, Z, Di, Z, Song, B and Hu, AP (2018) Eddy current loss and detuning effect of seawater on wireless power transfer. IEEE Journal of Emerging and Selected Topics in Power Electronics.Google Scholar
Yan, Z, Zhang, Y, Kan, T, Lu, F, Zhang, K, Song, B and Mi, C (2019) Frequency optimization of a loosely coupled underwater wireless power transfer system considering Eddy current loss. IEEE Transactions on Industrial Electronics 66, 3468–3476.CrossRefGoogle Scholar
Zhou, J, Li, D and Chen, Y (2013) Frequency selection of an inductive contactless power transmission system for ocean observing. Ocean Engineering 60, 175–185.CrossRefGoogle Scholar
Lin, M, Li, D and Yang, C (2017) Design of an ICPT system for battery charging applied to underwater docking systems. Ocean Engineering 145, 373–381.CrossRefGoogle Scholar
Niu, W, Gu, W and Chu, J (2017) Analysis and experimental results of frequency splitting of underwater wireless power transfer. The Journal of Engineering 7, 385–390.CrossRefGoogle Scholar
Niu, W, Gu, W and Chu, J (2018) Experimental investigation of frequency characteristics of underwater wireless power transfer. 2018 IEEE MTT-S International Wireless Symposium (IWS), May 2018, 17896024, Chengdu China.CrossRefGoogle Scholar
Yu, LResearch on Key Technologies of Wireless Power Transmission System for Underwater Application (Dissertation for the Degree of D. Eng.). Harbin Engineering University.Google Scholar
Askari, A, Stark, R, Curran, J, Rule, D and Lin, K (2015) Underwater wireless power transfer. 2015 IEEE Wireless Power Transfer Conference (WPTC), Boulder, CO, USA, pp. 1–4.CrossRefGoogle Scholar
Loaec, J, le Floch, M and Johannin, P (1978) Effect of hydrostatic-pressure on susceptibility frequency spectrum of polycrystalline Mn-Zn and Ni-Zn ferrites. IEEE Transactions on Magnetics 14, 915–917.CrossRefGoogle Scholar
Loaec, J, Globus, A, le Floch, M and Johannin, P (1975) Effect of hydrostatic pressure on magnetization mechanisms in Ni-Zn ferrite. IEEE Transactions on Magnetics 11, 1320–1322.CrossRefGoogle Scholar
Li, Z, Li, D, Lin, L and Chen, Y (2010) Design considerations for electromagnetic couplers in contactless power transmission systems for deep-sea applications. Journal of Zhejiang University-Science C 11, 824–834.CrossRefGoogle Scholar
Wen, H, Zhang, K, Yan, Z and Song, B (2018) A novel concentric circular ring structure applied in AUV's inductive power transfer system for resisting the disturbance of ocean current. AIP advances 8, 115027.CrossRefGoogle Scholar
Zhang, K, Duan, Y, Zhu, Z, Du, L and Ren, X (2017) A coil structure applied in WPT system for reducing eddy loss. 2017 IEEE PELS Workshop on Emerging Technologies: Wireless Power Transfer, May 2017, Chongqing, China, pp. 204–206.CrossRefGoogle Scholar
Robert, S, Ewen, M and Hobson, BW (2007) Docking control system for a 21” diameter AUV. IEEE Journal of Oceanic Engineering 33, 550–562.Google Scholar
Kan, T, Zhang, Y, Yan, Z, Mercier, P and Mi, C (2018) A rotation-resilient wireless charging system for lightweight autonomous underwater vehicles. IEEE Transactions on Vehicular Technology 67, 6935–6942.CrossRefGoogle Scholar
Kan, T, Mai, R, Mercier, PP and Mi, CC (2018) Design and analysis of a three phase wireless charging system for lightweight autonomous underwater vehicles. IEEE Transactions on Power Electronics 33, 6622–6632.CrossRefGoogle Scholar
Hasaba, R, Okamoto, K, Kawata, S, Eguchi, K and Koyanagi, Y (2018) Experimental study on over 10 m magnetic resonance wireless power transfer under sea with coils. 2018 IEEE Wireless Power Transfer Conference (WPTC), Montreal, QC, Canada, pp. 1–4.CrossRefGoogle Scholar
Oiler, J, Anderson, G, Bana, V, Phipps, A, Kerber, M and Rockway, JD (2015) Thermal and biofouling effects on underwater wireless power transfer. 2015 IEEE Wireless Power Transfer Conference (WPTC), Boulder, CO, USA, pp. 1–4.CrossRefGoogle Scholar
Gish, LA (2004) Design of an AUV recharging system [D]. Thesis Collection.Google Scholar
Miller, BD (2005) Design of an AUV recharging system [D]. Thesis Collection.Google Scholar
Ewachiw, MAJ (2014) Design of an Autonomous Underwater Vehicle (AUV) Charging System for Underway, Underwater Recharging [D] (Thesis Collection).Google Scholar
Allen, B, Austin, T, Forrester, N, Goldborough, R and Stokey, R (2006) Autonomous docking demonstrations with enhanced REMUS technology. IEEE Oceanic Engineering Society, 1–6.Google Scholar
Kawasaki, T, Fukasawa, T, Noguchi, T and Baino, M (2003) Development of AUV marine bird with underwater docking and recharging system. The International Workshop on Scientific Use of Submarine Cables and Related Technologies, 166–170.CrossRefGoogle Scholar
Kawasaki, T, Noguchi, T, Fukasawa, T and Baino, M (2004) “Marine bird”, a new experimental AUV-results of docking and electric power supply tests in sea trials. IEEE Oceanic Engineering Society 3, 1738–1744.Google Scholar
Kojiya, T, Sato, F, Matsuki, H and Sato, T (2004) Automatic power supply system to underwater vehicles utilizing non-contacting technology. OCEANS ‘04. MTTS/IEEE TECHNO-OCEAN ‘04. 2004, 4:2341–2345.Google Scholar
Kojiya, T, Sato, F, Matsuki, H and Sato, T (2005) Construction of non-contacting power feeding system to underwater vehicle utilizing electromagnetic induction. IEEE Oceanic Engineering Society 1, 709–712.Google Scholar
Information can be accessed at https://mesasystemsco.com/category.php?cat=2.Google Scholar
Information can be accessed at: https://mesasystemsco.com/product.php?p=58.Google Scholar
Qiang, Z and Yufeng, W (2010) Noncontact power and data delivery for ocean observation mooring buoy [J]. Chinese Journal of Scientific Instrument 31, 2615–2621.Google Scholar