Development of an innovative wireless power transmission model for marine applications

Umar Farooq, Hajira Masood, Jiropast Suakaew, Kruawan Wongpany, W. Pijitrojana
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Abstract

The conventional wired charging system for ship-to-shore charging of underwater vehicles is prone to specific problems related to unreliable connection mechanisms and safety. The wireless charging system overcomes the danger of electrocution, as the power is transferred from the shore to the ship via electromagnetic induction instead of traditional ways of transferring AC power in the marine environment. This paper presents a novel system-level modeling and designing of wireless power transmission for marine applications. The proposed system comprises three main components: (a) a shore-side mobile transmitter (Shore-SMT), (b) an onboard static receiver, and (c) another ship-side mobile transmitter (Ship-SMT). The Shore-SMT and Ship-SMT, each consisting of a circular array of magnets, rotate in the vicinity of the receiver with a fixed circular variety of coils, resulting in voltage induction in the receiver coil. Consequently, the induced voltage in the receiver coil charges the onboard batteries. COMSOL® MULTIPHYSICS environment is used for the modeling and simulation of the proposed system using finite element method (FEM). The test cases simulate the individual and mutual rotation of the transmitters at several distances from the receiver coil. A prototype of the model is also developed. Experimental results from the developed prototype show promising performance as the percentage of transferred voltage increases from a single layer of x9 coil and x9 magnet bars to 70-75% and 80% in a double layer of x9 Ferro bars with x9 winding coils and double-sided x12 magnets and x9 winding coils respectively. It proves to be a better alternative to the conventional methods used for Ships and Vessel charging.
为海洋应用开发创新型无线电力传输模型
用于水下航行器从船上到岸上充电的传统有线充电系统容易出现连接机制不可靠和安全方面的具体问题。无线充电系统克服了触电危险,因为电源是通过电磁感应从岸上传输到船上的,而不是在海洋环境中传输交流电的传统方式。本文介绍了一种新颖的海洋应用无线电力传输系统级建模和设计。拟议的系统由三个主要部分组成:(a) 岸边移动发射器(Shore-SMT);(b) 船载静态接收器;(c) 另一个船边移动发射器(Ship-SMT)。岸上移动发射机和船载移动发射机各由一个圆形磁铁阵列组成,在接收机附近旋转,并带有各种固定的圆形线圈,从而在接收机线圈中产生感应电压。因此,接收器线圈中的感应电压可为机载电池充电。COMSOL® MULTIPHYSICS 环境使用有限元法(FEM)对拟议系统进行建模和仿真。测试案例模拟了发射器在距离接收器线圈若干距离时的单独旋转和相互旋转。此外,还开发了一个模型原型。所开发原型的实验结果表明,传输电压的百分比从单层 x9 线圈和 x9 磁棒分别增加到双层 x9 铁棒和 x9 绕组线圈以及双面 x12 磁铁和 x9 绕组线圈的 70%-75% 和 80%,性能前景良好。事实证明,它是船舶和船只充电传统方法的更好替代品。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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