Design, Simulation, and Laboratory Experiments of High Voltage Strike for Lightning Protection System in Fishing Boat Model

H. Prabowo, Bernard Evan Kanigara
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Abstract

Lightning is a natural phenomenon that often happens. When lightning strikes, the power produced is so large that lightning is very dangerous. One area where lightning often strikes is in the sea. This causes the crew who sailed in the middle of the ocean is vulnerable to lightning strikes. To increase the safety of the ship from the effects of the lightning strike, it needs a lightning protection system in accordance with the type of ship. Lightning protection on ships mainly consists of air termination, down conductor, and ground body. So far, studies on ship protection are only available for metal vessels such as cargo ships and warships. Therefore, studies on the design of lightning protection systems that are suitable for traditional boat types are needed. In this study, the lightning protection system was designed using the rolling sphere method. The design results obtained were then tested using software simulations. Based on the simulation results, the design of the lightning protection system was validated using a high voltage strike laboratory experiment. This experiment was carried out using a voltage impulse stroke to a laboratory-scale ship model. From the results of experiments conducted, the rolling sphere method can be used to determine the height of air termination in the fishing boat. In addition, the addition of conductor cables (overhead wires) can expand the protection zone so that it is better at protecting protection objects.
渔船模型雷电防护系统高压冲击的设计、仿真及实验室实验
闪电是一种经常发生的自然现象。当闪电击中时,产生的能量是如此之大,以至于闪电是非常危险的。一个经常被闪电击中的地方是在海里。这使得航行在海洋中央的船员很容易受到雷击。为了提高船舶对雷击影响的安全性,需要根据船舶的类型设置相应的防雷系统。船舶防雷主要由空端、下导线和接地体三部分组成。目前,对船舶防护的研究仅限于货船、军舰等金属船舶。因此,有必要研究设计适合传统船型的防雷系统。本研究采用滚球法设计防雷系统。利用软件仿真对设计结果进行了验证。在仿真结果的基础上,通过高压击雷室内实验验证了防雷系统的设计。该实验采用电压脉冲冲程对实验室规模的船舶模型进行。从实验结果来看,滚动球法可用于确定渔船空气终端的高度。此外,增加导体电缆(架空电线)可以扩大保护区域,从而更好地保护保护对象。
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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