Ensuring Resilience in Ocean Energy Power Plants: A Survey of Cybersecurity Measures

T. Nazaré, L. Nardo, J. Arias-Garcia, E. Nepomuceno
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Abstract

Offshore Renewable Energy (ORE) is a promising solution to address the challenges of climate change and the depletion of fossil fuels [1]. Wave power, a form of ORE, is considered one of the purest energy sources with significant growth potential [2]. In addition to investing in these energy sources, nations are also working to enhance the protection of Critical Infrastructure (CI). CI encompasses all services crucial to the functioning of society and the economy, including electric power systems and their various forms of generation, such as renewable energy sources. Hence, in addition to exploring various forms of power generation, the cybersecurity of the networks connecting the devices in these systems is a crucial aspect to consider to prevent attacks and minimize the risk of cyber threats to suppliers and customers [3]. For instance, the European Commission states that reducing CI vulnerability and increasing its resilience is one of the main objectives of the European Union. However, to date, a comprehensive review that synthesizes the various approaches to cybersecurity in ocean energy is yet to be published. The objective of this study is to present a comprehensive survey of the application of cybersecurity measures to renewable energy sources, with a specific focus on ocean energy. A systematic review of the literature was carried out, following the steps outlined by Kitchenham [4]. The methodology steps are illustrated in the flowchart (see Figure 1). Of the 49 articles selected, three main study topics emerged: i) smart ocean, ii) cybersecurity for renewable energy systems, and iii) marine data security. These three topics are interrelated as a smart ocean can be considered as an integrated sensing, communication, and computing ecosystem that connects marine objects in surface and underwater environments [5]. Once the wave energy converters (WECs) are installed, it is also essential to develop safety systems for these devices, as demonstrated in the first report on cybersecurity guidance for MRE (Marine Renewable Energy) systems [6] prepared by the Pacific Northwest National Laboratory (PNNL). In preparation for this report, researchers reviewed the cyber threats and vulnerabilities of information technology (IT) and operational technology (OT) equipment used in various WEC models. Figure 2 presents an example of the possible threats and attacks on WEC devices. In conclusion, this article provides a comprehensive survey of the application of cybersecurity measures in ocean energy, highlighting the importance of reducing vulnerability in the cybersecurity of power plants in this sector. Through a systematic review of the literature, three main study topics were identified and analysed, providing a valuable resource for future research in this area. The findings of this study can inform and guide the development of more secure and resilient systems, contributing to the overall improvement of critical infrastructure in the field of ocean energy. As such, this article offers a significant contribution to the ongoing effort to address the challenges posed by the changing energy landscape and the need to protect critical infrastructure from cyber threats. Please refer to uploaded PDF to see references and figures.    
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确保海洋能源发电厂的弹性:网络安全措施调查
海上可再生能源(ORE)是应对气候变化和化石燃料枯竭挑战的一个有前途的解决方案[1]。波浪能是一种ORE,被认为是最纯净的能源之一,具有显著的增长潜力[2]。除了投资这些能源外,各国还在努力加强对关键基础设施(CI)的保护。CI涵盖了对社会和经济运作至关重要的所有服务,包括电力系统及其各种形式的发电,如可再生能源。因此,除了探索各种形式的发电之外,这些系统中连接设备的网络的网络安全是需要考虑的关键方面,以防止攻击并最大限度地降低供应商和客户的网络威胁风险[3]。例如,欧盟委员会指出,减少CI脆弱性并增加其弹性是欧盟的主要目标之一。然而,迄今为止,尚未发表一篇综合各种海洋能源网络安全方法的综合综述。本研究的目的是对网络安全措施在可再生能源中的应用进行全面调查,特别关注海洋能源。按照Kitchenham[4]概述的步骤,对文献进行了系统回顾。方法步骤如流程图所示(见图1)。在所选的49篇文章中,出现了三个主要研究主题:i)智能海洋,ii)可再生能源系统的网络安全,以及iii)海洋数据安全。这三个主题是相互关联的,因为智能海洋可以被认为是一个集成的传感、通信和计算生态系统,它连接了水面和水下环境中的海洋物体[5]。一旦安装了波浪能转换器(WECs),就必须为这些设备开发安全系统,正如太平洋西北国家实验室(PNNL)编写的关于MRE(海洋可再生能源)系统网络安全指南的第一份报告[6]所示。为了准备这份报告,研究人员回顾了各种WEC模型中使用的信息技术(IT)和操作技术(OT)设备的网络威胁和漏洞。图2展示了针对WEC设备的可能威胁和攻击的示例。总之,本文对海洋能源领域网络安全措施的应用进行了全面调查,强调了减少该领域电厂网络安全脆弱性的重要性。通过对文献的系统回顾,确定并分析了三个主要的研究主题,为该领域的未来研究提供了宝贵的资源。这项研究的结果可以为开发更安全、更有弹性的系统提供信息和指导,有助于全面改善海洋能源领域的关键基础设施。因此,本文为解决不断变化的能源格局所带来的挑战以及保护关键基础设施免受网络威胁的需求做出了重大贡献。请参阅上传的PDF以查看参考文献和图表。
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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Open Sea Trial of a Wave-Energy Converter at Tuticorin Port – Challenges comprehensive assessment tool for low-TRL current energy converters Wave energy communication and social opposition Choosing wave energy devices for community-led marine energy development Tidal turbulence in medium depth water, primarily a model study
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