Electric vehicles (EVs) are key to alleviate our dependency on fossil fuels. The future smart grid is expected to be populated by millions of EVs equipped with high-demand batteries. To avoid an overload of the (current) electricity grid, expensive upgrades are required. Some of the upgrades can be averted if users of EVs participate to energy balancing mechanisms, for example through bidirectional EV charging. As the proliferation of consumer Internet-connected devices increases, including EV smart charging stations, their security against cyber-attacks and the protection of private data become a growing concern. We need to properly adapt and develop our current technology that must tackle the security challenges in the EV charging infrastructure, which go beyond the traditional technical applications in the domain of energy and transport networks. Security must balance with other desirable qualities such as interoperability, crypto-agility and energy efficiency. Evidence suggests a gap in the current awareness of cyber security in EV charging infrastructures. This paper fills this gap by providing the most comprehensive to date overview of privacy and security challenges To do so, we review communication protocols used in its ecosystem and provide a suggestion of security tools that might be used for future research.
翻译:未来的智能电网预计将有数以百万计的配有高需求电池的EV, 为了避免电网超负荷,需要昂贵的升级。如果EV的用户参与能源平衡机制,例如双向EV收费,有些升级是可以避免的。随着消费者互联网连接装置的扩散,包括EV智能充电站的增多,它们防范网络攻击的安全和保护私人数据的问题日益引起关注。我们需要适当调整和发展目前必须应对EV充电基础设施安全挑战的技术,这种技术超出了能源和运输网络领域传统技术应用的范围。安全必须与其他理想的品质保持平衡,例如互操作性、加密易用性和能源效率。有证据表明,目前对EV充电基础设施网络安全的认识存在差距。这份文件填补了这一差距,提供了对隐私和安全挑战的最全面的概览。为此,我们审查了其生态系统中使用的通信协议,并提出了可用于未来研究的安全工具的建议。