S2-CAN:充分安全的控制器区域网络

Mert D. Pesé, Jay W. Schauer, Junhui Li, K. Shin
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引用次数: 9

摘要

随着人们对汽车安全问题的关注日益增加,控制器局域网(CAN)——车内通信协议的事实上的标准——由于缺乏加密和认证而受到审查。窃听、欺骗和重放攻击等几个漏洞表明,当前的实现需要扩展。安全CAN (S-CAN)的学术和商业解决方案已经提出,但oem尚未将其集成到他们的产品中。这种不被采用的主要原因是它们在车辆中大量使用有限的计算资源,增加的延迟可能导致错过安全关键消息的最后期限,以及can帧中可用空间不足,无法包含消息身份验证码(MAC)。通过在安全性和性能之间进行权衡,我们开发了S2-CAN,它克服了S-CAN的上述问题。我们利用CAN的协议特定属性,而不是使用加密原语,并设计了一个“足够安全”的替代CAN,其资源开销和延迟最小。我们通过自动车辆攻击工具在四辆真实车辆中评估了S2-CAN的安全性。我们最后证明,在获得可接受的性能的同时,正确选择设计参数可以保证CAN的安全性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
S2-CAN: Sufficiently Secure Controller Area Network
As automotive security concerns are rising, the Controller Area Network (CAN) — the de facto standard of in-vehicle communication protocol — has come under scrutiny due to its lack of encryption and authentication. Several vulnerabilities, such as eavesdropping, spoofing, and replay attacks, have shown that the current implementation needs to be extended. Both academic and commercial solutions for a Secure CAN (S-CAN) have been proposed, but OEMs have not yet integrated them into their products. The main reasons for this lack of adoption are their heavy use of limited computational resources in the vehicle, increased latency that can lead to missed deadlines for safety-critical messages, as well as insufficient space available in a CAN frame to include a Message Authentication Code (MAC). By making a trade-off between security and performance, we develop S2-CAN, which overcomes the aforementioned problems of S-CAN. We leverage protocol-specific properties of CAN instead of using cryptographic primitives and design a “sufficiently secure” alternative CAN with minimal overhead on resources and latency. We evaluate the security of S2-CAN in four real-world vehicles by an automated vehicular attack tool. We finally show that CAN security can be guaranteed by the correct choice of a design parameter while achieving acceptable performance.
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