The CURE to Vulnerabilities in RPKI Validation
Donika Mirdita, Haya Schulmann, Niklas Vogel, Michael Waidner
摘要
Over recent years, the Resource Public Key Infrastructure (RPKI) has seen increasing adoption, with now 37.8% of the major networks filtering bogus BGP routes. Systems interact with the RPKI over Relying Party (RP) implementations that fetch RPKI objects and feed BGP routers with the validated prefix-ownership data. Consequently, any vulnerabilities or flaws within the RP software can substantially threaten the stability and security of Internet routing. We uncover severe flaws in all popular RP implementations, making them susceptible to path traversal attacks, remotely triggered crashes, and inherent inconsistencies, violating RPKI standards. We report a total of 18 vulnerabilities that canbe exploited to downgrade RPKI validation in border routers or, worse, enable poisoning of the validation process, resulting in malicious prefixes being wrongfully validated and legitimate RPKI-covered prefixes failing validation. Furthermore, our research discloses inconsistencies in the validation process, with two popular implementations leaving 8149 prefixes unprotected from hijacks, 6405 of which belong to Amazon. While these findings are significant in their own right, our principal contribution lies in developing CURE, the first-of-its-kind system to systematically detect bugs, vulnerabilities, and RFC compliance issues in RP implementations via automated test generation. CURE is a powerful RPKI publication point emulator that enables easy and efficient fuzzing of complex RP validation pipelines. It is designed with a set of novel techniques, utilizing differential and stateful fuzzing. We generated over 600 million test cases and tested all popular RPs on them. Following our disclosure, the vendors already assigned CVEs to the vulnerabilities we found.
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引用它的顶会 Paper9
- Byzantine-Secure Relying Party for Resilient RPKIJens Frieß, Donika Mirdita, Haya Schulmann, Michael WaidnerCCS 2024 · 被引用 1 次
- Pruning the Tree: Rethinking RPKI Architecture from the Ground upHaya Schulmann, Niklas VogelNDSS 2026 · 被引用 1 次
- The Fault in Our Drafts: Vulnerabilities in RPKI Specification and SoftwareOliver Jacobsen, Tobias Kirsch, Haya Schulmann, Niklas Vogel 等S&P 2026
- SoK: An Introspective Analysis of RPKI SecurityDonika Mirdita, Haya Schulmann, Michael WaidnerUSENIX Security 2025
- My ZIP isn't your ZIP: Identifying and Exploiting Semantic Gaps Between ZIP ParsersYufan You, Jianjun Chen, Qi Wang, Haixin DuanUSENIX Security 2025
它引用的顶会 Paper11
- Coverage-based Greybox Fuzzing as Markov ChainMarcel Böhme, Van-Thuan Pham, Abhik RoychoudhuryCCS 2016 · 被引用 1,026 次
- kAFL: Hardware-Assisted Feedback Fuzzing for OS KernelsSergej Schumilo, Cornelius Aschermann, Robert Gawlik, Sebastian Schinzel 等USENIX Security 2017 · 被引用 324 次
- Beyond Limits: How to Disable Validators in Secure NetworksTomas Hlavacek, Philipp Jeitner, Donika Mirdita, Haya Schulmann 等SIGCOMM 2023 · 被引用 14 次
- Behind the Scenes of RPKITomas Hlavacek, Philipp Jeitner, Donika Mirdita, Haya Schulmann 等CCS 2022 · 被引用 14 次
- Stateful Greybox FuzzingJinsheng Ba, Marcel Böhme, Zahra Mirzamomen, Abhik RoychoudhuryUSENIX Security 2022
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