HDFI: Hardware-Assisted Data-Flow Isolation
Chengyu Song, Hyungon Moon, Monjur Alam, Insu Yun, Byoungyoung Lee, Taesoo Kim, Wenke Lee, Yunheung Paek
Abstract
Memory corruption vulnerabilities are the root cause of many modern attacks. Existing defense mechanisms are inadequate; in general, the software-based approaches are not efficient and the hardware-based approaches are not flexible. In this paper, we present hardware-assisted data-flow isolation, or, HDFI, a new fine-grained data isolation mechanism that is broadly applicable and very efficient. HDFI enforces isolation at the machine word granularity by virtually extending each memory unit with an additional tag that is defined by dataflow. This capability allows HDFI to enforce a variety of security models such as the Biba Integrity Model and the Bell -- LaPadula Model. We implemented HDFI by extending the RISC-V instruction set architecture (ISA) and instantiating it on the Xilinx Zynq ZC706 evaluation board. We ran several benchmarks including the SPEC CINT 2000 benchmark suite. Evaluation results show that the performance overhead caused by our modification to the hardware is low (<; 2%). We also developed or ported several security mechanisms to leverage HDFI, including stack protection, standard library enhancement, virtual function table protection, code pointer protection, kernel data protection, and information leak prevention. Our results show that HDFI is easy to use, imposes low performance overhead, and allows us to create more elegant and more secure solutions.
Ask about this paper
Your agent reads all of it.
Lune indexed this paper to the last equation, along with the top-tier papers that cite it. Ask a question and the answer quotes them.
Your agent calls
Luneget_paper_fulltext
Free to start. No credit card required.
Terminal
Install the CLIlune papers fulltext 018d1d94-3a42-463e-9b54-99568233039bCited by top-tier papers35
- PAC it up: Towards Pointer Integrity using ARM Pointer AuthenticationHans Liljestrand, Thomas Nyman, Kui Wang, Carlos Chinea Perez et al.USENIX Security 2019 · 168 citations
- CURE: A Security Architecture with CUstomizable and Resilient EnclavesRaad Bahmani, Ferdinand Brasser, Ghada Dessouky, Patrick Jauernig et al.USENIX Security 2021 · 150 citations
- TIMBER-V: Tag-Isolated Memory Bringing Fine-grained Enclaves to RISC-VSamuel Weiser, Mario Werner, Ferdinand Brasser, Maja Malenko et al.NDSS 2019 · 115 citations
- IMIX: In-Process Memory Isolation EXtensionTommaso Frassetto, Patrick Jauernig, Christopher Liebchen, Ahmad-Reza SadeghiUSENIX Security 2018 · 77 citations
- DynPTA: Combining Static and Dynamic Analysis for Practical Selective Data ProtectionTapti Palit, Jarin Firose Moon, Fabian Monrose, Michalis PolychronakisS&P 2021 · 48 citations
Builds on2
Related papers
- xMP: Selective Memory Protection for Kernel and User SpaceSergej Proskurin, Marius Momeu, Seyedhamed Ghavamnia, Vasileios P. Kemerlis et al.S&P 2020 · 89 citations
- SEIMI: Efficient and Secure SMAP-Enabled Intra-process Memory IsolationZhe Wang, Chenggang Wu, Mengyao Xie, Yinqian Zhang et al.S&P 2020 · 37 citations
- Control Flow and Pointer Integrity Enforcement in a Secure Tagged ArchitectureRavi Theja Gollapudi, Gokturk Yuksek, David Demicco, Matthew Cole et al.S&P 2023
- Camouflage: Hardware-assisted CFI for the ARM Linux kernelRémi Denis-Courmont, Hans Liljestrand, Carlos Chinea Perez, Jan-Erik EkbergDAC 2020 · 18 citations
- Enforcing Kernel Security Invariants with Data Flow IntegrityChengyu Song, Byoungyoung Lee, Kangjie Lu, William Harris et al.NDSS 2016 · 141 citations
