Bunshin: Compositing Security Mechanisms through Diversification (with Appendix)
May 25, 2017 Β· Declared Dead Β· π USENIX Annual Technical Conference
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Authors
Meng Xu, Kangjie Lu, Taesoo Kim, Wenke Lee
arXiv ID
1705.09165
Category
cs.CR: Cryptography & Security
Citations
34
Venue
USENIX Annual Technical Conference
Last Checked
6 months ago
Abstract
A number of security mechanisms have been proposed to harden programs written in unsafe languages, each of which mitigates a specific type of memory error. Intuitively, enforcing multiple security mechanisms on a target program will improve its overall security. However, this is not yet a viable approach in practice because the execution slowdown caused by various security mechanisms is often non-linearly accumulated, making the combined protection prohibitively expensive; further, most security mechanisms are designed for independent or isolated uses and thus are often in conflict with each other, making it impossible to fuse them in a straightforward way. In this paper, we present Bunshin, an N-version-based system that enables different and even conflicting security mechanisms to be combined to secure a program while at the same time reducing the execution slowdown. In particular, we propose an automated mechanism to distribute runtime security checks in multiple program variants in such a way that conflicts between security checks are inherently eliminated and execution slowdown is minimized with parallel execution. We also present an N-version execution engine to seamlessly synchronize these variants so that all distributed security checks work together to guarantee the security of a target program.
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