Fast Client-Driven CFL-Reachability via Regularization-Based Graph Simplification
Context-free language (CFL) reachability is a critical framework for various program analyses, widely adopted despite its computational challenges due to cubic or near-cubic time complexity. This often leads to significant performance degradation in client applications. Notably, in real-world scenarios, clients typically require reachability information only for specific source-to-sink pairs, offering opportunities for targeted optimization.
We introduce MoYe, an effective regularization-based graph simplification technique designed to enhance the performance of client-driven CFL-reachability analyses by pruning non-contributing edges—those that do not participate in any specified CFL-reachable paths. MoYe employs a regular approximation to ensure exact reachability results for all designated node pairs and operates linearly with respect to the number of edges in the graph. This lightweight efficiency makes MoYe a valuable pre-processing step that substantially reduces both computational time and memory requirements for CFL-reachability analysis, outperforming a recent leading graph simplification approach. Our evaluations with two prominent CFL-reachability client applications demonstrate that MoYe can substantially improve performance and reduce resource consumption.
Fri 17 OctDisplayed time zone: Perth change
10:30 - 12:15 | |||
10:30 15mTalk | Fast Client-Driven CFL-Reachability via Regularization-Based Graph Simplification OOPSLA Chenghang Shi SKLP, Institute of Computing Technology, CAS, Dongjie He Chongqing University, China, Haofeng Li SKLP, Institute of Computing Technology, CAS, Jie Lu SKLP, Institute of Computing Technology, CAS, China, Lian Li Institute of Computing Technology at Chinese Academy of Sciences; University of Chinese Academy of Sciences, Jingling Xue University of New South Wales | ||
10:45 15mTalk | Flexible and Expressive Typed Path Patterns for GQL OOPSLA Wenjia Ye National University of Singapore, Matías Toro University of Chile, Tomás Diaz University of Chile, Bruno C. d. S. Oliveira University of Hong Kong, Manuel Rigger National University of Singapore, Claudio Gutierrez DCC, Universidad de Chile & IMFD, Domagoj Vrgoč Pontificia Universidad Católica de Chile & IMFD Chile | ||
11:00 15mTalk | Quantified Underapproximation via Labeled Bunches OOPSLA Lang Liu Illinois Institute of Technology, Farzaneh Derakhshan Illinois Institute of Technology, Limin Jia Carnegie Mellon University, Gabriel A. Moreno Carnegie Mellon University Software Engineering Institute, Mark Klein Carnegie Mellon University | ||
11:15 15mTalk | HpC: A Calculus for Hybrid and Mobile Systems OOPSLA Xiong Xu Institute of Software, Chinese Academy of Sciences, Jean-Pierre Talpin INRIA, France, Shuling Wang Institute of Software, Chinese Academy of Sciences, Bohua Zhan Huawei Technologies Co., Ltd., Xinxin Liu Institute of software, Chinese academy of sciences, Naijun Zhan Peking University | ||
11:30 15mTalk | Notions of Stack-manipulating Computation and Relative Monads OOPSLA Yuchen Jiang University of Michigan, Runze Xue University of Michigan; University of Cambridge; Indiana University, Max S. New University of Michigan | ||