Enabling scalability-sensitive speculative parallelization for FSM computations
Junqiao Qiu, Zhijia Zhao, Bo Wu, Abhinav Vishnu, Shuaiwen Leon Song
Abstract
Open-access reader
Junqiao Qiu, Zhijia Zhao, Bo Wu, Abhinav Vishnu, Shuaiwen Leon Song
Abstract
Open-access reader
Finite state machines (FSMs) are the backbone of many applications, but are difficult to parallelize due to their inherent dependencies. Speculative FSM parallelization has shown promise on multicore machines with up to eight cores. However, as hardware parallelism grows (e.g., Xeon Phi has up to 288 logical cores), a fundamental question raises: How does the speculative FSM parallelization scale as the number of cores increases? Without answering this question, existing methods for speculative FSM parallelization simply choose to use all available cores, which might not only waste computing resources, but also result in suboptimal performance.
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Finite state machines (FSMs) are the backbone of many applications, but are difficult to parallelize due to their inherent dependencies. Speculative FSM parallelization has shown promise on multicore machines with up to eight cores. However, as hardware parallelism grows (e.g., Xeon Phi has up to 288 logical cores), a fundamental question raises: How does the speculative FSM parallelization scale as the number of cores increases? Without answering this question, existing methods for speculative FSM parallelization simply choose to use all available cores, which might not only waste computing resources, but also result in suboptimal performance.
Key concepts: Computer science, Parallel computing, Scalability, Multi-core processor, Automatic parallelization, Xeon Phi, Speculative multithreading, Xeon