文章摘要
Deng Junyong (邓军勇)*,Li Zhe*,Xie Xiaoyan**,Zhu Yun*,Lu Songtao*,Hu Bin***.[J].高技术通讯(英文),2026,32(3):322~332
RSM: dynamic self-reconfiguration mechanism for AI accelerators based on runtime status monitoring
  
DOI:10. 3772 / j. issn. 1006-6748. 2026. 03. 011
中文关键词: 
英文关键词: AI accelerators, runtime status monitoring, self-reconfiguration mechanism, programmable state manager
基金项目:
Author NameAffiliation
Deng Junyong (邓军勇)* (*School of Electronic Engineering, Xi’an University of Posts and Telecommunications, Xi’an 710121, P. R. China) (**School of Computer, Xi’an University of Posts and Telecommunications, Xi’an 710121, P. R. China) (***Department of Computer Science and Technology, Kean University, 07083, USA) 
Li Zhe*  
Xie Xiaoyan**  
Zhu Yun*  
Lu Songtao*  
Hu Bin***  
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中文摘要:
      
英文摘要:
      Driven by the increasing complexity of deep learning models , traditional processors face limita- tions in terms of energy efficiency and flexibility. Coarse-grained reconfigurable arrays ( CGRAs ) balance performance and energy efficiency through dynamic configuration , but they lack real-time task state monitoring and precise resource scheduling. This results in low processing element ( PE ) utilization and significant performance loss. To address these issues , this paper proposes a self- reconfiguration mechanism based on runtime status monitoring (RSM) . A programmable state man- ager performs runtime evaluation and decision-making for the PE array , enabling dynamic task scheduling and context switching within 6 clock cycles. Evaluations on simultaneous localization and mapping ( SLAM ) and expectation-maximization (EM) routing algorithms demonstrate the effective- ness of the proposed RSM mechanism. The proposed design achieves an EM routing time of 9. 30 μs and a SLAM execution time of 0. 13 ms. For the SLAM algorithm , the execution time is reduced from 119 052 cycles to 52 050 cycles , corresponding to a 56. 28% reduction and a 2. 29 × speed- up. For the EM routing algorithm , the execution time is reduced from 7 521 cycles to 3 730 cycles , corresponding to a 50. 41% reduction and a 2. 02 × speedup. In addition , the reconfiguration time is reduced by 47. 35% for SLAM and 49. 97% for EM routing. PE utilization increases from 20. 00% to 40.00% for SLAM , and instruction-flow PE utilization increases from 25. 00% to 50. 00% for EM routing.
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