International Journal of Control, Automation, and Systems 2024; 22(1): 323-332
https://doi.org/10.1007/s12555-022-0651-1
© The International Journal of Control, Automation, and Systems
How to improve the efficiency of bag filters has attracted a considerable amount of attention. However, effective control of the transition stage, which plays an important role in reducing the time to reach a new steady state, still lacks research. Here, we utilize a nominal linear system with a time delay to characterize the transition stage. We introduce two state feedback mechanisms, namely linear matrix inequality based state-feedback robust controller and parameter-tuning controller based on nonlinear matrix inequality, into control process. Results of both genetic algorithms simulations and closed-loop control experiments show that these controllers dramatically shorten the transition stage compared to open-loop control. Furthermore, we find that parameter-tuning controller outperforms linear matrix inequality based state-feedback robust controller in terms of both stable time and steady error. These results are robust to different experimental settings. From industrial economic perspective, this technology could help to conserve energy and protect environment.
Keywords Bag filter, genetic algorithms, linear matrix inequality, parameter-tuning controller, state feedback mechanism, transition stage.
International Journal of Control, Automation, and Systems 2024; 22(1): 323-332
Published online January 1, 2024 https://doi.org/10.1007/s12555-022-0651-1
Copyright © The International Journal of Control, Automation, and Systems.
Kun Li, Yukai Li, Rui Cong*, Zheng Xu, Lei Zhang, Libing Liu, and Song Zhang
Beijing Information Science and Technology University
How to improve the efficiency of bag filters has attracted a considerable amount of attention. However, effective control of the transition stage, which plays an important role in reducing the time to reach a new steady state, still lacks research. Here, we utilize a nominal linear system with a time delay to characterize the transition stage. We introduce two state feedback mechanisms, namely linear matrix inequality based state-feedback robust controller and parameter-tuning controller based on nonlinear matrix inequality, into control process. Results of both genetic algorithms simulations and closed-loop control experiments show that these controllers dramatically shorten the transition stage compared to open-loop control. Furthermore, we find that parameter-tuning controller outperforms linear matrix inequality based state-feedback robust controller in terms of both stable time and steady error. These results are robust to different experimental settings. From industrial economic perspective, this technology could help to conserve energy and protect environment.
Keywords: Bag filter, genetic algorithms, linear matrix inequality, parameter-tuning controller, state feedback mechanism, transition stage.
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