Study on the Switching Model Predictive Control Algorithm in Batch Polymerization Process

In the batch polymerization process, temperature control is generally a challenging task. In this paper, a new switching model predictive control algorithm that can be effectively used for the temperature control of batch polymerization process is developed and its effectiveness is verified by introducing it to industrial batch polyvinyl chloride polymerization process. Firstly, a general analysis of the polymerization process is conducted, and based on this, the reaction starting point is determined. Secondly, a switching model identification method considering the reaction starting point and the reaction heat generated after the reaction starts is proposed. Finally, a switching model predictive control algorithm that determines the optimal manipulated value based on the on-line updated step response model is constructed, and a cascade control system using this algorithm is introduced to the temperature control of batch polyvinyl chloride suspension polymerization process. The results show that the proposed control system can significantly improve temperature control performance (overshoot: 0.2%, root mean square error: 0.3) compared to before introduction (overshoot: 1.1%, root mean square error: 1.2ྟC) .

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Publication Details

Journal
Digital Chemical Engineering
Published
2025-03-20
DOI
https://doi.org/10.1016/j.dche.2025.100232
Citations
1
Primary Topic
Advanced Control Systems Optimization
Type
article
Field-Weighted Citation Impact
1.21
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article

Study on the Switching Model Predictive Control Algorithm in Batch Polymerization Process

Sun Ig Hong, R. Kim, Un Chol Han, H.H. Jo et al.
1 citations
Digital Chemical Engineering
Advanced Control Systems Optimization
1.21
article

Study on the Switching Model Predictive Control Algorithm in Batch Polymerization Process

Sun Ig Hong, R. Kim, Un Chol Han, H.H. Jo, Chul Min Bae, H. A. Pak, Jong Nam Kim
article en
1 citations

Abstract

In the batch polymerization process, temperature control is generally a challenging task. In this paper, a new switching model predictive control algorithm that can be effectively used for the temperature control of batch polymerization process is developed and its effectiveness is verified by introducing it to industrial batch polyvinyl chloride polymerization process. Firstly, a general analysis of the polymerization process is conducted, and based on this, the reaction starting point is determined. Secondly, a switching model identification method considering the reaction starting point and the reaction heat generated after the reaction starts is proposed. Finally, a switching model predictive control algorithm that determines the optimal manipulated value based on the on-line updated step response model is constructed, and a cascade control system using this algorithm is introduced to the temperature control of batch polyvinyl chloride suspension polymerization process. The results show that the proposed control system can significantly improve temperature control performance (overshoot: 0.2%, root mean square error: 0.3) compared to before introduction (overshoot: 1.1%, root mean square error: 1.2ྟC) .

Digital Chemical EngineeringVol. 15
Pyongyang University of Science and Technology (KP), Hamhŭng University of Chemical Industry (KP)
Openalex Percentile: Top 24%
Advanced Control Systems Optimization
1.21
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Study on the Switching Model Predictive Control Algorithm in Batch Polymerization Process — Sun Ig Hong, R. Kim, et al. · Digital Chemical Engineering (2025) | TGRS Research Map | TGRS