A Zonotope-based Big Data-driven Predictive Control Approach for Nonlinear Processes

A zonotope-based big data-driven predictive control (BDPC) approach is developed to partition the nonlinear process behaviour (represented by an input-output trajectory set) into multiple linear sub-behaviours using a two-step hierarchical clustering: Euclidean distance-based clustering and linear subspace distance-based clustering. By approximating every linear sub-behaviour as a zonotope, a data-driven interpolation is developed based on the convex combination of zonotopes. During online control, a BDPC controller is designed by determining an interpolated zonotope where its centre trajectory is closest to the online trajectory and computing the control action subject to an optimisation problem. The proposed BDPC approach is illustrated using a case study on controlling an aluminium smelting process.

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Publication Details

Journal
IFAC-PapersOnLine
Published
2025-01-01
DOI
https://doi.org/10.1016/j.ifacol.2025.07.117
Citations
1
Primary Topic
Advanced Control Systems Optimization
Type
article
Field-Weighted Citation Impact
1.21
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article

A Zonotope-based Big Data-driven Predictive Control Approach for Nonlinear Processes

Jie Bao, Yitao Yan, Biao Huang, Shuangyu Han
1 citations
IFAC-PapersOnLine
Advanced Control Systems Optimization
1.21
article

A Zonotope-based Big Data-driven Predictive Control Approach for Nonlinear Processes

Jie Bao, Yitao Yan, Biao Huang, Shuangyu Han
article en
1 citations

Abstract

A zonotope-based big data-driven predictive control (BDPC) approach is developed to partition the nonlinear process behaviour (represented by an input-output trajectory set) into multiple linear sub-behaviours using a two-step hierarchical clustering: Euclidean distance-based clustering and linear subspace distance-based clustering. By approximating every linear sub-behaviour as a zonotope, a data-driven interpolation is developed based on the convex combination of zonotopes. During online control, a BDPC controller is designed by determining an interpolated zonotope where its centre trajectory is closest to the online trajectory and computing the control action subject to an optimisation problem. The proposed BDPC approach is illustrated using a case study on controlling an aluminium smelting process.

IFAC-PapersOnLineVol. 59(6)
University of Alberta (CA), UNSW Sydney (AU)
Climate action
Openalex Percentile: Top 18%
Advanced Control Systems Optimization
1.21
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