Design of an intelligent controller for a grain dryer: A support vector machines for regression inverse model proportional–integral–derivative controller

Abstract Grain drying control is a challenging task owing to the complex heat and mass exchange process. To precisely control the outlet grain moisture content (MC) of a continuous mixed‐flow grain dryer, in this paper, we proposed a genetically optimized inverse model proportional–integral–derivati...

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Main Authors: Aini Dai, Xiaoguang Zhou, Zidan Wu
Format: Article
Language:English
Published: Wiley 2020-02-01
Series:Food Science & Nutrition
Subjects:
Online Access:https://doi.org/10.1002/fsn3.1340
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spelling doaj-8f9c0baf88f2468e887e2d4f7a1e26612020-11-25T00:28:41ZengWileyFood Science & Nutrition2048-71772020-02-018280581910.1002/fsn3.1340Design of an intelligent controller for a grain dryer: A support vector machines for regression inverse model proportional–integral–derivative controllerAini Dai0Xiaoguang Zhou1Zidan Wu2Science and Information College Qingdao Agricultural University Qingdao ChinaSchool of Economics and Management Minjiang University Fuzhou ChinaSchool of Automation Beijing University of Posts and Telecommunications Beijing ChinaAbstract Grain drying control is a challenging task owing to the complex heat and mass exchange process. To precisely control the outlet grain moisture content (MC) of a continuous mixed‐flow grain dryer, in this paper, we proposed a genetically optimized inverse model proportional–integral–derivative (PID) controller based on support vector machines for regression algorithm which is named the GO‐SVR‐IMCPID controller. The structure of the GO‐SVR‐IMCPID controller consists of a genetic optimization algorithm, an indirect inverse model predictive controller, and a PID controller. In addition, to verify the control performances of the proposed controller in the simulation study, we have established a nonlinear mathematical model for the mixed‐flow grain dryer to represent the nonlinear grain drying process. Finally, the control performance and the robustness of the GO‐SVR‐IMCPID controller were simulated and compared with the other controllers. By the simulation results, it is shown that this proposed algorithm can track the target value precisely and has fewer steady errors and strong ability of anti‐interference. Furthermore, it has further confirmed the superiority of the proposed grain drying controller by comparing it with the other controllers.https://doi.org/10.1002/fsn3.1340genetic algorithmgrain dryingindirect inverse model controllersupport vector regression
collection DOAJ
language English
format Article
sources DOAJ
author Aini Dai
Xiaoguang Zhou
Zidan Wu
spellingShingle Aini Dai
Xiaoguang Zhou
Zidan Wu
Design of an intelligent controller for a grain dryer: A support vector machines for regression inverse model proportional–integral–derivative controller
Food Science & Nutrition
genetic algorithm
grain drying
indirect inverse model controller
support vector regression
author_facet Aini Dai
Xiaoguang Zhou
Zidan Wu
author_sort Aini Dai
title Design of an intelligent controller for a grain dryer: A support vector machines for regression inverse model proportional–integral–derivative controller
title_short Design of an intelligent controller for a grain dryer: A support vector machines for regression inverse model proportional–integral–derivative controller
title_full Design of an intelligent controller for a grain dryer: A support vector machines for regression inverse model proportional–integral–derivative controller
title_fullStr Design of an intelligent controller for a grain dryer: A support vector machines for regression inverse model proportional–integral–derivative controller
title_full_unstemmed Design of an intelligent controller for a grain dryer: A support vector machines for regression inverse model proportional–integral–derivative controller
title_sort design of an intelligent controller for a grain dryer: a support vector machines for regression inverse model proportional–integral–derivative controller
publisher Wiley
series Food Science & Nutrition
issn 2048-7177
publishDate 2020-02-01
description Abstract Grain drying control is a challenging task owing to the complex heat and mass exchange process. To precisely control the outlet grain moisture content (MC) of a continuous mixed‐flow grain dryer, in this paper, we proposed a genetically optimized inverse model proportional–integral–derivative (PID) controller based on support vector machines for regression algorithm which is named the GO‐SVR‐IMCPID controller. The structure of the GO‐SVR‐IMCPID controller consists of a genetic optimization algorithm, an indirect inverse model predictive controller, and a PID controller. In addition, to verify the control performances of the proposed controller in the simulation study, we have established a nonlinear mathematical model for the mixed‐flow grain dryer to represent the nonlinear grain drying process. Finally, the control performance and the robustness of the GO‐SVR‐IMCPID controller were simulated and compared with the other controllers. By the simulation results, it is shown that this proposed algorithm can track the target value precisely and has fewer steady errors and strong ability of anti‐interference. Furthermore, it has further confirmed the superiority of the proposed grain drying controller by comparing it with the other controllers.
topic genetic algorithm
grain drying
indirect inverse model controller
support vector regression
url https://doi.org/10.1002/fsn3.1340
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AT xiaoguangzhou designofanintelligentcontrollerforagraindryerasupportvectormachinesforregressioninversemodelproportionalintegralderivativecontroller
AT zidanwu designofanintelligentcontrollerforagraindryerasupportvectormachinesforregressioninversemodelproportionalintegralderivativecontroller
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