Multi-Objective Control Optimization for Greenhouse Environment Using Evolutionary Algorithms

This paper investigates the issue of tuning the Proportional Integral and Derivative (PID) controller parameters for a greenhouse climate control system using an Evolutionary Algorithm (EA) based on multiple performance measures such as good static-dynamic performance specifications and the smooth p...

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Main Authors: Haigen Hu, Bingkun Zhu, Lihong Xu, Ruihua Wei
Format: Article
Language:English
Published: MDPI AG 2011-05-01
Series:Sensors
Subjects:
Online Access:http://www.mdpi.com/1424-8220/11/6/5792/
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spelling doaj-f264538f88b34e3e933655498ea69e812020-11-25T00:21:12ZengMDPI AGSensors1424-82202011-05-011165792580710.3390/s110605792Multi-Objective Control Optimization for Greenhouse Environment Using Evolutionary AlgorithmsHaigen HuBingkun ZhuLihong XuRuihua WeiThis paper investigates the issue of tuning the Proportional Integral and Derivative (PID) controller parameters for a greenhouse climate control system using an Evolutionary Algorithm (EA) based on multiple performance measures such as good static-dynamic performance specifications and the smooth process of control. A model of nonlinear thermodynamic laws between numerous system variables affecting the greenhouse climate is formulated. The proposed tuning scheme is tested for greenhouse climate control by minimizing the integrated time square error (ITSE) and the control increment or rate in a simulation experiment. The results show that by tuning the gain parameters the controllers can achieve good control performance through step responses such as small overshoot, fast settling time, and less rise time and steady state error. Besides, it can be applied to tuning the system with different properties, such as strong interactions among variables, nonlinearities and conflicting performance criteria. The results implicate that it is a quite effective and promising tuning method using multi-objective optimization algorithms in the complex greenhouse production.http://www.mdpi.com/1424-8220/11/6/5792/greenhouse environment controlPID controlfeedback controlmulti-objective optimizationevolutionary algorithmsnonlinear systems
collection DOAJ
language English
format Article
sources DOAJ
author Haigen Hu
Bingkun Zhu
Lihong Xu
Ruihua Wei
spellingShingle Haigen Hu
Bingkun Zhu
Lihong Xu
Ruihua Wei
Multi-Objective Control Optimization for Greenhouse Environment Using Evolutionary Algorithms
Sensors
greenhouse environment control
PID control
feedback control
multi-objective optimization
evolutionary algorithms
nonlinear systems
author_facet Haigen Hu
Bingkun Zhu
Lihong Xu
Ruihua Wei
author_sort Haigen Hu
title Multi-Objective Control Optimization for Greenhouse Environment Using Evolutionary Algorithms
title_short Multi-Objective Control Optimization for Greenhouse Environment Using Evolutionary Algorithms
title_full Multi-Objective Control Optimization for Greenhouse Environment Using Evolutionary Algorithms
title_fullStr Multi-Objective Control Optimization for Greenhouse Environment Using Evolutionary Algorithms
title_full_unstemmed Multi-Objective Control Optimization for Greenhouse Environment Using Evolutionary Algorithms
title_sort multi-objective control optimization for greenhouse environment using evolutionary algorithms
publisher MDPI AG
series Sensors
issn 1424-8220
publishDate 2011-05-01
description This paper investigates the issue of tuning the Proportional Integral and Derivative (PID) controller parameters for a greenhouse climate control system using an Evolutionary Algorithm (EA) based on multiple performance measures such as good static-dynamic performance specifications and the smooth process of control. A model of nonlinear thermodynamic laws between numerous system variables affecting the greenhouse climate is formulated. The proposed tuning scheme is tested for greenhouse climate control by minimizing the integrated time square error (ITSE) and the control increment or rate in a simulation experiment. The results show that by tuning the gain parameters the controllers can achieve good control performance through step responses such as small overshoot, fast settling time, and less rise time and steady state error. Besides, it can be applied to tuning the system with different properties, such as strong interactions among variables, nonlinearities and conflicting performance criteria. The results implicate that it is a quite effective and promising tuning method using multi-objective optimization algorithms in the complex greenhouse production.
topic greenhouse environment control
PID control
feedback control
multi-objective optimization
evolutionary algorithms
nonlinear systems
url http://www.mdpi.com/1424-8220/11/6/5792/
work_keys_str_mv AT haigenhu multiobjectivecontroloptimizationforgreenhouseenvironmentusingevolutionaryalgorithms
AT bingkunzhu multiobjectivecontroloptimizationforgreenhouseenvironmentusingevolutionaryalgorithms
AT lihongxu multiobjectivecontroloptimizationforgreenhouseenvironmentusingevolutionaryalgorithms
AT ruihuawei multiobjectivecontroloptimizationforgreenhouseenvironmentusingevolutionaryalgorithms
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