Pareto-Based Bi-Objective Optimization Method of Sensor Placement in Structural Health Monitoring

For a practical structural health monitoring (SHM) system, the traditional single objective methods for optimal sensor placement (OSP) cannot always obtain the optimal result of sensor deployment without sacrificing other targets, which creates obstacles to the efficient use of the sensors. This stu...

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Autores principales: Shao-Xiao Nong, Dong-Hui Yang, Ting-Hua Yi
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Lenguaje:EN
Publicado: MDPI AG 2021
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Acceso en línea:https://doaj.org/article/17917874d3d44a6ba6fcc34f90bd7bf9
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spelling oai:doaj.org-article:17917874d3d44a6ba6fcc34f90bd7bf92021-11-25T17:00:19ZPareto-Based Bi-Objective Optimization Method of Sensor Placement in Structural Health Monitoring10.3390/buildings111105492075-5309https://doaj.org/article/17917874d3d44a6ba6fcc34f90bd7bf92021-11-01T00:00:00Zhttps://www.mdpi.com/2075-5309/11/11/549https://doaj.org/toc/2075-5309For a practical structural health monitoring (SHM) system, the traditional single objective methods for optimal sensor placement (OSP) cannot always obtain the optimal result of sensor deployment without sacrificing other targets, which creates obstacles to the efficient use of the sensors. This study mainly focuses on establishing a bi-objective optimization method to select the sensor placement positions. The practical significance of several single-objective criteria for OSP is firstly discussed, based on which a novel bi-objective optimization method is proposed based on the Pareto optimization process, and the corresponding objective functions are established. Furthermore, the non-dominated sorting genetic algorithm is introduced to obtain a series of the Pareto optimal solutions, from which the final solution can be determined based on a new defined membership degree index. Finally, a numerical example of a plane truss is applied to illustrate the proposed method. The Pareto optimization-based bi-objective OSP framework presented in this study could be well suited for solving the problem of multi-objective OSP, which can effectively improve the efficiency of the limited sensors in SHM system.Shao-Xiao NongDong-Hui YangTing-Hua YiMDPI AGarticlestructural health monitoringoptimal sensor placementbi-objective optimizationPareto optimizationnon-dominated sorting genetic algorithmBuilding constructionTH1-9745ENBuildings, Vol 11, Iss 549, p 549 (2021)
institution DOAJ
collection DOAJ
language EN
topic structural health monitoring
optimal sensor placement
bi-objective optimization
Pareto optimization
non-dominated sorting genetic algorithm
Building construction
TH1-9745
spellingShingle structural health monitoring
optimal sensor placement
bi-objective optimization
Pareto optimization
non-dominated sorting genetic algorithm
Building construction
TH1-9745
Shao-Xiao Nong
Dong-Hui Yang
Ting-Hua Yi
Pareto-Based Bi-Objective Optimization Method of Sensor Placement in Structural Health Monitoring
description For a practical structural health monitoring (SHM) system, the traditional single objective methods for optimal sensor placement (OSP) cannot always obtain the optimal result of sensor deployment without sacrificing other targets, which creates obstacles to the efficient use of the sensors. This study mainly focuses on establishing a bi-objective optimization method to select the sensor placement positions. The practical significance of several single-objective criteria for OSP is firstly discussed, based on which a novel bi-objective optimization method is proposed based on the Pareto optimization process, and the corresponding objective functions are established. Furthermore, the non-dominated sorting genetic algorithm is introduced to obtain a series of the Pareto optimal solutions, from which the final solution can be determined based on a new defined membership degree index. Finally, a numerical example of a plane truss is applied to illustrate the proposed method. The Pareto optimization-based bi-objective OSP framework presented in this study could be well suited for solving the problem of multi-objective OSP, which can effectively improve the efficiency of the limited sensors in SHM system.
format article
author Shao-Xiao Nong
Dong-Hui Yang
Ting-Hua Yi
author_facet Shao-Xiao Nong
Dong-Hui Yang
Ting-Hua Yi
author_sort Shao-Xiao Nong
title Pareto-Based Bi-Objective Optimization Method of Sensor Placement in Structural Health Monitoring
title_short Pareto-Based Bi-Objective Optimization Method of Sensor Placement in Structural Health Monitoring
title_full Pareto-Based Bi-Objective Optimization Method of Sensor Placement in Structural Health Monitoring
title_fullStr Pareto-Based Bi-Objective Optimization Method of Sensor Placement in Structural Health Monitoring
title_full_unstemmed Pareto-Based Bi-Objective Optimization Method of Sensor Placement in Structural Health Monitoring
title_sort pareto-based bi-objective optimization method of sensor placement in structural health monitoring
publisher MDPI AG
publishDate 2021
url https://doaj.org/article/17917874d3d44a6ba6fcc34f90bd7bf9
work_keys_str_mv AT shaoxiaonong paretobasedbiobjectiveoptimizationmethodofsensorplacementinstructuralhealthmonitoring
AT donghuiyang paretobasedbiobjectiveoptimizationmethodofsensorplacementinstructuralhealthmonitoring
AT tinghuayi paretobasedbiobjectiveoptimizationmethodofsensorplacementinstructuralhealthmonitoring
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