An Efficient Procedure for Optimal Maintenance Intervention in Partially Observable Multi-Component Systems

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Date

2024

Journal Title

Journal ISSN

Volume Title

Publisher

Elsevier Ltd

Open Access Color

HYBRID

Green Open Access

No

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No
Impulse
Top 10%
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Average
Popularity
Top 10%

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Abstract

With rapid advances in technology, many systems are becoming more complex, including ever-increasing numbers of components that are prone to failure. In most cases, it may not be feasible from a technical or economic standpoint to dedicate a sensor for each individual component to gauge its wear and tear. To make sure that these systems that may require large capitals are economically maintained, one should provide maintenance in a way that responds to captured sensor observations. This gives rise to condition-based maintenance in partially observable multi-component systems. In this study, we propose a novel methodology to manage maintenance interventions as well as spare part quantity decisions for such systems. Our methodology is based on reducing the state space of the multi-component system and optimizing the resulting reduced-state Markov decision process via a linear programming approach. This methodology is highly scalable and capable of solving large problems that cannot be approached with the previously existing solution procedures. © 2023 The Author(s)

Description

Keywords

Condition-based maintenance, Linear programming, Markov decision process, Partially observable systems, Spare part quantity, Stochastic degradation, Condition based maintenance, Markov processes, Stochastic systems, Condition based maintenance, Linear-programming, Markov Decision Processes, Multicomponents systems, Number of components, Optimal maintenance, Partially observable systems, Spare part quantity, Spare parts, Stochastic degradation, Linear programming

Fields of Science

0209 industrial biotechnology, 0211 other engineering and technologies, 02 engineering and technology

Citation

WoS Q

Q1

Scopus Q

Q1
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OpenCitations Citation Count
6

Source

Reliability Engineering and System Safety

Volume

244

Issue

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End Page

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Scopus : 11

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Mendeley Readers : 16

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