Inspection and replacement policy with a fixed periodic schedule

•In some situations, maintenance actions may only be executed at specific times.•Then the focus becomes what maintenance to schedule at these times.•We propose a two-phase policy, first inspection, then wear-out and replacement.•Violations (defaults) of maintenance arise due to lack of time and/or r...

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Veröffentlicht in:Reliability engineering & system safety 2021-04, Vol.208, p.107402, Article 107402
Hauptverfasser: Cavalcante, Cristiano A.V., Lopes, Rodrigo S., Scarf, Philip A.
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container_title Reliability engineering & system safety
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creator Cavalcante, Cristiano A.V.
Lopes, Rodrigo S.
Scarf, Philip A.
description •In some situations, maintenance actions may only be executed at specific times.•Then the focus becomes what maintenance to schedule at these times.•We propose a two-phase policy, first inspection, then wear-out and replacement.•Violations (defaults) of maintenance arise due to lack of time and/or resources.•The fixed times of “visits” provides a framework for grouping actions for complex systems. We study an inspection and replacement policy for a system when maintenance actions are executed at times or “visits” with a fixed, periodic schedule. Then, the novel focus of the paper is not when to schedule maintenance but what maintenance to schedule at known times. Violations (defaults) may occur because time or resource is limited. The model is motivated by maintenance policy typically used for high-value, engineered systems e.g. windfarms, transportation systems, manufacturing lines. This motivation underlies the importance of the work. Inspections are modelled using the delay time concept. System lifetime is heterogeneous, so that early defects, due to say poor quality parts or installation, may occur. There is a lag between failure and corrective replacement and so we model the cost of downtime. We determine the cost-rate, system reliability and average availability of a policy with an initial inspection (preventive maintenance) phase followed by a wear-out (corrective maintenance) phase. A numerical example illustrates and investigates characteristics of the policy. Results indicate that the scheduled time for preventive replacement and the effective visit-frequency have the largest effect on policy performance. The policy is scalable to multi-component systems in a way that facilitates the study of grouping policies.
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We determine the cost-rate, system reliability and average availability of a policy with an initial inspection (preventive maintenance) phase followed by a wear-out (corrective maintenance) phase. A numerical example illustrates and investigates characteristics of the policy. Results indicate that the scheduled time for preventive replacement and the effective visit-frequency have the largest effect on policy performance. 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subjects Delay time
Downtime
Inspection
Maintenance
Motivation
Opportunistic maintenance
Preventive maintenance
Reliability engineering
Replacement
Response time
Schedules
System reliability
Transportation systems
Wind power
title Inspection and replacement policy with a fixed periodic schedule
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