Solving multi-objective rescheduling problems in dynamic permutation flow shop environments with disruptions

In multi-objective optimisation problems, optimal decisions need to be made in the presence of trade-offs among conflicting objectives which may sometimes be expressed in different units of measure. This makes it difficult to reduce the problem to a single-objective optimisation. Furthermore, when d...

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Veröffentlicht in:International journal of production research 2018-10, Vol.56 (19), p.6363-6377
Hauptverfasser: Valledor, Pablo, Gomez, Alberto, Priore, Paolo, Puente, Javier
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container_issue 19
container_start_page 6363
container_title International journal of production research
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creator Valledor, Pablo
Gomez, Alberto
Priore, Paolo
Puente, Javier
description In multi-objective optimisation problems, optimal decisions need to be made in the presence of trade-offs among conflicting objectives which may sometimes be expressed in different units of measure. This makes it difficult to reduce the problem to a single-objective optimisation. Furthermore, when disruptive changes emerge in manufacturing environments, such as the arrival of new jobs or machine breakdowns, the scheduling system should be adapted by responding quickly. In this paper, we propose a rescheduling architecture for solving the problem based on a predictive-reactive strategy and a new method to calculate the reactive schedule in each rescheduling period. Additionally, we developed a methodology that allows the use of multi-objective performance metrics to evaluate dispatching rules. These rules are applied at a benchmark specifically designed for this paper considering three objective functions: makespan, total weighted tardiness and stability. Three types of disruptions are also considered: arrivals of new jobs, machine breakdowns and variations in job processing times. Results showed that the RANDOM rule provides a better behaviour compared to other evaluated rules and a lower ratio of non-dominated solutions compared to ATC (apparent tardiness cost) and FIFO (first-in-first-out) rules. Moreover, the behaviour of the hypervolume metric depends on the problem dimensions.
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source Business Source Complete; Taylor & Francis Journals Complete
subjects arrival of new jobs
Breakdown
Breakdowns
Dispatching rules
Job shops
machine breakdowns
Mathematical analysis
multi-objective
Multiple objective analysis
Optimization
Performance measurement
Permutations
predictive-reactive
Production scheduling
Rescheduling
stochastic processing times
title Solving multi-objective rescheduling problems in dynamic permutation flow shop environments with disruptions
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