DocumentCode :
1138942
Title :
Optimization of cyclic production systems: a heuristic approach
Author :
Chauvet, Fabrice ; Herrmann, Jeffrey W. ; Proth, Jean-marie
Author_Institution :
Bouygues Telecom, Velizy, France
Volume :
19
Issue :
1
fYear :
2003
fDate :
2/1/2003 12:00:00 AM
Firstpage :
150
Lastpage :
154
Abstract :
In this paper, the expression "production systems" refers to flow shops, job shops, assembly systems, Kanban systems, and, in general, to any discrete event system which transforms raw material and/or components into products and/or components. Such a system is said to be cyclic if it provides the same sequence of products indefinitely. A schedule of a cyclic production system is defined as soon as the starting time of each operation on the related resource is known. It has been shown that, whatever the feasible schedule applied to the cyclic production system, it is always possible to fully utilize the bottleneck resource. In other words, it is always possible to maximize the throughput of such a system. As a consequence, we aim at finding the schedule which permits to maximize the throughput with a work in process as small as possible. We propose a heuristic approach based on Petri nets to find a near-optimal, if not optimal, solution. We also give a sufficient condition for a solution to be optimal.
Keywords :
Petri nets; discrete event systems; heuristic programming; optimisation; production control; Kanban systems; Petri nets; assembly systems; bottleneck resource; cyclic production system optimization; discrete event system; flow shops; heuristic approach; job shops; near-optimal solution; schedule; throughput maximization; Assembly systems; Discrete event systems; Discrete transforms; Flow production systems; Job production systems; Job shop scheduling; Petri nets; Production systems; Raw materials; Throughput;
fLanguage :
English
Journal_Title :
Robotics and Automation, IEEE Transactions on
Publisher :
ieee
ISSN :
1042-296X
Type :
jour
DOI :
10.1109/TRA.2002.807529
Filename :
1177173
Link To Document :
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