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ABSTRACT
In this paper, we present how a solution framework developed for (a special case of) the multi-objective simulation-optimization problems can be applied to evaluate and optimally select the non-dominated set of inventory policies for two case study problems. Based on the concept of Pareto optimality, the solution framework mainly includes how to evaluate the quality of the selected Pareto set by two types of errors, and how to allocate the simulation replications according to some asymptotic allocation rules. Given a fixed set of inventory policies for both case study problems, the proposed solution method is applied to allocate the simulation replications. Results show that the solution framework is efficient and robust in terms of the total number of simulation replications needed to find the non-dominated Pareto set of inventory policies.
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CITED BY 2
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Peter Lendermann , Malcolm Yoke Hean Low , Boon Ping Gan , Nirupam Julka , Lai Peng Chan , Loo Hay Lee , Simon J. E. Taylor , Stephen J. Turner , Wentong Cai , Xiaoguang Wang , Terence Hung , Leon F. McGinnis , Stephen Buckley, An integrated and adaptive decision-support framework for high-tech manufacturing and service networks, Proceedings of the 37th conference on Winter simulation, December 04-07, 2005, Orlando, Florida
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