2019
DOI: 10.1007/978-3-030-35514-2_17
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An Interactive Polyhedral Approach for Multi-objective Combinatorial Optimization with Incomplete Preference Information

Abstract: In this paper, we develop a general interactive polyhedral approach to solve multi-objective combinatorial optimization problems with incomplete preference information. Assuming that preferences can be represented by a parameterized scalarizing function, we iteratively ask preferences queries to the decision maker in order to reduce the imprecision over the preference parameters until being able to determine her preferred solution. To produce informative preference queries at each step, we generate promising s… Show more

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Cited by 1 publication
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“…A recent paper (Benabbou and Lust 2019) proposed a similar interactive preference elicitation procedure, i.e., the queries for the user are computed using the solutions associated with the extreme points of the polytope representing the preferences learned so far. From the experimental results, it looks like the best method for query selection was Max-Dist, i.e., computing the query as the pair of solutions that maximize the corresponding Euclidean distance.…”
Section: Max Min Discrepancy (Mmd): Select a Querymentioning
confidence: 99%
“…A recent paper (Benabbou and Lust 2019) proposed a similar interactive preference elicitation procedure, i.e., the queries for the user are computed using the solutions associated with the extreme points of the polytope representing the preferences learned so far. From the experimental results, it looks like the best method for query selection was Max-Dist, i.e., computing the query as the pair of solutions that maximize the corresponding Euclidean distance.…”
Section: Max Min Discrepancy (Mmd): Select a Querymentioning
confidence: 99%