1. What are the contributions mentioned in the paper "Boolean lexicographic optimization: algorithms & applications" ?
This paper develops and evaluates algorithms for solving MOCO problems, defined on Boolean domains, and where the optimality criterion is lexicographic.. Experimental results, obtained on problem instances from haplotyping with pedigrees and software package dependencies, show that the proposed algorithms can provide significant performance gains over state of the art MaxSAT, PBO and ILP algorithms.. Finally, the paper also shows that lexicographic optimization conditions are observed in the majority of the problem instances from the MaxSAT evaluations, motivating the development of dedicated algorithms that can exploit lexicographic optimization conditions in general MaxSAT problem instances.
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2. What are the future works in "Boolean lexicographic optimization: algorithms & applications" ?
Future work will address tighter integration between default solvers and the algorithms for lexicographic optimization.. This can be done at different levels.
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3. What is the p cost function for the optimization problem?
The p cost functions capturing the optimization problem represent a multi-dimensional function: f : {0, 1}n → Zp, with f(x) = (f1(x), . . . , fp(x)).
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4. What is the optimum weight for the set of clauses?
In the first step, k = 1, the weights are rescaled such that w1 = 1 and w0 = 1×(1+1) = 2 = >, so that the set of weighted clauses isC = { (¬x1, 1)| {z } C1 , (x1,>)| {z } C0 }.
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![Table 3 Example Mancoosi [41,8] Benchmark Suites](/figures/table-3-example-mancoosi-418-benchmark-suites-3419eyqk.png)
