2008
DOI: 10.1016/j.disopt.2007.11.002
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Nonlinear bipartite matching

Abstract: We study the problem of optimizing nonlinear objective functions over bipartite matchings. While the problem is generally intractable, we provide several efficient algorithms for it, including a deterministic algorithm for maximizing convex objectives, approximative algorithms for norm minimization and maximization, and a randomized algorithm for optimizing arbitrary objectives.

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Cited by 24 publications
(26 citation statements)
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“…This is a transplant option for candidates who have a living donor who is medically able, but cannot donate a kidney to their intended candidate because they are incompatible (i.e., poorly matched) [1]. In this application, or application to resource allocation (such as in scheduling in a power grid) [5,20], or pattern recognition [19], data arrives sequentially and randomly, so that matching decisions must be made in real-time, taking into account the uncertainty of future requirements for supply or demand, or the uncertainty of the sequence of classification tasks to be undertaken. The choice of matching decisions can be cast as an optimal control problem for a dynamic matching model.…”
Section: Introductionmentioning
confidence: 99%
“…This is a transplant option for candidates who have a living donor who is medically able, but cannot donate a kidney to their intended candidate because they are incompatible (i.e., poorly matched) [1]. In this application, or application to resource allocation (such as in scheduling in a power grid) [5,20], or pattern recognition [19], data arrives sequentially and randomly, so that matching decisions must be made in real-time, taking into account the uncertainty of future requirements for supply or demand, or the uncertainty of the sequence of classification tasks to be undertaken. The choice of matching decisions can be cast as an optimal control problem for a dynamic matching model.…”
Section: Introductionmentioning
confidence: 99%
“…where τ u is a regularization parameter. Note that all the constraints (40), (41), (42), (43), (49), and (50) are linear in π i,j . The NOVA Algorithm for optimizing π is described in Algorithm 1.…”
Section: A Access Optimizationmentioning
confidence: 99%
“…Having these access probabilities, the new placement of the files will be S i = {ζ i (j)∀j ∈ S i }. We note that the constraints (42), (43), and (44) for the access from the modified placement of the servers will already be satisfied. The Placement Optimization subproblem is to find the optimal permutations ζ i (j).…”
Section: Placement Optimizationmentioning
confidence: 99%
“…However, often such a set is not available (see e.g. [8] for the important case of bipartite matching). We now show how to reduce convex discrete optimization to many linear discrete optimization counterparts when a set covering all edge-directions is not offhand available.…”
Section: Pseudo Polynomial Reduction When Edge-directions Are Not Avamentioning
confidence: 99%