
TL;DR
This paper introduces a new generalization of the bin covering problem called the near exact bin covering problem, which is strongly NP-hard, and provides an AFPTAS for the case when the allowed deviation is a constant.
Contribution
The paper presents the first asymptotic fully polynomial time approximation scheme for the near exact bin covering problem with a constant deviation.
Findings
No bounded approximation exists for variable Δ unless P=NP.
An AFPTAS is developed for constant Δ.
The problem generalizes the classical bin covering problem.
Abstract
We present a new generalization of the bin covering problem that is known to be a strongly NP-hard problem. In our generalization there is a positive constant , and we are given a set of items each of which has a positive size. We would like to find a partition of the items into bins. We say that a bin is near exact covered if the total size of items packed into the bin is between and . Our goal is to maximize the number of near exact covered bins. If or is given as part of the input, our problem is shown here to have no approximation algorithm with a bounded asymptotic approximation ratio (assuming that ). However, for the case where is seen as a constant, we present an asymptotic fully polynomial time approximation scheme (AFPTAS) that is our main contribution.
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Taxonomy
TopicsOptimization and Packing Problems · Advanced Manufacturing and Logistics Optimization · Law, logistics, and international trade
