Bin packing with general cost structures
Leah Epstein, Asaf Levin

TL;DR
This paper introduces an AFPTAS for bin packing with general concave cost functions, extending classic bin packing to more complex cost structures and providing efficient approximation algorithms.
Contribution
The paper develops a novel AFPTAS for GCBP and a fast 1.5-approximation algorithm applicable to all non-decreasing concave cost functions.
Findings
Successfully designed an AFPTAS for GCBP.
Created a fast 1.5-approximation algorithm for all concave cost functions.
Developed new techniques for handling small items in GCBP.
Abstract
Following the work of Anily et al., we consider a variant of bin packing, called "bin packing with general cost structures" (GCBP) and design an asymptotic fully polynomial time approximation scheme (AFPTAS) for this problem. In the classic bin packing problem, a set of one-dimensional items is to be assigned to subsets of total size at most 1, that is, to be packed into unit sized bins. However, in GCBP, the cost of a bin is not 1 as in classic bin packing, but it is a non-decreasing and concave function of the number of items packed in it, where the cost of an empty bin is zero. The construction of the AFPTAS requires novel techniques for dealing with small items, which are developed in this work. In addition, we develop a fast approximation algorithm which acts identically for all non-decreasing and concave functions, and has an asymptotic approximation ratio of 1.5 for all functions…
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Taxonomy
TopicsOptimization and Packing Problems · Manufacturing Process and Optimization · Computational Geometry and Mesh Generation
