A General Framework for Designing Approximation Schemes for Combinatorial Optimization Problems with Many Objectives Combined into One
Shashi Mittal, Andreas S. Schulz
Abstract
Shashi Mittal, Andreas S. Schulz
Abstract
Abstract. In this paper, we propose a general framework for design-ing fully polynomial time approximation schemes for combinatorial opti-mization problems, in which more than one objective function are com-bined into one using any norm. The main idea is to exploit the approx-imate Pareto-optimal frontier for multi-criteria optimization problems. Using this approach, we obtain an FPTAS for a novel resource allo-cation problem, for the problem of scheduling jobs on unrelated par-allel machines, and for the Santa Claus problem, when the number of agents/machines is fixed, for any norm, including the l∞-norm. More-over, either FPTAS can be implemented in a manner so that the space requirements are polynomial in all input parameters. We also give ap-proximation algorithms and hardness results for the resource allocation problem when the number of agents is not fixed. 1
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Abstract. In this paper, we propose a general framework for design-ing fully polynomial time approximation schemes for combinatorial opti-mization problems, in which more than one objective function are com-bined into one using any norm. The main idea is to exploit the approx-imate Pareto-optimal frontier for multi-criteria optimization problems. Using this approach, we obtain an FPTAS for a novel resource allo-cation problem, for the problem of scheduling jobs on unrelated par-allel machines, and for the Santa Claus problem, when the number of agents/machines is fixed, for any norm, including the l∞-norm. More-over, either FPTAS can be implemented in a manner so that the space requirements are polynomial in all input parameters. We also give ap-proximation algorithms and hardness results for the resource allocation problem when the number of agents is not fixed. 1
Key concepts: Mathematical optimization, Multi-objective optimization, Optimization problem, Mathematics, Combinatorial optimization, Approximation algorithm, Job shop scheduling, Function (biology)