大群高维问题的并行多目标粒子群优化

M. M. Hussain, N. Fujimoto
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引用次数: 8

摘要

近年来,有文献提出了并行的多目标粒子群优化算法。发布了无数的实现,但是它们并没有实现更快的执行时间和良好的Pareto前沿。他们暗示了档案处理的一些限制,挑选非主导解决方案,高维问题等大群体人口。此外,目前还没有研究人员同时对大群体和高维问题进行MOPSO实现和性能测试。特别是,他们跳过了高维问题。本文提出了一种基于CUDA架构的并行MOPSO在GPU上的快速实现方法,该方法使用了合并内存访问、伪随机数生成器(PRNG)、Thrust库、原子函数、并行归档等技术。此外,我们的实现对解决大群体高维优化问题的性能有积极的影响。因此,我们提出的算法可以广泛应用于实际的优化问题。所提出的采用主从模型的并行实现MOPSO与相应的CPU MOPSO相比,提供了高达182倍的加速。
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Parallel Multi-Objective Particle Swarm Optimization for Large Swarm and High Dimensional Problems
In last couple of years, parallel two or many objective MOPSO (Multi-objective Particle Swarm Optimization) have been proposed in literature. Denumerable implementations were published, however they had not achieved faster execution time and good Pareto fronts. They have alluded some limitation of archive handling, picked up nondominated solutions, high dimensional problems and so on for large swarm population. Moreover, none of the researchers have implemented MOPSO and tested the performance for large swarm population and high dimensional problem simultaneously. In particular, they skipped high dimensional problems. This paper presents a faster implementation of parallel MOPSO on a GPU based on the CUDA architecture, which uses coalescing memory access, pseudorandom number generator (PRNG), Thrust library, atomic function, parallel archiving and so on. In addition, our implementation has a positive impact on the performance to solve high dimensional optimization problems with large swarm population. Therefore, our proposed algorithm can be widely used in real optimizing problems. The proposed parallel implementation of MOPSO using a master-slave model provides up to 182 times speedup compared to the corresponding CPU MOPSO.
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