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Blind optimisation problem instance classification via enhanced universal similarity metric

机译:通过增强的通用相似度度量进行盲优化问题实例分类

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The ultimate aim of Memetic Computing is the fully autonomous solution to complex optimisation problems. For a while now, theMemetic algorithms literature has been moving in the direction of ever increasing generalisation of optimisers initiated by seminal papers such as Krasnogor and Smith (IEEE Trans 9(5):474-488, 2005;Workshops Proceedings of the 2000 International Genetic and Evolutionary Computation Conference (GECCO2000), 2000), Krasnogor and Gustafson (Advances in nature-inspired computation:the PPSN VII Workshops 16(52), 2002) and followed by related and more recent work such as Ong and Keane (IEEE Trans Evol Comput 8(2):99-110, 2004), Ong et al. (IEEE Comp Int Mag 5(2):24-31, 2010), Burke et al. (Hyper-heuristics:an emerging direction in modern search technology, 2003). In this recent trend to ever greater generalisation and applicability, the research has focused on selecting (or even evolving), the right search operator(s) to use when tackling a given instance of a fixed problem type (e.g. Euclidean 2D TSP) within a range of optimisation frameworks (Krasnogor, Handbook of natural computation, Springer, Berlin/Heidelberg, 2009). This paper is the first step up the generalisation ladder, where one assumes that the optimiser is given (perhaps by other solvers who do not necessarily know how to deal with a given problem instance) a problem instance to tackle and it must autonomously and without human intervention pre-select which is the likely family class of problems the instance belongs to. In order to do that we propose an Automatic Problem Classifier System able to identify automatically which kind of instance or problem the system is dealing with. We test an innovative approach to the Universal Similarity Metric, as a variant of the normalised compression distance (NCD), to classify different problem instances. This version is based on the management of compression dictionaries. The results obtained are encouraging as we achieve a 96% average classification success with the studied dataset.
机译:Memetic计算的最终目标是针对复杂优化问题的完全自主的解决方案。一段时间以来,Memetic算法文献一直朝着由克拉斯诺戈尔和史密斯(IEEE Trans 9(5):474-488,2005; Workshops of the 2000 International Genetic和进化计算会议(GECCO2000),2000年),Krasnogor和Gustafson(自然启发计算的进展:PPSN VII Workshops 16(52),2002年),随后又进行了相关的更新工作,例如Ong和Keane(IEEE Trans Evol (Comput 8(2):99-110,2004),Ong等。 (IEEE Comp Int Mag 5(2):24-31,2010),Burke等。 (Hyper-heuristics:现代搜索技术的新兴方向,2003年)。在这种日益普遍化和适用性的最新趋势中,研究集中在选择(甚至发展)正确的搜索运算符,以便在解决某个固定问题类型(例如Euclidean 2D TSP)的给定实例时使用。优化框架的范围(Krasnogor,自然计算手册,Springer,柏林/海德堡,2009年)。本文是迈向一般化阶梯的第一步,其中假定假定了优化器(也许是其他不一定知道如何处理给定问题实例的求解器)要解决的问题实例,并且它必须是自主的并且无需人工干预预选,这是实例所属的问题的可能家族类别。为了做到这一点,我们提出了一个自动问题分类系统,该系统能够自动识别系统正在处理哪种类型的实例或问题。我们测试了通用相似度度量的一种创新方法,作为归一化压缩距离(NCD)的变体,可以对不同的问题实例进行分类。此版本基于压缩字典的管理。所获得的结果令人鼓舞,因为我们使用研究的数据集实现了96%的平均分类成功率。

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