首页> 外文期刊>Journal of Artificial Intelligence and Soft Computing Research >Can Learning Vector Quantization be an Alternative to SVM and Deep Learning? - Recent Trends and Advanced Variants of Learning Vector Quantization for Classification Learning
【24h】

Can Learning Vector Quantization be an Alternative to SVM and Deep Learning? - Recent Trends and Advanced Variants of Learning Vector Quantization for Classification Learning

机译:学习矢量量化可以替代SVM和深度学习吗? -分类向量学习向量量化的最新趋势和高级变体

获取原文
           

摘要

Learning vector quantization (LVQ) is one of the most powerful approaches for prototype based classification of vector data, intuitively introduced by Kohonen. The prototype adaptation scheme relies on its attraction and repulsion during the learning providing an easy geometric interpretability of the learning as well as of the classification decision scheme. Although deep learning architectures and support vector classifiers frequently achieve comparable or even better results, LVQ models are smart alternatives with low complexity and computational costs making them attractive for many industrial applications like intelligent sensor systems or advanced driver assistance systems.Nowadays, the mathematical theory developed for LVQ delivers sufficient justification of the algorithm making it an appealing alternative to other approaches like support vector machines and deep learning techniques.This review article reports current developments and extensions of LVQ starting from the generalized LVQ (GLVQ), which is known as the most powerful cost function based realization of the original LVQ. The cost function minimized in GLVQ is an soft-approximation of the standard classification error allowing gradient descent learning techniques. The GLVQ variants considered in this contribution, cover many aspects like bordersensitive learning, application of non-Euclidean metrics like kernel distances or divergences, relevance learning as well as optimization of advanced statistical classification quality measures beyond the accuracy including sensitivity and specificity or area under the ROC-curve.According to these topics, the paper highlights the basic motivation for these variants and extensions together with the mathematical prerequisites and treatments for integration into the standard GLVQ scheme and compares them to other machine learning approaches. For detailed description and mathematical theory behind all, the reader is referred to the respective original articles.Thus, the intention of the paper is to provide a comprehensive overview of the stateof- the-art serving as a starting point to search for an appropriate LVQ variant in case of a given specific classification problem as well as a reference to recently developed variants and improvements of the basic GLVQ scheme.
机译:Kohonen直观地介绍了学习矢量量化(LVQ)是基于原型的矢量数据分类的最强大方法之一。原型适应方案依赖于其在学习期间的吸引和排斥,从而为学习以及分类决策方案提供了简单的几何可解释性。尽管深度学习架构和支持向量分类器通常可以达到相当甚至更好的结果,但LVQ模型是具有低复杂度和计算成本的智能替代方案,因此对于智能传感器系统或高级驾驶员辅助系统等许多工业应用具有吸引力。 LVQ提供了充分的算法证明,使其成为支持向量机和深度学习技术等其他方法的吸引人的替代品。这篇综述文章从最普遍的LVQ(GLVQ)开始报道了LVQ的最新发展和扩展。基于功能强大的成本函数的原始LVQ实现。在GLVQ中最小化的成本函数是对标准分类误差的软近似,允许梯度下降学习技术。此贡献中考虑的GLVQ变体涵盖了许多方面,例如边界敏感学习,非欧几里得度量的应用(例如核距离或散度),相关性学习以及高级统计分类质量度量的优化,其准确性超出了敏感性和特异性或面积。 ROC曲线。根据这些主题,本文重点介绍了这些变体和扩展的基本动机以及与标准GLVQ方案集成的数学先决条件和处理方法,并将它们与其他机器学习方法进行了比较。对于所有内容的详细描述和数学理论,读者可以参考各自的原始文章。因此,本文的目的是提供有关最新技术的全面概述,以此作为寻找合适的LVQ的起点。给定特定分类问题的情况下,请参考最近的变体以及对基本GLVQ方案的改进。

著录项

相似文献

  • 外文文献
  • 中文文献
  • 专利
获取原文

客服邮箱:kefu@zhangqiaokeyan.com

京公网安备:11010802029741号 ICP备案号:京ICP备15016152号-6 六维联合信息科技 (北京) 有限公司©版权所有
  • 客服微信

  • 服务号