Fusion of deep learning architectures, multilayer feedforward networks and learning vector quantizers for deep classification learning

T. Villmann, Michael Biehl, A. Villmann, S. Saralajew
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引用次数: 21

Abstract

The advantage of prototype based learning vector quantizers are the intuitive and simple model adaptation as well as the easy interpretability of the prototypes as class representatives for the class distribution to be learned. Although they frequently yield competitive performance and show robust behavior nowadays powerful alternatives have increasing attraction. Particularly, deep architectures of multilayer networks achieve frequently very high accuracies and are, thanks to modern graphic processor units use for calculation, trainable in acceptable time. In this conceptual paper we show, how we can combine both network architectures to benefit from their advantages. For this purpose, we consider learning vector quantizers in terms of feedforward network architectures and explain how it can be combined effectively with multilayer or single-layer feedforward network architectures. This approach includes deep and flat architectures as well as the popular extreme learning machines. For the resulting networks, the multi-/single-layer networks act as adaptive filters like in signal processing while the interpretability of the prototype-based learning vector quantizers is kept for the resulting filtered feature space. In this way a powerful combination of two successful architectures is obtained.
融合深度学习架构、多层前馈网络和深度分类学习的学习向量量化器
基于原型的学习向量量化器的优点是直观和简单的模型适应,以及原型作为待学习的类分布的类代表的易解释性。虽然它们经常产生有竞争力的表现,并表现出稳健的行为,但如今强大的替代品越来越有吸引力。特别是,多层网络的深度架构通常实现非常高的精度,并且由于使用现代图形处理器单元进行计算,可以在可接受的时间内进行训练。在这篇概念性的论文中,我们展示了如何结合这两种网络架构以从它们的优势中获益。为此,我们从前馈网络架构的角度考虑学习向量量化器,并解释如何将其与多层或单层前馈网络架构有效地结合起来。这种方法包括深度和平面架构以及流行的极限学习机。对于所得到的网络,多层/单层网络充当自适应滤波器,就像信号处理一样,而基于原型的学习向量量化器对所得到的过滤特征空间保持可解释性。通过这种方式,可以获得两个成功架构的强大组合。
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