Overcoming the Static Learning Bottleneck - the need for adaptive neural learning

C. Vineyard, Stephen J Verzi
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引用次数: 1

Abstract

Amidst the rising impact of machine learning and the popularity of deep neural networks, learning theory is not a solved problem. With the emergence of neuromorphic computing as a means of addressing the von Neumann bottleneck, it is not simply a matter of employing existing algorithms on new hardware technology, but rather richer theory is needed to guide advances. In particular, there is a need for a richer understanding of the role of adaptivity in neural learning to provide a foundation upon which architectures and devices may be built. Modern machine learning algorithms lack adaptive learning, in that they are dominated by a costly training phase after which they no longer learn. The brain on the other hand is continuously learning and provides a basis for which new mathematical theories may be developed to greatly enrich the computational capabilities of learning systems. Game theory provides one alternative mathematical perspective analyzing strategic interactions and as such is well suited to learning theory.
克服静态学习瓶颈——对自适应神经学习的需求
随着机器学习的影响和深度神经网络的普及,学习理论并不是一个解决的问题。随着神经形态计算作为解决冯·诺伊曼瓶颈的一种手段的出现,这不仅仅是在新的硬件技术上使用现有算法的问题,而是需要更丰富的理论来指导进步。特别是,我们需要对神经学习中自适应的作用有更深入的了解,以便为构建架构和设备提供基础。现代机器学习算法缺乏自适应学习,因为它们被一个昂贵的训练阶段所主导,之后就不再学习了。另一方面,大脑是不断学习的,并为新的数学理论的发展提供了基础,从而极大地丰富了学习系统的计算能力。博弈论提供了另一种分析战略互动的数学视角,因此非常适合学习理论。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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