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Learning, invariance, and generalization in high-order neural networks

Applied Optics · 1987 · Vol. 26(23) · pp. 4972–4972
C. Lee GilesTom Maxwell

Abstract

High-order neural networks have been shown to have impressive computational, storage, and learning capabilities. This performance is because the order or structure of a high-order neural network can be tailored to the order or structure of a problem. Thus, a neural network designed for a particular class of problems becomes specialized but also very efficient in solving those problems. Furthermore, a priori knowledge, such as geometric invariances, can be encoded in high-order networks. Because this knowledge does not have to be learned, these networks are very efficient in solving problems that utilize this knowledge.

Neural Networks and ApplicationsMachine Learning and AlgorithmsFace and Expression RecognitionArtificial neural networkComputer scienceA priori and a posterioriGeneralizationOrder (exchange)Class (philosophy)Artificial intelligenceTheoretical computer scienceMathematics
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References
Inductive Inference: Theory and Methods
ACM Computing Surveys · 1983 · 899 citations
Principles of Neurodynamics.
American Mathematical Monthly · 1963 · 2,222 citations
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