Abstract
Neural networks are massively parallel computational models which attempt to capture the “intelligent” processing faculties of the nervous system. They have been studied extensively for more than thirty years [1]. Apart from the longer term goal of understanding the nervous system, the current upsurge of interest in such models is driven by at least three factors. First, seminal papers by Hopfield [2] and by Hinton, Rumelhardt, Sejnowski and collaborators [3] exposed many salient properties of the models and extended their richness and potential in a significant way. Second, the developments in the theory of spin-glasses [4] and the discovery of replica symmetry breaking [5] in the long-range Sherrington-Kirkpatrick model [6] have led to an understanding in some depth of the Hopfield model [7]. Finally, there is now the expectation that the implementation of neural network models using VLSI technology may lead to significant computational hardware for a number of image and signal processing applications and for optimisation problems.
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References
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Wallace, D.J. (1986). Memory and Learning in a Class of Neural Network Models. In: Bunk, B., Mütter, K.H., Schilling, K. (eds) Lattice Gauge Theory. NATO ASI Series, vol 140. Springer, Boston, MA. https://doi.org/10.1007/978-1-4613-2231-3_30
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