Enhanced MLP performance and fault tolerance resulting from synaptic weight noise during training
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TL;DR
The effects of analog noise on the synaptic arithmetic during multilayer perceptron training is analyzed, by expanding the cost function to include noise-mediated terms, and predictions are made that fault tolerance, training quality and training trajectory should be improved by such noise-injection.
Abstract
We analyze the effects of analog noise on the synaptic arithmetic during multilayer perceptron training, by expanding the cost function to include noise-mediated terms. Predictions are made in the light of these calculations that suggest that fault tolerance, training quality and training trajectory should be improved by such noise-injection. Extensive simulation experiments on two distinct classification problems substantiate the claims. The results appear to be perfectly general for all training schemes where weights are adjusted incrementally, and have wide-ranging implications for all applications, particularly those involving "inaccurate" analog neural VLSI.
