A single parameter k in a binary-gate network training method interpolates between dropout, standard training, and sparse or expanded architectures.
Stochastic Variational Optimization
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abstract
Variational Optimization forms a differentiable upper bound on an objective. We show that approaches such as Natural Evolution Strategies and Gaussian Perturbation, are special cases of Variational Optimization in which the expectations are approximated by Gaussian sampling. These approaches are of particular interest because they are parallelizable. We calculate the approximate bias and variance of the corresponding gradient estimators and demonstrate that using antithetic sampling or a baseline is crucial to mitigate their problems. We contrast these methods with an alternative parallelizable method, namely Directional Derivatives. We conclude that, for differentiable objectives, using Directional Derivatives is preferable to using Variational Optimization to perform parallel Stochastic Gradient Descent.
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cs.NE 1years
2019 1verdicts
REJECT 1representative citing papers
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Neural Plasticity Networks
A single parameter k in a binary-gate network training method interpolates between dropout, standard training, and sparse or expanded architectures.