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Efficient Forward Architecture Search

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arxiv 1905.13360 v1 pith:IPD5SGQ5 submitted 2019-05-31 cs.LG stat.ML

classification cs.LGstat.ML
keywords algorithmsearcharchitectureconnectionsfeatureforwardlayersselection
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We propose a neural architecture search (NAS) algorithm, Petridish, to iteratively add shortcut connections to existing network layers. The added shortcut connections effectively perform gradient boosting on the augmented layers. The proposed algorithm is motivated by the feature selection algorithm forward stage-wise linear regression, since we consider NAS as a generalization of feature selection for regression, where NAS selects shortcuts among layers instead of selecting features. In order to reduce the number of trials of possible connection combinations, we train jointly all possible connections at each stage of growth while leveraging feature selection techniques to choose a subset of them. We experimentally show this process to be an efficient forward architecture search algorithm that can find competitive models using few GPU days in both the search space of repeatable network modules (cell-search) and the space of general networks (macro-search). Petridish is particularly well-suited for warm-starting from existing models crucial for lifelong-learning scenarios.

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  1. Refining the Structure of Neural Networks Using Matrix Conditioning

    cs.LG 2019-08 conditional novelty 6.0 of 10

    A condition-number-guided heuristic for pruning and rescaling hidden layers produces small feed-forward networks with competitive accuracy on MNIST and Adult Income data.

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