Improving the Robustness of Deep Neural Networks by Exploiting Connectionist Sampling


Improving the Robustness of Deep Neural Networks by Exploiting Connectionist Sampling – Recent research on deep learning has focused on minimizing the computational cost as a condition to perform inference. We propose an adaptive inference algorithm that encourages sub-parameters to be learned from input data to improve inference in a robust way. The objective is to find the optimal parameters of the network using an estimator that learns the best estimates of the underlying latent factors. To this end, for each sub-modular variable, we propose an adaptive estimator that predicts the likelihood that most of the parameters of the network are learned and the worst estimates of the parameters of the network are ignored. This estimator is shown to outperform previous estimators that are able to learn the best estimates. We apply our algorithm to two datasets of synthetic and real data collections.

In this paper we propose a method called Efficiently Generating, or generating a model by using Efficiently Generating rules. In this setting, a user can specify and generate an input sequence of actions to the `Efficiently Generating’ algorithm. The `Random State Decomposition’ mechanism is used to generate the initial state-space and generate the next state-space. We investigate how to generate the `Efficiently Generating’ algorithm with rules of randomly-distributed and distributed inference. We evaluate the `Efficiently Generating’ algorithm on three different datasets and show that it generated the `Efficiently Generating’ algorithm by generating exactly the data streams we created.

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Improving the Robustness of Deep Neural Networks by Exploiting Connectionist Sampling

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  • Automatic Image Aesthetic Assessment Based on Deep Structured Attentions

    Efficient Classification and Ranking of Multispectral Data Streams using Genetic AlgorithmsIn this paper we propose a method called Efficiently Generating, or generating a model by using Efficiently Generating rules. In this setting, a user can specify and generate an input sequence of actions to the `Efficiently Generating’ algorithm. The `Random State Decomposition’ mechanism is used to generate the initial state-space and generate the next state-space. We investigate how to generate the `Efficiently Generating’ algorithm with rules of randomly-distributed and distributed inference. We evaluate the `Efficiently Generating’ algorithm on three different datasets and show that it generated the `Efficiently Generating’ algorithm by generating exactly the data streams we created.


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