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Open AccessProceedings ArticleDOI

Deep learning and the information bottleneck principle

TLDR
It is argued that both the optimal architecture, number of layers and features/connections at each layer, are related to the bifurcation points of the information bottleneck tradeoff, namely, relevant compression of the input layer with respect to the output layer.
Abstract
Deep Neural Networks (DNNs) are analyzed via the theoretical framework of the information bottleneck (IB) principle. We first show that any DNN can be quantified by the mutual information between the layers and the input and output variables. Using this representation we can calculate the optimal information theoretic limits of the DNN and obtain finite sample generalization bounds. The advantage of getting closer to the theoretical limit is quantifiable both by the generalization bound and by the network's simplicity. We argue that both the optimal architecture, number of layers and features/connections at each layer, are related to the bifurcation points of the information bottleneck tradeoff, namely, relevant compression of the input layer with respect to the output layer. The hierarchical representations at the layered network naturally correspond to the structural phase transitions along the information curve. We believe that this new insight can lead to new optimality bounds and deep learning algorithms.

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Citations
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What-Is and How-To for Fairness in Machine Learning: A Survey, Reflection, and Perspective

TL;DR: It is demonstrated the importance of matching the mission and the means of different types of fairness inquiries on the data generating process, on the predicted outcome, and on the induced impact, respectively, to achieve the intended purpose.
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S3-VAE: A novel Supervised-Source-Separation Variational AutoEncoder algorithm to discriminate tumor cell lines in time-lapse microscopy images

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Learning Disentangled Representations for Time Series.

TL;DR: In this article, a disentanglement enhancement framework for sequential data is proposed to generate hierarchical semantic concepts as the interpretable and disentangled representation of time-series, which can be used for downstream applications.
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Enhancing Multiple Reliability Measures via Nuisance-extended Information Bottleneck

TL;DR: In this paper , an adversarial threat model under a mutual information constraint is considered to cover a wider class of perturbations in training. And the authors propose an autoencoder-based training to implement the objective, as well as practical encoder designs to facilitate the proposed hybrid discriminative-generative training concerning both convolutional and transformer-based architectures.

Relaxing the Kolmogorov Structure Function for Realistic Computational Constraints

TL;DR: Xu et al. as discussed by the authors incorporate computational constraints into measures of information by assuming that the compressor belongs to a fixed family of predictive functions, which may not show the complete story about the information inside data because different aspects of the data become decodable at different scales of computation.
References
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Proceedings Article

ImageNet Classification with Deep Convolutional Neural Networks

TL;DR: The state-of-the-art performance of CNNs was achieved by Deep Convolutional Neural Networks (DCNNs) as discussed by the authors, which consists of five convolutional layers, some of which are followed by max-pooling layers, and three fully-connected layers with a final 1000-way softmax.
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TL;DR: In this article, an effective way of initializing the weights that allows deep autoencoder networks to learn low-dimensional codes that work much better than principal components analysis as a tool to reduce the dimensionality of data is described.
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Representation Learning: A Review and New Perspectives

TL;DR: Recent work in the area of unsupervised feature learning and deep learning is reviewed, covering advances in probabilistic models, autoencoders, manifold learning, and deep networks.
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Learning Deep Architectures for AI

TL;DR: The motivations and principles regarding learning algorithms for deep architectures, in particular those exploiting as building blocks unsupervised learning of single-layer modelssuch as Restricted Boltzmann Machines, used to construct deeper models such as Deep Belief Networks are discussed.