arXiv AI

Higher Structures in Deep Learning

The article offers an expository overview of why higher‑arity tensor operations matter for deep learning. It presents an empirical study of higher‑arity phenomena in trained neural networks, introduces a hypergraphical generalization of the multilayer perceptron, and examines links to evolutionary algorithms. The paper concludes by outlining promising future research directions.

arXiv Machine Learning
5d ago

On the Architectural Complexity of Neural Networks

The paper presents a unified theoretical framework for analyzing and constructing deep neural networks by explicitly modeling tensor operations, which are often abstracted in existing theories. This framework allows researchers to study how architectural complexity has evolved over the past 40 years and to automatically generate new architectures using novel tensor operations. The authors also release a dataset of over 3,000 higher‑complexity architectures that have not yet been explored, providing a resource for future research.

By Nicholas J. Cooper, Fran\c{c}ois G. Meyer, Michael L. Roberts, Carlos Zapata-Carratal\'a, Lijun Chen, Danna Gurari
arXiv AI
Sep 15

Tensorization is a powerful but underexplored tool for compression and interpretability of neural networks

The paper discusses tensorizing neural networks by reshaping dense weight matrices into higher-order tensors and approximating them with low-rank tensor network decompositions. This approach offers promising model compression and introduces bond indices that create new latent spaces, potentially enhancing interpretability. Despite encouraging empirical results, tensorized neural networks remain underused, and the authors call for more research to address practical scaling and adoption challenges.

By Safa Hamreras, Sukhbinder Singh, Rom\'an Or\'us
arXiv AI
Sep 1

TPR-Attention for Combinatorial Generalization

The paper introduces TPR-Attention, an attention mechanism that operates over tensor‑product representations to embed structured inductive bias into deep learning models. Experiments on compositional tasks demonstrate that TPR‑Attention outperforms existing architectural components in achieving combinatorial generalization. The results suggest that incorporating explicit compositional structure into neural attention can improve systematic generalization.

By Melisa Civeleko\u{g}lu, Isabeau Pr\'emont-Schwarz
arXiv AI
Oct 19

Neural Expansion: A Unified Mechanism for How Deep Neural Networks Generalize

The paper introduces Neural Expansion, a geometric framework that explains how deep neural networks generalize by expanding directionally-selective ray coverage in input space. It defines Generalization Intervals (GIs) to measure stable prediction regions around training samples and shows through experiments that training progressively enlarges this coverage, especially along directions with low Jacobian singular values. This expansion accounts for correct test predictions, adversarial robustness, and handling of mislabeled or out-of-distribution data, offering a mechanistic complement to existing global theories.

By Chashi Mahiul Islam, Samuel Jacob Chacko, Mao Nishino, Canlin Zhang, Xiuwen Liu
arXiv Machine Learning
Jun 25

Tensorion: A Tensor-Aware Generalization of the Muon Optimizer

arXiv:2606. 25975v1 Announce Type: new Abstract: Common first-order optimizers, such as Adam, implicitly treat each parameter block as an unstructured vector, which disregards the multilinear weight structure present in many modern machine learning models.

By Vladimir Bogachev, Vladimir Aletov, Alexander Molozhavenko, Sergei Kudriashov, Maxim Rakhuba