Aditya Patra, Sina Taslimi, Luke Chin A Foeng, Pratik Kayal
NeurIPS 2023 Papers
Conference on Neural Information Processing Systems
Decision breakdown
3,584papers
Counted from the official paper list; may differ slightly from the number the conference announced.
- Oral772.1%
- Spotlight40011.2%
- Poster3,10786.7%
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- Deep learning · generative models and autoencoders776Deep learning · generative models and autoencoders paper trends, 2023–2026
- Deep learning · graph neural networks489Deep learning · graph neural networks paper trends, 2023–2026
- Reinforcement Learning484Reinforcement Learning paper trends, 2023–2026
- Multimodal LLMs433Multimodal LLMs paper trends, 2023–2026
- Deep learning · large language models415Deep learning · large language models paper trends, 2023–2026
- Diffusion Models327Diffusion Models paper trends, 2023–2026
- General ML · unsupervised and semisupervised learning318General ML · unsupervised and semisupervised learning paper trends, 2023–2026
- Reasoning Models271Reasoning Models paper trends, 2023–2026
- Graph Neural Networks251Graph Neural Networks paper trends, 2023–2026
- Datasets and Benchmarks227Datasets and Benchmarks paper trends, 2023–2026
Browse all papers
Albert Sund Aillet, Simon Sondén
Priyanka Bose, Chandra Shekhar Pandey, Fraida Fund
Martijn van Raaphorst, Egoitz Gonzalez, Marta Grasa, Paula Antequera Hernández
Volodymyr Kyrylov, Navdeep Singh Bedi, Qianbo Zang
Gijs Moens, Job De Witte, Tobias Gobel, Meggie Van den Oever
Luca Pantea, Andrei-Eusebiu Blahovici
Athanasios Charisoudis, Simon Ekman von Huth, Emil Jansson
Ryan Lee, Seungmin Lee
Alex Damian, Eshaan Nichani, Rong Ge, Jason D. Lee
Expand abstractCollapse
We focus on the task of learning a single index model $\sigma(w^\star \cdot x)$ with respect to the isotropic Gaussian distribution in $d$ dimensions. Prior work has shown that the sample complexity of learning $w^\star$ is governed by the information exponent $k^\star$ of the link function $\sigma$, which is defined as the index of the first nonzero Hermite coefficient of $\sigma$. Ben Arous et al. (2021) showed that $n \gtrsim d^{k^\star-1}$ samples suffice for learning $w^\star$ and that this is tight for online SGD. However, the CSQ lower bound for gradient based methods only shows that $n \gtrsim d^{k^\star/2}$ samples are necessary. In this work, we close the gap between the upper and lower bounds by showing that online SGD on a smoothed loss learns $w^\star$ with $n \gtrsim d^{k^\star/2}$ samples. We also draw connections to statistical analyses of tensor PCA and to the implicit regularization effects of minibatch SGD on empirical losses.
Anton Tsitsulin, John Palowitch, Bryan Perozzi, Emmanuel Müller
Dominique Benielli, Baptiste Bauvin, Sokol Koço, Riikka Huusari, Cécile Capponi, Hachem Kadri, François Laviolette
Antonin Schrab, Ilmun Kim, Mélisande Albert, Béatrice Laurent, Benjamin Guedj, Arthur Gretton
Shangtong Zhang, Remi Tachet des Combes, Romain Laroche
Lukas Trottner, Cathrine Aeckerle-Willems, Claudia Strauch
Andrea Cini, Daniele Zambon, Cesare Alippi
Didong Li, Wenpin Tang, Sudipto Banerjee
Kamélia Daudel, Joe Benton, Yuyang Shi, Arnaud Doucet
Vaidotas Simkus, Benjamin Rhodes, Michael Gutmann
Sanket Vaibhav Mehta, Darshan Patil, Sarath Chandar, Emma Strubell