Google Deepmind
11 Papers
Google Deepmind is an academic researcher. The author has contributed to research in topics: Computer science. The author has co-authored 1 publications.
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Papers
AlphaEvolve: A coding agent for scientific and algorithmic discovery
Alexander Novikov,Ngân V˜u,Marvin Eisenberger,Emilien Dupont,Po-Sen Huang,Adam Zsolt Wagner,S. Shirobokov,Borislav M. Kozlovskii,Francisco J. R. Ruiz,Abbas Mehrabian,M. P. Kumar,Abigail See,Swarat Chaudhuri,George Holland,A. Davies,Sebastian Nowozin,Pushmeet Kohli,Matej Balog,Google Deepmind +18 more
10
Latent Space Representations of Neural Algorithmic Reasoners
R.P. Pascanu,Google Deepmind +1 more
- 17 Jul 2023
TL;DR: In this paper , a detailed analysis of the structure of the latent space induced by Graph Neural Networks (GNNs) when executing NAR algorithms is performed, and two possible failure modes are identified: (i) loss of resolution, making it hard to distinguish similar values; (ii) inability to deal with values outside the range observed during training.
3
(Unfair) Norms in Fairness Research: A Meta-Analysis
Jennifer Chien,A. S. Bergman,Kevin McKee,Nenad Tomasev,Vinodkumar Prabhakaran,Rida Qadri,Nahema Marchal,William Isaac,San Diego,Google Deepmind,Google Research +10 more
TL;DR: A meta-analysis of 139 AI fairness papers reveals a US-centric perspective and binary codification of human identity, highlighting the need for more inclusive and nuanced approaches to fairness in AI systems, particularly in global contexts.
How much do language models memorize?
John X. Morris,Chawin Sitawarin,Chuan Guo,Narine Kokhlikyan,G. E. Suh,Alexander M. Rush,Kamalika Chaudhuri,Saeed Mahloujifar,Fair at Meta,Google Deepmind +9 more
Magnituder Layers for Implicit Neural Representations in 3D
Sang Min Kim,Byeongchan Kim,Arijit Sehanobish,Krzysztof Choromanski,Dongseok Shim,Kumar Avinava Dubey,Min-hwan Oh Seoul National University,Independent Researcher,Google Deepmind,C. University,G. Research +10 more
Abstract: Efficient neural networks are essential for scaling machine learning models to real-time applications and resource-constrained environments. Fully-connected feedforward layers (FFLs) introduce computation and parameter count bottlenecks within neural network architectures. To address this challenge, in this work, we propose a new class of dense layers that generalize standard fully-connected feedforward layers, \textbf{E}fficient, \textbf{U}nified and \textbf{Gen}eral dense layers (EUGens). EUGens leverage random features to approximate standard FFLs and go beyond them by incorporating a direct dependence on the input norms in their computations. The proposed layers unify existing efficient FFL extensions and improve efficiency by reducing inference complexity from quadratic to linear time. They also lead to \textbf{the first} unbiased algorithms approximating FFLs with arbitrary polynomial activation functions. Furthermore, EuGens reduce the parameter count and computational overhead while preserving the expressive power and adaptability of FFLs. We also present a layer-wise knowledge transfer technique that bypasses backpropagation, enabling efficient adaptation of EUGens to pre-trained models. Empirically, we observe that integrating EUGens into Transformers and MLPs yields substantial improvements in inference speed (up to \textbf{27}\%) and memory efficiency (up to \textbf{30}\%) across a range of tasks, including image classification, language model pre-training, and 3D scene reconstruction. Overall, our results highlight the potential of EUGens for the scalable deployment of large-scale neural networks in real-world scenarios.