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19992026
most citedBulk Burning Rate in Passive - Reactive Diffusion

109 citations · 522 across the 51 of their papers we have counts for

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cs.LG2026

Avoiding unsafe sets when training with Langevin Dynamics

Adam M. Oberman

Training a model with noisy gradient descent can be idealized as overdamped Langevin dynamics, and a natural safety question is to bound the probability $ν_t(\mathcal{A}_H) = \math…

cs.LG2026

Fast Rates for Semi-Supervised Learning via Data-Augmentation Graph Regularization

Adam M. Oberman

Self-supervised learning matches supervised accuracy from a fraction of the labels, but the labeled-sample efficiency behind this has lacked a theoretical explanation. We provide o…

cs.LG2022

EuclidNets: An Alternative Operation for Efficient Inference of Deep Learning Models

Xinlin Li, Mariana Parazeres, Adam Oberman +3

With the advent of deep learning application on edge devices, researchers actively try to optimize their deployments on low-power and restricted memory devices. There are establish…

cs.LG2022★ 6 cited

Score-based Denoising Diffusion with Non-Isotropic Gaussian Noise Models

Vikram Voleti, Christopher Pal, Adam Oberman

Generative models based on denoising diffusion techniques have led to an unprecedented increase in the quality and diversity of imagery that is now possible to create with neural g…

cs.LG2022★ 5 cited

On the Generalization of Representations in Reinforcement Learning

Charline Le Lan, Stephen Tu, Adam Oberman +2

In reinforcement learning, state representations are used to tractably deal with large problem spaces. State representations serve both to approximate the value function with few p…

cs.LG2020

Adversarial Boot Camp: label free certified robustness in one epoch

Ryan Campbell, Chris Finlay, Adam M Oberman

Machine learning models are vulnerable to adversarial attacks. One approach to addressing this vulnerability is certification, which focuses on models that are guaranteed to be rob…

cs.LG2020★ 1 cited

Deterministic Gaussian Averaged Neural Networks

Ryan Campbell, Chris Finlay, Adam M Oberman

We present a deterministic method to compute the Gaussian average of neural networks used in regression and classification. Our method is based on an equivalence between training w…

cs.LG2020★ 4 cited

Learning normalizing flows from Entropy-Kantorovich potentials

Chris Finlay, Augusto Gerolin, Adam M Oberman +1

We approach the problem of learning continuous normalizing flows from a dual perspective motivated by entropy-regularized optimal transport, in which continuous normalizing flows a…

cs.LG2019

Farkas layers: don't shift the data, fix the geometry

Aram-Alexandre Pooladian, Chris Finlay, Adam M Oberman

Successfully training deep neural networks often requires either batch normalization, appropriate weight initialization, both of which come with their own challenges. We propose an…

cs.LG2019

Partial differential equation regularization for supervised machine learning

Adam M Oberman

This article is an overview of supervised machine learning problems for regression and classification. Topics include: kernel methods, training by stochastic gradient descent, deep…

cs.LG2019★ 1 cited

A principled approach for generating adversarial images under non-smooth dissimilarity metrics

Aram-Alexandre Pooladian, Chris Finlay, Tim Hoheisel +1

Deep neural networks perform well on real world data but are prone to adversarial perturbations: small changes in the input easily lead to misclassification. In this work, we propo…

cs.LG2019★ 1 cited

The LogBarrier adversarial attack: making effective use of decision boundary information

Chris Finlay, Aram-Alexandre Pooladian, Adam M. Oberman

Adversarial attacks for image classification are small perturbations to images that are designed to cause misclassification by a model. Adversarial attacks formally correspond to a…

cs.LG2018★ 22 cited

Improved robustness to adversarial examples using Lipschitz regularization of the loss

Chris Finlay, Adam Oberman, Bilal Abbasi

We augment adversarial training (AT) with worst case adversarial training (WCAT) which improves adversarial robustness by 11% over the current state-of-the-art result in the $\ell_…

cs.LG2018★ 24 cited

Lipschitz regularized Deep Neural Networks generalize and are adversarially robust

Chris Finlay, Jeff Calder, Bilal Abbasi +1

In this work we study input gradient regularization of deep neural networks, and demonstrate that such regularization leads to generalization proofs and improved adversarial robust…

cs.LG2017

Deep Relaxation: partial differential equations for optimizing deep neural networks

Pratik Chaudhari, Adam Oberman, Stanley Osher +2

In this paper we establish a connection between non-convex optimization methods for training deep neural networks and nonlinear partial differential equations (PDEs). Relaxation te…

cs.LG2016★ 11 cited

Anomaly detection and classification for streaming data using PDEs

Bilal Abbasi, Jeff Calder, Adam M. Oberman

Nondominated sorting, also called Pareto Depth Analysis (PDA), is widely used in multi-objective optimization and has recently found important applications in multi-criteria anomal…