Danica J. Sutherland she/her
dsuth[at]cs.ubc.ca;
CV;
orcid;
github;
crossvalidated;
twitter
Assistant Professor, UBC Computer Science;
CIFAR AI Chair, Amii
My current research interests include:
- Learning and testing on sets and distributions: two-sample tests, evaluating and training implicit generative models (e.g. GANs), density estimation, distribution regression.
- Learning “deep kernels,” and representation learning more broadly.
- Statistical learning theory in general.
I was previously a Research Assistant Professor at TTIC, before that a postdoc with Arthur Gretton at the Gatsby Computational Neuroscience Unit, University College London, and I did my Ph.D. at Carnegie Mellon University with Jeff Schneider.
Publications and selected talks are listed below.
I previously published under a different name, and not all papers are corrected yet, though they should be. If you're citing my papers (please do!), please use the name "Danica J. Sutherland". Note that Google Scholar's bib entries often deadname me (and most trans people), even on papers whose official versions have been updated; please correct them if you must use them (or use the more accurate bib entries from here).
Group
- Wonho Bae
- Namrata Deka
- Milad Jalali
- Mohamad Amin Mohamadi
- Yi (Joshua) Ren
- Hamed Shirzad
Courses
- CPSC 340 Machine Learning and Data Mining: 2021-22 W1 (with Mike Gelbart)
- CPSC 532S Modern Statistical Learning Theory: 2021-22 W2
Publications
Below, ** denotes equal contribution. Also available as a .bib file, and most of these are on Semantic Scholar. If you must (but I'd rather you didn't), here's Google Scholar.
Preprints
Optimistic Rates: A Unifying Theory for Interpolation Learning and Regularization in Linear Regression.
Preprint
2021.
[arXiv]
Journal and Low-Acceptance-Rate Conference Papers
Better Supervisory Signals by Observing Learning Paths.
International Conference on Learning Representations
(ICLR)
2022.
[official]
Uniform Convergence of Interpolators: Gaussian Width, Norm Bounds and Benign Overfitting.
Neural Information Processing Systems
(NeurIPS)
2021.
Selected for oral presentation.
Self-Supervised Learning with Kernel Dependence Maximization.
Neural Information Processing Systems
(NeurIPS)
2021.
Meta Two-Sample Testing: Learning Kernels for Testing with Limited Data.
Neural Information Processing Systems
(NeurIPS)
2021.
POT: Python Optimal Transport.
Journal of Machine Learning Research
(JMLR)
2021.
Machine Learning Open Source Software Paper.
[official]
Does Invariant Risk Minimization Capture Invariance?
Artificial Intelligence and Statistics
(AISTATS)
2021.
Selected for oral presentation.
On Uniform Convergence and Low-Norm Interpolation Learning.
Neural Information Processing Systems
(NeurIPS)
2020.
Selected for spotlight presentation.
Learning Deep Kernels for Non-Parametric Two-Sample Tests.
International Conference on Machine Learning
(ICML)
2020.
Learning deep kernels for exponential family densities.
International Conference on Machine Learning
(ICML)
2019.
On gradient regularizers for MMD GANs.
Neural Information Processing Systems
(NeurIPS)
2018.
Demystifying MMD GANs.
International Conference on Learning Representations
(ICLR)
2018.
Efficient and principled score estimation with Nyström kernel exponential families.
Artificial Intelligence and Statistics
(AISTATS)
2018.
Selected for oral presentation.
Bayesian Approaches to Distribution Regression.
Artificial Intelligence and Statistics
(AISTATS)
2018.
Generative Models and Model Criticism via Optimized Maximum Mean Discrepancy.
International Conference on Learning Representations
(ICLR)
2017.
Dynamical Mass Measurements of Contaminated Galaxy Clusters Using Machine Learning.
The Astrophysical Journal
(ApJ)
831, 2, 135.
2016.
Linear-time Learning on Distributions with Approximate Kernel Embeddings.
AAAI Conference on Artificial Intelligence
(AAAI)
2016.
On the Error of Random Fourier Features.
Uncertainty in Artificial Intelligence
(UAI)
2015.
Chapter 3 / Section 4.1 of my thesis supersedes this paper, fixing a few errors in constants and providing more results.
Active Pointillistic Pattern Search.
Artificial Intelligence and Statistics
(AISTATS)
2015.
A Machine Learning Approach for Dynamical Mass Measurements of Galaxy Clusters.
The Astrophysical Journal
(ApJ)
803, 2, 50.
2015.
Active learning and search on low-rank matrices.
Knowledge Discovery and Data Mining
(KDD)
2013.
Selected for oral presentation.
Nonparametric kernel estimators for image classification.
Computer Vision and Pattern Recognition
(CVPR)
2012.
Dissertations
Scalable, Flexible, and Active Learning on Distributions.
Computer Science Department, Carnegie Mellon University. Ph.D. thesis,
2016.
Integrating Human Knowledge into a Relational Learning System.
Computer Science Department, Swarthmore College. B.A. thesis,
2011.
[pdf]
Technical Reports, Posters, etc.
How to Make Virtual Conferences Queer-Friendly: A Guide.
Workshop on Widening NLP
(WiNLP), EMNLP
2021.
[web]
Bayesian Approaches to Distribution Regression.
Learning on Distributions, Functions, Graphs and Groups, NeurIPS
2017.
Selected for oral presentation.
Understanding the 2016 US Presidential Election using ecological inference and distribution regression with census microdata.
Technical report
2016.
List Mode Regression for Low Count Detection.
IEEE Nuclear Science Symposium
(IEEE NSS/MIC)
2016.
Linear-time Learning on Distributions with Approximate Kernel Embeddings.
Feature Extraction: Modern Questions and Challenges, NeurIPS
2015.
Finding Representative Objects with Sparse Modeling.
CMU 10-725 Optimization course project
2012.
Best poster award.
[pdf]
Grounding Conceptual Knowledge with Spatio-Temporal Multi-Dimensional Relational Framework Trees.
Technical report
2012.
[pdf]
Invited talks
Slides for conference and workshop talks directly for a paper are linked next to the paper above.
Better deep learning (sometimes) by learning kernel mean embeddings.
January 2022.
Lifting Inference with Kernel Embeddings
(LIKE22), University of Bern.
Related papers:
Meta Two-Sample Testing: Learning Kernels for Testing with Limited Data, Self-Supervised Learning with Kernel Dependence Maximization.
[slides]
[slides (pdf)]
Can Uniform Convergence Explain Interpolation Learning?
November 2021.
NYU Center for Data Science Lunch Seminar Series.
Related papers:
On Uniform Convergence and Low-Norm Interpolation Learning, Uniform Convergence of Interpolators: Gaussian Width, Norm Bounds and Benign Overfitting.
[slides]
[slides (pdf)]
Deep kernel-based distances between distributions.
January 2021.
Kickoff Workshop, Pacific Interdisciplinary Hub on Optimal Transport.
[slides]
[slides (pdf)]
Can Uniform Convergence Explain Interpolation Learning?
October 2020.
Penn State, Statistics colloquium.
Related papers:
On Uniform Convergence and Low-Norm Interpolation Learning.
[slides]
[slides (pdf)]
Tutorial: Interpretable Comparison of Distributions and Models.
December 2019.
Neural Information Processing Systems
(NeurIPS).
Related papers:
Learning Deep Kernels for Non-Parametric Two-Sample Tests, Generative Models and Model Criticism via Optimized Maximum Mean Discrepancy.
With Arthur Gretton and Wittawat Jitkrittum.
Better GANs by Using Kernels.
October 2019.
University of Massachusetts Amherst, College of Information and Computer Sciences.
Related papers:
Demystifying MMD GANs, On gradient regularizers for MMD GANs.
[slides]
Kernel distances between distributions for generative models.
July 2019.
Distance Metrics and Mass Transfer Between High Dimensional Point Clouds, ICIAM.
Related papers:
Demystifying MMD GANs, On gradient regularizers for MMD GANs.
[slides]
Introduction to Generative Adversarial Networks.
June 2019.
Machine Learning Crash Course
(MLCC).
[slides]
Kernel Distances for Better Deep Generative Models.
September 2018.
Advances in Kernel Methods, GPSS.
Related papers:
Demystifying MMD GANs, On gradient regularizers for MMD GANs.
[slides]
Better GANs by using the MMD.
June 2018.
Facebook AI Research New York.
Related papers:
Demystifying MMD GANs, On gradient regularizers for MMD GANs.
[slides]
Efficiently Estimating Densities and Scores with Kernel Exponential Families.
June 2018.
Gatsby Tri-Center Meeting.
Related papers:
Efficient and principled score estimation with Nyström kernel exponential families.
[slides]
Better GANs by using the MMD.
June 2018.
Machine Learning reading group, Google New York.
Related papers:
Demystifying MMD GANs, On gradient regularizers for MMD GANs.
[slides]
Better GANs by using the MMD.
June 2018.
Machine Learning reading group, Columbia University.
Related papers:
Demystifying MMD GANs, On gradient regularizers for MMD GANs.
No slides actually used at the talk because of a projector mishap,
but they would have been the same as
the Google talk.
Advances in GANs based on the MMD.
May 2018.
Machine Learning Seminar, University of Sheffield.
Related papers:
Demystifying MMD GANs, On gradient regularizers for MMD GANs.
Efficient and principled score estimation with kernel exponential families.
December 2017.
Approximating high dimensional functions, Alan Turing Institute.
Related papers:
Efficient and principled score estimation with Nyström kernel exponential families.
Efficient and principled score estimation with kernel exponential families.
December 2017.
Computational Statistics and Machine Learning seminar, University College London.
Related papers:
Efficient and principled score estimation with Nyström kernel exponential families.
[slides]
Evaluating and Training Implicit Generative Models with Two-Sample Tests.
August 2017.
Implicit Models, ICML.
Related papers:
Generative Models and Model Criticism via Optimized Maximum Mean Discrepancy.
[slides]
Two-Sample Tests, Integral Probability Metrics, and GAN Objectives.
April 2017.
Theory of Generative Adversarial Networks, DALI.
Related papers:
Generative Models and Model Criticism via Optimized Maximum Mean Discrepancy.
Generative Models and Model Criticism via Optimized Maximum Mean Discrepancy.
February 2017.
Computational Statistics and Machine Learning seminar, Oxford University.
Related papers:
Generative Models and Model Criticism via Optimized Maximum Mean Discrepancy.
[slides]