Abram Magner

Assistant professor, Department of Computer Science, University at Albany, SUNY

Email: amagner at albany.edu
Education: Ph.D. in computer science, Purdue University (2015).
An image of Abram Magner in front of a whiteboard.
(1/31/2024) -- I was unable to update my webpage for approximately a year, due to some server configuration issue. I plan to eventually update it, now that access is restored. As of this posting, I have only updated it somewhat.

(6/12/2025) -- Update: I have updated this page but have not yet updated other pages, including "Papers" and "Recent talks".



Research interests

My research is theoretical machine learning and probabilistic inference problems involving graphs. In particular, I am interested in fundamental information-theoretic limits of learning/statistical inference and data compression/representation problems, generally involving networks, as well as efficient algorithms to achieve those limits. My recent work has concerned various notions of learning the mechanisms underlying the evolution of dynamic graphs, as well as formulating information theoretic limits of graph convolutional networks for graph representation learning. I also work on problems involving symmetry and learning, as well as quantum learning theory.

I am looking for a PhD student.

If you're interested in pursuing a PhD in any of the areas described in my research interests, please feel free to send me an email, including your CV, transcripts, and any other information you think might be useful. I am particularly seeking students with mathematical maturity and an interest in applying mathematical methods to machine learning and graph problems. You should have a solid understanding of probability and the ability to write formal theorems and proofs.

Papers (not yet updated)

Recent talks (not yet updated)

Abridged CV -- My full CV is signed and dated.

Funding

NSF CAREER: Theoretical Foundations for Learning Network Dynamics. CCF 2338855

NSF Collaborative Research: CIF: Medium: Foundations of Robust Deep Learning via Data Geometry and Dyadic Structure. CCF 2212327

NSF Collaborative Research: NSF-ANR QISE: QUANTINT: Quantum Information and Network Theory: Algorithms and Performance Limits. FET 2545353

Teaching

ICSI 529: Probability and computing (Fall 2025, Fall 2024)

World of Computer Science/World of Engineering and Applied Science Living and Learning Community Seminar (Fall 2025, Fall 2024, Fall 2023)

ICSI 521: Discrete mathematics with applications (Spring 2025, Spring 2024, Spring 2020)

ICSI 501: Numerical linear algebra (Spring 2022, Spring 2021, Fall 2019)

ICSI 401: Numerical methods (Spring 2023, Fall 2021, Fall 2020, Fall 2019)

ICSI 210: Discrete structures (Fall 2023, Fall 2022)

At UIUC: Analytic combinatorics, with applications (half semester, Spring 2017)

News