High-Dimensional Dynamics & Computation Group

David G. Clark

Group Leader & Associate Research Scientist (Starting September 2026)
Flatiron Institute, Center for Computational Neuroscience
Simons Foundation

Adjunct Assistant Professor of Neuroscience
Columbia University, Center for Theoretical Neuroscience

David Clark

I seek a conceptual understanding of how large neural circuits process information. To this end, I develop theories linking synaptic connectivity, neuronal dynamics, and computation. Concretely, I use tools from statistical physics and machine learning to analyze high-dimensional nonlinear network models and connect them to experimental data.

Key directions include how task demands sculpt network dynamics; the origins and dynamics of structured representations, such as manifolds and associative memories; novel forms of processing enabled by synaptic plasticity; and theory-driven interpretation of large-scale population recordings.

If you are interested in working with me as a postdoc or graduate student, please email me.

I am currently a Research Fellow at the Kempner Institute for the Study of Natural and Artificial Intelligence at Harvard University. I received a Ph.D. in Neurobiology and Behavior from Columbia University in 2025, where I was advised by Larry Abbott and worked with Ashok Litwin-Kumar, Haim Sompolinsky, and Richard Axel. Before that, I studied physics and computer science at UC Berkeley, where I did research with Kristofer Bouchard.

My publications are listed below, or see my Google Scholar. My CV is here.

Outside of science, I see a lot of Broadway.

Bluesky Twitter

Publications & preprints

  1. D. G. Clark (2026). Transient dynamics of associative memory models. Physical Review E. JournalPDFarXiv
  2. D. G. Clark (2026). Linear equivalence of nonlinear recurrent neural networks. arXiv. arXiv
  3. D. G. Clark, B. Bordelon, J. A. Zavatone-Veth, C. Pehlevan (2026). Structure, disorder, and dynamics in task-trained recurrent neural circuits. bioRxiv. bioRxivKempner blogCode
  4. O. Marschall, D. G. Clark, A. Litwin-Kumar (2025). A theory of multi-task computation and task selection. bioRxiv. bioRxiv
  5. D. G. Clark, O. Marschall, A. Van Meegen, A. Litwin-Kumar (2025). Connectivity structure and dynamics of nonlinear recurrent neural networks. Physical Review X. JournalPDFarXiv
  6. D. Clark, H. Sompolinsky (2025). Simplified derivations for high-dimensional convex learning problems. SciPost Physics Lecture Notes. JournalPDFarXiv
  7. D. G. Clark (2025). Theories of structure, dynamics, and plasticity in neural circuits. Ph.D. thesis, Columbia University. Academic Commons
  8. A. J. Wakhloo, D. G. Clark, L. F. Abbott (2025). Associative synaptic plasticity creates dynamic persistent activity. bioRxiv. bioRxiv
  9. D. G. Clark, M. Beiran (2025). Structure of activity in multiregion recurrent neural networks. PNAS. JournalPDFarXiv
  10. D. G. Clark, L. F. Abbott, H. Sompolinsky (2025). Symmetries and continuous attractors in disordered neural circuits. bioRxiv. bioRxiv
  11. D. G. Clark, L. F. Abbott (2024). Theory of coupled neuronal-synaptic dynamics. Physical Review X. JournalPDFarXivViewpointCode
  12. D. G. Clark, L. F. Abbott, A. Litwin-Kumar (2023). Dimension of activity in random neural networks. Physical Review Letters. JournalPDFarXiv
  13. W. Fischler-Ruiz, D. G. Clark, N. R. Joshi, V. Devi-Chou, L. Kitch, M. Schnitzer, L. F. Abbott, R. Axel (2021). Olfactory landmarks and path integration converge to form a cognitive spatial map. Neuron. JournalPDFVideoCode
  14. D. G. Clark, L. F. Abbott, S. Chung (2021). Credit assignment through broadcasting a global error vector. NeurIPS 2021. arXivCode
  15. D. G. Clark, J. A. Livezey, K. E. Bouchard (2019). Unsupervised discovery of temporal structure in noisy data with dynamical components analysis. NeurIPS 2019. arXivCode
  16. R. Carney, K. Bouchard, P. Calafiura, D. Clark, D. Donofrio, M. Garcia-Sciveres, J. Livezey (2017). Neuromorphic Kalman filter implementation in IBM's TrueNorth. Journal of Physics: Conference Series. JournalPDF

Invited talks

Notes