Ann Huang
PhD Candidate in Computational Neuroscience, Harvard University
annhuang@g.harvard.edu
Cambridge, MA, 02139
Hi there! I’m Ann, a third-year PhD student in Neuroscience at Harvard University and the Kempner Institute, supported by the Kempner Graduate Fellowship.
Neural computation is better understood as an equivalence class of dynamical mechanisms shaped by inputs and interactions. My work develops methods, frameworks, and theory to identify and interpret the computations implemented by biological and artificial systems through the lens of dynamical systems theory and machine learning, and to relate these computations to learning, control, and multi-area interactions.
Outside research, I enjoy skiing, hiking, climbing, reading, travelling, listening to rock music and attending concerts.
I’m always happy to chat about research and life, brainstorm, and collaborate. Reach me at annhuang@g.harvard.edu. If you are an undergrad seeking advice on grad school applications, navigating research opportunities, or figuring out whether a PhD is right for you, feel free to drop me an email too.
news
| Dec 21, 2025 | 🎉 Our InputDSA was selected for a talk at COSYNE 2026 (~2.5%)! If you wanna chat about neural dynamics, multi-area interaction, learning dynamics and curriculum at the conference, please reach out! 🇵🇹 |
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| Dec 01, 2025 | In San Diego for NeurIPS 2025, presenting our Degeneracy in RNNs work at the main conference, and as a Spotlight talk at the NeurReps workshop! |
| Oct 29, 2025 | Our new paper InputDSA: Demixing then Comparing Recurrent and Externally Driven Dynamics is now on arXiv! Thanks to my amazing collaborators from the Rajan and Fiete Group, especially my co first-author Mitchell Ostrow. |
| Sep 28, 2015 | ✨ Our paper Measuring and Controlling Solution Degeneracy across Task-Trained Recurrent Neural Networks has been accepted as a Spotlight at NeurIPS 2025! |
selected publications
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Measuring and Controlling Solution Degeneracy across Task-Trained Recurrent Neural NetworksIn Advances in Neural Information Processing Systems, 2025 -
InputDSA: Demixing, then comparing recurrent and externally driven dynamicsarXiv, 2025