Research
My research interests include theoretical neuroscience, machine learning, and neural data analysis.
Theoretical neuroscience: Neuromodulation and Cellular Diversity
Much of my ongoing research is about building a connectionist framework for understanding neuromodulation. I am also interested in the roles of cell types in neural circuits.
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- Walking the Weight Manifold: a Topological Approach to Conditioning Inspired by NeuromodulationarXiv preprint arXiv:2505.22994, 2025
Machine learning for single-cell data analysis
I am currently developing machine learning methods to analyze single-cell RNA sequencing data, focusing on how cellular diversity influences neural circuit function.
Stay tuned!
Neural Network Theory
I study the theoretical foundations of neural networks, exploring how learning algorithms shape representations and how network architecture affects computational capacity. This work bridges machine learning theory with neuroscience to understand both artificial and biological learning systems.
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- Efficient neural codes naturally emerge through gradient descent learningNature Communications, 2022
- Continual learning with the neural tangent ensembleAdvances in Neural Information Processing Systems, 2024
Machine learning for analyzing neural recordings
I am currently developing machine learning methods to analyze neural recordings, focusing on how cellular diversity influences neural circuit function.
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- Modern machine learning as a benchmark for fitting neural responsesFrontiers in computational neuroscience, 2018
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Past work
Bio-inspired materials science and molecular dynamics
Before I transitioned to neuroscience, I worked on bio-inspired materials science and molecular dynamics simulations. I was interested in self-assembly and how molecular interactions can lead to complex structures. The common thread that connected these interests was looking at nature in terms of its function, as might an engineer, as well as an interest in complex systems.