Research
Computational Mathematics
My work ranges from classical spectral methods and randomized linear algebra to operator learning, neural-network approximation, and questions inspired by physics and dynamical systems.
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Applied Mathematics at Cornell
I work in numerical analysis, scientific computing, deep learning, and dynamical systems, with a particular interest in spectral methods, low-rank approximation, and operator learning.
Research
My work ranges from classical spectral methods and randomized linear algebra to operator learning, neural-network approximation, and questions inspired by physics and dynamical systems.
Read morePublications
A compact list of representative work, along with direct links to my full publication record and CV.
View publicationsTeaching
I’ve taught undergraduate and graduate courses across Cornell’s applied and computational mathematics curriculum.
See teachingCurrent Themes
Algorithms for differential equations, approximation by functions, and high-accuracy scientific computing.
Randomized algorithms, matrix recovery, tensor methods, and the geometry of large data matrices.
Mathematical foundations for learning PDE solution operators, Green’s functions, and related models.
Questions about synchronization, Koopman operators, and nonlinear phenomena motivated by real systems.
For students
If you are interested in numerical analysis, scientific computing, or mathematically grounded machine learning, the best starting point is the research page and recent publications.