My primary interest is exploiting rigorous mathematics in order to construct numerical approximations that can serve as the foundation for fast and efficient computational methods for physical sciences. To this end, specific topics that I have studied include:

  • quadrature rules in multiple dimensions
  • structured and low-rank matrix algorithms
  • physics-based preconditioners
  • approximation theory for deep neural networks
  • machine learning for inverse problems
  • parallel algorithms for computational geometry
  • model order reduction for PDE

Application areas that I have some experience or familiarity with, though not necessarily expertise, include:

  • optics and electromagnetics
  • seismic physics
  • low-temperature plasmas
  • fluid mechanics, magnetohydrodynamics
  • machine learning and deep learning
  • computer graphics
  • computational chemistry
  • signal and image processing
  • semiconductor physics
  • parallel computing, high-performance computing

Papers

  • M. V. de Hoop, M. Lassas, C. Wong, Deep learning architectures for nonlinear operator functions and nonlinear inverse problems, Mathematical Statistics and Learning, 2022.
  • M. V. de Hoop, M. Lassas, C. Wong, Generalization and regularization in deep learning for nonlinear inverse problems, NeurIPS Workshop on Integration of Deep Learning Theories, 2018.
  • P. Caday, M. V. de Hoop, M. Lassas, C. Wong, Deep neural networks learning to solve nonlinear inverse problems for the wave equation, 2018.
  • C. Wong, "Bilinear quadratures for inner products," SIAM J. Sci. Comput., 2016.

Talks and Presentations

Codes

All code can be found on my GitHub page.