Differentiable Gaussian processes
Energy-conserving models, gradient observations, physical prior means, and uncertainty-aware prediction.
Computational chemistry · Scientific machine learning
My work combines computational chemistry, machine learning, and scientific software engineering. I am interested in models that preserve physical structure while reducing the cost of molecular calculations.
I work across methodology and implementation: from differentiable Gaussian processes and physical prior means to software used in practical atomistic workflows.
Energy-conserving models, gradient observations, physical prior means, and uncertainty-aware prediction.
Potential energy surfaces and surrogate dynamics connecting electronic structure with molecular motion.
Reproducible tools built with Python, JAX, PyTorch, ASE, and Fortran.
A prototype exploring 2D-to-3D molecular conversion, interactive visualization, and visual computational chemistry workflows.
Automatic-differentiation-based Gaussian processes for molecular and materials potential energy surfaces.
A Python client and Jupyter widget for working with ChemFlow from notebooks.
Gradient-informed Gaussian-process optimization for scientific computing.
ASE calculator interfaces for analytic potential energy surfaces from POTLIB.
Journal of Chemical Theory and Computation
Journal of Chemical Theory and Computation
Physical Chemistry Chemical Physics
Journal of Chemical Theory and Computation
Journal of Mathematical Chemistry
For research or software discussions, email me at chong.teng8@gmail.com.