Bayesian Ecological Modeling
Hierarchical generative models for phenology and species distributions.
Stan · NumPyro · JAX
Computational Ecologist · DOE CSGF Fellow · PhD Student, CU Boulder
I build and apply statistical and simulation-based models for studying biological systems under uncertainty. By combining Bayesian inference, machine learning, and high-performance computing, I investigate ecological processes across scales.
My work sits at the intersection of ecology, statistics, and computation. I am developing methods that handle the complexity and uncertainty inherent in natural systems.
Hierarchical generative models for phenology and species distributions.
Stan · NumPyro · JAX
Neural networks + kernel methods paired with mechanistic models.
Python · PyTorch
Supercomputing for large-scale biological simulations.
Julia · MPI · Fortran
Probabilistic solutions for complex systems (ODEs, Transcendentals).
Moore, M.A., Emery, N.C., and Elmendorf, S.C.
Clark, E.I., Moore, M.A., Khoury, C.K., Hulke, B.S., Kane, N.C. and Elmendorf, S.C.
Moore, M.A., Hoy, E.E., Clayton, L.K., Schaefer, K., Bourgeau-Chavez, L.L., et al.
This semester: graduate-level Bayesian statistics in Applied Math and a deep dive into neural networks and transformers.
Reflections on a rigorous semester covering numerical methods and high-performance computing in C++.
Clark et al. 2025 — 46 years of sunflower multi-environment trials reveal how climate drives optimal flowering phenology.