Miles A. Moore
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PhD student · Computational ecologist · Eco-evo Biologist

Studying the timing of life in a changing environment.

I’m a PhD student and DOE Computational Science Graduate Fellow at the University of Colorado Boulder studying plant biology & phenology (the timing of growth, reproduction, and dispersal). Biological data are always messy and complex. I build advanced models that make the most of imperfect observations by connecting theory, observation processes, and data to drive actionable conclusions. What’s driving change? How certain are we? Where should we look next?

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CU Boulder Ecology & Evolutionary Biology

Institute of Arctic and Alpine Research Niwot Ridge LTER

Department of Energy Computational Science Graduate Fellow

Alpine meadow and grey peaks under an overcast sky near Furka Pass, Switzerland.

What I work on

Research

What sets the timing of life?

How snowmelt, heat, and drought control when plants grow, flower, and set seed, and why those responses diverge across places and species, from high alpine tundra to agriculture.

Adaptation or mismatch?

When a shift in timing tracks a moving climate optimum, and when it leaves wild plants and crops out of step with their environment, with consequences for yield, resilience, and food security.

What can the data support?

Separating real drivers of ecological change from noise: evaluating whether interventions like restoration actually work, and connecting field and satellite observations to the models used to forecast land-surface change.

Tools I use

GitHub

Theory & simulation

I build mechanistic, theory-based models of biological systems from first principles and study how low-level biology scales to produce emergent ecological processes.

Hierarchical Bayesian modeling

Connecting theory to data and comparing candidate models requires latent-variable frameworks with explicit observation processes. I build bespoke and novel models that propogate uncertainity and enable decision making.

Computation at scale

Simulation-based inference, multithreaded Bayesian models, and machine learning on high-performance systems, so the models can be as mechanistic as the biology demands, built as tested, reproducible research software.

Recent publications

All publications

2026

Divergent regional trends in alpine tundra productivity linked to changes in snow-free season length and summer warming

Moore, M.A., Emery, N. C., and Elmendorf, S. C. Environmental Research: Ecology

2025

Climate drives variation in optimal phenology: 46 years of multi-environment trials in sunflower

Clark, E.I., Moore, M.A., Khoury, C.K., Hulke, B.S., Kane, N.C. and Elmendorf, S.C. New Phytologist

Accepted

Genetic-environment decomposition reveals geographical disparities in sunflower yield improvement across the Great Plains

Elmendorf, S.C., Hulke, B.S., Clark, E.I., Moore, M.A., Kane, N.C. Field Crops Research

Latest news

All news

  • Jan 13, 2026 Spring 2026 Classes: Computational Bayesian Statistics and Deep Learning
  • Dec 15, 2025 Fall 2025 Classes: Numerical Linear Algebra and HPC
  • Dec 9, 2025 New co-authored manuscript in New Phytologist
  • Dec 4, 2025 Niwot Ridge LTER, Emery Lab, and Miles’ work featured on NPR
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© 2025 Miles Alan Moore ∙ Made with Quarto

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