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Emergent system-level phenomena across the scales of life

This work focuses on what the patterns in the interactions of a system's variables say about the kind of system it is. In these studies I focus on classifying different kinds of emergence, trying to understand how patterns at the level of an entire system relate to, for example, taxonomic or phenomenological classifications, and the multivariate interactions that comprise them.

Inferring interactions

These studies ask how individual variables within a system interact with each other. Is variable 1 the cause of variable 2, or does causality flow the other way? Also, what rules govern how variable 1 interacts with variable 2? These questions are about system discovery, recognizing that most of the data we collect on the natural world are the abundances of variables, not how they interact, which we must instead infer.

Complex system management

This research uses mathematics and stochastic simulation to test management practices in complex ecosystems. Much of this work focuses on contextualizing proposed solutions with their biological and economic tradeoffs.

Far away forecasts

Can we know the future by studying the past? Are mechanistic explanations better at forecasting novel situations than pattern propagating ML approaches? These studies improve the ways we make predictions about novel environments, species introductions/extirpations, drugs, and economic scenarios in out-of-sample places and times.

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