Research Themes
Social behaviors are diverse in nature, but it remains unclear how conserved genes, brain regions, and cell populations generate this diversity. I study how this diversity arises from evolutionarily conserved gene regulatory features and cellular states of the vertebrate brain by investigating how gene expression, chromatin accessibility, and cell-type composition shape neural circuits and behavior utilizing single-cell neurogenomics. I develop statistical modeling and machine learning approaches to turn rich, high-throughput, high-content biological measurements into quantitative, testable theories and useful computational tools.
Brain, Behavior, and Evolution
Context-dependent processes like embryonic development, the regeneration of organs and complex behavior are fascinating because they reveal new rules of biological systems that are not necessarily operational during homeostasis. For instance, recent results suggest that stem-like cells in the brain may tune the evolution of male social behavior. Using single-cell multi-omic profiling of the vertebrate forebrain, I investigate how brain circuits are rewired, how the composition of specific cell populations is rebalanced, and how epigenomic information and cis-regulatory enhancer–gene mapping are dynamically reconfigured across behavioral states.
Cytoskeleton & Cell Division
Cells rely on teams of motor proteins and filaments for a zoo of tasks, from hauling cargo across enormous intracellular distances to orchestrating chromosome capture during division. These molecular machines behave randomly as individuals yet produce remarkably reliable outcomes as collectives. We build stochastic mechanical models to understand how reliability emerges from randomness.
Scientific Machine Learning
While we rarely build new tools for their own sake, biological data is heterogeneous, high-dimensional, and structured in ways that off-the-shelf methods struggle with. To extract interpretable understanding from this data, we develop approaches combining mechanistic stochastic models with modern machine learning, spanning simulation-based and Bayesian inference, physics-informed neural networks, and variational methods.
Selected Publications
Reconstructing Actin Dynamics of the Leading Edge from Observational Data
The kinetochore corona orchestrates chromosome congression through transient microtubule interactions
BiLO: Bilevel Local Operator Learning for PDE Inverse Problems
The Team
Jacy Zanussi
stochastic gene expression + simulation-based inference
fav veggie: all peppers 🌶️ (approved as honorary vegetable)
Austin Marcus
nuclear condensates, cilia (co-advised w/ Jun Allard)
fav veggie: onion 🧅
Rebecca (Rujie) Gu
physics-informed neural networks + point processes
fav veggie: spinach 🍃
Matt Lastner
meiosis biophysics, polymer models (co-advised w/ Ofer Rog)
fav veggie: sweet potato 🍠
You?
Prospective students can apply to the Utah math graduate program and/or reach out to Chris. Be prepared to defend your favorite vegetable.
Apply to Utah MathAbout Chris
Timeline
Editorial
Miscellany
Chris + little mathematicians
As a first-gen college student, I care about outreach and inclusion in science, especially for historically marginalized populations. Some programs I've been part of: Science Communication Fellow (Utah), INSPIRE (incarcerated youth), Proud to be First (NYU), Cal-Bridge, and DECADE (UCI).
Finn (left) + Piper (right) + foster (middle)
In rare instances of spare time, you might find me: birding, rock climbing, watching arthouse film, or tending to the ever-growing needs of my cats (see photo). Some recent favorites include the American Kestrel, Wong Kar-wai's In the Mood for Love, and the humble beet .
Chris Miles (artist) + Chris Miles (mathematician)
For the sake of clarity: I am not Chris Miles, the rapper. Nor am I Christopher J. Miles, the other scientist. I am also not Chris Miles, the artist. However, I have crossed paths with him and appreciate his work.