Research

How circuits and internal states shape what an animal does, and the light-driven tools I build to switch those circuits on and off in the fly brain.

Selected research

Coming soon

Neural circuits of behavior in Drosophila

PhD thesis · first-author · unpublished data

A large-scale optogenetic and behavioral ethomics study of how brain circuits shape movement in Drosophila, forming the core of my PhD thesis.

Graphical abstract of the OPN3 silencing paper

The silence after the light

co-first author · preprint · bioRxiv, 2026

A bistable opto-GPCR that lets us silence Drosophila neurons for minutes with a single brief flash of green light, providing a low-toxicity optogenetic tool for studying neural circuits and behavior.

Proportion estimation plots from the DABEST 2.0 paper

DABEST 2.0: estimation statistics

co-author · Nature Methods, 2026

Estimation graphics for effect sizes instead of p-values. I helped develop DABEST’s proportion plot for binary data and carried out the literature survey that motivated it.

Figure 5 C. elegans results from the KCR paper

Kalium channelrhodopsins

co-author · Nature Communications, 2024

As part of a cross-species evaluation of kalium channelrhodopsins (KCRs) as potassium-selective optogenetic silencers, I led the C. elegans behavioral studies, building the assay, tracking system, and testing pipeline.

Figure 1 from the chromosomes-in-fused-cells paper

Separating chromosomes in fused cells

co-author · Communications Biology, 2022

How fused Drosophila cells keep two genomes separate through asymmetric chromatin retention and nuclear envelope boundaries.

Graphical abstract of the sibling cell size asymmetry paper

Sibling cell size asymmetry

co-author · iScience, 2019

Investigating how hydrostatic pressure and cortical actomyosin work together to produce two unequal-sized daughter cells during neural stem cell division.