I'm currently a Postdoctoral Researcher in the McCleery Lab at the University of Florida Department of Wildlife Ecology and Conservation. My research aims to better understand how wildlife respond to global change, including urbanization, land use change, and climate change. Though I've worked in a number of different systems, I'm particularly interested in coasts, which support all kinds of cool animals but are also vulnerable to increasingly severe hurricanes and rising sea levels. I've always been fascinated by animals, but my undergraduate educations was focused more on the physical environment (e.g. soils, biogeochemistry, ocean circulation, and climate).  I continue to incorporate these aspects of the physical environment into my work focused on wildlife management and conservation, resulting in a very holistic approach to ecology that has fostered collaborations with other researchers across many disciplines.


Introduction to Remote Sensing in Ecology using Google Earth Engine

I've finally gotten around to posting my lectures from this class I designed in fall of 2020 at University of Florida. Check them out here.

New article published in Animal Conservation

Our studies suggests an endangered rodent in the Lower Florida Keys has more potential to benefit from rising sea level than invasive black rats, but only if development is limited. We believe this represents an important conservation opportunity as sea levels continue to rise.

An ear-tagged silver rice rat in the Lower Keys. Photo by Lucas Bobay.

Dissertation research featured in New York Times

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New paper published in Environmental Research Letters

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Widespread mangrove damage resulting from the 2017 Atlantic mega-hurricane season


Comprised of 17 named tropical storms, 6 of which were major hurricanes, the 2017 Atlantic hurricane season ranked as one of the most damaging and costly hurricane seasons on record. In addition to socio-economic impacts, many previous studies have shown that important coastal ecosystems like mangroves are shaped by severe storms. However, little is known about how the cumulative effects of storms over entire hurricane seasons affect mangroves across large regions. We used satellite imagery from the entire Caribbean and Gulf of Mexico region to show that 2017 resulted in disproportionate mangrove damage compared to baseline responses over the previous 8 years. Specifically, we observed 30 times more mangrove damage, via a reduction in the normalized difference vegetation index (NDVI), during 2017 compared to any of the eight previous hurricane seasons, and most (72%) of this damage persisted throughout the 7 month post-hurricane season period as indicated by no NDVI recovery. Furthermore, wind speed, rainfall, and canopy height data showed that mangrove damage primarily resulted from high maximum wind speeds, but flooding (cumulative rainfall), previous storm history, and mangrove structure (canopy height) were also important predictors of damage. While mangroves are known to be resilient to hurricane impacts, our results suggest that increasingly frequent mega-hurricane seasons in the Caribbean region will dramatically alter mangrove disturbance dynamics.