Overview
Mineralogy; Petrology; Volcanology
Ph.D. - Earth Science - University of California, Santa Barbara (2022)
M.S. - Geology - California State University, Fresno (2014)
B.S. - Geology - University of Missouri, Kansas City (2011)
Information
Areas of Research Interest
I am a volcano scientist and igneous petrologist with a passion for uncovering the
secrets hidden within mineral chemistries. My research focuses on how the pre-eruptive
state of a magma body, the conditions of magma storage, what triggers a volcanic eruption,
and the timescales magmatic processes operate on can be preserved within individual
crystals. By understanding these factors, we can gain insights into the dynamics of
active volcanic systems that have the potential to affect millions of lives. My work
not only contributes to the scientific understanding of volcanic activity but also
has practical implications for hazard assessment and mitigation. Through my research,
I strive to bridge the gap between theoretical models and real-world applications,
ultimately enhancing our ability to coexist safely with these powerful natural phenomena.
Not into jargon? I also am a practiced science communicator with several years' experience
using non-traditional mediums to conduct science outreach to the general public. I
enjoy providing a space for the general public to ask questions of a scientist directly about our expertise, the scientific process, what it is like to be a scientist, or
for advice on future science careers. If you are a researcher and would like to be
featured on a Coffee With a Scientist, please reach out to me directly.
Need a de-jargoned description of what I do? I use the chemistry of lavas and the
minerals inside of them to better understand what happens inside of a magma chamber
before an eruption, or even what triggered that eruption itself. My primary tool to
understand magmatic processes is the Magma Chamber Simulator - a phase-equilibria
modeling program I helped develop during my PhD. This powerful tool allows me to investigate
the complex interactions that can occur within a single volcanic system. By combining
these advanced modeling techniques with traditional petrologic methods, I aim to explore
how magmatic processes influence lava chemistry, eruption styles, and the architecture
of magmatic plumbing systems. Currently, I am exploring complementing my thermodynamic
models with kinetic studies to understand more about how rapidly - or slowly - pre-eruptive
processes operate at different magmatic systems.
Areas of Teaching Interest
GEOL 102 - Earth Science and the Environment
GEOL 320 - Mineralogy
GEOL 324 - Petrology
GEOL 720 - Geochemistry