Shujuan Mao

Shujuan  Mao
Assistant Professor, Department of Earth and Planetary Sciences, Jackson School of Geosciences

Email: smao@jsg.utexas.edu
Work: +1 617 955 9632
Office: JGB
Mailcode: C9000

My research lies at the intersection of seismology, hydrogeology, and energy sciences. I aim to advance the knowledge of how Earth's shallow fluid systems change over time and space, associated with hydrological processes, geothermal energy exploitation, carbon capture and storage, and volcanic unrest. These processes are pivotal in enhancing our understanding and management of critical resources (such as water and energy) and geohazards. A core aspect of my research is to develop and apply cutting-edge seismic interferometry methods to probe the 4-Dimensional (space-time) changes in subsurface fluids.

Areas of Expertise

Environmental seismology, Hydrogeophysics, Geothermal energy, Carbon sequestration, Critical-zone processes, Time-lapse imaging, Ambient seismic field, 4D seismology


Graduate Students

Hongrui Peng (Supervisor)
I am broadly interested in everything associated with seismology and tectonics, especially understanding the origin and spatio-temporal variation of seismic ambient noise, as well as derive more information (e.g., Attenuation, dv/v, Body wave, Higher-modes) from it.


Graduate Positions

Ph.D. Opportunities in Environmental Seismology and Energy Transition
My research group "Seismo4D" is actively looking for PhD students and postdocs. Please email me if you're interested.

Our group applies 4D seismology to understand Earth's physical processes associated with climate change and energy transition. Potential research topics focus on fluid/vapor systems in Earth's shallow subsurface, including hydrological processes, geothermal energy exploitation, critical zones, and volcanic unrest. Students in our group will develop and employ cutting-edge seismic techniques (such as passive seismic interferometry and time-lapse imaging) to study the spatiotemporal evolution and physical mechanisms of subsurface processes.