I am currently pursuing a doctoral degree in Seismology at the Center for Earthquake Research and Information, University of Memphis. My research endeavors are conducted within the Earthquake Physics Laboratory led by Dr. Thomas Goebel. My research is driven by a deep curiosity about the physics of faulting and the mechanisms that govern earthquakes in subduction zones, volcanic environments, and experimental laboratory-created faults.

At the Earthquake Physics Lab, our work spans various aspects of seismology, including fault slip dynamics, frictional properties, and seismic energy radiation. A key component of my research involves studying laboratory earthquakes, which show structural similarities to natural fault systems in the upper crust and generate seismic event statistics comparable to real-world seismicity.

I integrate theoretical, numerical, and experimental approaches to explore fundamental earthquake processes, with a particular focus on:

• Fault Gouge Composition & Repeating Earthquakes: Investigating how different fault gouge materials influence recurring seismic events and fault creep. Since repeating earthquakes originate from the same fault patch, they exhibit identical source mechanisms and highly similar waveforms.
• Pore Pressure & Seismic Frequency-Magnitude Distributions: Examining the role of fluid pressure variations in laboratory fault zones and their impact on the frequency-magnitude distribution and b-value, which provides insights into fault stress conditions and seismic hazard assessment.

In addition, my research also includes: Automated Seismic Monitoring for Energy Operations: Developing a fully automated seismic monitoring system to improve safety and efficiency in geothermal, oil & gas, and carbon storage operations. This work aims to enhance seismic hazard assessment and mitigate risks associated with induced seismicity.

Beyond traditional earthquake physics, I am passionate about leveraging cutting-edge technologies, including machine learning and automation, to real-world challenges in seismic monitoring and energy sustainability. By integrating AI-driven seismic analysis with physical earthquake models, my work contributes to the development of smarter, data-driven solutions for energy production and seismic hazard mitigation.