Research

I am a computational seismologist, my work explores earthquakes, seismic cycles, crustal structure, and temporal changes in seismic velocities by analyzing large seismological datasets and applying advanced modeling techniques through high-performance computing.

A key area of my research is ambient noise interferometry, which I use to detect relative seismic velocity changes associated with recurring volcanic eruptions in the Reykjanes Peninsula. I also employ noise-based methods to understand co-seismic and post-seismic velocity changes caused by earthquakes in the South Iceland Seismic Zone (SISZ).

My work extends to physics-based volumetric seismic cycle simulations spanning thousands of years, providing insights into earthquake sequences and aseismic slip within the SISZ. Through the European ChEESE-2P project, these efforts aim to enhance seismic hazard assessments in Iceland by leveraging advancements in methodology and exascale computing.

Another focus of my research is distributed acoustic sensing (DAS), particularly for volcanic tremor detection. I am passionate about geophysical fieldwork and have participated in collaborative DAS experiments in Iceland, such as DASBummBumm, as well as seismic nodal deployments under the IS-Noise and IS-Tremor projects in diverse environments.

During my doctoral research, I developed a 3D radially anisotropic subsurface model for western Turkey, revealing previously unknown crustal features beneath fault zones. My broader aim is to contribute to advancing earthquake science in Iceland and Turkey, improving capabilities for monitoring and forecasting seismic and volcanic activity.