My research focuses on the interplay between fluid flow and geological and oceanographic processes in porous media. I approach this topic through a mix of observational work (field and laboratory), data analysis, and modeling (analytical and numerical) with the aim of integrating and reconciling complex flow observations into a coherent theoretical framework. I am especially interested in the mechanisms that perturb -periodically or episodically- fluid flow by changing the thermal and/or stress conditions of the sub-surface crust on short time scales.
My research in three key areas: (i) heat and mass fluxes at deep-sea hydrothermal systems, (ii) the dynamics and variability of hydrothermal flow, and (iii) cause-and-effect relationships between flow variations and sub-surface processes. Each of these three components represents a key piece of the overall puzzle of reconciling observed variability and dynamics of hydrothermal systems with realistic models of sub-surface processes and flow conditions.
- 2020. Terrestrial shallow water hydrothermal outflow characterized from out of T space. Marine Geology.
- 2019. Investigating Fine‐Scale Permeability Structure and Its Control on Hydrothermal Activity Along a Fast‐Spreading Ridge (the East Pacific Rise, 9°43′–53′N) Using Seismic Velocity, Poroelastic Response, and Numerical Modeling. Geophysical Research Letters. 11799-11810.
- 2018. Depth‐Dependent Permeability and Heat Output at Basalt‐Hosted Hydrothermal Systems Across Mid‐Ocean Ridge Spreading Rates. Geochemistry Geophysics Geosystems. 1259-1281.
- 2020. The Norwegian node for the European Multidisciplinary Seafloor and water column Observatory.