Research
My research integrates field observations, geochemical analyses, and numerical modeling to investigate geothermal energy production and volcanic processes. By exploring fluid-rock interactions, magma dynamics, and geothermal reservoir behavior, I aim to advance sustainable geothermal energy use and deepen our understanding of volcanic systems.
Hydrothermal cooling of magma
Magmatic intrusions provide significant heat sources within geothermal systems. My research integrates numerical modeling and field observations to explore how groundwater circulation cools intrusions, affecting heat distribution and geothermal resource potential.
Production from superhot geothermal wells
Superhot wells, which access fluids exceeding 375°C, represent the frontier of geothermal energy production. My research focuses on understanding reservoir behavior, fluid properties, and production challenges at extreme conditions, supporting projects like the Krafla Magma Testbed.
Hydrochemistry of geothermal systems
My research combines field sampling, laboratory experiments, and geochemical modeling to understand fluid-rock interactions and resource sustainability in geothermal systems. I've studied both high- and low-temperature systems, with the aim of connecting fundamental chemical processes to practical geothermal exploration and management.
Volcanic degassing and magma dynamics
My recent research applies FTIR spectroscopy to measure volcanic gas composition directly in the field during the recent eruptions on Reykjanes. These data help illuminate eruption dynamics, magma storage conditions, and volcanic hazards. I'm particularly interested in linking gas geochemistry to broader volcanic processes and eruption forecasting.
