Research
I have worked on numerous research projects, ranging from improving earthquake damage assessment and identifying the habitability of Jupiter’s moon Europa, to predicting plasma dynamics in Earth’s upper atmosphere. Below is a summary of the research initiatives I have led.
Active Projects
Modelling Magentosphere-Ionosphere Coupling
- The ionosphere is directly coupled to the Sun and solar wind via the magnetosphere
- This relationship changes the polar ionosphere, modifying its composition, dynamics, and behaviour
- We capture these effects with magnetohydrodynamic (MHD) models, ground based measurements, and satellites
- This project uses AI to ehance the capabilities of these models and observations
- Work was carried out at the National Institute of Polar Research (国立極地研究所) in Japan
Explainable Predictions of Equatorial Plasma Bubbles
- Equatorial Plasma Bubbles (EPBs) interfere with GPS signals which we depend on in our daily lives
- We built APE or AI Predictions of EPBs which can accurately predict the probability of an EPB
- APE uses machine learning, data science and cooperative game theory to reveal new insights in EPBs
- The findings are published in the JGR: Space Physics
Former Projects
Modelling Surface-Plasma Interactions at Europa
- Europa has been identified as a potential host for life, and will be explored by the Europa Clipper and JUICE missions in the 2030’s
- We simulate the electric potentials on Europa’s icy surface resulting from its interaction with its ionosphere and Jupiter’s magnetospheric plasma
- We discuss the consequences of these potentials on the upcoming missions and highlight the need for additional laboratory studies
- Work was conducted in the Ocean Worlds Lab with Tom Nordheim, Camilla Harris, and Kevin Hand
- The results are published in the Astrophysical Journal: Letters
Measuring Low Energy Ions
- Low-energy plasma ions are a key constituent of the ionosphere, yet in-situ measurements are limited at lower altitudes (< 400 km)
- We developed a novel technique to measure ions using a CubeSat-based spectrometer developed by UCL
- This is the first time a CubeSat has been used to successfully measure plasma moments in-situ
- Results are published in the CEAS Space Journal
Detecting Earthquake Damage From Space
- Earthquake-induced building damage can cost lives and harm economies
- We used airborne LiDAR and space-borne radar to detect and analyse such damage
- This project was a collaboration between the University of Bath, TU Delft, and NASA JPL