
2024 - present: Research Fellow
My research focuses on understanding the coupled dynamical, physical, and chemical processes that govern the atmospheres of Mars and, increasingly, Venus. I combine numerical modelling with satellite observations to investigate atmospheric behaviour and variability, while also developing machine-learning approaches for forecasting Martian weather. This work aims to improve our understanding of planetary climates and to support future robotic and human exploration of Mars.
2021 - 2024: UK Space Agency Aurora Research Fellow
Investigating interactions between the global dust and water cycles on Mars through an analysis of orbiter observations from the ExoMars Trace Gas Orbiter (TGO) (among others) in preparation for the upcoming ExoMars Rover mission. This research will combine TGO observations with an internationally recognised Mars Global Circulation Model (GCM) utilising proven data assimilation techniques to give new insights into the martian dust and water cycles and providing a longer-term framework to support future Mars exploration missions such as Mars Sample Return.
2017 - 2021: Post Doctoral Research Associate
Working on a project to characterise the martian water cycle by assimilating ExoMars 2016 Trace Gas Orbiter data
2015 - 2017: Post Doctoral Research Associate
Working on the data assimilation work package of the Horizon 2020 UPWARDS: Understanding Planet Mars project.2011-2015: PhD Research Student
Focusing on trace gas assimilation in the Martian atmosphere
I am an Independent Research Fellow who primarily investigates atmospheric chemistry cycles on Mars and Venus using a combination of observations and computer modelling. My research is helping to investigate links between the atmospheric chemistry cycles and the main drivers of atmospheric processes, such as the dust and water cycles, by combining computer models with the latest observations from the ExoMars Trace Gas Orbiter mission alongside multiple other spacecraft missions.
Atmospheric chemistry cycles on Mars and Venus
Escape of water from the atmosphere of Mars
Global Circulation Modelling
Mesoscale Modelling
Data assimilation: combining retrievals with computer models
Forecasting of martian weather
Human exploration of Mars