Relatively quickly. My strongest memory is when friends from England visited me for the first time. Walking through Prague with them, I felt proud and happy that they enjoyed my new home. I think it’s because I felt welcomed from the start. The Czech Republic offered excellent opportunities in research and science communication much like the supportive handshake I received from Prince William acknowledging my work.
I study the boron hydrides, or boranes—compounds of boron and hydrogen. I’ve been exploring this field since my PhD at the University of Leeds. Most of my time is in the lab, synthesizing molecules that don’t exist in nature and studying their properties.
For the past fifteen years, I’ve focused on how our molecules interact with light. Some are able to convert ultraviolet light into visible light—they fluoresce—and do so extremely efficiently, which can be used in modern technology and devices, such as lasers. Recently, we discovered that exposing these same molecules to extremely intense light energy transforms them into plasma, the fourth state of matter. In essense, our boron hydrides molecules break apart into a “soup” of hot boron ions and protons. Under the right conditions, these protons can fuse with the boron ions, resulting in the production of three alpha particles (helium ions). These particles carry charge and are moving at very great velocities, so if passed through a magnetic field can induce a useful electrical current - a promising path for clean and aneutronic nuclear fusion energy.
Currently, I’m studying which molecules interact most efficiently with light, and thus transform into plasma most effectively, and under which conditions does the ensuing plasma generate the greatest number of alpha particles.