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^^^^^^^^A diagram of an atom^^^^^^^^

You might have heard of ‘atoms’. They’re incredibly small (far too small to see with the naked eye or with a regular microscope), and they make up all stable matter we interact with in our day to day life.

You might even have heard of protons and neutrons, which make up most of the weight of an atom (more than 99.999% of it)! Well these protons and neutrons are made of even smaller particles called quarks. Quarks are thought to be ‘fundamental’, meaning they are the smallest things there is, they can’t be broken down any further!

These quarks can come in different types, some of which are very rare and very heavy (over 77 thousand times heavier than the most common sort that make up everyday matter)! Heavy quarks are very unstable, and want to change into their lighter versions to become more stable.

By studying how specific types of rare heavy quarks decay, we improve our understanding of lots of open questions in physics you might have heard of including the mystery of dark matter, the imbalance of matter and antimatter in our universe, and look for new fundamental particles not yet observed!

I work on precisely measuring the nature of these changes in quark types, referred to as decays (‘decay’ is used to refer to an occasion where a heavier particle changes into a lighter one).

For people who know more that I did at that age: I’m studying “bottom/beauty to strange semileptonic penguin decays” 🐧, profiling the angular and invariant mass (energy) decay distributions. Profiling the decay will include measuring the known (Standard Model) contributions, matter-antimatter asymmetries, and particularly scalar and pseudoscalar contributions that haven’t yet been observed.

Later on in my PhD I will help in the alignment of mirrors within the detector we use to measure these rare decays!

The “experimental” in experimental particle physicist means I am responsible for helping to maintain/perform experiments, and process and understand the meaning of their results.