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- Published: 17th September 2026
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Why do you want to study this course or subject?
What drew me to biomedical laboratory science was realising how much of medicine happens out of sight. When my grandmother was being monitored for an underactive thyroid, I helped her keep track of her appointments and typed her results into a notebook so she could see the pattern. She was interested in the numbers, and I found I was too: a small tube of blood, taken in four minutes, produced a set of values that changed her dose. I wanted to know who measured those values and how they knew the measurement could be trusted. Reading around the subject turned that curiosity into something more specific. Immunoassays fascinate me because they solve a problem that first seemed impossible: detecting one particular protein among thousands in the same sample, using antibodies as the selective step. I also became interested in why laboratories run internal quality controls alongside patient samples, and why a result that is precise can still be wrong if the method is poorly calibrated. That distinction between precision and accuracy now shapes how I read my own practical results. The career appeals to me because it is careful rather than dramatic. A biomedical scientist checks a film, notices an unexpected cell population, and flags it; the work is technical, regulated and quietly consequential. I would rather spend my day on staining, verification and troubleshooting than in a consulting room. Studying this degree would let me build from the biology I enjoy most, cells and metabolism, towards the diagnostic disciplines of haematology, clinical biochemistry and microbiology, and towards work in a hospital or research laboratory afterwards.
How have your qualifications and studies helped you to prepare?
My A levels have given me the foundation the course needs and have also shown me which parts of science I am best suited to. Biology has been the strongest influence. Studying the immune response gave me the vocabulary to make sense of my reading on antibody-based tests, and the module on gene expression explained why two cells with identical DNA can behave completely differently, which I had not properly understood before. Chemistry has been harder work and more useful than I expected. Buffers, equilibria and pH now seem central rather than abstract: I understand why a diagnostic assay must be run in a controlled buffer, and why enzyme activity measurements are meaningless without stating the temperature and pH. Titrations taught me to be honest about uncertainty, and my chemistry teacher's insistence on repeating anomalous runs rather than discarding them has changed how I write up practicals. Geography might look unrelated, but the statistics element has been valuable. Learning to choose an appropriate test, interpret significance and present data clearly gave me confidence with numbers, and fieldwork taught me to plan sampling so that results mean something. For my geography investigation I collected water samples along a brook and had to justify my sampling intervals; I later used the same thinking when deciding where to take pond samples for my microscopy at home. Alongside lessons I have read Matt Ridley's Genome, which sparked my interest in inherited conditions, and articles from the Institute of Biomedical Science website about the range of pathology disciplines. I am also working through an online introduction to blood cell morphology so that the images in my textbook start to become familiar rather than baffling.
What else have you done to prepare outside of education, and why are these experiences useful?
The hobby that has taught me most is microscopy. I bought a second-hand compound microscope two years ago and have been building a set of slides from pond water, cheek cells, onion tissue and stained plant sections. Learning to use it properly took longer than I anticipated: I had to work out correct illumination, why my early slides were full of air bubbles, and how to make a wet mount thin enough to focus on. I keep a notebook with sketches, magnifications and dates, and I have started sampling the same garden pond each month to see how the organisms present change with the seasons. It is modest work, but it has made me patient with technique and comfortable with the idea that a good result depends on preparation rather than luck. Saturdays I work at a garden centre, mostly on the tills and restocking. It has taught me to stay accurate when I am tired and busy, to follow procedures for stock and cash checks without cutting corners, and to explain things clearly to customers who are not experts. Those habits seem relevant to a laboratory where records and labelling matter as much as the analysis. At college I volunteer with the science club that runs sessions for visiting Year 8 pupils. I demonstrate microscopy and help small groups prepare their own slides, which has improved my ability to break a procedure into clear steps and to spot when someone has misunderstood. Helping my grandmother continues too: I go with her to appointments, make sure she has her questions written down, and keep her results file in order. It is unremarkable work, but it has given me a sense of the person at the other end of a sample, and of why turnaround times and reliable results matter to someone waiting for them. I am looking forward to working in a teaching laboratory with proper equipment, and to learning the standards that real diagnostic work demands.
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