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- Published: 4th October 2026
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Personal statement example
Outside the warehouse where I work weekend shifts, a halyard on the flagpole hums whenever the wind comes from the north-east. For months it was background noise, until my final-year project made me listen to it properly: a slender structure, a steady flow and an oscillation that appears only above a certain speed. That project, on the onset of flutter in a flexible wing, is the main reason I want to continue into postgraduate study in aeronautical engineering.
My BEng in Aerospace Engineering gave me a broad base in aerodynamics, structures, propulsion and flight mechanics. I achieved an upper second, with my strongest marks in structural dynamics and the individual project. For the project I built a rectangular wing from a thin aluminium spar and balsa ribs covered in film, mounted it in the department's open-return teaching tunnel and increased the airspeed in small steps. A small accelerometer at the tip and a video camera at the side recorded the response. Alongside the tests I wrote a simple two-degree-of-freedom model in Python, using quasi-steady aerodynamics, to predict the speed at which bending and torsion would couple.
The model overpredicted the flutter speed noticeably, which was the most interesting part of the work. By shifting a clamp-on mass along the chord I could show that the measured onset moved in the same direction as the prediction, even if the numbers did not match. In my report I argued that the quasi-steady assumption and the stiffness of my root mounting were the likeliest causes, and I suggested that an unsteady approach, such as Theodorsen's function, would be the natural next step. I did not have time to implement it properly, and I would like the chance to study unsteady aerodynamics and aeroelasticity with the depth that a single project could not give.
I have also enjoyed the more systematic side of engineering. In a group design exercise on a small fixed-wing surveillance aircraft I was responsible for the weight and balance spreadsheet. It was unglamorous work, but every change to battery or payload passed through it, and I learned to keep a revision history so that the aerodynamics and structures subgroups were always working from the same figures. That habit has carried into my job, where I pick and check orders against handheld scanner lists and regularly flag mismatches between the system and what is actually on the shelf.
Outside my degree I volunteer at a local model flying club, mainly helping newer members check their aircraft before flying: control throws, centre of gravity, battery security. I am not an expert pilot, but repeatedly seeing how a small rearward shift in balance makes a model twitchy has given me a practical feel for stability that complements the equations I learned in flight mechanics. I also play cello in an amateur orchestra. Apart from being a welcome change from screens, it has made me more patient with slow, repetitive practice, which turned out to be useful when a wind tunnel run had to be repeated for the fifth time.
At postgraduate level I hope to strengthen my grounding in computational and experimental aerodynamics, structural analysis and aeroelasticity, and to become more confident with numerical methods beyond the scripts I wrote for my project. I am particularly interested in how lighter, more flexible wings can be designed safely, a question that matters increasingly as aircraft are pushed towards lower fuel burn. In the longer term I would like to work in loads or aeroelastic analysis in industry, where I could combine modelling with test data.
I am a careful, persistent student who likes to understand why a result differs from a prediction rather than simply reporting that it does. A taught Masters would give me the structure and breadth to turn that curiosity into professional competence.