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- Published: 17th September 2026
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Why do you want to study this course or subject?
I live twenty minutes from a working fishing port, and the boats tied up there are all different shapes for reasons I wanted to understand. Some have very full, rounded bows; the newer ones are finer forward and carry their beam further aft. Asking why led me into reading about resistance, and then into the realisation that a hull is a compromise between speed, seakeeping, capacity and cost, argued out before anything is built. That idea of a design decided by calculation and judgement rather than trial and error is what pulled me towards naval architecture specifically, rather than a general engineering degree.
What keeps my interest is how much of it is fluid behaviour that cannot be seen directly. I have read enough to know that wave-making and viscous resistance behave very differently with speed, and that dimensionless numbers let a small model say something useful about a full-size ship. I find that genuinely clever: the mathematics does the scaling that the eye cannot. I also want to work on problems that matter commercially and environmentally, since fuel consumption, stability and structural weight all come back to decisions made at the lines plan stage.
I am applying now because I want the proper grounding I cannot get on my own: hydrostatics, structures, marine engineering systems and the software the industry actually uses. My own experiments have shown me where my reasoning runs out, and I would rather be taught to do it properly than keep guessing.
How have your qualifications and studies helped you to prepare?
My A-levels in Maths, Physics and Design and Technology have shaped how I approach the subject. Mechanics has been the most directly useful: resolving forces, moments and equilibrium are exactly what I need when thinking about a floating body and where its centre of buoyancy sits. In Maths, integration made buoyancy make sense to me for the first time, because the displaced volume of a hull is an integral of cross-sectional areas along its length rather than a single formula. I now sketch sectional area curves almost automatically when I look at a set of lines.
Design and Technology has trained me in something less mathematical but just as important: working to a specification, justifying material choices, and accepting that manufacture constrains design. My coursework project was a folding wooden stool for use in a small flat, and the hardest part was not the idea but the joints, tolerances and the cost of sheet material. That taught me to think about how something is actually built.
Outside the syllabus I borrowed a copy of Basic Ship Theory from the county library service and worked through the chapters on flotation and stability, taking notes on the ones I could follow and marking those I could not. I also read Eric Tobin's kind of practical boatbuilding material online and follow classification society explanatory notes when they are freely available. My physics teacher lets me use the lab in free periods, where I have measured the density of seawater made up to different salinities out of interest in draught changes between river and sea.
What else have you done to prepare outside of education, and why are these experiences useful?
Over the past two years I have built five model hulls from offcuts of plywood, foam and filler, each around 600mm long, and tested them in a water butt and later in a two-metre plastic gutter filled with water in the garden. I towed them with a weight over a pulley and timed them over a marked distance, repeating each run five times because my results were scattered at first. Comparing a full-bodied hull with a finer one, the finer hull was consistently faster under the same towing weight, but it was also much easier to capsize when I loaded it off-centre. Reading afterwards helped me see that I had stumbled into a stability and resistance trade-off rather than found a fault in my building.
I also spent several Saturdays at the harbour sketching and photographing boats at low water, when the hull shapes are visible, and asked a couple of owners about their vessels. One explained why his boat rolled badly when running light and how he used ballast, which made the idea of a metacentre much more concrete than the diagrams had.
I work Saturdays and Sunday mornings in a seafront café, which has made me reliable under pressure and good at dealing with people who are in a hurry. At college I help with the STEM club sessions for visiting Year 9 groups, running a simple foil-boat loading activity; explaining why a wider hull holds more coins before it tips forced me to be clear rather than vague.
I swim weekly at the local pool and play five-a-side football on Thursdays, which keeps my week structured alongside study and shifts.
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