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- Published: 17th September 2026
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Why do you want to study this course or subject?
I grew up twenty minutes from the Humber, where the water is brown, fast and never quite where you expect it. The tidal barrier at the end of our road is the reason my primary school never flooded, and until a geography field trip in Year 12 I had never thought about who decided how high to build it. Standing on the shingle at Mappleton, watching the rock groynes hold one stretch of coast while the cliff a mile north kept retreating, I understood that these are engineering decisions with consequences measured in decades and in people's homes. That is the work I want to do. Ocean engineering appeals to me because it sits where fluid behaviour, structural design and long-term uncertainty meet. In Physics I enjoy problems with clean answers; in Geography I have had to accept that sediment transport, storm frequency and public money do not offer those. Designing a monopile foundation, a floating platform or a revetment means working with loads that are irregular, cyclical and corrosive, and accepting that a structure will be inspected by divers rather than walked around with a clipboard. Reading around offshore wind has shown me how much of the cost sits below the waterline, and how much engineering judgement goes into installation windows and fatigue life. I am drawn to a degree that will give me the hydrodynamics and structural mechanics to make those judgements properly, rather than my current habit of estimating and hoping. I would like to work eventually on coastal protection or offshore renewables in the North Sea, ideally close to the estuary that got me interested in the first place.
How have your qualifications and studies helped you to prepare?
My A levels are Maths, Physics and Geography, which between them cover most of what I need. Mechanics in Maths has been the most directly useful: resolving forces, moments and the behaviour of rigid bodies all appear in any discussion of a structure in moving water. In Physics I took on the practical endorsement seriously, and my investigation into the drag on different shapes towed through a water trough taught me more about controlling variables than any written exercise. Geography gave me the coastal processes side, including longshore drift, sediment budgets and the difference between hard and soft engineering, along with the habit of thinking about cost, stakeholders and maintenance rather than only the design. For my Extended Project I asked whether managed realignment is a credible alternative to holding the line on parts of the Holderness coast. I read government shoreline management plan documents, which were heavier going than I expected, and learned to interpret their epoch-based policy choices and the way they justify abandoning some defences. I also had to be honest in my conclusion that I could not judge the ecological claims properly with my current knowledge. Outside the syllabus I have worked through problems on wave theory using a library copy of an introductory coastal engineering text, and I can now derive and use the dispersion relation for linear waves, though I am still shaky on the assumptions behind it. I have started teaching myself Python and used it to plot tide gauge data for Immingham, mainly to see the spring and neap cycle appear from the numbers.
What else have you done to prepare outside of education, and why are these experiences useful?
The most enjoyable piece of work I have done was building a wave tank in our garage from a second-hand two-metre aquarium, a windscreen wiper motor and a hinged acrylic paddle. It leaked twice before I sealed the joints properly. I tested three model breakwater profiles made from mortar and aquarium gravel, filming each run against a scale drawn on the glass and estimating run-up height frame by frame. The smooth sloping profile consistently reflected more energy back than the rubble-mound arrangement, which matched what I had read about armour layers dissipating energy, but my measurements were rough and my paddle produced irregular waves, so I am cautious about claiming much from it. It did teach me why scaling laws matter and why real facilities cost what they do. Since Year 11 I have worked Saturdays and Sunday mornings at a garden centre, on tills, watering and moving stock. It is not engineering, but a busy till queue in May has made me quicker at arithmetic under pressure and better at explaining things to people who are not interested in detail, which I expect to need when presenting work. I also cover for colleagues at short notice and have trained two newer staff on the till system. I volunteer roughly monthly with a beach clean group at Hornsea, where recording what we collect on a standard form has shown me how tedious and necessary data collection is. At college I play in the badminton team, which mostly teaches me to keep going after losing, and I help at the Year 11 open evenings explaining what the Physics course actually involves.
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