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Ceramic engineering personal statement example

PSE example
  • Reading time: 3 minutes
  • Price: Free download
  • Published: 17th September 2026
  • Word count: 847 words
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Why do you want to study this course or subject?

The community studio I joined at fifteen fires its work in an electric kiln that the technician calls temperamental, and my first serious pot came out with a glaze that had crawled into bare patches. Asking why led me to surface tension, glaze viscosity and the fact that a coating is a suspension with a chemistry of its own. Since then I have kept a notebook of test tiles, changing one thing at a time: more clay in the recipe to help it stick, a slower climb through the last hundred degrees, a different thickness of application. Chemistry lessons on ionic bonding and lattice structures stopped feeling separate from the work; I could see why alumina raises the melting point and why a crystalline glaze needs a hold and a controlled cool rather than a straight switch-off. What draws me to ceramic engineering rather than to studio ceramics is the scale and the range of the problems. Growing up around Stoke, I knew ceramics as tableware and sanitaryware, but reading about thermal barrier coatings, silicon carbide abrasives and solid electrolytes for batteries showed me how much of modern engineering depends on materials that are brittle, refractory and awkward to process. The awkwardness is the interesting part: you cannot forge a ceramic, so shaping, sintering and controlling porosity carry the design. I want to learn the underlying science properly, including phase diagrams, powder processing and how flaws govern strength, so that I can work on components where failure matters rather than only judging a result by eye.

How have your qualifications and studies helped you to prepare?

My A levels give me the groundwork I need. Chemistry has been the most directly useful: the modules on structure and bonding, energetics and equilibria give me the language for why oxides behave as they do, and the practical work has taught me to record what I actually did rather than what I intended. Titrations and rate experiments were where I learned that repeatability is a skill, not a detail, which changed how I write up my own glaze tests at the studio. Physics has covered thermal properties, stress and strain, and electric fields, and an investigation into the resistance of a wire at different temperatures was my first experience of plotting data that did not sit neatly on a line and having to say so. In Mathematics I have found the work on logarithms, exponentials and differentiation directly relevant, since diffusion and firing schedules are described in those terms, and I am comfortable rearranging equations and estimating sensibly. My AS in Design and Technology added a practical layer: I learned to use callipers and a lathe, produced technical drawings to tolerance, and sat through a materials unit that compared metals, polymers and ceramics honestly, including cost and manufacturability. Outside lessons I have read Mark Miodownik's Stuff Matters, which is written for a general reader but made me think about why we choose one material over another, and I follow the Institute of Materials, Minerals and Mining website for accessible articles. I intend to keep reading about sintering, because it is the process I understand least well and clearly matters most.

What else have you done to prepare outside of education, and why are these experiences useful?

For our college science club, two classmates and I took on one manageable task: finding out whether clay reclaimed from studio scraps behaved like fresh clay. We collected trimmings and slops, dried, slaked and wedged them, then made twenty small bars from each batch. We measured shrinkage between wet, dry and fired states, weighed the bars before and after a water soak to estimate porosity, and snapped them across two supports with weights added until they broke. The reclaimed clay shrank slightly more and broke a little sooner on average, though our results scattered widely, mainly because our hand-rolled bars were not a consistent thickness. Saying that plainly in our presentation to the club was more useful than claiming a clean conclusion, and it taught me why standard test specimens exist. Splitting the work mattered too: I organised the firing schedule with the technician, one partner ran the soak tests, and we all pressed the bars. My Saturday job at a garden centre involves the till, moving stock and advising customers on compost and pots, which has made me steadier at explaining something technical in plain terms and at working through a queue without cutting corners. I also spent a term helping a Year 9 group with maths homework once a week, where repeating an explanation in three different ways was the only method that worked. At the studio I now help newer members set up the kiln shelves and pack work safely, and I take my turn cleaning the wheels and mixing slip, which is unglamorous but has taught me how much of ceramics is careful preparation.

This example has 4,719 characters across the three answers. Use it for ideas and structure. Your own UCAS answers must fit within 4,000 characters in total, including spaces.

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