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Personal statement example
Most weekday mornings start the same way for me: I lift a set of 150 mm concrete cubes out of the curing tank, wipe them dry, check their dimensions and load them into the compression machine one at a time. I work as an assistant technician in the quality control laboratory of a ready-mix concrete plant, and the 7-day and 28-day results I record go back to site engineers who decide whether a pour can be accepted. The machine gives a single number at failure, but I have learned to look at how each cube breaks as well, because a satisfactory failure pattern and an unusual one can tell different stories about compaction or the mix. That habit of looking beyond a pass or fail is the main reason I want to study civil and infrastructural engineering at postgraduate level.
My interest in how concrete behaves in hot conditions began with my final-year project. With a classmate, I cast six small unreinforced slabs on an open area beside the university laboratory during early summer and compared three curing approaches: wet hessian kept damp twice a day, a spray-applied curing compound, and no curing. We embedded thermocouples near the surface and at mid-depth, logged temperatures for the first three days, and later recorded visible surface cracking and rebound hammer readings. The uncured slabs showed more fine surface cracking, which matched what I had read about plastic shrinkage when evaporation is rapid. The comparison between hessian and curing compound was less clear-cut, and our sample was too small to support a firm conclusion. Writing up those limitations honestly, and explaining why rebound hammer readings indicate surface hardness rather than strength directly, taught me more about experimental design than a neat result would have done.
At the plant, I see the practical side of the same questions. In summer, drivers and batching staff adjust delivery times and the team monitors fresh concrete temperature more closely, and I carry out slump tests on samples before trucks leave. I have also helped my supervisor reorganise how cube records are stored so that results can be traced by mix design and delivery date, which has made it quicker to answer questions from site. None of this is senior work, but it has shown me how laboratory testing, supply logistics and site decisions depend on each other, and how much infrastructure quality rests on routine procedures being done properly.
I want to build the theoretical depth that my undergraduate degree only began. I would like to study durability and long-term performance of materials more rigorously, including how heat, moisture and chlorides affect reinforced concrete over a structure's life, and to strengthen my numerical methods and structural analysis. I am also curious about how materials choices connect to wider infrastructure planning, such as maintenance scheduling and whole-life cost, since a mix that passes at 28 days still has to perform for decades.
Outside work, I cycle long distances at weekends, usually setting off before sunrise to avoid the heat, and I plan routes and pacing carefully. It is not engineering, but it has made me disciplined about preparation. I also help my younger brother with his secondary school mathematics most evenings, and explaining simultaneous equations to a reluctant fourteen-year-old has made me clearer when I explain test results to colleagues.
I am applying for this degree with practical familiarity with materials testing, a completed independent project, and a realistic sense of what I still need to learn. I would bring care with data, steady work habits and a genuine curiosity about why structures perform as they do, and I hope to use the course to move from recording results towards understanding and improving them.