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- Published: 17th September 2026
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Why do you want to study this course or subject?
The first time I was asked why one pair of boots in our shop cost four times more than another, I gave the answer on the label: full grain rather than corrected grain. Afterwards I wanted to know what that actually meant, and reading about it took me somewhere I had not expected, into collagen, cross-linking and the chemistry of turning a perishable hide into a material that lasts decades. That is what drew me to leather technology rather than chemistry alone. It sits exactly where my A levels meet: the protein structure I studied in Biology, the equilibria and reaction conditions from Chemistry, and the questions about water use, waste treatment and supply chains I met in Geography.
What holds my attention is that leather is a material engineered from a by-product, and that the choices made in a tannery have consequences a long way downstream. I have read about the shift away from chromium in some sectors and the trade-offs involved, and I find it genuinely interesting that a substitute tanning system has to satisfy the chemist, the machine operator, the effluent plant and the customer who wants a soft jacket that does not crack. I want to understand beamhouse and tanyard processes properly, not just in outline, and to be able to test and specify materials rather than guess at them. A course that includes laboratory work, process knowledge and the industry context seems the honest way to learn a subject where practice and theory are so tightly linked, and I would like to work in materials development or quality in the leather and footwear industries afterwards.
How have your qualifications and studies helped you to prepare?
Chemistry has been the most useful preparation. Working through acids and bases, buffers and reaction rates gave me the vocabulary to read about pickling, basification and the pH windows that tanning depends on, and my practical work on titrations and gravimetric analysis taught me that careful technique matters more than speed. My independent investigation looked at how temperature affects the rate of an enzyme-catalysed reaction, which made me think about the enzymes used in soaking and unhairing and why process control is so important when the substrate is a protein that can be damaged.
Biology gave me structural detail I keep returning to. Studying protein tertiary structure, hydrogen bonding and denaturation helped me understand why heat, salt and pH change a hide so dramatically, and why shrinkage temperature is used as a measure of how well a leather has been tanned. Geography has been unexpectedly relevant: a unit on water security and industrial pollution led me to read about tannery effluent treatment and the difference between regulation and enforcement in different producing countries.
I have also worked on the skills the course will need beyond content. I chose to write my extended project on the durability of adhesives used in shoe repair, which meant reading technical material well above my level and learning to summarise it accurately rather than pretending I understood every part. I use a notebook to record method changes and results in practical work because I found that, without it, I could not explain why one attempt behaved differently from another. Maths within Chemistry, particularly concentration and dilution calculations, is something I practise deliberately since I know laboratory analysis depends on it.
What else have you done to prepare outside of education, and why are these experiences useful?
For the past two years I have helped care for my younger brother, who has additional needs, on two weekday evenings and Saturday mornings. This has taught me to plan my study around fixed commitments and to be patient when things do not go as expected. It has also made me observant in a practical way: I notice which of his shoes wear at the heel, which fastenings he can manage and which materials he finds uncomfortable. Thinking about fit and durability as real problems for a real person has made me care about how materials actually perform, not just how they are described.
At the monthly repair session in our library I started out making tea and now mend bags and shoes alongside a retired cobbler. He showed me how to identify a split leather by its loose fibre structure, how to recognise where a finish has been applied to hide a flaw, and why a stitched repair on a dried-out strap often fails next to the old holes. Handling damaged leather has been the best introduction I could have had to the difference between grain and corrected grain, and to how a material fails in use rather than in a test.
My Saturday job in an independent shoe shop has developed the ability to explain technical things simply. I answer questions about waterproofing, suede care and whether a repair is worth doing, and I have learned to admit when I do not know and find out. Serving customers on a busy Saturday also built stamina and teamwork that I expect will transfer to laboratory sessions with fixed timings.
Outside this I swim twice a week with a local club, which keeps my routine steady, and I have begun teaching myself basic spreadsheet work to record and graph the results of my project trials.
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