- Reading time: 3 minutes
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- Published: 17th September 2026
- Word count: 891 words
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Why do you want to study this course or subject?
My grandfather has had the same allotment plot for nineteen years, and for the last four I have been the person who helps him lift, water and dig. He grows runner beans that do well every year and tomatoes that blight most years, and the difference between the two is what first made me curious. Why does one plant shrug off a wet August while another collapses? Reading around the question took me from garden advice into plant science proper: resistance genes, breeding programmes, the slow work of crossing and selecting, and now the much faster tools of marker-assisted selection and gene editing. I found James Wong's writing a useful bridge into thinking about plant physiology, and later worked through sections of a second-hand plant biology textbook, particularly the chapters on water transport and nutrient uptake, which made sense of things I had only seen happening.
What draws me to crop biotechnology and engineering rather than botany alone is that it sits where laboratory work meets the field. A drought-tolerant line is only useful if it yields well in real soil, harvests with existing machinery and suits growers who cannot afford to gamble a season. I am interested in the engineering side too, in irrigation scheduling, controlled environment growing and sensors, because the biology rarely acts on its own. I want to study the genetics and the physiology in detail, learn the statistics that trial work depends on, and spend time in glasshouses and on research farms rather than only reading about them.
How have your qualifications and studies helped you to prepare?
Biology has given me most of the foundation I will need. The genetics and inheritance units are the ones I return to most, and doing my own Punnett squares for dihybrid crosses made plant breeding feel far less abstract; I can now follow why a breeder might need several generations to fix a trait. Our required practicals have been genuinely useful preparation: I have used chromatography to separate photosynthetic pigments, measured the effect of light intensity on the rate of photosynthesis using algal balls, and carried out a serial dilution to investigate osmosis in plant tissue. Working out why my results for the osmosis practical did not sit neatly on a line taught me more about controlling variables than the write-up itself did.
Chemistry supports this closely. Understanding buffers, pH and solution concentration has made me much more careful about preparing anything accurately, and the organic chemistry topics help me follow how herbicides and plant hormones actually work rather than treating them as black boxes. Geography has been an unexpected asset: units on water and carbon cycles, soil processes and food security gave me the wider context of where crops are grown and what limits them. For a Geography assessment I looked at land use pressure in a local catchment, which involved reading land use data and thinking about trade-offs between yield and water quality.
I am also taking an extended project style piece of independent work on whether vertical farming can be justified on energy grounds, which has pushed me to read critically rather than accept confident claims. Comparing sources with different assumptions about lighting efficiency has been good practice for handling scientific literature at degree level.
What else have you done to prepare outside of education, and why are these experiences useful?
Since Year 12 I have worked most Saturdays and some holidays at a garden centre, mainly on the outdoor plant area. I water, deadhead, check stock for pests and answer customer questions. Explaining to someone why their courgettes have set no fruit, or why a bagged compost with added nutrients might not suit seedlings, has taught me to translate what I know into plain terms without being either vague or patronising. I also see which problems come up again and again: aphids, powdery mildew, poor watering habits and inconsistent labelling.
At home I grow chillies from seed each year on a windowsill and under a cheap grow light. Last year I kept a simple record of germination dates and first flowering for three varieties, partly to work out whether starting earlier under light actually gained me anything. It did, though less than I expected, and my notes were not detailed enough to say much more; I am keeping better ones this year, including temperature readings.
I help run our college gardening club, which mostly means organising a rota, sourcing seed and persuading people that weeding raised beds is a reasonable way to spend a Wednesday lunchtime. We grew salad crops and garlic last year and gave produce to the college canteen. Coordinating people who turn up irregularly has been more of a challenge than the growing.
Outside this I play in a local netball team, which keeps me organised around shift work and coursework deadlines, and I have volunteered at two community planting days with a local wildlife trust, putting in hedge whips and learning to identify native species. Together these have built the habits I think a laboratory-and-field degree will ask for: careful recording, patience with slow results, and a willingness to be outside in poor weather.
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