A question I hear often is, ‘What do you actually study as a Food Science student?’ For me, it’s about understanding the science behind food—its chemical, physical, and biological properties and reactions during production, processing, preservation, and packaging. We explore this science by studying chemistry, physics, and biology (including microbiology). As we progress through the programme, the focus shifts towards applying this knowledge—developing new products, improving existing ones, and ensuring food is safe, nutritious, and high-quality across the food system.

Yes, but in a very specific way. As students, we get hands-on with food—preparing ingredients, testing recipes, and experimenting with different processes. The purpose isn’t to train chefs, but to observe how scientific principles affect food in practice. For example, we explore how heating, freezing, or mixing changes texture, taste, and shelf life. These activities give students first-hand insight into how food reacts under real-world conditions.

While both Food Science and Culinary Arts involve food, their goals are quite different. Culinary Arts is about creating dishes that are artful, flavourful, and skillfully prepared. Food Science goes further: we focus on food safety, shelf life, and nutritional quality. In short, chefs aim to make food enjoyable to eat, while food scientists aim to produce products that meet the needs of consumers and the wider industry.

If you’re wondering whether you need to be good at Chemistry to study Food Science, the answer is no. Chemistry is part of the programme, but it’s applied to food rather than abstract theory. You’ll learn how food reacts in everyday contexts, such as why bread rises, how milk spoils, or why an apple browns when cut. A basic understanding of Chemistry is enough, and your knowledge will grow gradually as you progress through the programme.

Mathematics is involved throughout the programme, but it’s mostly practical rather than theoretical. You’ll use it for tasks like calculating ingredient proportions, scaling recipes for large-scale production, or designing processes that maintain food safety and quality. Most calculations are simple, and more complex ones are supported by software. Even if you’re not confident in Mathematics, you can succeed, because the focus is on applying it to real-world food systems.

You only need foundational knowledge of Biology, especially in the first year, to understand how microbes, enzymes, and nutrients affect food safety and quality. As you progress, this knowledge is applied alongside other sciences in areas such as controlling microbial growth and optimising fermentation.

Yes—the lab plays a major role in both learning and practising the field, and students spend significant time there conducting experiments. They might analyse the composition of food, test microbial safety in dairy or meat products, measure moisture and pH levels, assess texture and viscosity in processed foods, or examine nutrient stability during heat processing. These are just a few examples of the many tasks that make lab work a critical part of the programme.

When I first started, I expected the programme to focus only on lab skills—handling chemicals, conducting experiments, and assessing samples. I was surprised to discover that digital skills are just as essential. For example, students use digital tools such as Microsoft Excel to track formulations, analyse data, and model how findings can be applied at larger scales. Together, these skills complement lab work by helping students turn experimental insights into practical solutions, preparing them for real-world challenges in the food industry.

Students need communication skills in Food Science because these skills are crucial for working effectively across different areas. The programme helps students develop them through teamwork on cross-disciplinary projects, preparing them for future collaborations—working with business teams to set priorities, marketing teams on product concepts, and design teams on packaging. Miscommunication in these contexts can have serious consequences, such as misleading claims, labeling errors, or legal issues—highlighting the importance of strong communication skills.

There’s no single type of person perfectly suited—or unsuited—for Food Science; a genuine interest in the subject is what matters most. Students who are curious about the science of food, enjoy experimenting with food systems, and are eager to apply science to improve food products are best positioned to succeed, as it's their dedication to learning and desire to make a meaningful impact that help them get the most out of the programme.