A real Oxford chemistry applicant once described their approach like this: no lab placement, no impressive research internship, just three specific sub-areas of chemistry researched properly through videos and articles, written up as three focused paragraphs. It worked, because what admissions tutors are actually assessing isn't access to a fancy lab; it's whether you can go deep on something specific and explain what you took from it.

This guide covers what to read, watch, and enter for Physics, Chemistry, Biology, Psychology, and Biochemistry applications, built around exactly that principle: depth on a few specific areas beats a broad, resource-heavy list.

Quick takeaways:

• You don't need lab access, an internship, or an expensive summer school to build strong science super-curriculars; specific, well-researched sub-topics work just as well

• Science Olympiads (Physics, Chemistry, Biology) give you an objective, external marker of ability and are worth entering even if you don't place highly

• Free resources from CERN, the Royal Society of Chemistry, and the Royal Society of Biology are genuinely substantial, not just beginner-level content

• Picking two or three specific sub-areas within your subject and going deep is stronger preparation than a broad survey of your whole field

• Psychology and Biochemistry applicants can draw on the same techniques used for the core sciences, adapted to their specific subject

What Counts as a Science Super-Curricular Activity?

A science super-curricular activity is anything that deepens your understanding of a scientific field beyond the A-level syllabus: reading primary research or serious popular science writing, following a current scientific debate, entering a subject Olympiad, or researching a specific sub-topic in enough depth to discuss it critically. Practical work, home experiments, citizen science, lab placements, is valuable where accessible, but it isn't a requirement; focused reading and reflection can carry the same weight.

Physics: Reading, Courses and Competitions

• CERN's public resources — genuinely substantial material on particle physics, not just introductory content, and a strong starting point if you're interested in the fundamentals of matter and energy.

• Free university courses on the Higgs boson discovery or Einstein's special relativity — both widely available through free online course platforms and give you structured, current grounding beyond A-level physics.

• MinutePhysics and similar accessible video channels — useful for building breadth quickly, best used as a starting point before reading more deeply on whatever specifically interests you.

• The British Physics Olympiad — a strong, objective marker of ability, worth entering through your school if it's offered, regardless of where you place.

• Observatory visits — Jodrell Bank, part of the University of Manchester, is worth contacting directly if you want to go beyond the public exhibits and are seriously interested in astrophysics.

• Following one live physics debate closely — dark matter detection experiments, fusion energy progress, or quantum computing developments are all active, genuinely current areas with real ongoing uncertainty, giving you something to actually discuss rather than settled textbook facts.

Chemistry: Reading, Competitions and the Three-Paragraph Technique

• The UK Chemistry Olympiad — a well-established, respected competition worth entering regardless of outcome, since strong performance gives you a concrete, objective marker to mention.

• Chemistry World magazine — published by the Royal Society of Chemistry, and a genuinely useful way to stay current on real research and industry developments rather than only textbook content.

• Royal Society of Chemistry student membership — gives you access to events and current developments, and demonstrates sustained engagement rather than a one-off activity.

• A simple lab journal of any home experiments you do — even basic practical work becomes stronger evidence when documented and reflected on properly.

The technique worth borrowing here: instead of trying to cover chemistry broadly, pick two or three specific sub-areas that genuinely interest you, such as a particular reaction mechanism, an aspect of inorganic chemistry, or a specific application in materials science, and research each deeply enough to write a focused paragraph explaining what you found and why it matters. This works whether or not you have access to a lab, and it reads as considerably more genuine than a general "I love chemistry" statement.

Biology: Reading, Fieldwork and Competitions

• The British Biology Olympiad — run by the Royal Society of Biology, and worth entering for the same reasons as the chemistry and physics equivalents: an objective marker of ability that doesn't depend on which school you attend.

• The Royal Society of Biology's own resources — a genuinely substantial hub for current biological research and developments, not just introductory material.

• Citizen science projects — contributing real observations to an organisation like the RSPB gives you something more substantive to discuss than passive reading, since you're generating your own data.

• Following one specific area closely — genetics, ecology, and immunology all have active, accessible current debates worth following in depth rather than surveying biology broadly.

• Reading a mix of popular science and primary sources — a well-written popular science book gives you the broader context, while following it up with an accessible primary paper on the same topic shows you can engage with real research, not just the simplified version of it.

Psychology and Biochemistry: Where to Start

Psychology applicants benefit from reading beyond the A-level specification into primary research papers, since interviewers often probe methodology rather than just findings; searching a topic through an academic search tool like Google Scholar is a good starting point for finding accessible primary sources rather than only secondary summaries.

Biochemistry sits between chemistry and biology, so the same sub-topic depth principle applies: pick a specific area, such as enzyme function or DNA structure and its biological implications, and research it properly rather than trying to cover the whole field. The three-paragraph technique described above for chemistry works just as well here.

For both subjects, a useful habit is picking a recent, accessible news story about a scientific development, a new therapy, a psychological study getting media attention, and tracing it back to the original research paper rather than stopping at the news summary. This teaches you to spot where journalism simplifies or overstates findings, which is exactly the kind of critical distance an interviewer wants to see you apply.

Competitions and Awards Across the Sciences

Beyond the subject-specific Olympiads already mentioned, a few broader competitions and awards are worth knowing about. The CREST Awards, including the Gold Award aimed specifically at students building evidence for university applications, offer structured project-based recognition across STEM subjects. UK Young Scientist of the Year and the Big Bang Festival are broader science fair-style events suitable across Chemistry, Biology, and related disciplines. Several universities also run science writing competitions, worth checking for annually since they change and give you a concrete piece of work to discuss.

Common Mistakes Science Applicants Make

• Assuming you need lab access or an expensive placement to build a strong profile. Focused reading and reflection on a specific sub-topic carries just as much weight as practical experience, provided you can discuss it in depth.

• Surveying a subject broadly instead of going deep on a few areas. A general "I've read about lots of physics topics" statement is far weaker than a considered view on two or three specific ones.

• Entering a competition purely for the result. Admissions tutors value what you learned from entering, win or not, so reflect on the experience rather than only mentioning the outcome.

• Treating psychology as purely social science reading. Interviewers often expect familiarity with study methodology, not just conclusions, so engaging with how a study was conducted matters as much as what it found.

If you're preparing for the UCAT, TMUA, or ESAT alongside your science reading, our admissions test preparation guidance covers overlapping scientific reasoning skills that reinforce this kind of subject-specific depth.

Frequently Asked Questions

Do I need a lab placement to have strong science supercurriculars?

No. Focused reading and reflection on a small number of specific sub-topics, documented properly, carries as much weight as practical lab experience. What matters is depth of engagement and your ability to discuss what you learned, not the source of the activity.

Which science olympiad should I enter?

Enter the one matching your intended subject where your school offers it: the British Physics Olympiad, the UK Chemistry Olympiad, or the British Biology Olympiad. All three are respected, objective markers of ability, and entering is worthwhile even if you don't place highly, provided you can reflect on what the experience taught you.

Is a professional society membership (Royal Society of Chemistry etc.) worth it?

Yes, particularly for demonstrating sustained engagement rather than a one-off activity. These memberships are usually inexpensive for students and give you access to events, publications, and current developments that show ongoing interest rather than last-minute preparation.

Can I use the same supercurricular activity for multiple science subjects?

To some extent. Biochemistry naturally overlaps with both chemistry and biology, and a citizen science project or Olympiad can support a joint application. What matters most is that you can discuss the activity's relevance to each specific subject you're applying for, rather than assuming general science engagement covers every course automatically.

How many science super-curricular activities do I need?

There's no fixed number. A student who has researched two or three specific sub-topics in real depth and can discuss them critically is in a stronger position than one who has surveyed many topics broadly without retaining enough detail to discuss any of them properly.