A complete guide to AQA GCSE Physics

AQA GCSE Physics (specification 8463) is one of the most popular physics GCSEs in the UK, sat by hundreds of thousands of students each summer. It is a linear qualification, structured around eight topics and assessed across two written papers at the end of Year 11.

This guide covers everything you need to know to walk into the exam confident: How the papers are structured, which topics are tested on each, the required practicals you have to know, and the revision techniques that work best for physics.

AQA GCSE Physics is a linear qualification, which means everything you have learned over Years 10 and 11 is assessed at the end of the course in one exam series, usually in May and June of Year 11. There is no coursework and no controlled assessment. Your grade comes entirely from two written papers.

Both papers are weighted equally and test the same three assessment objectives: Recall of physics, application to unfamiliar contexts, and analysis of practical and experimental data.

Each paper contains a mix of question types: Multiple choice, short structured answers, longer six-mark extended responses, and equation-heavy calculation questions. Around 30% of total marks across both papers test mathematical skills, which is more than chemistry or biology. Many calculation questions reward correct working even when the final answer is wrong, so you should always show your method.

Paper 1 is sat first in the summer exam series. It covers topics 1 to 4, focusing on energy, electricity, and the structure of matter.

The energy stores (kinetic, gravitational, elastic, thermal, chemical, magnetic, electrostatic, nuclear), energy transfers, conservation of energy, work done, power, efficiency, and renewable vs non-renewable energy sources. The equations for kinetic energy, gravitational potential energy, and elastic potential energy are tested almost every year.

Circuit symbols, current, potential difference, resistance, Ohm's law, series and parallel circuits, the mains electricity supply, power, and energy in circuits. Higher Tier extends to thermistors, LDRs, and IV characteristic graphs.

Density, the three states of matter, specific heat capacity, specific latent heat, and gas pressure. Higher Tier covers the relationship between pressure, volume, and temperature in a gas.

The history of the atom (plum pudding model, Rutherford scattering, Bohr model), isotopes, radioactive decay (alpha, beta, gamma), half-life, nuclear equations, and the uses and dangers of radiation. Higher Tier covers nuclear fission and fusion in more detail.

Paper 2 covers topics 5 to 8. The content shifts towards forces, waves, magnetism, and (for Triple) space physics.

Scalars and vectors, contact and non-contact forces, weight, Newton's laws of motion, terminal velocity, momentum, stopping distances, and elastic and inelastic deformation. This is the largest topic in the specification and contains some of the hardest content.

Transverse and longitudinal waves, wave equations, the electromagnetic spectrum, refraction, reflection, sound waves, and ultrasound. Higher Tier covers seismic waves and the dangers and uses of each part of the EM spectrum.

Magnetic fields, electromagnets, the motor effect, the generator effect, transformers, and (Higher Tier) loudspeakers and microphones. The motor effect equation (F = BIL) is tested every year on Higher Tier.

The solar system, satellites, orbital motion, the life cycle of stars, red shift, and the Big Bang theory. This topic is only in the Triple Physics specification, not Combined.

The required practicals are 10 specific experiments AQA expects every student to have carried out (or seen demonstrated). You will not physically do them in the exam, but you will be tested on the methods, results, and the underlying physics. Around 15% of the marks across the two papers come from practical-related questions.

These are the 10 practicals you need to know:

AQA GCSE Physics is tiered. Foundation Tier covers grades 1–5 and Higher Tier covers grades 4–9. The same topics appear on both tiers, but Higher Tier papers contain harder questions and additional Higher-only content (such as the gas laws in topic 3 and the motor effect equation in topic 7).

Your school usually decides which tier you sit, based on mock exam results and class assessments. If you sit Foundation and score above the boundary for grade 5, you will be awarded a 5. If you sit Higher and score below the grade 4 boundary, you will be ungraded (U), with no safety net of a grade 3.

Grade boundaries change every year. AQA publishes the official boundaries on results day each August.

Physics is the most maths-heavy of the three sciences. The students who get grade 8 and 9 do not just learn the equations – they learn how to spot which one to use and how to rearrange it under pressure.

AQA provides a formula sheet in the exam, but it does not include every equation. Equations like work done, power, force on a current-carrying wire, and density are not always given – you must have them memorised. Make a one-page sheet of the must-know equations and recite it daily.

Many physics questions test whether you can rearrange an equation rather than just plug numbers in. Practise doing it without the formula triangle – exam stress makes the triangle harder to apply, and Higher Tier questions often need a two-step rearrangement.

Reading your notes feels productive but barely sticks. Active recall – closing the book and writing what you remember – forces your brain to retrieve information, which is what builds long-term memory. Flashcards work well for definitions, units, and the equations not on the formula sheet.

Do not just learn each method. Learn the kinds of questions examiners ask. What are the variables? Why is each control variable important? How would you calculate a percentage uncertainty from the data? Past paper questions on practicals are some of the most predictable mark-grabbers.

Doing a past paper and putting it back on the shelf is wasted work. Mark it honestly, write down every topic you got wrong, and revise that specific content before doing another paper. The biggest jumps in physics scores come from fixing recurring weaknesses, not from doing more papers.