A complete guide to Edexcel A-Level Physics

Edexcel A-Level Physics (specification 9PH0, awarded by Pearson) is one of the three major UK A-Level physics routes. It is a linear two-year course assessed across three written papers at the end of Year 13, plus a Pass or Not Classified practical endorsement run by your teachers. The qualification is built around 13 topics.

This guide covers how each paper is structured, what content is on each, how the core practicals appear in the exam, and the revision techniques that genuinely lift Edexcel physics grades.

Edexcel A-Level Physics is a linear qualification: All three papers are sat at the end of Year 13 in the May/June exam series. There is no coursework that contributes to your grade, although the science practical endorsement runs alongside the exams.

The three papers split the spec into two content-led papers and one synoptic, practical-led paper. Together they test recall, application to unfamiliar contexts, and analysis of practical and quantitative data.

Each paper mixes short structured questions, longer extended responses, and a high proportion of calculation questions. Paper 3 is the biggest single paper in the qualification at 2h 30m and 120 marks, and it is the paper where students who under-prepare on practicals or synoptic links lose grades.

Paper 1 (Advanced physics I) covers working as a physicist, mechanics, electric circuits, further mechanics, electric and magnetic fields, and nuclear and particle physics. It mixes the Year 12 foundations (mechanics and circuits) with some of the more demanding Year 13 content (fields, capacitance, particle physics).

Physical quantities and SI units, scientific method, uncertainty, and how physics is communicated. This topic runs through every other topic and is heavily tested on Paper 3.

Motion (equations of motion, projectile motion, scalars and vectors), forces and Newton's laws, work, energy and power, momentum and conservation, terminal velocity.

Charge and current, potential difference, resistance, IV characteristics, resistivity, EMF, internal resistance, series and parallel circuits, the potential divider.

Momentum and impulse in two dimensions, circular motion (angular velocity, centripetal force and acceleration), and applications to vertical and horizontal circular motion.

Electric fields (force, field strength, potential, parallel plates), capacitance (energy stored, charging and discharging, RC time constants), magnetic fields (force on a current-carrying conductor, motion of charged particles in fields, electromagnetic induction and Faraday's and Lenz's laws).

Probing matter (Rutherford scattering, electron diffraction), particle accelerators, the standard model of particle physics (quarks, leptons, hadrons), particle interactions, and mass-energy equivalence (E = mc²).

Paper 2 (Advanced physics II) covers working as a physicist, materials, waves and the particle nature of light, thermodynamics, space, nuclear radiation, gravitational fields, and oscillations. It is the more conceptually varied of the two content papers, blending applied topics like materials and waves with the more abstract content on space and gravitation.

Materials (density, viscosity, Hooke's law, Young's modulus, stress and strain, breaking stress), progressive and stationary waves, the wave equation, superposition and interference, Young's slits, diffraction gratings, refraction and total internal reflection, polarisation, the photoelectric effect, line spectra and energy levels, wave-particle duality.

Thermodynamics (specific heat capacity, latent heat, ideal gas equation, kinetic theory of gases), space (stars, the HR diagram, cosmology, the Doppler effect, Hubble's law, the Big Bang), nuclear radiation (alpha, beta and gamma radiation, half-life and radioactive decay, fission and fusion).

Gravitational fields (force, field strength, potential, satellites and orbits), and oscillations (simple harmonic motion, energy in SHM, damped and forced oscillations, resonance).

Paper 3 (General and practical principles in physics) is the biggest paper in the qualification: 2h 30m, 120 marks. It is synoptic, so any content from across the spec can come up, but it has a strong focus on practical techniques, planning experiments, evaluating data, and applying physics to unfamiliar contexts.

Paper 3 leans heavily on practical-based questions tied to the core practicals. Expect detailed questions on apparatus, method choice, sources of error, percentage uncertainty, log graphs, and how you would modify a procedure for a different goal. Edexcel's Paper 3 is more practical-heavy than the other papers in this spec.

Edexcel specifies a fixed list of core practicals (currently 16 – check the spec) across the two-year course. You will not perform them in the exam, but you will be tested on the methods, the variables, the safety, the sources of error, and the underlying physics. Practical-related questions are concentrated mostly on Paper 3.

These are the core practicals you need to know (titles paraphrased here – refer to the Edexcel 9PH0 spec for the exact wording):

Alongside your A-Level grade, you receive a Pass or Not Classified on the science practical endorsement. This is a separate assessment based on your teacher's judgement of your competence in lab work throughout the two-year course, against five Common Practical Assessment Criteria (CPAC). There is no exam.

Some degree courses (engineering, physics, medicine) require a pass in the practical endorsement – check individual course pages. Per Ofqual practical endorsement rules, the endorsement is reported separately as Pass or Not Classified.

Ofqual subject content requires at least 40% of A-Level physics marks to test mathematical skills at Level 2 (GCSE higher) or above. The maths content includes algebraic rearrangement, trigonometry, logarithms (essential for radioactive decay and capacitor discharge), exponential functions, basic calculus concepts (rate of change graphically), uncertainty propagation, and graph analysis (gradients, intercepts, log-log plots).

Most students who score an A or A* in A-Level physics also take A-Level maths. It is not formally required, but the speed and confidence that maths A-Level builds make a real grade-level difference. If you're not taking maths, a strong GCSE maths grade (8 or 9) makes the workload easier.

Edexcel A-Level Physics's Paper 3 is more practical-heavy than the other papers in this spec, so practical skills can swing a grade more than most students realise.

You are given a data booklet with the standard equations. Drill yourself on what each one means, what each variable is, and what units it has. The students who lose marks are not the ones who forget the equation – they are the ones who pick the wrong equation under time pressure.

Paper 3 is the largest paper at 40% – more weight than either of the other two papers on its own. Build a specific revision block for it in the run-up to exams, focused on the core practicals, evaluation questions, and synoptic answers. Past Paper 3 questions are the single best preparation.

A-Level physics calculations are rarely one-step. A typical 5-mark question involves three or four sub-calculations that must be done in the right order with the right units. Past paper calculations under timed conditions are the single best preparation.

Do not just memorise each method. Learn the variables, the controls, the percentage uncertainty calculation, and the graph you would plot. Past paper questions on practicals are some of the most reliable mark-grabbers in the whole course.

Doing a past paper and putting it back on the shelf is wasted work. Mark it honestly, write down every topic where you lost marks, 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.