What is the difference between AS and A-Level Physics with AQA?

AS Physics (7407) covers the first half of the full A-Level content and is assessed by two written papers. It is a standalone qualification that can be taken in one year. The full A-Level (7408) builds on the AS topics and adds second-year content, culminating in three papers. Most students take the linear A-Level, but AS can be a useful stepping stone or a way to keep breadth. Note that marks from AS do not count towards the final A-Level grade.

Do I need to be good at maths to study AQA A-Level Physics?

Yes, a solid mathematical foundation is essential. Around 40% of the marks across the AQA Physics exams require the use of mathematical skills. You will need to be comfortable with algebra, trigonometry, graphs, exponentials, logarithms, and basic calculus. The specification provides a list of the mathematical requirements, and many students study A-Level Mathematics alongside Physics to support their understanding.

What optional topic should I choose for AQA A-Level Physics?

The best optional topic depends on your interests and future plans. Astrophysics is popular for its fascinating content about stars and cosmology. Medical Physics suits those interested in healthcare, covering imaging techniques like X-rays and ultrasound. Engineering Physics appeals to future engineers with topics like thermodynamics and rotational dynamics. Turning Points in Physics explores key discoveries like wave-particle duality and special relativity, great for inspiring a deeper appreciation of modern physics. Electronics is practical and useful for engineering. Discuss with your teacher what options your school offers and which aligns with your goals.

How does the AQA Physics practical endorsement work?

The practical endorsement is a non-exam assessment that certifies your competence in laboratory skills. You will complete at least 12 required practicals covering a range of apparatus and techniques. Your teacher observes your performance throughout the course and assesses you against five criteria: following procedures, applying investigative approaches, using instruments, handling data, and communicating findings. The endorsement is reported separately to your A-Level grade as a Pass or Fail; it does not contribute to the numerical grade but is essential for progression to many university courses.

Are there any coursework or controlled assessments in AQA A-Level Physics?

There is no traditional coursework or ISAs (Investigative Skills Assignments) as in the old specification. Instead, practical skills are assessed through the written exams, particularly in Paper 3 Section A, which includes questions on experimental methods and data analysis. The practical endorsement is a separate, school-assessed component that records your practical competency throughout the course. This streamlined approach focuses on developing real-world lab skills without the pressure of a single practical exam.

Physics

AQA

A-Level

Specification: 7408

The AQA A-Level Physics specification covers 13 topics with 0 learning objectives (7408). Use the topic browser below to explore subtopics, exam tips, common mistakes, and key terminology for each area of the course.

This subject will help you develop key knowledge and skills required for exam success.

Topics

Objectives

Exam Tips

Pitfalls

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Key Features

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About AQA A-Level Physics

AQA A-Level Physics (7408) is a linear two-year course designed to deepen your understanding of the physical world, from subatomic particles to cosmic scales. You will explore fundamental principles and their applications, developing a robust scientific methodology through theoretical study and hands-on practical work. The course builds on GCSE knowledge, encouraging you to question how and why things happen, and to appreciate the elegance of physical laws.

The specification is structured into core topics that progressively link concepts, fostering synoptic understanding. In the first year, you cover measurements and their errors, particles and radiation, waves, mechanics and materials, and electricity. The second year extends into further mechanics and thermal physics, fields (gravitational, electric, magnetic), and nuclear physics, plus an optional module that allows you to specialise in an area like astrophysics or medical physics. Practical skills are integral, with 12 required practicals developing your lab competency.

This course hones analytical thinking, problem-solving, and mathematical skills—approximately 40% of marks require maths. It prepares you for higher education in physics, engineering, or related sciences, and nurtures a lifelong appreciation for the role of physics in technology and society. The linear assessment means exams at the end of Year 13 test your cumulative knowledge, encouraging deep, sustained learning.

Assessment Structure

AQA A-Level Physics is assessed via three written examinations at the end of the two-year course. Paper 1 (2 hours, 85 marks, 34%) covers core content from the first year plus periodic motion; Paper 2 (2 hours, 85 marks, 34%) covers the second year core topics of thermal physics, fields, and nuclear physics, along with assumed knowledge; Paper 3 (2 hours, 80 marks, 32%) includes Section A on practical skills and data analysis (45 marks) and Section B on the chosen optional topic (35 marks). All papers feature a mix of long and short answer questions, with multiple-choice questions only in Paper 3 Section A. Additionally, students must complete a practical endorsement, which is assessed by teachers through 12 required practicals and reported separately as a Pass or Fail.

Why Choose AQA?

AQA's specification is widely used and well-supported, with a wealth of high-quality textbooks, online resources, and past papers. The clear layout and familiar question style help students transition confidently from GCSE, especially if they have previously studied AQA Science.
The choice of optional topics (such as Astrophysics, Medical Physics, Engineering Physics, Turning Points in Physics, and Electronics) allows students to tailor their learning to their interests and future career aspirations, providing motivation and depth.
AQA places a strong emphasis on practical skills, with a dedicated practical endorsement that develops lab competence and scientific thinking, valued by universities and employers. The specification also requires robust mathematical skills, preparing students well for further study in physical sciences and engineering.

Frequently Asked Questions

Assessment Objectives

AO1

35%-40%

Demonstrate knowledge and understanding of scientific ideas, processes, techniques and procedures

AO2

40%-45%

Apply knowledge and understanding of scientific ideas, processes, techniques and procedures: in a theoretical context, in a practical context, when handling qualitative data, when handling quantitative data

AO3

28%-30%

Analyse, interpret and evaluate scientific information, ideas and evidence, including in relation to issues, to: make judgements and reach conclusions, develop and refine practical design and procedures

What Gets Top Grades

A*/Grade 9

Knowledge & Understanding

Demonstrates comprehensive and accurate knowledge

Uses correct subject-specific terminology
Shows detailed understanding of concepts
Makes accurate connections between topics
Demonstrates depth beyond surface-level knowledge

Application

Applies knowledge effectively to new contexts

Selects relevant knowledge for the question
Adapts understanding to unfamiliar scenarios
Uses examples appropriately
Shows awareness of context

Analysis & Evaluation

Develops sophisticated analytical arguments

Constructs logical chains of reasoning
Considers multiple perspectives
Weighs evidence to reach justified conclusions
Acknowledges limitations and nuances

Key Command Words

AQA

State

1 mark

Give a single fact or term

Identify

1 mark

Name, select, or recognise

Outline

2 marks

Set out main features briefly

Describe

2-4 marks

Give an account of what something is like or what happens

Explain

3-6 marks

Give reasons with developed cause→effect chains

Compare

2-4 marks

State similarities AND differences (both required)

Analyse

6-9 marks

Examine in detail showing cause→effect→consequence chains

Evaluate

6-12 marks

Weigh up BOTH sides, reach JUSTIFIED conclusion

Assess

6-12 marks

Make judgments about importance with justification

Calculate

2-4 marks

Show formula→substitution→calculation→answer with units

Common Exam Mistakes

Pitfalls to avoid in your exams

•Confusing precision with accuracy
•Failing to convert units correctly before performing calculations
•Incorrectly combining uncertainties (e.g., adding percentage uncertainties when values are added)
•Ignoring the relationship between significant figures and uncertainty
•Misinterpreting error bars on graphs
•Confusing physical, biological, and effective half-lives
•Incorrect application of the acoustic impedance formula for ultrasound reflection
•Misinterpreting the logarithmic scale for sound intensity levels

Top Examiner Tips

Expert advice for exam success

•Always check that units are consistent before starting a calculation
•When calculating percentage uncertainty, ensure the number of significant figures in the final answer matches the precision of the data
•Remember that the gradient of a line of best fit is not the only way to analyze data; consider the worst-fit line to determine uncertainty in the gradient
•Practice converting between standard form and prefixes frequently
•Ensure you can perform calculations involving the lens power formula and dioptres
•Be prepared to compare different imaging techniques based on resolution, cost, and safety
•Practice using the exponential attenuation equation for X-rays
•Understand the difference between the various types of half-life and their mathematical relationships

Specification Topics

13 topics

Measurements and their errors

This topic covers the fundamental principles of measurement in physics, including the use of SI base units and prefixes. It also focuses on the analysis of experimental data, specifically addressing the nature of random and systematic errors, the calculation of uncertainties, and the graphical treatment of data.

0 objectives4 tips5 pitfalls

Medical physics

This topic explores the application of physical principles to medical diagnostics and sensory systems. It covers the physics of the eye and ear, various medical imaging techniques including ultrasound, X-rays, CT scans, and magnetic resonance, as well as the use of radionuclides in imaging and therapy.

0 objectives4 tips4 pitfalls

Engineering physics

This topic explores rotational dynamics and thermodynamics, extending core physics concepts into engineering applications. It covers rotational motion, flywheels, engine cycles, and the laws of thermodynamics, emphasizing conceptual understanding and application in novel contexts.

0 objectives5 tips5 pitfalls

Turning points in physics

This topic explores the historical and conceptual paradigm shifts in physics, focusing on the discovery of the electron, wave-particle duality, and special relativity. It examines how experimental evidence challenged classical theories, leading to modern understandings of matter, light, and space-time.

0 objectives4 tips4 pitfalls

Electronics

This topic explores modern electronic technologies as an extension of core electricity principles. It covers discrete semiconductor devices, analogue and digital signal processing, and the fundamental principles of data communication systems.

0 objectives5 tips5 pitfalls

Particles and radiation

This topic introduces the fundamental properties of matter, electromagnetic radiation, and quantum phenomena. It covers the constituents of the atom, particle interactions, classification of particles, and the wave-particle duality of matter and radiation.

0 objectives5 tips5 pitfalls

Waves

This topic extends GCSE wave phenomena by developing knowledge of the characteristics, properties, and applications of travelling and stationary waves. It covers key concepts including refraction, diffraction, superposition, and interference, providing a foundation for understanding wave behaviour in various physical contexts.

0 objectives5 tips6 pitfalls

Mechanics and materials

This topic covers the fundamental principles of mechanics and the bulk properties of materials. It includes the study of vectors, forces, moments, motion in a straight line, projectile motion, Newton's laws, momentum, work, energy, power, and the mechanical properties of solids such as density, Hooke's law, and the Young modulus.

0 objectives5 tips6 pitfalls

Electricity

This topic covers the fundamental principles of current electricity, including the relationships between current, potential difference, and resistance. It extends to circuit analysis, including series and parallel configurations, potential dividers, and the effects of internal resistance, providing a foundation for understanding electrical power and energy transfer.

0 objectives5 tips5 pitfalls

Further mechanics and thermal physics

This topic advances the study of mechanics and thermal physics by introducing circular motion, simple harmonic motion, and the thermal properties of matter. It explores the behavior of ideal gases through kinetic theory and examines the energy transfer processes involved in heating and phase changes.

0 objectives5 tips5 pitfalls

Fields and their consequences

This topic explores the unifying concept of force fields, covering gravitational, electric, and magnetic fields. It examines the properties of these fields, their mathematical representations, and their practical consequences, including planetary orbits, capacitance, and electromagnetic induction.

0 objectives5 tips6 pitfalls

Nuclear physics

This topic explores the properties of the nucleus, the nature of radioactive decay, and the relationship between mass and energy. It provides the physical foundation for understanding nuclear power production, including fission, fusion, and the safety aspects of nuclear energy.

0 objectives5 tips5 pitfalls

Astrophysics

This topic applies fundamental physical principles to the study of the Universe, focusing on the behavior of distant objects and the methods used to gather information about them. It covers the physics of astronomical telescopes, the classification of stars using luminosity and temperature, stellar evolution, and cosmological concepts including the Doppler effect, Hubble's law, and the detection of exoplanets.

0 objectives5 tips5 pitfalls

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