A-Level Physics HQ

My day job is teacher of physics. Hence I offer a lot of physics related resources for students and teachers. A central place for all of this is a dedicated website: physicshq.wixsite.com/alevelphysicshq

Below are educational resources for A-Level Physics I’ve made. I’ve been adding resources – free and paid – to my TES shop and TPT shop for a few years now but I’m now including them below as well in order to increase the accessibility of the free resources since TES and TPT require an account before downloads are available. Any paid resources below will link to TES, TPT or Gumroad. Any resources below that are marked Lite have a paid equivalent that includes extra material (such as differentiated versions).


Keynote presentations / slideshows for A-Level physics topics

Keynote is Apple’s presentation software. It can be exported to PowerPoint but I don’t guarantee the output will look and operate in the same way. Keynote is an app available on macOS, iOS and iPadOS for free with most new or new-ish Apple devices. You have my permission to try exporting into PowerPoint for your personal use in teaching your classes.

Precision of science measuring instruments

A simple but beautifully well illustrated set of Keynote slides to help teachers introduce students to common scientific measuring instruments and their preci

Experimental Uncertainties Calculations

Introduce students to handling the most common experimental uncertainties in science measurements (addition/subtraction, multiplication/division and indices). Includes a sample of three exam questions – one for each rule.

Vernier Calipers and Micrometers

Teach students how to use Vernier Calipers and Micrometers. Learning how to use vernier calipers and micrometers is an important part of physics A-Level, and engineering courses.

Presenting Results

Teach students how to present science experiment results in tables and graphs. The presentation includes a good table and graph with animated bullet points to draw attention to the good features. A premium version of this activity is available with a worksheet and with an annotated erroneous table/graph.

Physics Graphs Revision Activity

Help your students practice recall of graph shapes and features across most physics subject areas (A-level and equivalent). A PDF with blank graph grids and labelled axes for students to draw onto is available with worksheets below. The introduction and solutions are included in the PDF document; printing them is optional.

Elastic Collisions – What Happens Next?

Four different elastic collisions are presented and students have to apply conservation of momentum and conservation of kinetic energy to the collision to determine the correct outcome. The problems range in difficulty from straightforward to advanced problem solving. Accompanying worksheet is below.

Explain the Role of Intensity in Photoelectric Effect

A simple presentation to aid explanation of the role of radiation intensity in the photoelectric effect once the threshold frequency of the metal has been exceeded.


Worksheets (PDFs)

Elastic Collisions – What Happens Next?

Worksheet that accompanies the Elastic Collisions slideshow above.

Physics Graphs Revision Activity

Worksheet that accompanies the Physics Graphs slideshow above.

Graph Skills 1: Hooke’s Law

I designed this worksheet and others in the Graph Skills series to enable students to get practice on specific aspects of graph work.

Graph Skills 2: Uniform Acceleration

The second in the Graph Skills series of worksheets. Worksheets 1 and 2 are free downloads, 3 onwards are paid.

Proving Keplers Third Law Activity Worksheet

An activity to guide students through the analysis of real planetary data (orbit radius and period) to see if it is consistent with Kepler’s Third Law.

Comparing Electric and Gravitational Fields

A summary activity to facilitate students comparing electric and gravitational fields. The nature of the fields, direction, definitions, units, equations (strength, potential and potential energy) paths of objects with mass/charge are included.


Summary of A-Level Physics for the Uninitiated
Take measurements, present data in tables and graphs, analyse and evaluate data. Know and use SI units and prefixes, convert between units.
Explain motion and the role of forces in motion, interpret graphical plots of motion and explain the effect of forces exerted by fluids.
Calculate and explain quantities in energy transfers, apply the principles of conservation of energy and momentum and Newton’s Laws of Motion.
Explain and calculate the effects of forces on materials using the concepts of Hooke’s Law, stress, strain and Young’s Modulus.
Resolve forces, calculate the moments of forces and use the two conditions of equilibrium to solve problems.
Design, set up and interpret electrical circuits. Calculate electrical quantities in circuits and explain changes in current, voltage, resistance etc.
Explain and calculate progressive wave behaviour. Explain and calculate wave interference depending on phase difference and changing phase relationships for two or multiple sources of waves and standing waves.
Explain experimental evidence for the existence of photons and solve problems involving energy transfer by photons.
Explain and calculate heat energy transfer in solids, liquids and gases and explain changes to gas properties in terms of molecular behaviour.
Explain and calculate the motion of objects moving in circles and oscillating objects, explain resonance and damping.
Explain and calculate gravitational effects, state and explain evidence for the expanding Universe and the evolution of stars and the Universe.
Explain and calculate the function of capacitors in circuits, and the effect of circuit parameters on the discharge and charge profiles of capacitors.
Explain and calculate the behaviour of charged particles in uniform and radial electric and magnetic fields, also explain and calculate electromagnetic effects – motor force and induction.
Know a simplified version of the Standard Model of physics, describe and calculate parameters in radioactive transformations.
Describe and explain processes involved in X-ray imaging, CAT scans, radionuclide imaging and PET scans.