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Physics · KS3 and GCSE · Interactive lesson

Work, movement and height

Explore work, kinetic energy and gravitational potential energy through force, movement and height. Start with visual ideas before GCSE calculations.

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Explore an interactive example, then try the questions at your own pace.

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Start with the idea, then use the method when you are ready. Changing these settings changes the example. Your current practice question is kept.

Start with the idea explains the basics. Use the method builds on them with more detail.

KS3 / GCSE ideas. Explore what changes; the numerical formula practice is in Method.

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KS3 / GCSE · start with the idea

By the end of this lesson: Explain how force and movement transfer energy.

The interactive diagram and controls are in Stage 2, “Explore one example”. Read the idea here, then try it next.

The idea in small steps
  • Work is energy transferred by a force when an object moves along it.
  • At the same force, twice the distance transfers twice the energy.
  • Zero distance gives zero work on the object in this simple model.
What do the words mean?
Work
Energy transferred by a force acting through a distance along its line of action.
Joule (J)
The unit for energy and work.
Kinetic energy
Energy associated with an object’s motion.
Gravitational potential energy
Energy stored in the object–Earth system because of their relative positions.
g
Gravitational field strength. Use the value given in a question.

Change the example

Something to try

Keep the force the same. Double the distance. What happens to the energy transferred?

Notice what changes

work: 30 joules. A force of 10 N acts along the movement. The load moves 3 m. This force transfers energy only when there is movement along it. This energy transfer by a force is called work. Keep the force the same: more distance means more work. No movement means no work on the load.A constant force acts along movement10 N along the movementDistance moved: 3 mForce along movement transfers energy
Energy transferred: 30 J
About this model

Work means energy transferred by a force as a load moves along it. The force and movement point the same way here. Work is not the same as effort or feeling tired.

The example you chose
work: 30 joules. A force of 10 N acts along the movement. The load moves 3 m. This force transfers energy only when there is movement along it. This energy transfer by a force is called work. Keep the force the same: more distance means more work. No movement means no work on the load.A constant force acts along movement10 N along the movementDistance moved: 3 mForce along movement transfers energy

Energy transferred: 30 J

Still picture of the example from Stage 2. Use the back arrow to change it.

Work through it

Starting example: read the steps below

  1. A force of 10 N acts along the movement.
  2. The load moves 3 m. This force transfers energy only when there is movement along it.
  3. This energy transfer by a force is called work.
  4. Keep the force the same: more distance means more work. No movement means no work on the load.

Try on your own

Your turn. No rush.

Question 1

A constant force acts on a load that does not move. How much work does this force do on the load?

Choose one answer
About these questions

Questions appear in a mixed order. Work at your own pace and stop whenever you like.

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Can you identify the energy change before choosing the relationship?

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Notes for parents and tutors

These lessons cover selected KS3 and GCSE ideas for England; they are not a complete course. The level notes explain where GCSE methods or optional extensions begin. Maurice can help you choose material for your course and exam board.

The content draws on the DfE Maths curriculum, DfE Science curriculum and AQA GCSE Physics specification. Level labels are guidance, not exam-board endorsements. For AQA Radioactivity, calculating net decline as a ratio is Higher-tier work. Net means the overall change; ask Maurice whether this extension is relevant to your course. Explanations and practice were reviewed during development on 21 October 2026; Maurice should check their fit before assigning work.

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