Science // Energy
Naming types of energy
Name and use vocabulary for types of energy and energy transfer — kinetic energy, potential energy, heat energy, light energy, sound energy, electrical energy, chemical energy, stored energy, energy transfer, energy transformation — and describe energy changes in familiar situations using these terms
Quick check
If the learner stretches a rubber band and lets it go, can they name what type of energy it had when stretched — and what it changed into?
Ask this to see whether the topic is secure.
Topic // Mastery
What mastery looks like
- Name the type of energy stored in a battery, a stretched spring, and a moving ball
- Use 'energy transfer' or 'energy transformation' to describe what happens in a simple device such as a torch or a toaster
- Distinguish between 'stored energy' and 'transferred energy' with a correct example of each
Topic // Map
Where this fits
- RequiredMust come first
- HelpfulHelps, but not essential
Before this
0 topicsNothing in the catalogue comes before this topic, so it is a good place to start.
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Naming types of energy
Ages 7 to 9 // Language
Leads to
4 topics- How energy travels aroundRequired
Energy // Ages 9 to 10
Describing energy transfer by sound, light, heat, and electric current requires energy type vocabulary
- Speed and energyRequired
Energy // Ages 9 to 10
Relating an object's speed to its energy requires 'kinetic energy' vocabulary
- Energy stores and transfersRequired
Energy // Ages 11 to 12
Identifying energy stores and transfer pathways is a formalisation of the energy type vocabulary introduced earlier
Energy // Ages 11 to 12
Explaining conservation of energy and dissipation requires energy store and transfer vocabulary
Topic // Research-informed
Teaching notes
From the Marble Skill Taxonomy. These notes have not been validated in classrooms, so treat them as a starting point for your own judgement.
The approach
Help 7–9 year-olds name everyday types of energy — kinetic (movement), elastic (stretched or wound), gravitational/potential (raised), thermal (hot), light, sound, electrical and chemical — by anchoring each word to a concrete, observable example they can point to. The single most important move is to sort these words into 'STORED / waiting (or doing)' (chemical in a battery or food, elastic in a stretched or wound spring, gravitational energy in a raised object, thermal energy in a hot drink, movement/kinetic in a moving ball) versus 'ON THE MOVE / being transferred' (light, sound, heat flowing from hotter to cooler things, electric current), and to describe simple devices with 'energy is transferred / moves from here to there' rather than 'changes form'. This plants the stores-and-transfer distinction that later schooling builds on, without joules or quantification. Note: in England's national curriculum this age band has no formal primary energy topic (energy appears at KS3; other UK curricula such as Scotland's differ) and NGSS grade 4 gives qualitative definitions only, so this is vocabulary anchored to phenomena, not a formal 'list the forms of energy' expectation.
Common misconceptions
- Thinking only living or moving things 'have energy', so a still spring, raised object or battery at rest has none — missing stored energy.
- Treating light, sound and electric current as the same kind of 'stuff' as chemical or movement energy, rather than as energy on the move — the seed of the later store-vs-pathway error.
- Reading 'energy transformation' as energy literally changing into a different substance.
- Confusing energy with the object or fuel itself, or with force, 'power', or temperature (loose everyday usage).
- Believing energy gets 'used up' and disappears (planted early by 'the battery ran out') — it is the fuel/battery that is used up, the energy is transferred elsewhere.
Useful representations
- A rich familiar scene (kitchen/playground) with taggable energy sources — ball, battery, torch, drum, hot drink, stretched spring
- A two-column sort: 'STORED / waiting' vs 'ON THE MOVE / being transferred'
- Frayer-lite word cards (drawing-based for young): word + meaning + example + non-example
- A start→end snapshot of one device (wind-up toy: energy stored in the spring → movement of the toy)
Teaching practices
- Anchor every energy word to a concrete, observable example the child can point to (moving ball = movement/kinetic; battery or food = chemical store; torch = light; drum = sound; hot drink = thermal; stretched spring = elastic) — vocabulary from phenomena, not dictionary definitions.
- From the very start, sort the words into 'STORED / waiting' versus 'ON THE MOVE / being transferred' — this delivers the topic's own 'distinguish stored from transferred' evidence and is forward-compatible with the KS3 stores-and-pathways model.
- Use examples AND non-examples to fence each word (a still ball has no movement energy; a switched-off torch gives no light), the way effective vocabulary instruction (Frayer) does.
- Say 'energy is transferred / moves from here to there' rather than entrenching 'changes form / transformation' — don't build the substance-changing idea that later teaching has to undo (IOP).
- Give multiple exposures across many familiar devices (torch, toaster, wind-up toy, remote) and teach through talk and description, not worksheets.
- Explicitly include STORED energy in things at rest (a battery, a stretched spring, raised object) so children don't conclude only moving or living things 'have energy'.
Activities to try
- 1
Tap-and-name a busy familiar scene
Why it works: Each everyday energy word names something you can point to in a real scene, and a hidden meaning + example + non-example fences exactly what each word does and does not cover.
- Look at a rich familiar scene (kitchen or playground) containing taggable energy sources: a ball flying, a battery in a remote, a torch shining, a drum sounding, a steaming kettle or hot drink, a stretched spring, a wind-up toy.
- Point to each object and say its energy word, a one-line kid-friendly meaning, and a matching everyday example (moving ball = movement/kinetic; battery or food = chemical store; torch = light; drum = sound; hot drink or kettle = thermal; stretched spring = elastic; ball on a high shelf = raised/gravitational store).
- For each object answer 'is this energy waiting, or on the move?' and then say the fuller sentence, e.g. 'The battery STORES chemical energy; when the torch is on, that energy is on the MOVE as light.'
- Use the non-examples too: a still ball has no movement energy; a switched-off torch gives no light.
- 2
Sort the scene: STORED / waiting vs ON THE MOVE
Why it works: Some energy is stored and waiting in things that can be completely still (including the thermal energy of a hot drink), movement is energy an object has while it is doing something, and light, sound, heat flowing from hotter to cooler things and electric current are energy on the move being transferred from one place to another — energy 'moves from here to there' rather than turning into a different substance.
- Take every energy word from the scene and place it in one of two columns: 'STORED / waiting (or doing)' or 'ON THE MOVE / being transferred'.
- Put chemical (battery, food), elastic (stretched or wound spring), a raised object (ball on a high shelf) and the thermal energy of a hot drink into STORED because the energy waits there even when nothing moves; put the moving ball's movement/kinetic energy there too, as energy an object has while it is doing something; put light, sound, heat flowing out from a hot thing to cooler surroundings, and electric current into ON THE MOVE.
- After sorting the whole scene, say what pattern you notice — light, sound, heat flowing out of hot things and electric current tend to land in 'on the move', while chemical, elastic, gravitational, thermal (in a hot thing) and movement sit in 'stored or doing'.
- Say two sentences for one device: a labelling sentence ('A moving ball has ___ energy') and a transfer sentence ('The battery stores chemical energy and transfers it to the torch as light').
- 3
Watch the energy move through a device
Why it works: Dynamic words like 'transfer' and 'kinetic' name something you can watch happen: stored energy being transferred so an object starts moving, and energy travelling out of a device, so the words describe a process not just a label.
- Watch or act out one device from start to end: wind up a toy and release it, or switch on a torch, keeping attention on where the energy starts and where it goes.
- For the wind-up toy: say that winding stores elastic energy in the spring; releasing transfers that stored energy to the toy so it now has movement (kinetic) energy; all the while, rubbing in the gears and between the wheels and floor, and pushing through the air, transfers energy away to the surroundings as heat (and a little sound); once the spring has unwound, nothing keeps refilling the movement energy, so the toy slows and stops.
- For the torch: say the battery stores chemical energy; when switched on, that energy is on the move along the wire and leaves the torch mostly as light, with some as heat (the bulb gets warm).
- Mark out loud the 'store' and the 'on the move' moment for each device, keeping it qualitative with no numbers.
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