The young Bloodhound Investigators realise that the Bloodhound SSC doesn't have tyres - and set out to discover what effect tyres usually have on cars.
At a race track, they learn how tyres are useful for turning corners, giving grip and traction, and watch race cars skidding their tyres by spinning their wheels very fast.
They find that riding a bicycle without tyres is both bumpy and hard to control.
Bloodhound SSC has narrow aluminium wheels without tyres, as these would explode at high speeds.
At an ice rink they discover that thin tyres mean less friction with the ground, helping Bloodhound SSC to go faster.
They realise that Wing Commander Andy Green will be in for a very bumpy ride as Bloodhound will not have tyres.
This clip is from the series The Bloodhound Adventure
Teacher Notes
This could be used to provide further examples of friction in everyday life.
Pupils could carry out a class investigation to introduce the phenomenon of friction, by testing the hypothesis that objects will require more force if pulled along a rough surface.
This could be carried out using a plastic tub, a weight, a forcemeter and a variety of surfaces to pull the tub along.
Fair testing principles should be adhered to, predictions could be made and conclusions drawn.
Once friction has been explained via this experiment, pupils could provide examples where friction is useful in everyday life: tyres, brakes on bike wheels, grips on shoes.
The clip provides a question for the pupils to think about. Why does the Bloodhound not have tyres? This is an effective way of assessing pupils' knowledge about the usefulness of friction.
The clip then details frictional forces in action in everyday situations.
Curriculum Notes
This clip will be relevant for teaching Science or Design and Technology at Key Stage 2 in England, Wales and Northern Ireland, and Level 2 in Scotland.
More from The Bloodhound Adventure
Experimenting with balloon-powered cars. video
Primary school pupils investigate which model car design is faster; one propelled by an elastic band around the axel, or a balloon-powered car which doesn't directly power the wheels.
Experimenting with reaction times video
Children from New Invention Junior School in the West Midlands investigate their reaction times and how these are affected by distractions.
What's Bloodhound like to drive? video
Primary school children investigate what driving a car at over 1000 mph would be like, by trying out at RAF flight simulator and taking a flight with Bloodhound's driver Andy Green.
Experimenting propulsion with water rockets. video
Primary school children investigate the theory behind what makes the Bloodhound Supersonic car's rocket engine work, trying to make their water rockets travel the farthest.
Harnessing air resistance with parachutes. video
Children from Links Primary School in London investigate harnessing air resistance in order to safely drop an egg, experimenting with different parachute designs.
How air resistance slows down vehicles. video
Bloodhound Investigators find out how air resistance can be used to slow down vehicles. They also discover the importance of traction, drag and aerodynamics.
Investigating air and water resistance. video
Primary school children investigate which shapes travel fastest through water, to understand what is the best design for the Bloodhound Supersonic car.
Investigating friction. video
Dr Yan Wong and children from Links Primary School in London investigate friction by trying to separate two interleaved books.
Is the Bloodhound SSC a car, a boat or a plane? video
Bloodhound Investigators find out if Bloodhound SSC is a car, a boat or a plane. They compare and contrast features of each with input from members of the Bloodhound team.
What impact does air resistance and density have on travelling fast? video
Primary school children try skydiving, flying a microlight and racing in a swimming pool to understand how air resistance and density will affect the Bloodhound Supersonic car.
What makes a supersonic car move? video
Primary school children find out about the engines that will propel the Bloodhound Supersonic car to 1000 mph, a jet engine and a rocket engine.