Difference between revisions of "5-FAC-02"

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(New page: ==Outcomes== * Pupils should be able to sketch, draw and interpret a range of distance time graphs. * Pupils should understand the significance of average speed versus instantaneous speed....)
 
(Specification References)
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==[[Specifications|Specification]] References==
 
==[[Specifications|Specification]] References==
 
*1.2 understand and use distance-time graphs
 
*1.2 understand and use distance-time graphs
*1.3 recall and use the realtionship between average speed, distance moved and time: <math>avg speed = distance moved/time taken</math>
+
*1.3 recall and use the relationship between average speed, distance moved and time: <math>avg speed = distance moved/time taken</math>
 
*1.33 use the relationship between orbital speed, distance moved and time: orbital speed = (2 x pi x orbital radius)/time period or <math>v= (2xpixr)/T</math>
 
*1.33 use the relationship between orbital speed, distance moved and time: orbital speed = (2 x pi x orbital radius)/time period or <math>v= (2xpixr)/T</math>
  

Revision as of 18:45, 26 August 2010

Outcomes

  • Pupils should be able to sketch, draw and interpret a range of distance time graphs.
  • Pupils should understand the significance of average speed versus instantaneous speed.
  • Pupils should be able to use and recall the relationship <math>avg speed=distance moved/time taken</math>
  • Pupils should be able to link the equation above to the orbital speed of planets.
  • Pupils need to recall the circumference of a circle equation and the meaning of the term Time Period.
  • Pupils should be able to use the relationship

<math>v= (2xpixr)/T</math>

Specification References

  • 1.2 understand and use distance-time graphs
  • 1.3 recall and use the relationship between average speed, distance moved and time: <math>avg speed = distance moved/time taken</math>
  • 1.33 use the relationship between orbital speed, distance moved and time: orbital speed = (2 x pi x orbital radius)/time period or <math>v= (2xpixr)/T</math>

Starter

Main Body of Lesson

Plenary

Homework

Additional Information

Resources Required

  • Electrical Force - balloons for electrostatics, rice in a plastic bottle charging polythene rods and using watch glass show repulsion
  • Frictional- slope with different objects (car, glass block and wooden block) where they change and measure the angle + hovercraft
  • Magnetic - 2x bar magnets, iron filing in a boiling tube, horse shoe magnets attached to two vehicles with ability to reverse them.
  • Upthrust - pieces of wood in water, different sized paper boat with paper clips to add, transparent water bath
  • Strain/Spring force- spring and masses, rubber bands, squashy ball
  • Gravitational – different masses on a Newton Scale, planetry model
  • Applied Force – Push or Pull and Thrust – pulling brick with Newton meter, stones on a tray and water jug, stream of peas to drop onto a balance, balloon with a small tube and placed over a large retort stand + balloon pump
  • Air resistance force/drag– ball bearing dropping through oil, model of dolphin, dropping ball and feather
  • Tension Force- ball and string, tyrolean traverse with barbie attached
  • Normal Force- block and strong card

Textbook References

  • None

Website References

  • None

Skills Addressed

Safety/Hazards

Notes

  • None

Forces & Matter Outline

Forces & Matter