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2D Kinematics
   Review
 Carousel Review
1. Draw a picture of a car driving.
2. Drive the car off a cliff
3. Above the path of the car driving
   off the cliff, write what the shape
   is called.
4. Below the path of the car driving
   off the cliff, write what the path
   is called.
Rotate
Check Answers.
1. Draw a picture of a car driving.
2. Drive the car off a cliff
3. Above the path of the car driving off the
    cliff, write what the shape is called.
   Parabola
4. Below the path of the car driving off the
    cliff, write what the path is called.
   Trajectory
5. Label the 1D part(s)
6. Label the 2D part(s)
7. Put a star where the car is
   moving the fastest.
8. Put a triangle where it is moving
   the slowest.
Rotate
Check Answers.
5. Label the 1D part(s)
6. Label the 2D part(s)
7. Put a star where the car is moving the
  fastest.
  Lowest point of the parabola
8. Put a triangle where it is moving the
   slowest.

  Highest point of the parabola
9. Just as the car goes over the edge, a
   boulder falls. Draw the boulder falling.
10. Draw the car just before it hits the
   bottom.
11. Which hits the ground first? Circle the
   car, boulder, both, or neither.
12. Which one is going faster? Put a box
   around the car, boulder, both, or
   neither.
Rotate
Check Answers.
9. Just as the car goes over the edge, a boulder
    falls. Draw the boulder falling.
10. Draw the car just before it hits the bottom.
11. Which hits the ground first? Circle the car,
    boulder, either, or neither. Both hit at the
   same time.
12. Which one is going faster? Put a box around
    the car, boulder, either, or neither.
   Car x & y together are greater than the
A car traveling at 25 m/s
 accelerates at 4.2 m/s for 15 m. At
                       2

 the end of the 15 m, the car drives
 over a 20 m high cliff.

13. Label the givens in the
    picture.
14. Draw the tables for this
    problem.
Rotate
Check Answers.
     A car traveling at 25 m/s
accelerates at 4.2 m/s2 for 15 m. At
the end of the 15 m, the car drives
      over a 20 m high cliff.
13. Label the givens in the picture.
14. Draw the tables for this problem.
       Should have a 1D table and a 2D table.
15. At the bottom, write how many
   objects there are.
16. Beside #15, write what
   combines/connects this problem.
17. Above the car, finish this sentence,
   “Velocity is ____” (the definition)
18. Find the final velocity before the
   car goes over the cliff.
Rotate
Check Answers.
15. At the bottom, write how many objects there are.
     1 Object. The car. (Boulder doesn’t count because it never
     intercepts the car.)
16. Beside #15, write what combines/connects this problem.
     Vf at end of 1D = Vi at beginning of 2D
17. Above the car, finish this sentence, “Velocity is ____” (the
    definition)
     speed in a direction or displacement divided by
     time.
18. Find the final velocity before the car goes over the cliff.
     V = 27.4 m/s
19. Inside the cliff, draw the graphs for
   constant acceleration.
20. Find the time the car is in the air.
Rotate
Check Answers.
19. Inside the cliff, draw the
  graphs for constant acceleration.


20.Find the time the car is in the
  air.
  T = 2.02 s
21. To the right of the cliff… how is
    displacement different than distance?
22. Find how far from the cliff the car
    lands.
Rotate
Check Answers.
21. To the right of the cliff… how is displacement different than
      distance?
      Distance is total path – Displacement is beginning
      to end.
22. Find how far from the cliff the car lands. X = 55.4 m

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Kinematics - Carousel Review

  • 1. 2D Kinematics Review Carousel Review
  • 2. 1. Draw a picture of a car driving. 2. Drive the car off a cliff 3. Above the path of the car driving off the cliff, write what the shape is called. 4. Below the path of the car driving off the cliff, write what the path is called.
  • 4. Check Answers. 1. Draw a picture of a car driving. 2. Drive the car off a cliff 3. Above the path of the car driving off the cliff, write what the shape is called. Parabola 4. Below the path of the car driving off the cliff, write what the path is called. Trajectory
  • 5. 5. Label the 1D part(s) 6. Label the 2D part(s) 7. Put a star where the car is moving the fastest. 8. Put a triangle where it is moving the slowest.
  • 7. Check Answers. 5. Label the 1D part(s) 6. Label the 2D part(s) 7. Put a star where the car is moving the fastest. Lowest point of the parabola 8. Put a triangle where it is moving the slowest. Highest point of the parabola
  • 8. 9. Just as the car goes over the edge, a boulder falls. Draw the boulder falling. 10. Draw the car just before it hits the bottom. 11. Which hits the ground first? Circle the car, boulder, both, or neither. 12. Which one is going faster? Put a box around the car, boulder, both, or neither.
  • 10. Check Answers. 9. Just as the car goes over the edge, a boulder falls. Draw the boulder falling. 10. Draw the car just before it hits the bottom. 11. Which hits the ground first? Circle the car, boulder, either, or neither. Both hit at the same time. 12. Which one is going faster? Put a box around the car, boulder, either, or neither. Car x & y together are greater than the
  • 11. A car traveling at 25 m/s accelerates at 4.2 m/s for 15 m. At 2 the end of the 15 m, the car drives over a 20 m high cliff. 13. Label the givens in the picture. 14. Draw the tables for this problem.
  • 13. Check Answers. A car traveling at 25 m/s accelerates at 4.2 m/s2 for 15 m. At the end of the 15 m, the car drives over a 20 m high cliff. 13. Label the givens in the picture. 14. Draw the tables for this problem. Should have a 1D table and a 2D table.
  • 14. 15. At the bottom, write how many objects there are. 16. Beside #15, write what combines/connects this problem. 17. Above the car, finish this sentence, “Velocity is ____” (the definition) 18. Find the final velocity before the car goes over the cliff.
  • 16. Check Answers. 15. At the bottom, write how many objects there are. 1 Object. The car. (Boulder doesn’t count because it never intercepts the car.) 16. Beside #15, write what combines/connects this problem. Vf at end of 1D = Vi at beginning of 2D 17. Above the car, finish this sentence, “Velocity is ____” (the definition) speed in a direction or displacement divided by time. 18. Find the final velocity before the car goes over the cliff. V = 27.4 m/s
  • 17. 19. Inside the cliff, draw the graphs for constant acceleration. 20. Find the time the car is in the air.
  • 19. Check Answers. 19. Inside the cliff, draw the graphs for constant acceleration. 20.Find the time the car is in the air. T = 2.02 s
  • 20. 21. To the right of the cliff… how is displacement different than distance? 22. Find how far from the cliff the car lands.
  • 22. Check Answers. 21. To the right of the cliff… how is displacement different than distance? Distance is total path – Displacement is beginning to end. 22. Find how far from the cliff the car lands. X = 55.4 m