Collision derivation problem. A car is released from rest on a frictionless inclined plane (Figure 5.3)....
(2 points) Collision derivation problem. A car is released from rest on a frictionless inclined plane (Figure 5.3). EXAMPLES: Calculate the momentum pi at the end of the plane in terms of the measured quantities x, y, L, and m. Assume θ is very small so that h/L is approximately equal to y/x. (Hint: use conservation of energy and the fact that K = 1/2mv2-p?/2m.) (Answer: pi If a car suffers a nearly elastic collision it will coast back up...
Collision derivation problem. A car is released from rest on a frictionless inclined plane (Figure 5.3). EXAMPLES: Calculate the momentum pi at the end of the plane in terms of the measured quantities x, y, L, and m. Assume is very small so that h/L is approximately equal to y/x. (Hint: use conservation of energy and the fact that K=12mv2=p22m.) [Answer: p1=m(2gyLi/x)^1/2] If a car suffers a nearly elastic collision it will coast back up the ramp a distance Lf...
Collision derivation problem. A car is released from rest on a frictionless inclined plane (Figure 5.3). EXAMPLES: Calculate the momentum pi at the end of the plane in terms of the measured quantities x, y, L, and m. Assume is very small so that h/L is approximately equal to y/x. (Hint: use conservation of energy and the fact that K=12mv2=p22m.) [Answer: p1=m(2gyLi/x)^1/2] If a car suffers a nearly elastic collision it will coast back up the ramp a distance Lf...
Figure 5.3: Diagram of the impuise experiment. A car falls down the air track from a height h. The track is inclined at an angie by placing a block of thickness y under ane of the legs of the track. The car is released a distance L from the ferce transducer, which is placed at the bottom of the track. Collision derivation problem. A car is released from rest on a frictionless inclined plane (Figure 5.3). EXAMPLES: Calculate the momentum...