You throw a ball of mass 0.8 kg straight up. You observe that it takes 3.1 s to qgo up and down, returning to your hand. Assuming we can neglect air resistance, the time it takes to go up to the top is half the total time, 1.55 s. Note that at the top the momentum is momentarily zero, as it changes from heading upward to heading downward. (a) Use the momentum principle to determine the speed that the had just AFTER it left your hand. Vinitial = m/s (b) Use the Energy Principle to determine the maximum height above your hand reached by the ball. h =
You throw a ball of mass 0.8 kg straight up. You observe that it takes 3.1 s to qgo up and down, returning to your hand. Assuming we can neglect air resistance, the time it takes to go up to the top is half the total time, 1.55 s. Note that at the top the momentum is momentarily zero, as it changes from heading upward to heading downward. (a) Use the momentum principle to determine the speed that the had just AFTER it left your hand. Vinitial = m/s (b) Use the Energy Principle to determine the maximum height above your hand reached by the ball. h =
College Physics
11th Edition
ISBN:9781305952300
Author:Raymond A. Serway, Chris Vuille
Publisher:Raymond A. Serway, Chris Vuille
Chapter1: Units, Trigonometry. And Vectors
Section: Chapter Questions
Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...
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You throw a ball of mass 0.8 kg straight up. You observe that it takes 3.1 s to qo up and down, returning to your hand. Assuming we can neglect air resistance, the time it takes to go up
to the top is half the total time, 1.55 s. Note that at the top the momentum is momentarily zero, as it changes from heading upward to heading downward.
(a) Use the momentum principle to determine the speed that the ball had just AFTER it left your hand.
Vinitial =
m/s
(b) Use the Energy Principle to determine the maximum height above your hand reached by the ball.
h =
m
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