1. What is the time-of-flight for a projectile for each of these following cases? Gravity is acting in thenegative y-direction.a. A ball is thrown at 30° above the horizontal. It lands at Ax=b. A ball is thrown at 45° above the horizontal. It lands at Ax =5m, Ay = 2m.1m, Ay=-3m.c. A person throws a ball straight upward at 6 m/s. The person catches the ball at same elevationas it was thrown.

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Description: 1. What is the time-of-flight for a projectile for each of these following cases? Gravity is acting in thenegative y-direction.a. A ball is thrown at 30° above the horizontal. It lands at Ax=b. A ball is thrown at 45° above the horizontal. It lands

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1. What is the time-of-flight for a projectile for each of these following cases? Gravity is acting in the negative y-direction. a. A ball is thrown at 30° above the horizontal. It lands at Ax = 5m, Ay = 2m. b. A ball is thrown at 45° above the horizontal. It lands at Ax = 1m, Ay = -3m. c. A person throws a ball straight upward at 6 m/s. The person catches the ball at same elevation as it was thrown.

1. What is the time-of-flight for a projectile for each of these following cases? Gravity is acting in the negative y-direction. a. A ball is thrown at 30° above the horizontal. It lands at Ax = 5m, Ay = 2m. b. A ball is thrown at 45° above the horizontal. It lands at Ax = 1m, Ay = -3m. c. A person throws a ball straight upward at 6 m/s. The person catches the ball at same elevation as it was thrown.

College Physics

11th Edition

ISBN:9781305952300

Author:Raymond A. Serway, Chris Vuille

Publisher:Raymond A. Serway, Chris Vuille

Chapter3: Motion In Two Dimensions

Section: Chapter Questions

Problem 41AP: (a) If a person can jump a maximum horizontal distance (by using a 45 projection angle) of 3.0 m on...

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