A well thrown ball is caught in a well-padded mitt. m The deceleration of the ball is 2.10 x 104. and 1.85 ms (milli seconds) s² elapses from the time the ball touches the mitt and stops. (a) • Using the notation Ax for displacement, v for velocity at time t, vo for the initial velocity, and acceleration, determine what quantities are known and what are unknown. • Enter the values of some known quantities below. • Make sure you account for the signs of the vectors using the coordinate system used in Part Enter to 3 significant figures V= a = t= m/s m/s² S (b) Is the acceleration constant during the time the ball comes to a stop? 1 2. Ax= vot+at² 2 3. v²=v²+2a(A x) (c) Which equation of motion can you use to calculate the initial velocity of the ball? 1. v = v₁ + at (d) Calculate the initial velocity of the ball. Enter to 3 significant figures m/s

A well thrown ball is caught in a well-padded mitt. m The deceleration of the ball is 2.10 x 104. and 1.85 ms (milli seconds) s² elapses from the time the ball touches the mitt and stops. (a) • Using the notation Ax for displacement, v for velocity at time t, vo for the initial velocity, and acceleration, determine what quantities are known and what are unknown. • Enter the values of some known quantities below. • Make sure you account for the signs of the vectors using the coordinate system used in Part Enter to 3 significant figures V= a = t= m/s m/s² S (b) Is the acceleration constant during the time the ball comes to a stop? 1 2. Ax= vot+at² 2 3. v²=v²+2a(A x) (c) Which equation of motion can you use to calculate the initial velocity of the ball? 1. v = v₁ + at (d) Calculate the initial velocity of the ball. Enter to 3 significant figures m/s

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Description: PLEASE ANSWER ALL PARTS AND I WILL RATE HIGHLY! *17 A well thrown ball is caught in a well-padded mitt.mThe deceleration of the ball is 2.10 x 104 and 1.85 ms (milli seconds)s²elapses from the time the ball touches the mitt and stops.(a)Using the not

College Physics

1st Edition

ISBN:9781938168000

Author:Paul Peter Urone, Roger Hinrichs

Publisher:Paul Peter Urone, Roger Hinrichs

Chapter3: Two-dimensional Kinematics

Section: Chapter Questions

Problem 19PE: Do Exercise 3.16 again using analytical techniques and change the second leg of the walk to 25.0 m...

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