From the data how would you relate the acceleration of the cart to the total mass of the hover puck if the mass of the hanging object is constant? Part II. Newton's Law Lab with Photogates (Varying hanging mass)Length of card (m)Hover puck mass, mi (kg)0.20ExperimentalAcceptedHangingMass, ma(kg)Midtime.1(s)Averagevelocity 1(m/s)Averagevelocity 2(m/s)MidtimeValue ofValue of% Error2 (s)AccelerationAcceleration(m/s)(m/s)3.26m/s0.101.4811.77511.39m/s2.38m/s3.37m/s3.370.203.40623.64821.72m/s2.86m/s4.71m/s4.9m/s3.880.301.66621.88621.9m/s3.16m/s5.72m/s5.88m/s2.720.402.11622.32421.97m/s3.35m/s6.63m/s6.53m/s1.530.501.26811.46812.03m/s3.55m/s7.6m/s7m/s^28.57Graph of acceleration vs hanging massa310.100.200.300.400.50

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Description: From the data how would you relate the acceleration of the cart to the total mass of the hover puck if the mass of the hanging object is constant? Part II. Newton's Law Lab with Photogates (Varying hanging mass)Length of card (m)Hover puck mass, mi (

M1 = mass of hover puck M2 = mass of hanging object From free body diagram, We need find the net…

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From the data how would you relate the acceleration of the cart to the total mass of the hover puck if the mass of the hanging object is constant?

Classical Dynamics of Particles and Systems

5th Edition

ISBN:9780534408961

Author:Stephen T. Thornton, Jerry B. Marion

Publisher:Stephen T. Thornton, Jerry B. Marion

Chapter14: Special Theory Of Relativity

Section: Chapter Questions

Problem 14.33P

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