1. A Roller Coaster showing in the picture bellow of mass of M = 144 Kg is movingthrough the 3 hills until the end of the rid. if the first hill has Hight of H1=20 m andthe second hill H2 = 16 m. The speed at top of the Third hillis v=14.683323874382m/s. calculate the following:FirsthillScale1.0 cm - 3.0 mSecondhilla) Potential energy at the maximum height (first hill) in (J) :b) The Kinetic Energy in the second hill ::Thirdhillc) The hight of the third hill (m) : :d) The velocity of the car at the end of the rid ::(e) Total energy of the system at the end of the hall (J) :End ofride

Potential energy is the energy of a body having mass by virtue of its height. Mathematically it is…

1. A Roller Coaster showing in the picture bellow of mass of M = 144 Kg is moving through the 3 hills until the end of the rid. if the first hill has Hight of H1=20 m and the second hill H2 = 16 m. The speed at top of the Third hill is v=14.683323874382 m/s. calculate the following: First Scale 1.0 cm-3.0m Second hill a) Potential energy at the maximum height (first hill) in (J) b) The Kinetic Energy in the second hill :: c) The hight of the third hill (m) :: Third d) The velocity of the car at the end of the rid :: (e) Total energy of the system at the end of the hall (J) : End of ride

1. A Roller Coaster showing in the picture bellow of mass of M = 144 Kg is moving through the 3 hills until the end of the rid. if the first hill has Hight of H1=20 m and the second hill H2 = 16 m. The speed at top of the Third hill is v=14.683323874382 m/s. calculate the following: First Scale 1.0 cm-3.0m Second hill a) Potential energy at the maximum height (first hill) in (J) b) The Kinetic Energy in the second hill :: c) The hight of the third hill (m) :: Third d) The velocity of the car at the end of the rid :: (e) Total energy of the system at the end of the hall (J) : End of ride

Glencoe Physics: Principles and Problems, Student Edition

1st Edition

ISBN:9780078807213

Author:Paul W. Zitzewitz

Publisher:Paul W. Zitzewitz

Chapter6: Motion In Two Dimensions

Section6.3: Relative Velocity

Problem 27PP

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