r(0) Problem Statement: A toy car weighing 0.76 Ib has been released at the top of the track. The curved portion of the track is described by the equation r(0) = 7(1 – cos(0)) ft. When the car reaches a position of 0 = 269°, peed is 23.8 ft/s, and the radius of curvature of the track is 6.657 ft. Neglecting the car's size and friction, determine the following for the instant in question. ip: The track is drawn to scale. Consider printing the figure, drawing the car at your value of 0, then drawing the unit vectors accordingly. You can enlarge the figure by clicking on it. The answers depen roper definition of the unit vectors. The angle = 2.347rad The angle o = 2.330rad (1.e. the angle between gravity and tangent; it will be obtuse if the car has already passed the bottom of the track.) The normal component of acceleration: 85.0893796ft/s The tangential component of acceleration: -22.165ft/s^2 he net normal force on all wheels at the instant in question. Finally, resolve the acceleration into cylindrical components: he radial acceleration component, a, = The transverse acceleration component, ag =

r(0) Problem Statement: A toy car weighing 0.76 Ib has been released at the top of the track. The curved portion of the track is described by the equation r(0) = 7(1 – cos(0)) ft. When the car reaches a position of 0 = 269°, peed is 23.8 ft/s, and the radius of curvature of the track is 6.657 ft. Neglecting the car's size and friction, determine the following for the instant in question. ip: The track is drawn to scale. Consider printing the figure, drawing the car at your value of 0, then drawing the unit vectors accordingly. You can enlarge the figure by clicking on it. The answers depen roper definition of the unit vectors. The angle = 2.347rad The angle o = 2.330rad (1.e. the angle between gravity and tangent; it will be obtuse if the car has already passed the bottom of the track.) The normal component of acceleration: 85.0893796ft/s The tangential component of acceleration: -22.165ft/s^2 he net normal force on all wheels at the instant in question. Finally, resolve the acceleration into cylindrical components: he radial acceleration component, a, = The transverse acceleration component, ag =

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

ChapterMA: Math Assessment

Section: Chapter Questions

Problem 1.1MA

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