A 1 kilogram bead moves with constant total mechanicalenergy on a frictionless wire track. The track is in avertical plane and consists of straight segments andcircular segments. For example, points B, F, G, H are onstraight segments. Points A, C, D, E are on circular tracksegments. Point A is at the top of the track and point His the lowest point of the track.The bead is shown initially at point C with a velocity 5.6m/s down as represented by the velocity arrow. Thecircular portion of track that includes points A, C, D hasa radius 3.2 meters.radius3.2 mVelocity5.6 m/sDirection Key1752The "direction key" shows eight arrow directionslabeled 1 to 8. To use the "direction key", consider thevector mentioned in each question. Match the directionof the vector with the arrow in the key that best showsthe direction of the required vector.For example the velocity vector at point C is bestrepresented by arrow "5" in the key. Determine the direction of the acceleration of thebead at point D. (Use the direction key as explainedin the description)O0123578

There are two forces acting on the bead which are the gravitational force and the normal force due…

A 1 kilogram bead moves with constant total mechanical energy on a frictionless wire track. The track is in a vertical plane and consists of straight segments and circular segments. For example, points B, F, G, H are on straight segments. Points A, C, D, E are on circular track segments. Point A is at the top of the track and point H is the lowest point of the track. The bead is shown initially at point C with a velocity 5.6 m/s down as represented by the velocity arrow. The

A 1 kilogram bead moves with constant total mechanical energy on a frictionless wire track. The track is in a vertical plane and consists of straight segments and circular segments. For example, points B, F, G, H are on straight segments. Points A, C, D, E are on circular track segments. Point A is at the top of the track and point H is the lowest point of the track. The bead is shown initially at point C with a velocity 5.6 m/s down as represented by the velocity arrow. The

Classical Dynamics of Particles and Systems

5th Edition

ISBN:9780534408961

Author:Stephen T. Thornton, Jerry B. Marion

Publisher:Stephen T. Thornton, Jerry B. Marion

Chapter9: Dynamics Of A System Of Particles

Section: Chapter Questions

Problem 9.19P

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