An automobile wheel test rig consists of a uniform disk A, of mass mÃ = 5000 kg and radius rÃ = 1.5 m, that can rotatefreely about its fixed center C and over which the wheel of an automobile is made to roll. A wheel B, whose center andcenter of mass coincide at D, is mounted on a shaft (not shown) that holds D fixed while it allows the wheel to rotate aboutD. The wheel has diameter d = 0.62 m, mass mß = 21.5 kg, and mass moment of inertia about its mass center /D = 44kg-m². Both A and B are initially at rest when B is subject to a constant torque M that causes B to roll without slip on A.MBdAIf M = 1200 N·m, use the angular impulse-momentum principle to determine how long it takes to reach conditions simulating a carspeed of 100 km/h.The automobile wheel test rig takess to reach conditions simulating a car speed of 100 km/h.

The given data as below: Mass of disk A mA = 5000 kgRadius of disk rA = 1.5 mwheel diameter d = 0.62…

An automobile wheel test rig consists of a uniform disk A, of mass mA = 5000 kg and radius rA = 1.5 m, that can rotate freely about its fixed center C and over which the wheel of an automobile is made to roll. A wheel B, whose center and center of mass coincide at D, is mounted on a shaft (not shown) that holds D fixed while it allows the wheel to rotate about D. The wheel has diameter d = 0.62 m, mass mB= 21.5 kg, and mass moment of inertia about its mass center /D = 44 kg.m². Both A and B are initially at rest when B is subject to a constant torque M that causes B to roll without slip on A. M B TA A If M = 1200 N-m, use the angular impulse-momentum principle to determine how long it takes to reach conditions simulating a car speed of 100 km/h. The automobile wheel test rig takes s to reach conditions simulating a car speed of 100 km/h.

An automobile wheel test rig consists of a uniform disk A, of mass mA = 5000 kg and radius rA = 1.5 m, that can rotate freely about its fixed center C and over which the wheel of an automobile is made to roll. A wheel B, whose center and center of mass coincide at D, is mounted on a shaft (not shown) that holds D fixed while it allows the wheel to rotate about D. The wheel has diameter d = 0.62 m, mass mB= 21.5 kg, and mass moment of inertia about its mass center /D = 44 kg.m². Both A and B are initially at rest when B is subject to a constant torque M that causes B to roll without slip on A. M B TA A If M = 1200 N-m, use the angular impulse-momentum principle to determine how long it takes to reach conditions simulating a car speed of 100 km/h. The automobile wheel test rig takes s to reach conditions simulating a car speed of 100 km/h.

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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