6. Calculate the mass and mass moment of inertia of the roller using basic principles (theoretically). The specific gravities of brass and aluminium are 8.47 and 2.7, respectively. 7. Calculate the linear and angular velocities and accelerations of the roller using the results from the first experiment. Assume that no slip occurs. 8. By applying the conservation of energy to the results from the first experiment and the velocities calculated in Step 7, calculate the mass moment of inertia of the roller.

6. Calculate the mass and mass moment of inertia of the roller using basic principles (theoretically). The specific gravities of brass and aluminium are 8.47 and 2.7, respectively. 7. Calculate the linear and angular velocities and accelerations of the roller using the results from the first experiment. Assume that no slip occurs. 8. By applying the conservation of energy to the results from the first experiment and the velocities calculated in Step 7, calculate the mass moment of inertia of the roller.

Name: TrialNumber1h2Aluminum roller with brass center used3Note: h, and the
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Description: TrialNumber1h2Aluminum roller with brass center used3Note: h, and theta are shown in the table below.S = 1200mm, R = 81mm, r = 20mm, w1 = w3 = 10mm, w2 = 31mmHeight, h(m)0.007Rail0.0200.16hsin ==Angle ofElevation, 0(°)0.0330.957.6614.37R10.35Roller1

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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