1. Find the differential equations for a fixed axis of rotation system shown in Figure 1. The inertia is in contact with a mass M attached via a spring of stiffness K to a fixed wall. The inertia-mass contact is subject to viscous friction of coefficient fv. The motion of the mass with respect to the horizontal floor is subject to the same viscous friction coefficient fv. The system input is a horizontal force f(t) on the mass M and the output is the rotation e(t)of the inertia. K fv fv Figure 1 J M f(t)

1. Find the differential equations for a fixed axis of rotation system shown in Figure 1. The inertia is in contact with a mass M attached via a spring of stiffness K to a fixed wall. The inertia-mass contact is subject to viscous friction of coefficient fv. The motion of the mass with respect to the horizontal floor is subject to the same viscous friction coefficient fv. The system input is a horizontal force f(t) on the mass M and the output is the rotation e(t)of the inertia. K fv fv Figure 1 J M f(t)

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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