needs complete detailing. take N=70 b=20 a) The figure shows an oscillatory system where the mass 'M’ is required to remain stationary even if an oscillatory force "F. cos ot" acts on this mass *M'. This mass 'M° is a part of a simple harmonic system of stiffness 'k' and also connected to mass 'm' by a spring of stiffness 's'. If all oscillations are along the x-axis, find the value of frequency 'o' with which the small mass 'm' should oscillate to keep the mass 'M' stationary? Consider the following numerical values for calculations: M=100 kg, Fo cos ot k=5 N/m, m='B' kg, s='N' N/m

needs complete detailing. take N=70 b=20 a) The figure shows an oscillatory system where the mass 'M’ is required to remain stationary even if an oscillatory force "F. cos ot" acts on this mass *M'. This mass 'M° is a part of a simple harmonic system of stiffness 'k' and also connected to mass 'm' by a spring of stiffness 's'. If all oscillations are along the x-axis, find the value of frequency 'o' with which the small mass 'm' should oscillate to keep the mass 'M' stationary? Consider the following numerical values for calculations: M=100 kg, Fo cos ot k=5 N/m, m='B' kg, s='N' N/m

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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