An initially horizontal, "massless" rigid rod of length 3a can rotate frictionlessly around a fixed point A; see the figure! Point A is located at the distance a from one end of the rod. Two bodies, one of the mass 2m, the other of the mass m, hang from the rod by means of light rigid rods. The heavier body is attached to a damper (damping constant c), while the lighter one is attached to a spring (spring constant k) as the figure suggests. In the position shown in the figure, the spring is untensioned. Determine the natural angular frequency of this system at small oscillations.

Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
ChapterMA: Math Assessment
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a A 2a
А
2m
m
Transcribed Image Text:a A 2a А 2m m
An initially horizontal, "massless" rigid rod of
length 3a can rotate frictionlessly around a
fixed point A; see the figure! Point A is located
at the distance a from one end of the rod.
Two bodies, one of the mass 2m, the other of
the mass m, hang from the rod by means of
light rigid rods. The heavier body is attached
to a damper (damping constant c), while the
lighter one is attached to a spring (spring
constant k) as the figure suggests. In the
position shown in the figure, the spring is
untensioned.
Determine the natural angular frequency of
this system at small oscillations.
Please write the solution step by step as I
struggled with this question. I appreciate if
the hand writing is clear. Thanks
Transcribed Image Text:An initially horizontal, "massless" rigid rod of length 3a can rotate frictionlessly around a fixed point A; see the figure! Point A is located at the distance a from one end of the rod. Two bodies, one of the mass 2m, the other of the mass m, hang from the rod by means of light rigid rods. The heavier body is attached to a damper (damping constant c), while the lighter one is attached to a spring (spring constant k) as the figure suggests. In the position shown in the figure, the spring is untensioned. Determine the natural angular frequency of this system at small oscillations. Please write the solution step by step as I struggled with this question. I appreciate if the hand writing is clear. Thanks
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