Fig. 6.14 M m Section 6.7: Small oscillations 6.10. Hoop and pulley ** A mass M is attached to a massless hoop of radius R that lies in a vertical plane. The hoop is free to rotate about its fixed center. M is tied to a string which winds part way around the hoop, then rises vertically up and over a massless pulley. A mass m hangs on the other end of the string (see Fig. 6.14). Find the equation of motion for the angle of rotation of the hoop. What is the frequency of small oscillations? Assume that m moves only vertically, and assume M > m.

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Introduction to Classical Dynamics The Lagrangian Method Please I need a complete solution of this, thank you.
Fig. 6.14
M
m
Section 6.7: Small oscillations
6.10. Hoop and pulley **
A mass M is attached to a massless hoop of radius R that lies in a vertical
plane. The hoop is free to rotate about its fixed center. M is tied to a
string which winds part way around the hoop, then rises vertically up
and over a massless pulley. A mass m hangs on the other end of the string
(see Fig. 6.14). Find the equation of motion for the angle of rotation of
the hoop. What is the frequency of small oscillations? Assume that m
moves only vertically, and assume M > m.
Transcribed Image Text:Fig. 6.14 M m Section 6.7: Small oscillations 6.10. Hoop and pulley ** A mass M is attached to a massless hoop of radius R that lies in a vertical plane. The hoop is free to rotate about its fixed center. M is tied to a string which winds part way around the hoop, then rises vertically up and over a massless pulley. A mass m hangs on the other end of the string (see Fig. 6.14). Find the equation of motion for the angle of rotation of the hoop. What is the frequency of small oscillations? Assume that m moves only vertically, and assume M > m.
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