Consider a "round" rigid body with moment of inertia I = BMR2, where M is the body's mass, R is the body's radius, and ß is a constant depending on the type of the body. Rigid Body Uniform hoop Uniform solid cylinder Uniform spherical shell Uniform solid sphere 1 1/2 R- 2/3 2/5 k The center of the "round" rigid body is attached to a spring of force constant k, and then the body is made to roll without slipping on a rough horizontal surface. Due to the spring, it is expected the body will oscillate by rolling back and forth from its resting position.

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Consider a “round” rigid body with moment of inertia I = BMR2, where M is the body’s mass, R is the body’s radius, and B (beta) is a constant depending on the type of the body.

The center of the “round” rigid body is attached to a spring of force constant k, and then the body is made to roll without slipping on a rough horizontal surface. Due to the spring, it is expected the body will oscillate by rolling back and forth from its resting position.

A. Determine the angular frequency and the period for small oscillations of the round rigid body. Express your answers in terms of B (beta).

B. Among the four “round” rigid bodies shown at the table, for the same masses and radii, which among them will have the most number of cycles per second.

Consider a "round" rigid body with moment of inertia I = BMR?, where M is the body's mass, R is the
body's radius, and ß is a constant depending on the type of the body.
Rigid Body
Uniform hoop
Uniform solid cylinder
Uniform spherical shell
Uniform solid sphere
1/2
R-
2/3
2/5
k
The center of the "round" rigid body is attached to a spring of force constant k, and then the body is
made to roll without slipping on a rough horizontal surface. Due to the spring, it is expected the body will
oscillate by rolling back and forth from its resting position.
Transcribed Image Text:Consider a "round" rigid body with moment of inertia I = BMR?, where M is the body's mass, R is the body's radius, and ß is a constant depending on the type of the body. Rigid Body Uniform hoop Uniform solid cylinder Uniform spherical shell Uniform solid sphere 1/2 R- 2/3 2/5 k The center of the "round" rigid body is attached to a spring of force constant k, and then the body is made to roll without slipping on a rough horizontal surface. Due to the spring, it is expected the body will oscillate by rolling back and forth from its resting position.
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