How Does a Circular Hoop's Oscillation Period Change When Displaced by a Breeze?

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SUMMARY

The oscillation period of a circular hoop, when displaced by a breeze, can be calculated using the formula for a physical pendulum: T = 2π√(I/mgh). For a hoop with a mass of 3 kilograms and a radius of 20 centimeters, the moment of inertia (I) is determined as I = MR². This results in a specific period of oscillation that can be derived from the parameters provided, emphasizing the relationship between mass, radius, and the gravitational force acting on the hoop.

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  • Understanding of physical pendulum dynamics
  • Knowledge of moment of inertia calculations
  • Familiarity with oscillation period formulas
  • Basic grasp of gravitational effects on motion
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  • Calculate the oscillation period for various shapes using the formula T = 2π√(I/mgh)
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Homework Statement

the period of a physical pendulum is ## 2\pi \sqrt{I/mgh}, ## where I is the moment of
inertia about the pivot point and d is the distance from the pivot to the
centre of mass. A circular hoop hangs from nail on a barn wall. The
mass of the hoop is 3 kilogram and its radius is 20 centimetre . If it
is displaced slightly by a passing breeze, what is the period of the
resulting oscillation.

Homework Equations

What is the solution ?

The Attempt at a Solution



I thank about as a motion of torsion pendulum, whose ## T= 2 \pi \sqrt{I/c} ##, with ## I = MR^2 ##, and c is the twisting coupling.
 
Physics news on Phys.org
Look up "Physical Pendulum". The hyperphysics website gives a good summary.
 

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