Single bead on a vertical circle.

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SUMMARY

The discussion centers on the behavior of a bead within a vertical circle that rotates around its vertical axis. Participants debate the bead's position under high angular velocity conditions. While one participant asserts that the bead remains at the bottom in an ideal scenario, another emphasizes that real-world perturbations would cause the bead to shift, with its height ultimately influenced by the angular velocity of the circle. The concept of "dynamic equilibrium" is introduced to illustrate the bead's potential movement.

PREREQUISITES
  • Understanding of Newtonian physics principles
  • Familiarity with angular velocity concepts
  • Knowledge of dynamic equilibrium
  • Basic grasp of frictionless motion scenarios
NEXT STEPS
  • Study the effects of angular velocity on objects in circular motion
  • Explore dynamic equilibrium in physics
  • Investigate real-world applications of frictionless systems
  • Learn about perturbations in mechanical systems
USEFUL FOR

Students of physics, educators teaching Newtonian mechanics, and anyone interested in the dynamics of rotating systems.

alingy2
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Imagine that a single bead has a hole in it. It is passed inside a " vertical " circle with no friction. Imagine that the "vertical"circle moves by spinning around its vertical axis and that the bead is, AT THE BEGINNING, on the bottom of the vertical circle.

We had another problem related to this. However, I am wondering what would happen to the bead if the angular velocity of the vertical circle was very very high.

My teacher says that the bead could higher following the shape of the vertical circle.

However, I think that, as long as there is no perturbation, the ball will stay at the bottom. Is this correct?

I am just starting to get a grasp of Newtonian laws.
 
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Yes, I don't think the bead would move, but that would be a very ideal case. Realistically, it would be shifted one way or another, and then its height determined by the angular velocity of the ring.

Think of a ball at the top of a pyramid. It's in "dynamic equilibrium," where it will technically stay in the same place, but realistically roll down one of the sides.
 

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