Bucket Swing Problem: Solving for Minimum Speed and Centripetal Acceleration

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SUMMARY

The discussion revolves around the "Bucket Swing Problem," which involves calculating the minimum speed required for a bucket of water to avoid spilling at the highest point of its circular motion. Given a rope length of 6 meters and a total mass of 5 kg, the gravitational acceleration is set at 10 m/s². The problem requires applying principles of circular motion to determine both the minimum speed and the centripetal acceleration at the highest point.

PREREQUISITES
  • Circular motion dynamics
  • Basic kinematics equations
  • Understanding of centripetal acceleration
  • Newton's laws of motion
NEXT STEPS
  • Study the equations of motion in circular dynamics
  • Learn about centripetal force and its applications
  • Explore the concept of angular velocity and acceleration
  • Review the principles of energy conservation in circular motion
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This discussion is beneficial for physics students, educators, and anyone interested in understanding the mechanics of circular motion and the application of kinematic equations in real-world scenarios.

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Homework Statement


A bucket of water is swung in a vertical plane at the end of a rope of length l= 6 m. The mass of the bucket plus water is 5 kg and the gravitational acceleration is g=10 m/s2. We assume that the mass of the rope can be neglected.

(a) What is the minimal speed of the bucket at its highest point in the circular motion, such that the water does not fall out? (in m/s)

(b) For this speed, what is the magnitude of the centripetal acceleration that the water in the bucket experiences at the highest point? (in m/s2)

Homework Equations


ω = ω0 + α * t
θ = ω0 * t + 0.5 * α * t ^ 2
ω = ω0 ^ 2 + 2 * α * θ

The Attempt at a Solution


I am newbie in physics, I solved some problems in kinematics already, but I don't even know how to start in this case
 
Last edited:
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To solve this problem, you need an equation for acceleration in circular motion. Do you have it?
 
@dark_elf, You should not ask for solution of this question. It's a breach of honor code you accepted at 8.01x course.
 

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