Physics Experiment: Bungee Jumping Height & Distance

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The discussion focuses on designing an experiment to explore how height influences a bungee jumper's distance traveled and the number of bounces before coming to a stop. Participants are encouraged to consider the potential energy associated with height and how it relates to the bungee jumper's motion. The application of Hooke's Law is suggested to analyze the bungee cord's behavior as an ideal spring. Additionally, the effects of gravity on the jumper's oscillations and the forces acting on them at different points in the jump are highlighted. Overall, the conversation emphasizes the importance of both quantitative and qualitative results in the experiment.
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Homework Statement


Create an Experiment (using your creativity) that shows how height affect a bungee jumper's distance traveled and the number of bounces until it stops. This must include both quantitative and qualitative results.


Homework Equations





The Attempt at a Solution

 
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young_asianpr said:

Homework Statement


Create an Experiment (using your creativity) that shows how height affect a bungee jumper's distance traveled and the number of bounces until it stops. This must include both quantitative and qualitative results.


Homework Equations





The Attempt at a Solution


Welcome to the PF.

What can you tell us about height affects the potential energy of the bungee jumper? If you assume the bungee rope acts as an ideal spring, what can you tell us about how you can use Hooke's Law to help you answer the question.

We do not do your work for you here on the PF. Try your best to make some progress on this question on your own, and show us your work and efforts.
 
When the string has its physical length (i.e it is not streched ) we are in a position where the jumper will do oscillations with initial velocity (which can be found from the height) and there is also dumping force which is gravirty(when he moves upwards) so forulas for vibrations with dumping force are needed.
 
actually gravity is asked upon he him in both directions.
 
So the restoring force when he is at the upper maximum displacement position is only gravity , while the restoring force at the lowest position is the spring force minus the gravitational force.
 
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