A 92.0-kg bungee jumper steps off a bridge with a light bungee cord tied to her and to the bridge. The unstretched length of the cord is 14.0 m. The jumper reaches reaches the bottom of her motion 40.0 m below the bridge before bouncing back. We wish to find the time interval between her leaving the bridge and her arriving at the bottom of her motion. Her overall motion can be separated into an 14.0-m free-fall and a 26.0-m section of simple harmonic oscillation. (a) For the free-fall part, what is the appropriate analysis model to describe her motion. particle under constant acceleration O particle under constant angular acceleration O particle in simple harmonic motion (b) For what time interval is she in free-fall? 1.689 (c) For the the simple harmonic oscillation part of the plunge, is the system of the bungee jumper, the spring, and the Earth isolated or non-isolated? O isolated O non-isolated (d) From your response in part (c) find the spring constant of the bungee cord. | N/m (e) What is the location of the equilibrium point where the spring force balances the gravitational force exerted on the jumper? m below the bridge (f) What is the angular frequency of the oscillation? rad/s

A 92.0-kg bungee jumper steps off a bridge with a light bungee cord tied to her and to the bridge. The unstretched length of the cord is 14.0 m. The jumper reaches reaches the bottom of her motion 40.0 m below the bridge before bouncing back. We wish to find the time interval between her leaving the bridge and her arriving at the bottom of her motion. Her overall motion can be separated into an 14.0-m free-fall and a 26.0-m section of simple harmonic oscillation. (a) For the free-fall part, what is the appropriate analysis model to describe her motion. particle under constant acceleration O particle under constant angular acceleration O particle in simple harmonic motion (b) For what time interval is she in free-fall? 1.689 (c) For the the simple harmonic oscillation part of the plunge, is the system of the bungee jumper, the spring, and the Earth isolated or non-isolated? O isolated O non-isolated (d) From your response in part (c) find the spring constant of the bungee cord. | N/m (e) What is the location of the equilibrium point where the spring force balances the gravitational force exerted on the jumper? m below the bridge (f) What is the angular frequency of the oscillation? rad/s

Physics for Scientists and Engineers: Foundations and Connections

1st Edition

ISBN:9781133939146

Author:Katz, Debora M.

Publisher:Katz, Debora M.

Chapter16: Oscillations

Section: Chapter Questions

Problem 60PQ: Use the position data for the block given in Table P16.59. Sketch a graph of the blocks a. position...

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Question

I need D, E, and F in the pic.

A 92.0-kg bungee jumper steps off a bridge with a light bungee cord tied to her and to the bridge. The unstretched length of the cord is 14.0 m. The jumper reaches reaches the bottom of her motion 40.0 m
below the bridge before bouncing back. We wish to find the time interval between her leaving the bridge and her arriving at the bottom of her motion. Her overall motion can be separated into an 14.0-m free-fall
and a 26.0-m section of simple harmonic oscillation.
(a) For the free-fall part, what is the appropriate analysis model to describe her motion.
O particle under constant acceleration
O particle under constant angular acceleration
O particle in simple harmonic motion
(b) For what time interval is she in free-fall?
1.689
(c) For the the simple harmonic oscillation part of the plunge, is the system of the bungee jumper, the spring, and the Earth isolated or non-isolated?
O isolated
O non-isolated
(d) From your response in part (c) find the spring constant of the bungee cord.
N/m
(e) What is the location of the equilibrium point where the spring force balances the gravitational force exerted on the jumper?
m below the bridge
(f) What is the angular frequency of the oscillation?
rad/s

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