A siren starting from rest slides down a tall frictionless hill towards a biker. The biker travels at a constant velocity while the siren approaches him from behind. At the bottom of the hill, the siren will be traveling faster than the biker. How will the frequency of the siren change over time? It will start off lower than the original frequency of the siren, and increase in frequency until it is higher than the original. O It will be exactly the same original frequency emitted by the siren, for the entire time the siren rolls down the hill. It will be lower than the original frequency emitted by the siren, for the entire time the siren rolls down the hill. It will be higher than the same original frequency emitted by the siren, for the entire time the siren rolls down the hill.

University Physics Volume 1
18th Edition
ISBN:9781938168277
Author:William Moebs, Samuel J. Ling, Jeff Sanny
Publisher:William Moebs, Samuel J. Ling, Jeff Sanny
Chapter15: Oscillations
Section: Chapter Questions
Problem 60AP: A mass is placed on a frictionless, horizontal table. A spring (k=100N/m) , which can be stretched...
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A siren starting from rest slides down a tall frictionless hill towards a biker. The biker travels at a constant
velocity while the siren approaches him from behind. At the bottom of the hill, the siren will be traveling
faster than the biker. How will the frequency of the siren change over time?
It will start off lower than the original frequency of the siren, and increase in frequency until it is higher than the
original.
It will be exactly the same original frequency emitted by the siren, for the entire time the siren rolls down the hill.
It will be lower than the original frequency emitted by the siren, for the entire time the siren rolls down the hill.
It will be higher than the same original frequency emitted by the siren, for the entire time the siren rolls down the
hill.
Transcribed Image Text:A siren starting from rest slides down a tall frictionless hill towards a biker. The biker travels at a constant velocity while the siren approaches him from behind. At the bottom of the hill, the siren will be traveling faster than the biker. How will the frequency of the siren change over time? It will start off lower than the original frequency of the siren, and increase in frequency until it is higher than the original. It will be exactly the same original frequency emitted by the siren, for the entire time the siren rolls down the hill. It will be lower than the original frequency emitted by the siren, for the entire time the siren rolls down the hill. It will be higher than the same original frequency emitted by the siren, for the entire time the siren rolls down the hill.
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