An astronaut has brought along a pendulum oscillator that was calibrated to have a period of exactly 2.0s on Earth. When he lands on the moon, he will make an attempt to measure the period of his oscillator. Make a CLAIM about the period of the oscillator on the moon as it relates to the period of the oscillator on Earth. Provide EVIDENCE of your claim by citing a specific formula. Provide the REASONING for your claim by linking the relationship of the variable to the formula

An astronaut has brought along a pendulum oscillator that was calibrated to have a period of exactly 2.0s on Earth. When he lands on the moon, he will make an attempt to measure the period of his oscillator. Make a CLAIM about the period of the oscillator on the moon as it relates to the period of the oscillator on Earth. Provide EVIDENCE of your claim by citing a specific formula. Provide the REASONING for your claim by linking the relationship of the variable to the formula

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Description: An astronaut has brought along a pendulum oscillator that was calibrated to have a period of exactly 2.0s on Earth. When he lands on the moon, he will make an attempt to measure the period of his oscillator. Make a CLAIM about the period of the oscil

Glencoe Physics: Principles and Problems, Student Edition

1st Edition

ISBN:9780078807213

Author:Paul W. Zitzewitz

Publisher:Paul W. Zitzewitz

Chapter14: Vibrations And Waves

Section: Chapter Questions

Problem 7STP

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Does the period of a pendulum depend upon the mass of the pendulum? How can you obtain the answer to this question? If you suggest experimentation, write a procedure for the experiment. Draw a graph of the period of the pendulum vs. length. Is it linear? (Hint: No, but what doe it look like?) Given the formula for the period of the pendulum would you expect the relationship between period and length to be linear? What are the top two sources of error in this experiment?
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A 1.2-kg mass oscillates according to the equationx(t)=0.18 cos(4.5t),where the position x(t) is measured in meters. a) What is the period, in seconds, of this mass? b) What is the maximum acceleration of the mass, in meters per square second?
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