1.) The decay constant, , is related to the probability that a nucleus will decay in a given unit time. Which would decay faster, a sample with a decay constant of 10 per second or a sample with a decay constant of 1 per second? 2.) If you start with a larger population (bigger value of No) will it take longer for the sample to be reduced to half its original value? (For N to reach No/2)? 3.) Can you use this equation to determine when a single unstable nucleus will decay?

University Physics Volume 3
17th Edition
ISBN:9781938168185
Author:William Moebs, Jeff Sanny
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Chapter10: Nuclear Physics
Section: Chapter Questions
Problem 45P: (a) Calculate the energy released in the a decay of 238U . (b) What fraction of the mass of a single...
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N = Noe At
%3D
Explain in words what each term stands for and give units. Indicate whether the quantity is a vector.
Variable What does it stand for?
Vector? Units
No
1.) The decay constant, is related to the probability that a nucleus will decay in a given unit time. Which would decay faster, a sample with a decay
constant of 10 per second or a sample with a decay constant of 1 per second?
2) If you start with a larger population (bigger value of No) will it take longer for the sample to be reduced to half its original value? (For N to
reach No/2)?
Transcribed Image Text:N = Noe At %3D Explain in words what each term stands for and give units. Indicate whether the quantity is a vector. Variable What does it stand for? Vector? Units No 1.) The decay constant, is related to the probability that a nucleus will decay in a given unit time. Which would decay faster, a sample with a decay constant of 10 per second or a sample with a decay constant of 1 per second? 2) If you start with a larger population (bigger value of No) will it take longer for the sample to be reduced to half its original value? (For N to reach No/2)?
1.) The decay constant, , is related to the probability that a nucleus will decay in a given unit time. Which would decay faster, a sample
with a decay constant of 10 per second or a sample with a decay constant of 1 per second?
2.) If you start with a larger population (bigger value of No) will it take longer for the sample to be reduced to half its original value?
(For N to reach No/2)?
3.) Can you use this equation to determine when a single unstable nucleus will decay?
Transcribed Image Text:1.) The decay constant, , is related to the probability that a nucleus will decay in a given unit time. Which would decay faster, a sample with a decay constant of 10 per second or a sample with a decay constant of 1 per second? 2.) If you start with a larger population (bigger value of No) will it take longer for the sample to be reduced to half its original value? (For N to reach No/2)? 3.) Can you use this equation to determine when a single unstable nucleus will decay?
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