Chapter 19: Problem 14
Why is it preferable to use nuclear binding energy per nucleon for a comparison of the stabilities of different nuclei?
Chapter 19: Problem 14
Why is it preferable to use nuclear binding energy per nucleon for a comparison of the stabilities of different nuclei?
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Get started for freeA 0.0100 -g sample of a radioactive isotope with a half-life of \(1.3 \times 10^{9} \mathrm{yr}\) decays at the rate of \(2.9 \times\) \(10^{4} \mathrm{dpm} .\) Calculate the molar mass of the isotope.
Explain the functions of a moderator and a control rod in a nuclear reactor.
The quantity of a radioactive material is often measured by its activity (measured in curies or millicuries) rather than by its mass. In a brain scan procedure, a \(70-\mathrm{kg}\) patient is injected with \(20.0 \mathrm{mCi}\) of \({ }^{99 \mathrm{~m}} \mathrm{Tc},\) which decays by emitting \(\gamma\) -ray photons with a half-life of \(6.0 \mathrm{~h}\). Given that the \(\mathrm{RBE}\) of these photons is 0.98 and only two-thirds of the photons are absorbed by the body, calculate the rem dose received by the patient. Assume all of the \({ }^{99 \mathrm{~m}} \mathrm{Tc}\) nuclei decay while in the body. The energy of a gamma photon is \(2.29 \times 10^{-14} \mathrm{~J}\).
How is nuclear transmutation achieved in practice?
What are the advantages of a fusion reactor over a fission reactor? What are the practical difficulties in operating a large-scale fusion reactor?
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