Chapter 11: Q28E (page 518)
What does the semiemperical binding energy formula predict forthe mass of a carbon- 12 atom? Comment on your answer.
Short Answer
The resultant answeris .
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Chapter 11: Q28E (page 518)
What does the semiemperical binding energy formula predict forthe mass of a carbon- 12 atom? Comment on your answer.
The resultant answeris .
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(a) To determine is decay possible for the hypothetical nucleus role="math" localid="1658411360861" .
(b) To determine isrole="math" localid="1658411423839" decay possible for the hypothetical nucleus .
(c) To determine isrole="math" localid="1658411438076" decay possible.
(a) Calculatethe binding energies per nucleon of the isobars boron- 12, carbon- 12, and nitrogen- 12.
(b) In which ofthe terms of the semiempirical binding energy formula do these binding energies differ, and how should these differences affect the binding energy per nucleon?
(c) Determine the binding energy per nucleon using the semiempirical binding energy formula and discuss the result.
A fossil specimen has a carbon-14 decay rate of
(a) How many carbon-14 nuclei are present?
(b) If this number is the number that must have been present when the animal died, how old is the fossil?
In electron spin resonance, incoming electromagnetic radiation of the proper (resonant) frequency causes the electron鈥檚 magnetic moment to go from its lower-energy, or 鈥渞elaxed,鈥 orientation, aligned with the external field, to its higher-energy anti-aligned state. MRI is analogous. A quantity commonly discussed in MRI is the ratio of the frequency of the incoming radiation to the external magnetic field. Calculate this ratio for hydrogen. Note that the proton gyromagnetic ratio, , is .
In an assembly of fissionable material. The larger the surface area per fissioning nucleus (i.e. per unit volume), the more likely is the escape of valuable neutrons.
(a) What is the surface-to-volume ratio of a sphere of radius r?
(b) What is the surface-to-volume ratio of a cube of the same volume?
(c) What is the surface-to-volume ratio of a sphere of twice the volume?
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