Calculate the energy produced (in Joules) by fission of of
.
Given: The energy released per fission of is
.
The mass of (^{235}\text{U}) given is (10\ \text{g} = 0.01\ \text{kg}). The molar mass of (^{235}\text{U}) is (235\ \text{g mol}^{-1}). Number of moles of (^{235}\text{U}) present is [ n=\frac{10}{235}\approx 0.0426\ ________ ______ _________ ____ ____ ________ ___ __________ ______.
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The mass defects for and
are
, and
respectively. Calculate the corresponding atomic mass.
Check if isospin is conserved in the following reactions:
From the isospin and hypercharge assignment show that the t and b quarks have charges +2/3 and -1/3 respectively.
Calculate the energy produced (in Joules) by fission of of
.
Given: The energy released per fission of is
.
Explain and justify the observed deviations in magnetic dipole moment and quadrupole moment of deuteron.
Determine the expected shell-model quadrupole moment of .
A reactor operating at a power level of uses thermal neutrons producing fissions of
. If the thermal flux is
, calculate the mass of
present in the reactor? Assume
.