Question
Calculate the energy of the antineutrino when ${ }_{38}^{90} \mathrm{Sr}$ decays via $\beta^{-}$ decay if the beta particle has a kinetic energy of $435 \mathrm{keV}$.
Step 1
First, we need to know the decay equation for ${}_{38}^{90}\mathrm{Sr}$ via $\beta^{-}$ decay. The decay equation is: ${}_{38}^{90}\mathrm{Sr} \rightarrow {}_{39}^{90}\mathrm{Y} + \beta^{-} + \bar{\nu}_e$ Show more…
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Calculate the energy of the antineutrino when 90 38 Sr decays via $\beta^{-}$ decay if the $\beta$ particle has a kinetic energy of $435 \mathrm{keV}$.
Calculate the energy of the antineutrino when ${ }_{38}^{90} \mathrm{Sr}$ decays via $\beta^{-}$ decay if the $\beta$ particle has a kinetic energy of $435 \mathrm{keV}$.
Sr -90 (A=90, Z = 38) decays via β- decay. Calculate the energy of the antineutrino (in keV) if the beta particle has a kinetic energy of 451 keV. Note - you can look the atomic masses up online.
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