doublemint
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An energetic photon strikes a helium nucleus and breaks into two hydrogen isotopes (A = 2, Z = 1). The two particles move off at 0.6c. Assume all energy of the photon is absorbed and that relativistic energies are involved.
Q - what is the wavelength of the incoming photon?
Conservation of energy - Ei = Ef
E(photon) + E(helium) = 2E(hydrogen)
E(photon) = 2E(hydrogen) - E(helium)
hc/\lambda = 2(\gammam(H)c^2) - (\gammam(He)c^2)
\gamma = 1/sqrt(1-u^2/c^2)
Then I would solve for \lambda by rearranging the equation.
Is this how i should be solving this type of problem?
Thanks
DoubleMint
Q - what is the wavelength of the incoming photon?
Conservation of energy - Ei = Ef
E(photon) + E(helium) = 2E(hydrogen)
E(photon) = 2E(hydrogen) - E(helium)
hc/\lambda = 2(\gammam(H)c^2) - (\gammam(He)c^2)
\gamma = 1/sqrt(1-u^2/c^2)
Then I would solve for \lambda by rearranging the equation.
Is this how i should be solving this type of problem?
Thanks
DoubleMint