- #1
wawitz
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For this question, I have to obtain a general quantization of motion in circular orbits by combining the equations (Where U(r) is potential energy):
(mv2)/r= |(dU(r))/dr|
With the angular momentum quantization of: mvr= nℏ
Then use this to calculate the spectrum for circular motion in a potential of U = F0r.
After combining these equations, along with E = Ke + Pe (for kinetic and potential energies), I obtained this equation:
En= 3/2*(n4/3ℏ4/3 F02/3+F02/3 n2/3 ℏ2/3)/m1/3
The next step confuses me. To obtain a spectrum, I would have to use the relation ∆E=hc/λ; however this requires a difference of energies for ΔE. Would this mean setting up an equation for En+1 – En, using the equation I found for En?
(mv2)/r= |(dU(r))/dr|
With the angular momentum quantization of: mvr= nℏ
Then use this to calculate the spectrum for circular motion in a potential of U = F0r.
After combining these equations, along with E = Ke + Pe (for kinetic and potential energies), I obtained this equation:
En= 3/2*(n4/3ℏ4/3 F02/3+F02/3 n2/3 ℏ2/3)/m1/3
The next step confuses me. To obtain a spectrum, I would have to use the relation ∆E=hc/λ; however this requires a difference of energies for ΔE. Would this mean setting up an equation for En+1 – En, using the equation I found for En?