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Hello everyone
I have been given the testfunction \phi(\alpha, r)=\sqrt{(\frac{\alpha^3}{\pi})}exp(-\alpha r), and the potential V(r,\theta, \phi)=V(r)=-\frac{e^2}{r}exp(\frac{-r}{a})
Given that I have to write down the hamiltonian (in spherical coordinates I assume), and I have to calculate the angular momentum operator \hat{L}^2 \phi. (This is only a part of the whole problem. a) of a), b) and c) They should have used some other symbol for the testfunction than \phi, it's kinda confusing)
Angular momentum operator in spherical coordinates.
I guess the answer is 0, because \hat{L}^2 \phi contains derivations of \theta, \phi which the testfunction doesn't depend on. Is this true?
Homework Statement
I have been given the testfunction \phi(\alpha, r)=\sqrt{(\frac{\alpha^3}{\pi})}exp(-\alpha r), and the potential V(r,\theta, \phi)=V(r)=-\frac{e^2}{r}exp(\frac{-r}{a})
Given that I have to write down the hamiltonian (in spherical coordinates I assume), and I have to calculate the angular momentum operator \hat{L}^2 \phi. (This is only a part of the whole problem. a) of a), b) and c) They should have used some other symbol for the testfunction than \phi, it's kinda confusing)
Homework Equations
Angular momentum operator in spherical coordinates.
The Attempt at a Solution
I guess the answer is 0, because \hat{L}^2 \phi contains derivations of \theta, \phi which the testfunction doesn't depend on. Is this true?
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