Harmonic oscillator derivation of wave functions

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The discussion revolves around deriving wave functions for a harmonic oscillator, specifically focusing on part (iv) of a problem. A user is seeking assistance with a second-order differential equation obtained from expressions for the Hamiltonian. The equation can be solved by expressing the momentum and position operators in the x-basis. Participants recommend consulting quantum mechanics and mathematical methods texts for guidance on solving such differential equations. The conversation emphasizes the importance of foundational knowledge in quantum mechanics for tackling the problem effectively.
jtaa
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here is a link to the pdf file with my question and answershttp://dl.dropbox.com/u/2399196/harmonic%20osc.pdf

i'm not sure where to start, because i don't want to assume anything that i haven't been given.
i'm stuck on part (iv) where i have to derive explicit expressions for 2 wave functions.

thanks!
 
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Well, from your 2 expressions for H you have

\left( \frac{1}{2}\hat{p}^2+\frac{1}{2}\hat{x}^2\right) \Psi_0(x)=\hbar\left(\hat{N}+\frac{1}{2} \right)\Psi_0(x) = \frac{\hbar}{2}\Psi_0(x)

So, if you express \hat{p}^2 and \hat{x}^2 in the x-basis, you will have a differential equation you can solve for \Psi_0(x)
 
ok i get a second order diff equation that looks like this:

http://dl.dropbox.com/u/2399196/2orderdiff.png

but how do i solve that?
 
Last edited:
This is a topic covered in many quantum mechanics and mathematical methods texts. I'd suggest you start there.
 

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