Get Expert Help with [x,l^2] Differential Solution | File Attached

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SUMMARY

The discussion focuses on solving the differential equation involving the operator \(\hat{L}\) and its components, specifically \(\hat{L}_x^2\) and \(\hat{L}_z\). Participants emphasize the importance of utilizing commutator rules, particularly \([x,\hat{L}_x]\) and the relationship \([x_i,\hat{p}_j] = i\hbar \delta_{i,j}\). The conversation encourages users to derive solutions independently while providing hints to guide their understanding of the problem. The emphasis is on applying these mathematical principles rather than seeking complete solutions from others.

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mudyos
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Hi

I can not Continues Solution because of the differentiate .

please

I want Some the helping and Exposition .

see a file attach
 

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Solution please
 
Skip the derivatives, you where on the right way by writing [tex]\hat{\vec{L}}[/tex] as [tex]\hat{L}_x^2 + ..[/tex] and using the commutator rules and the commutators [tex][x,\hat{L}_x][/tex] etc.

Hint: Use the fact that you can write [tex]\hat{L}_z = x\hat{p}_y - y\hat{p}_x[/tex] etc, and [tex][x_i,\hat{p}_j] = i\hbar \delta _{i,j}[/tex] ; where [tex]\vec{x} = x,y,z[/tex]. So [tex]x_i[/tex] can be either x,y,z.

Much work ;)

Dont demand solutions from us, we only give you hints and point you in the right direction. That is also a rule, that full solutions shoulnd be posted. We would also be sitting approx 45min to do this, and it is not us who should do the work, it is you, we only give hints as I said.

Now you have everything to solve this.
 
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