A system is in the state = m, an eigenstate of the angular momentum operators L² and L₂. Calculate expectation values (Lx) and (L2). You can use a faster way by physical reasoning. You can, of course use raising L, and lowering L_ operators, but it will take more time.
A system is in the state = m, an eigenstate of the angular momentum operators L² and L₂. Calculate expectation values (Lx) and (L2). You can use a faster way by physical reasoning. You can, of course use raising L, and lowering L_ operators, but it will take more time.
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![A system is in the state \( \psi = \phi_{lm} \), an eigenstate of the angular momentum operators \( L^2 \) and \( L_z \). Calculate expectation values \( \langle L_x \rangle \) and \( \langle L_z^2 \rangle \). You can use a faster way by physical reasoning. You can, of course, use raising \( L_+ \) and lowering \( L_- \) operators, but it will take more time.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F6e3992ca-2280-40ba-b65a-68dc98c03d5d%2F99710c5e-b92b-4a59-b00a-b7b0fcc1e217%2Fu3xwlq_processed.jpeg&w=3840&q=75)
Transcribed Image Text:A system is in the state \( \psi = \phi_{lm} \), an eigenstate of the angular momentum operators \( L^2 \) and \( L_z \). Calculate expectation values \( \langle L_x \rangle \) and \( \langle L_z^2 \rangle \). You can use a faster way by physical reasoning. You can, of course, use raising \( L_+ \) and lowering \( L_- \) operators, but it will take more time.
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