Answer to Problem 3.37P The proof for virial theorem is given. Explanation of Solution Using Equation 3.73, LHS of the given expression can be written as, ar (xp) = ([H, xpl) + < d(xp)/dt> ? = ([H, x]p+x[H, p]} Here, x is the position operator, p is the momentum operator and H is the Hamiltonian operator. Write the expression for Hamiltonian. H = m + V (x) Using the expression for H and the commutator relation between x and p,
Answer to Problem 3.37P The proof for virial theorem is given. Explanation of Solution Using Equation 3.73, LHS of the given expression can be written as, ar (xp) = ([H, xpl) + < d(xp)/dt> ? = ([H, x]p+x[H, p]} Here, x is the position operator, p is the momentum operator and H is the Hamiltonian operator. Write the expression for Hamiltonian. H = m + V (x) Using the expression for H and the commutator relation between x and p,
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In the solution here to problem 3.37 Griffiths, the first step is to use Eqn 3.73*
Can you show me why <d(xp)/dt> = 0 or why it isn't in the RHS of the equation? (see my image)
* Equation 3.73: d<Q>/dt = (i/h_bar) <[H,Q]> + <dQ/dt>
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