The Hamiltonian (Equation 4.158) is e (11.97) = ehBo À (t) = CB-S= [sin na cos (wt)ox + sin a sin (wt)oy + cos ao;] 2m h
Posted: Wed May 18, 2022 4:41 pm
The Hamiltonian (Equation 4.158) is e (11.97) = ehBo À (t) = CB-S= [sin na cos (wt)ox + sin a sin (wt)oy + cos ao;] 2m ho e-iw sin a m COS Q leiul sin a - COS where (11.98) e Bo 0] = m The normalized eigenspinors of h(t) are
YB = Y(T) - y0). (11.95) Example 11.4 Imagine an electron (charge e-e, mass m) at rest at the origin, in the presence of a magnetic field
The exact solution to the time-dependent Schrödinger equation is (Problem 11.20): (61-6) cos (at/2) - i (11.103) x(t) = sin (at/2) cos (a/2)e-ior/2 [cos (21/2) – ; (@y+m) sin (11/2)] sin (a/2)e+ion/2 where (11.104) X = w2 +w; – 200 cosa, or, expressing it as a linear combination of X+ and X-: at (11.105) x(t) = cos at 2 (01 – cosa) - i 2 sin -i01/2 e X+(t) 2 ()] -)... [li ( λι i sin a sin +iot/2 e *x-(t).
Problem 11.20 Check that Equation 11.103 satisfies the time-dependent Schrödinger equation for the Hamiltonian in Equation 11.97. Also confirm Equation 11.105, and show that the sum of the squares of the coefficients is 1, as required for normalization.
YB = Y(T) - y0). (11.95) Example 11.4 Imagine an electron (charge e-e, mass m) at rest at the origin, in the presence of a magnetic field
The exact solution to the time-dependent Schrödinger equation is (Problem 11.20): (61-6) cos (at/2) - i (11.103) x(t) = sin (at/2) cos (a/2)e-ior/2 [cos (21/2) – ; (@y+m) sin (11/2)] sin (a/2)e+ion/2 where (11.104) X = w2 +w; – 200 cosa, or, expressing it as a linear combination of X+ and X-: at (11.105) x(t) = cos at 2 (01 – cosa) - i 2 sin -i01/2 e X+(t) 2 ()] -)... [li ( λι i sin a sin +iot/2 e *x-(t).
Problem 11.20 Check that Equation 11.103 satisfies the time-dependent Schrödinger equation for the Hamiltonian in Equation 11.97. Also confirm Equation 11.105, and show that the sum of the squares of the coefficients is 1, as required for normalization.