Start from the 1" order Born approximation result given in Eq. (6.72 or 6.3.3), and showing all work - even integral eva
Posted: Wed May 18, 2022 4:36 pm
Here are the necessary equations to answer question a)
above:
Start from the 1" order Born approximation result given in Eq. (6.72 or 6.3.3), and showing all work - even integral evaluations, etc: a) Derive, in all details, the expression for scattering amplitude for a general spherically symmetric potential V(r'). This means to derive Eq. (6.74 or 6.3.5).
Taking the first term in the expansion, i.e. T=V or, equivalently, y(+)) = |k), is called the first-order Born approximation. In this case, the scattering amplitude is denoted by f(1), where m f(1)(k',k) = 21 | *xe)) (6.72)
We can perform the angular integration in (6.72) explicitly to obtain 2m 1 f)(0) h 2m 1 h2 9 Jo 2 Sea V(r)(efter – e-ter) der on tºrv(r) sin grdr. (6.74)
above:
Start from the 1" order Born approximation result given in Eq. (6.72 or 6.3.3), and showing all work - even integral evaluations, etc: a) Derive, in all details, the expression for scattering amplitude for a general spherically symmetric potential V(r'). This means to derive Eq. (6.74 or 6.3.5).
Taking the first term in the expansion, i.e. T=V or, equivalently, y(+)) = |k), is called the first-order Born approximation. In this case, the scattering amplitude is denoted by f(1), where m f(1)(k',k) = 21 | *xe)) (6.72)
We can perform the angular integration in (6.72) explicitly to obtain 2m 1 f)(0) h 2m 1 h2 9 Jo 2 Sea V(r)(efter – e-ter) der on tºrv(r) sin grdr. (6.74)