A quantum particle of mass m and initially travelling to the +x-direction is incident to the step potential V(x) = - { v ; x ≤0, Vo ; x > 0, where Vo>0. Use the formulas in equation (1) to solve for the following quantities. (b) (b) (c) 1 Solve for the scattering state wave functions for the particle in this potential. For E Vo, solve the reflection coefficient R in terms of E and Vo. Show that for E > Vo, T = E-Vo F E A where A and F are the incident and transmitted amplitudes, respectively. . Using the expression for T in item 2c, solve T for this potential in terms of E (d) and Vo. T = = Jtrans Jinc R = | Jref | Jinc (1)

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equation 1 is given in the first image. please give detailed solutions for b to d, thank you

A quantum particle of mass m and initially travelling to the +x-direction is incident to
the step potential
V(x) =
- { v
; x ≤0,
Vo ; x > 0,
where Vo>0. Use the formulas in equation (1) to solve for the following quantities.
(b)
(b)
(c)
1
Solve for the scattering state wave functions for the particle in this potential.
For E Vo, solve the reflection coefficient R in terms of E and Vo.
Show that for E > Vo,
T =
E-Vo F
E A
where A and F are the incident and transmitted amplitudes, respectively. .
Using the expression for T in item 2c, solve T for this potential in terms of E
(d)
and Vo.
Transcribed Image Text:A quantum particle of mass m and initially travelling to the +x-direction is incident to the step potential V(x) = - { v ; x ≤0, Vo ; x > 0, where Vo>0. Use the formulas in equation (1) to solve for the following quantities. (b) (b) (c) 1 Solve for the scattering state wave functions for the particle in this potential. For E Vo, solve the reflection coefficient R in terms of E and Vo. Show that for E > Vo, T = E-Vo F E A where A and F are the incident and transmitted amplitudes, respectively. . Using the expression for T in item 2c, solve T for this potential in terms of E (d) and Vo.
T =
=
Jtrans
Jinc
R
=
| Jref |
Jinc
(1)
Transcribed Image Text:T = = Jtrans Jinc R = | Jref | Jinc (1)
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