2. Consider the plane wave function of a free particle of mass m and characterized by positive constant ko y(x, t)= exp [ i ko x-ih² ko²t/2m] (a) Find its momentum space wave function (Fourier transform) (k, t) in terms of a delta function. + ∞0 { 2 nd(a) = exp [ia b] db } - 00 (b) Find the probability current J(x, t) = (i ħ/2m) [y (@y*/əx) − y*(@y/dx)], simplifying the

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2. Consider the plane wave function of a free particle of mass m and characterized by positive
constant ko
y(x, t) = exp[i kox-ih² ko²t/2m]
(a) Find its momentum space wave function (Fourier transform) Þ(k, t) in terms of a delta
function.
+ ∞
{ 2π 8(a) = exp[ia b] db }
- 00
(b) Find the probability current J(x, t) = (i ħ / 2m) [ y (@y*/@x) — ¥*(@y/@x) ], simplifying the
expression as much as possible.
D
(c) If the particle entered a region with constant potential Vo> ko2/2m, what would its
wave function in this region become?
Transcribed Image Text:2. Consider the plane wave function of a free particle of mass m and characterized by positive constant ko y(x, t) = exp[i kox-ih² ko²t/2m] (a) Find its momentum space wave function (Fourier transform) Þ(k, t) in terms of a delta function. + ∞ { 2π 8(a) = exp[ia b] db } - 00 (b) Find the probability current J(x, t) = (i ħ / 2m) [ y (@y*/@x) — ¥*(@y/@x) ], simplifying the expression as much as possible. D (c) If the particle entered a region with constant potential Vo> ko2/2m, what would its wave function in this region become?
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