A particle of mass m is in a one-dimensional infinite square well potential of length a given by a) = { (0SIS4) V (r) = 00, elsewhere The particle is in a state such that a measurement of the energy yields either E 25% of the time E2 75% of the time. Here, En = an? are the energy eigenvalues of the particle in the well. 2ma? (a) Write down the normalized time-dependent wave function of the particle. (b) Find the time dependence of the expectation value of the position of the momentum of the particle Zp(t)). Is it constant in time? (c) Evaluate the probability density p(x, t) = |v(x, t)|². Is it time-independent?

icon
Related questions
Question
3. Please answer question throughly and detailed.
A particle of mass m is in a one-dimensional infinite square well potential of length a given by
V(2) = { .
0,
(0 <x < a)
elsewhere
o,
The particle is in a state such that a measurement of the energy yields either E, 25% of the time E2 75% of the time.
Here, E, =
are the energy eigenvalues of the particle in the well.
2mgzn2
(a) Write down the normalized time-dependent wave function of the particle.
(b) Find the time dependence of the expectation value of the position of the momentum of the particle Zp(t)). Is it
constant in time?
(c) Evaluate the probability density p(x, t) = |v(x, t)|². Is it time-independent?
Transcribed Image Text:A particle of mass m is in a one-dimensional infinite square well potential of length a given by V(2) = { . 0, (0 <x < a) elsewhere o, The particle is in a state such that a measurement of the energy yields either E, 25% of the time E2 75% of the time. Here, E, = are the energy eigenvalues of the particle in the well. 2mgzn2 (a) Write down the normalized time-dependent wave function of the particle. (b) Find the time dependence of the expectation value of the position of the momentum of the particle Zp(t)). Is it constant in time? (c) Evaluate the probability density p(x, t) = |v(x, t)|². Is it time-independent?
Expert Solution
trending now

Trending now

This is a popular solution!

steps

Step by step

Solved in 2 steps with 3 images

Blurred answer