1. A particle satisfying the time-independent
Schrodinger equation must have
a) an eigenfunction that is normalized.
b) a potential energy that is independent of location.
c) a de Broglie wavelength that is independent of location
d) a total energy that is independent of location.
Correct answer is C but I need detailed explanation
also explain each point why they are false
Consider a stationary solution of the Schrodinger Equation with
positive energy E for a particle with mass m in the following
one-dimensional potential: V (x) = 0 for |x| > a and V (x) = −V0
for |x| ≤ a with V0 > 0. (a) Calculate the transmission and
reflection probabilities. (b) Show that the transmission
probability is unity for some values of the energy.
Suppose a solution to the time independent Schrodinger equation
is multiplied by exp(-iEt/h-bar), thus making it a solution to the
time dependent Schrodinger equation. Will the product still be a
solution to the time independent equation?
1. Write the Schrodinger equation for particle on a ring, and
rearrange it until you have the following: ? 2? ??2 = − 2?? ℏ 2 ?
…
a) Assuming that ?? 2 = 2?? ℏ 2 , (where ml is a quantum number
and has nothing to do with mass), show that the following is a
solution for the Schrodinger equation you obtained: ?(?) = ? ?
????…
b)Now think about bounds of variable ?. Using that argue that...
Calculation of half-life for alpha emission using
time-independent
Schrodinger Equation using the following following
information:
Radionuclide: 241-Am (Z=95); Ea = 5.49 MeV; Measured
Half-Life~432y
Follow the steps involved and show your work for each subset
question, not the
final answer:
(a) Evaluate the well radius [=separation distance (r) between the
center of
the alpha particle as it abuts the recoil nucleus];
(b) Evaluate the coulomb barrier potential energy (U) for the
well;
(c) Estimate the separation distance (r*) from the...
Find an expression for the Hamiltonian, the Green's Function in
Electrodynamics and the time independent Schrodinger Equation.
Derive a force equation from each one
1)
a) Establish schrodinger equation,for a linear harmonic
oscillator and solve it to obtain its eigen values and eigen
functions.
b) calculate the probability of finding a simple harmonic
oscillator within the classical limits if the oscillator in its
normal state.
(a) The one-dimensional time-independent Schrodinger equation
is
-(h-bar2/2m)(d2?(x)/dx2) +
U(x)?(x) = E?(x)
Give the meanings of the symbols in this equation.
(b) A particle of mass m is contained in a one-dimensional box of
width a. The potential energy U(x) is infinite at the walls of the
box (x = 0 and x = a) and zero in between (0 < x < a). Solve
the Schrodinger equation for this particle and hence show that the
normalized solutions have the...