Method A: Based on the frequency of a simple harmonic
oscillator.
The angular frequency of a mass on a spring is given by
ω=(k/m)1/2ω=(k/m)1/2 where m is the mass and k is the spring
constant. The period of a harmonic oscillator is
T=2π/ωT=2π/ω .
If you do a little math, you can get a formula for the spring
constant in terms of the mass and the period.
a) Design a procedure to measure the spring constant based on
Method A...
For the ground state of the Harmonic Oscillator and 2D Rigid Rotor
A. Give the time dependent wave function
B. Determine <x> and <p> for both the Harmonic
Oscillator and 2D Rigid Rotor
As in the figure below, a simple harmonic oscillator is attached
to a rope of linear mass density 5.4 ✕ 10−2 kg/m,
creating a standing transverse wave. There is a 3.5-kg block
hanging from the other end of the rope over a pulley. The
oscillator has an angular frequency of 44.1 rad/s and an amplitude
of 255.0 cm.
(a) What is the distance between adjacent nodes?
m
(b) If the angular frequency of the oscillator doubles, what
happens to the...
Demonstrate that the WKB approximation yields the energy levels
of the linear harmonic oscillator and compute the WKB approximation
for the energy eigenfunctions for the n=0 and n=1 state and compute
with the exact stationary state solutions.
With the sun at the origin, compute the total angular momentum
of the earth, and compare the magnitude of the contributions from
the angular momentum of the center of mass and the angular momentum
about the center of mass. You can make simplifying assumptions,
like that the orbit is circular, that the earth is perfect sphere,
etc.
The deuteron is a bound state of a proton and a
neutron of total angular momentum j = 1. It is known to be
principally an S(ℓ = 0) state with a small admixture of a D(ℓ = 2)
state. Calculate the magnetic moment of the pure d state n-p system
with j = 1. Assume that the n and p spins are to be coupled to make
the total spin s which is then coupled to the orbital angular...
Superposition of N harmonic oscillator waves of equal amplitude
equal angular frequency ω and constant incremental phase difference
φ. And constant spacing d between them. The total length of the
array of the oscillator is L. With L = N*d
The amplitude is: where A0 the amplitude of each wave. A = A0
sin(Nφ /2) / sin(φ /2)
The intensity : I = I0*(sin(Nφ /2) / sin(φ /2))^2
1. show the minimum is at Nd*sin(θ ) = m λ, m...
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.