2.33. Evaluate (x), (Px), A.x, APx, and Ax Apr for the normalized wave function { (x)=...
Exercise: In this exercise, you will calculate various expectation values for different wave functions corresponding to different potentials. These distributions appear in Table VIII. Table VIII Infinite Square Well 1-D Hydrogen Atom Finite Smooth Well (ground state) (ground state) A Wave Function Un(x) = A sin 4.(x) = A x exp Wo(x) = cosh(kx) SMHB hint 17.17.1 to 17.19.1 18.76, 25.3 U(x) = _ kee? Potential U(X) = 0 ħ2 12 n2 17.27.1 to 17.33.7, 25.3 U. U(x) = -...
Y(x) A -2 +2 х Extra Credit worth 5 pts: The graph above represents a wave function (x) for a particle confined to -2.00 m < x < 2.00 m. What is the normalized wave function w(x) in the region where -2.00 m <x< 2.00 m? (Show ALL work!) 1 2 Ows + 1 4 o x+2 4 0 w x2+2x+4 16 -(x+2)
Problem 5. (20 points) a) Given a periodic wave function of S(x) = ax -1 <x< n that has a period of 27. Determine if f(x) is an even or odd function b) Find Fourier Sine Transform of f(x)=e
• Problem 7. For a wave-function W.(x) = (2/a)" sin(x/a) calculate the average position (<x>). Is the function W.(x) = (2/a) sin(x/a) an eigenfunction of the x operator?
A free electron has a wave function ψ(x)= Asin (5x1010 x) where x is measured in meters. Find the electron's de Broglie wavelength the electron's momentum a. b, 3. When an electron is confined in the semi-infinite square, its wave function will be in the form Asin kx for0<x<L ψ(x)- Ce for x> L having L = 5 nm and k = 1.7 / nm. a. Find the energy of the state. b. Write down the matching conditions that the...
Problem 1. Wave function An electron is described by a wave function: for x < 0 *(z) = { ce Ce-s/1(1 – e-3/4) for x > 0 : where I is a constant length, and C is the normalization constant. 1. Find C. 2. Where an electron is most likely to be found; that is, for what value of x is the prob: bility for finding electron largest? 3. What is the average coordinate 7 of the electron? 4. What...
Consider a particle confined to one dimension and positive r with the wave function 0, z<0 where N is a real normalization constant and o is a real positive constant with units of (length)-1. For the following, express your answers in terms of a: a) Calculate the momentum space wave function. b) Verify that the momentum space wave function is normalized such that (2.4) c) Use the momentum space wave function to calculate the expectation value (p) via (2.5)
3.9. A particle of mass m is confined in the potential well 0 0<x < L oo elsewhere (a) At time t 0, the wave function for the particle is the one given in Problem 3.3. Calculate the probability that a measurement of the energy yields the value En, one of the allowed energies for a particle in the box. What are the numerical values for the probabilities of obtaining the ground-state energy E1 and the first-excited-state energy E2? Note:...
3. A particle of mass m in a one-dimensional box has the following wave function in the region x-0 tox-L: ? (x.r)=?,(x)e-iEy /A +?,(X)--iE//h Here Y,(x) and Y,(x) are the normalized stationary-state wave functions for the n = 1 and n = 3 levels, and E1 and E3 are the energies of these levels. The wave function is zero for x< 0 and forx> L. (a) Find the value of the probability distribution function atx- L/2 as a function of...
7. Show that if the joint probability density function of X and Y is if 0 < x <.. =sin(x + y) f(x, y) = { VI fres 9 Line + »» Hosszž, osys elsewhere, then there exists no linear relation between X and Y.