A free electron has a wave function ψ(x)= Asin (5x1010 x) where x is measured in...
A free proton has a wave function Psi (x) = A sin (kx), where k = 1.2 times 10^10 m^-1 What is the proton's lambda? What is the proton's momentum? What is the proton's speed? Normalize Psi (x) if the wave only exists inside an infinite square well with width a = 2.1 m, (so that Psi (x) = A sin (kx) between 0 < x < a and Psi (x) = 0 otherwise).
Dont do Part A. A localized electron at rest has a wave function ψ(x)=A exp( a22.2) with a=0.5/nm. (a) Use the results from class to quote it's space and momentum uncertainty (b) Use the static Schrödinger equation to calculate the pertinent potential, U(x).
Please include explanations I. The graph shows the wave function ψ(x) of a particle between x =0 nm and x-2.0 nm. The cvx 0to 2.0 nm probability is zero outside of this region. In other words,p(x) - a) Find c, as defined by the figure. P(x) b) What is the probability of finding a particle between 1.0 nm and 2.0 nm? c) What is the smallest range of velocities you could find for an electron confined to this distance of...
3. An atom is in a time-independent one-dimensional potential well. The system's spatial wave function is ψ(x)-Asin(2mz/L) for 0 < x < L and zero for all other z. What is the average of the position operator? For which o is the probability that the atom is located in the interval [xo 0.01L, o 0.01L] largest? 3. An atom is in a time-independent one-dimensional potential well. The system's spatial wave function is ψ(x)-Asin(2mz/L) for 0
5. A free electron has a wave function ?(?) = ????(2.0 × 1010?) Find the electron’s (a) wavelength (b) momentum (c) speed (d) kinetic energy 6. An electron with energy 8.0 eV is incident on a potential barrier which is 9.2 eV high and 0.25 nm wide. (a) What is the probability that the electron will pass through the barrier? (b) What is the probability that electron will be deflected?
Suppose at a certain time to the wave function is, Ψ(x,6) N for all x between the values ofx = 1 cm and x = 2 cm. For all values ofx outside the interval [12] the wave function is zero. a) Normalize the wave function. (Solve for N). Pay attention to units! b) Sketch the probability density V(x,/,)(x, as a function of x c) What is the probability of finding the electron between 1.5 cm and 2.0 cm? d) What...
22. (20 points) The wave function of an electron that is confined to the sam (x) = be-\x[/2 nm a. (5 points) Qualitatively sketch the wave function as a function of po the value b on the plot. unction as a function of position and mark the location of b. (10 points) Find the value of b. c. (5 points) What is the probability of finding the electron in a 0.010 nm-wide region centered at 1.0 nm?
A free particle moving in one dimension has wave function Ψ(x,t)=A[ei(kx−ωt)−ei(2kx−4ωt)] where k and ω are positive real constants. At t = π/(6ω) what are the two smallest positive values of x for which the probability function |Ψ(x,t)|2 is a maximum? Express your answer in terms of k.
10. Consider the wavefunction Be-ibx for a free electron, of mass 9.1 x 10-31 kg, whose de Broglie wavelength is 1 nm (where B and b are positive real constants). a) What is the momentum of the electron? b) What is the value of b? c) What is the value of (Kx)?
check whether the function E(x,t)= Asin(kx^2-wt^2) satisfies the wave equation. if so, find the wave speed. if not explain