Chapter 40: Q. 15 (page 1175)
Sketch the n=1 and n=7 wave functions for the potential energy shown in FIGURE EX40.15

Short Answer
The sketch

Chapter 40: Q. 15 (page 1175)
Sketch the n=1 and n=7 wave functions for the potential energy shown in FIGURE EX40.15

The sketch

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An electron confined in a harmonic potential well emits a 1200nm photon as it undergoes a quantum jump. What is the spring constant of the potential well?
A diameter water droplet is moving with a speed of in a long box.
a. Estimate the particle’s quantum number.
b. Use the correspondence principle to determine whether quantum mechanics is needed to understand the particle’s motion or if it is “safe” to use classical physics.
An electron in a finite potential well has a penetration distance into the classically forbidden region. How far below is the electron’s energy?
An electron is confined in a harmonic potential well that has a spring constant of 2.0 N/m. a. What are the first three energy levels of the electron? b. What wavelength photon is emitted if the electron undergoes a 3 S 1 quantum jump?
a. Determine the normalization constant for the ground-state wave function of the quantum harmonic oscillator. Your answer will be in terms of b.
b. Write an expression for the probability that a quantum harmonic oscillator in its ground state will be found in the classically forbidden region.
c. (Optional) Use a numerical integration program to evaluate your probability expression of part b.
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