Chapter 40: Q. 14 (page 1175)
Sketch the wave function for the potential energy shown in FIGURE EX40.14.
Short Answer
The shape of the n=8 wave function for the potential energy,
Chapter 40: Q. 14 (page 1175)
Sketch the wave function for the potential energy shown in FIGURE EX40.14.
The shape of the n=8 wave function for the potential energy,
All the tools & learning materials you need for study success - in one app.
Get started for freeVerify that the n=1 wave function of the quantum harmonic oscillator really is a solution of the Schrödinger equation. That is, show that the right and left sides of the Schrödinger equation are equal if you use the wave function.
What is the probability that an electron will tunnel through a gap from a metal to a STM probe if the work function is ?
Model an atom as an electron in a rigid box of length , roughly twice the Bohr radius.
a. What are the four lowest energy levels of the electron?
b. Calculate all the wavelengths that would be seen in the emission spectrum of this atom due to quantum jumps between these four energy levels. Give each wavelength a label to indicate the transition.
c. Are these wavelengths in the infrared, visible, or ultraviolet portion of the spectrum?
d. The stationary states of the Bohr hydrogen atom have negative energies. The stationary states of this model of the atom have positive energies. Is this a physically significant difference? Explain.
e. Compare this model of an atom to the Bohr hydrogen atom. In what ways are the two models similar? Other than the signs of the energy levels, in what ways are they different?
| FIGURE EX shows the wave function of an electron in a rigid box. The electron energy islocalid="1650137157775" . What is the energy, in localid="1650137162096" , of the next higher state?
| FIGURE EX shows the wave function of an electron in a rigid box. The electron energy is. How long is the box?
What do you think about this solution?
We value your feedback to improve our textbook solutions.