Chapter 35: Problem 3
Bohr's correspondence principle states that quantum and classical mechanics must agree in a certain limit. Give an example.
Chapter 35: Problem 3
Bohr's correspondence principle states that quantum and classical mechanics must agree in a certain limit. Give an example.
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Get started for freeA particle is in the ground state of an infinite square well. What's the probability of finding the particle in the left-hand third of the well?
A particle of mass \(m\) is in a region where its total energy \(E\) is less than its potential energy \(U .\) Show that the Schrodinger equation has nonzero solutions of the form \(A e^{\pm \sqrt{2 m}(U-E)^{\prime \prime} / 4} .\) Such solutions describe the wave function in quantum tunneling, beyond the turning points in a quantum harmonic oscillator, or beyond the well edges in a finite potential well.
If the dot behaves as a perfectly cubical 3 -D square well, the first excited state is a. non degenerate. b. twofold degenerate. c. threefold degenerate. d. You can't tell without knowing the energy.
Suppose \(\psi_{1}\) and \(\psi_{2}\) are solutions of the Schrodinger equation for the same energy \(E .\) Show that the linear combination \(a \psi_{1}+b \psi_{2}\) is also a solution, where \(a\) and \(b\) are arbitrary constants.
An electron drops from the \(n=7\) to the \(n=6\) level of an infinite square well 1.5 nm wide. Find (a) the energy and (b) the wavelength of the photon emitted.
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