Chapter 39: Q39P (page 1216)
Verify that Eq. 39-44, the radial probability density for the ground state of the hydrogen atom, is normalized. That is, verify that the following is true:
Short Answer
It is proved that .
Chapter 39: Q39P (page 1216)
Verify that Eq. 39-44, the radial probability density for the ground state of the hydrogen atom, is normalized. That is, verify that the following is true:
It is proved that .
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Get started for freeAn electron is contained in the rectangular box of Fig. 39-14, with widths , , and . What is the electron’s ground-state energy?
(a) What is the separation in energy between the lowest two energy levels for a container 20 cmon a side containing argon atoms? Assume, for simplicity, that the argon atoms are trapped in a one-dimensional well20cmwide. The molar mass of argon is
(b) At 300k, to the nearest power of ten, what is the ratio of the thermal energy of the atoms to this energy separation?
(c) At what temperature does the thermal energy equal the energy separation?
How much work must be done to pull apart the electron and the proton that make up the hydrogen atom if the atom is initially in (a) its ground state and (b) the state with n = 2 ?
An electron is trapped in a one-dimensional infinite potential well. For what (a) higher quantum number and (b) lower quantum number is the corresponding energy difference equal to the energy of the n = 5 level? (c) Show that no pair of adjacent levels has an energy difference equal to the energy of the n = 6 level.
Three electrons are trapped in three different one-dimensional infinite potential wells of widths (a) 50pm (b)200pm, and (c)100pm . Rank the electrons according to their ground-state energies, greatest first.
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