Chapter 39: Q51P (page 1217)
What is the probability that in the ground state of hydrogen atom , the electron will be found at a radius greater than the Bohr radius?
Short Answer
The probability is P = 68% .
Chapter 39: Q51P (page 1217)
What is the probability that in the ground state of hydrogen atom , the electron will be found at a radius greater than the Bohr radius?
The probability is P = 68% .
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Get started for freeAn electron (mass m) is contained in a rectangular corral of widths and . (a) How many different frequencies of light could the electron emit or absorb if it makes a transition between a pair of the lowest five energy levels? What multiple of gives the (b) lowest, (c) second lowest, (d) third lowest, (e) highest, (f) second highest, and (g) third highest frequency?
(a) Show that for the region x>L in the finite potential well of Fig. 39-7, is a solution of Schrödinger’s equation in its one-dimensional form, where D is a constant and k is positive. (b) On what basis do we find this mathematically acceptable solution to be physically unacceptable?
An electron, trapped in a finite potential energy well such as that of Fig. 39-7, is in its state of lowest energy. Are (a) its de-Broglie wavelength, (b) the magnitude of its momentum, and (c) its energy greater than, the same as, or less than they would be if the potential well were infinite, as in Fig. 39-2?
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.
The wave functions for the three states with the dot plots shown in Fig. 39-23, which have n = 2 , l = 1 , and 0, and , are
in which the subscripts on give the values of the quantum numbers n , l , and the angles and are defined in Fig. 39-22. Note that the first wave function is real but the others, which involve the imaginary number i, are complex. Find the radial probability density P(r) for (a) and (b) (same as for ). (c) Show that each P(r) is consistent with the corresponding dot plot in Fig. 39-23. (d) Add the radial probability densities for , , and and then show that the sum is spherically symmetric, depending only on r.
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