Chapter 8: Q62E (page 343)
Identify the different total angular momentum states allowed a 3d electron in a hydrogen atom.
Short Answer
The total angular momentum states will be:
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Chapter 8: Q62E (page 343)
Identify the different total angular momentum states allowed a 3d electron in a hydrogen atom.
The total angular momentum states will be:
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What angles might the intrinsic angular momentum vector make with the z-axis for a deuteron? (See Table 8.1)
The Line: One of the most important windows to the mysteries of the cosmos is the line. With it astronomers map hydrogen throughout the universe. An important trait is that it involves a highly forbidden transition that is, accordingly, quite long-lived. But it is also an excellent example of the coupling of angular momentum. Hydrogen's ground state has no spin-orbit interaction鈥攆orthere is no orbit. However, the proton and electron magnetic moments do interact. Consider the following simple model.
(a) The proton seesitself surrounded by a spherically symmetric cloud of 1s electron, which has an intrinsic magnetic dipole moment/spin that of course, has a direction. For the purpose of investigating its effect the proton, treat this dispersed magnetic moment as behaving effectively like a single loop of current whose radius isthen find the magnetic field at the middle of the loop in terms of e,, , and.
(b) The proton sits right in the middle of the electron's magnetic moment. Like the electron the proton is a spinparticle, with only two possible orientations in a magnetic field. Noting however, that its spin and magnetic moment are parallel rather than opposite, would the interaction energy be lower with the proton's spin aligned or anti-aligned with that of the electron?
(c) For the proton.is 5.6. Obtain a rough value for the energy difference between the two orientations.
(d) What would be the wavelength of a photon that carries away this energy difference?
The radius of cesium is roughly.
(a) From this estimate the effective charge its valence electron orbits
(b) Given the nature of the electron's orbit. is this effective nuclearcharge reasonable?
(c) Compare this effective Zwith that obtained for sodium in Example 8.3. Are the values at odds with the evidence given in Figurethat it takes less energy to remove an electron from cesium than from sodium? Explain.
A hydrogen atom is subjected to a magnetic field Bstrong enough to completely overwhelm the spin-orbit coupling. Into how many levels would the 2p level split, and what would be the spacing between them?
The line in copper is a very common one to use in X-ray crystallography. To produce it, electrons are accelerated through a potential difference and smashed into a copper target. Section 7.8 gives the energies in a hydrogen like atom as . Making the reasonable approximation that an electron in copper orbits the nucleus and half of its fellow electron, being unaffected by the roughly spherical cloud of other electrons around it. Estimate the minimum accelerating potential needed to make a hole in copper'sKshell.
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