10. The table given to the right below contains the binding energies (for one electron) for various unknown metals. A photon stream with energy = 385.89 kJ/mol is shot at individual samples of these metals. Which metals do you expect to produce free electrons? Remember, 1 eV = 1.602 × 10-19 J. the ground motoris bom Atom G X Z B.E. (eV/electron) 3.88 8.27 2.76 state abse to booge urb

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10. The table given to the right below contains the binding energies (for one electron) for various
unknown metals. A photon stream with energy = 385.89 kJ/mol is shot at individual samples of
these metals. Which metals do you expect to produce free electrons? Remember, 1 eV = 1.602
× 10-¹⁹ J.
notong s bru
Atom
G
XN
B.E. (eV/electron)
3.88
8.27
2.76
slavn
ated state aus
as to booge srit
lo
10 228m
1108
11. Let's assume the Rydberg constant for atom X is 3.3 × 10-¹8 J. Calculate the relaxation
wavelengths, in nm, from n = 2, 3, 4, and 5 levels to the ground state. What are you noticing
about these wavelengths as you use a higher excited state (initial n value)? Hint: for calculations
of the wavelength you are allowed to use the absolute value for the energy difference.
iso
Transcribed Image Text:10. The table given to the right below contains the binding energies (for one electron) for various unknown metals. A photon stream with energy = 385.89 kJ/mol is shot at individual samples of these metals. Which metals do you expect to produce free electrons? Remember, 1 eV = 1.602 × 10-¹⁹ J. notong s bru Atom G XN B.E. (eV/electron) 3.88 8.27 2.76 slavn ated state aus as to booge srit lo 10 228m 1108 11. Let's assume the Rydberg constant for atom X is 3.3 × 10-¹8 J. Calculate the relaxation wavelengths, in nm, from n = 2, 3, 4, and 5 levels to the ground state. What are you noticing about these wavelengths as you use a higher excited state (initial n value)? Hint: for calculations of the wavelength you are allowed to use the absolute value for the energy difference. iso
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