has value is 3.36 eV.) (c) Predict the radius of the F atom, given that-N and O have atoms? lar momenta? Uround-state configurations that the radii of 0.075 and 0.065 nm. (The actual value for F atoms of gO, 10NE, and 2 Sc would have if the electron is 0.057 nm.) 10.27 the mini- n. For he- 3 . (See Problem 10.20.) 10.34 (a) The electron affinities of Fe and Co are 0.163 and 0.661 eV. Using arguments similar to those outlined in Problem 10.33, predict the electron affini- ty of 2Ni. (The observed value is 1.156 eV.) (b) In the same way, predict the boiling point of Ge, given that the boiling point of 1Si is 3540 K and that of Sn is 2876 K. (The observed value is 3107 K.) (c) Similarly. predict the melting point of Rn, given that those of 36Kr and Xe are 116 K and 161 K. (The observed value is 202 K.) had spin s = 10.28. The degeneracies of the levels in hydrogen are 2,8, 18, 32,. The numbers of electrons in successive energy is a second shells of multielectron atoms are 2,8,8, 18, 18, 32,. Given the groupings of levels into shells shown in n energy gy of he- Wo sepa- Fig. 10.9, explain the similarities and differences be- tween these two sets of numbers. SECTION 10.8 (The Periodic Table) 10.29 Use the periodic table inside the back cover to write energy 1 energy pproxi- rostatic his ap- ately as ergy is O Your ng that e you he re- rough magine radius ce ion 10.35 The simple estimation of atomic properties as di scribed in Problems 10.33 and 10.34 does not alwa work very well. Here is a well-known example wh it is fairly unsuccessful: The electron affinities of and 35B1 are 3.62 and 3.36 eV. Assuming that elec affinity varies linearly within the groups of the odic table, what would you predict for the ele affinity of gF? The observed value is 3.40 eV. down the full electron configurations of 3Li, 10NE, 12Mg, 19K, 28NI, and 48C.. [Hint: That periodic table gives the configuration of the outer-shell electrons only; to find the full configuration, you must add the configuration of the preceding closed-shell element. For example, for 12Mg, add the configuration of 10N..] 10.30 Use the periodic table inside the back cover to find the full configurations of the following atoms: iron, silver, iodine, polonium. (See the hint for Problem 10.29, and use the alphabetical list in Appendix C if0.36 The ground-state configuration of the lithiu necessary.) SECTION 10.9 (Excited States of Atoms") is 1s-2s. Give the configurations of the lowest cited levels. (See Fig. 10.16, and ignore fine st 10.37 Give the configurations of the lowest fo of a sodium atom. (See Fig. 10.15, and ig 10.31• Use the periodic table inside the back cover to find d full electron configu-

icon
Related questions
Question

How do I get the full configurations for Problem 10.29? 

has
value is 3.36 eV.) (c) Predict
the radius of the F atom, given that-N and O have
atoms?
lar momenta?
Uround-state configurations that the
radii of 0.075 and 0.065 nm. (The actual value for F
atoms of gO, 10NE, and 2 Sc would have if the electron
is 0.057 nm.)
10.27
the mini-
n. For he-
3
. (See Problem 10.20.)
10.34 (a) The electron affinities of Fe and Co are
0.163 and 0.661 eV. Using arguments similar to those
outlined in Problem 10.33, predict the electron affini-
ty of 2Ni. (The observed value is 1.156 eV.) (b) In the
same way, predict the boiling point of Ge, given that
the boiling point of 1Si is 3540 K and that of Sn is
2876 K. (The observed value is 3107 K.) (c) Similarly.
predict the melting point of Rn, given that those of
36Kr and Xe are 116 K and 161 K. (The observed
value is 202 K.)
had spin s =
10.28.
The degeneracies of the levels in hydrogen are 2,8,
18, 32,. The numbers of electrons in successive
energy is
a second
shells of multielectron atoms are 2,8,8, 18, 18, 32,.
Given the groupings of levels into shells shown in
n energy
gy of he-
Wo sepa-
Fig. 10.9, explain the similarities and differences be-
tween these two sets of numbers.
SECTION 10.8 (The Periodic Table)
10.29 Use the periodic table inside the back cover to write
energy
1 energy
pproxi-
rostatic
his ap-
ately as
ergy is
O Your
ng that
e you
he re-
rough
magine
radius
ce ion
10.35 The simple estimation of atomic properties as di
scribed in Problems 10.33 and 10.34 does not alwa
work very well. Here is a well-known example wh
it is fairly unsuccessful: The electron affinities of
and 35B1 are 3.62 and 3.36 eV. Assuming that elec
affinity varies linearly within the groups of the
odic table, what would you predict for the ele
affinity of gF? The observed value is 3.40 eV.
down the full electron configurations of 3Li, 10NE,
12Mg, 19K, 28NI, and 48C.. [Hint: That periodic table
gives the configuration of the outer-shell electrons
only; to find the full configuration, you must add the
configuration of the preceding closed-shell element.
For example, for 12Mg, add the configuration of 10N..]
10.30 Use the periodic table inside the back cover to find
the full configurations of the following atoms: iron,
silver, iodine, polonium. (See the hint for Problem
10.29, and use the alphabetical list in Appendix C if0.36 The ground-state configuration of the lithiu
necessary.)
SECTION 10.9 (Excited States of Atoms")
is 1s-2s. Give the configurations of the lowest
cited levels. (See Fig. 10.16, and ignore fine st
10.37 Give the configurations of the lowest fo
of a sodium atom. (See Fig. 10.15, and ig
10.31• Use the periodic table inside the back cover to find
d full electron configu-
Transcribed Image Text:has value is 3.36 eV.) (c) Predict the radius of the F atom, given that-N and O have atoms? lar momenta? Uround-state configurations that the radii of 0.075 and 0.065 nm. (The actual value for F atoms of gO, 10NE, and 2 Sc would have if the electron is 0.057 nm.) 10.27 the mini- n. For he- 3 . (See Problem 10.20.) 10.34 (a) The electron affinities of Fe and Co are 0.163 and 0.661 eV. Using arguments similar to those outlined in Problem 10.33, predict the electron affini- ty of 2Ni. (The observed value is 1.156 eV.) (b) In the same way, predict the boiling point of Ge, given that the boiling point of 1Si is 3540 K and that of Sn is 2876 K. (The observed value is 3107 K.) (c) Similarly. predict the melting point of Rn, given that those of 36Kr and Xe are 116 K and 161 K. (The observed value is 202 K.) had spin s = 10.28. The degeneracies of the levels in hydrogen are 2,8, 18, 32,. The numbers of electrons in successive energy is a second shells of multielectron atoms are 2,8,8, 18, 18, 32,. Given the groupings of levels into shells shown in n energy gy of he- Wo sepa- Fig. 10.9, explain the similarities and differences be- tween these two sets of numbers. SECTION 10.8 (The Periodic Table) 10.29 Use the periodic table inside the back cover to write energy 1 energy pproxi- rostatic his ap- ately as ergy is O Your ng that e you he re- rough magine radius ce ion 10.35 The simple estimation of atomic properties as di scribed in Problems 10.33 and 10.34 does not alwa work very well. Here is a well-known example wh it is fairly unsuccessful: The electron affinities of and 35B1 are 3.62 and 3.36 eV. Assuming that elec affinity varies linearly within the groups of the odic table, what would you predict for the ele affinity of gF? The observed value is 3.40 eV. down the full electron configurations of 3Li, 10NE, 12Mg, 19K, 28NI, and 48C.. [Hint: That periodic table gives the configuration of the outer-shell electrons only; to find the full configuration, you must add the configuration of the preceding closed-shell element. For example, for 12Mg, add the configuration of 10N..] 10.30 Use the periodic table inside the back cover to find the full configurations of the following atoms: iron, silver, iodine, polonium. (See the hint for Problem 10.29, and use the alphabetical list in Appendix C if0.36 The ground-state configuration of the lithiu necessary.) SECTION 10.9 (Excited States of Atoms") is 1s-2s. Give the configurations of the lowest cited levels. (See Fig. 10.16, and ignore fine st 10.37 Give the configurations of the lowest fo of a sodium atom. (See Fig. 10.15, and ig 10.31• Use the periodic table inside the back cover to find d full electron configu-
Expert Solution
trending now

Trending now

This is a popular solution!

steps

Step by step

Solved in 6 steps with 6 images

Blurred answer