(a)
Interpretation:
The type of intermolecular forces present in liquid state of xenon molecule must be explained.
Concept Introduction:
Various intermolecular forces are dipole-dipole interaction, ion-dipole interaction, induced dipole −induced dipole interaction.
Dipole-dipole interaction is present in molecules with permanent dipole moment. Positive pole of one dipole interacts with negative pole of another dipole.
In ion dipole interaction one dipole interact with another ion. Out of the two different poles one with opposite charge with respect to the ion interacts.
In non polar molecule induced dipole-induced dipole interaction is present. In this case one dipole is created which induces dipole in nearby non polar molecules.
(b)
Interpretation:
The type of intermolecular forces present in liquid state of ammonia molecule must be explained.
Concept Introduction:
Various intermolecular forces are dipole-dipole interaction, ion-dipole interaction, induced dipole −induced dipole interaction.
Dipole-dipole interaction is present in molecules with permanent dipole moment. Positive pole of one dipole interacts with negative pole of another dipole.
In ion dipole interaction one dipole interact with another ion. Out of the two different poles one with opposite charge with respect to the ion interacts.
In non-polar molecule induced dipole-induced dipole interaction is present. In this case one dipole is created which induces dipole in nearby non-polar molecules.
(c)
Interpretation:
The type of intermolecular forces are present in liquid state of fluorine molecule must be explained.
Concept Introduction:
Various intermolecular forces are dipole-dipole interaction, ion-dipole interaction, induced dipole −induced dipole interaction.
Dipole-dipole interaction is present in molecules with permanent dipole moment. Positive pole of one dipole interacts with negative pole of another dipole.
In ion dipole interaction one dipole interact with another ion. Out of the two different poles one with opposite charge with respect to the ion interacts.
In non-polar molecule induced dipole-induced dipole interaction is present. In this case one dipole is created which induces dipole in nearby non-polar molecules.
(d)
Interpretation:
The type of intermolecular forces are present in liquid state of Iodine monochloride molecule must be explained.
Concept Introduction:
Various intermolecular forces are dipole-dipole interaction, ion-dipole interaction, induced dipole −induced dipole interaction.
Dipole-dipole interaction is present in molecules with permanent dipole moment. Positive pole of one dipole interacts with negative pole of another dipole.
In ion dipole interaction one dipole interact with another ion. Out of the two different poles one with opposite charge with respect to the ion interacts.
In non-polar molecule induced dipole-induced dipole interaction is present. In this case one dipole is created which induces dipole in nearby non-polar molecules.
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Chapter 14 Solutions
Introductory Chemistry: A Foundation
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- Referring to Figure 9.7, state what phase(s) is (are) present at (a) 1 atm, 10C. (b) 3 mm Hg, 20C. (c) 1000 mm Hg, 75C.arrow_forwardConsider the following data for xenon: Triple point: 121C, 280 torr Normal melting point: 112C Normal boiling point: 107C Which is more dense, Xe(s) or Xe(l)? How do the melting point and boiling point of xenon depend on pressure?arrow_forwardThe following data are given for CC14: normalmeltingpoint=23Cnormalboilingpoint=77Cdensityofliquid=1.59g/mLvaporpressureat25C=110mmHg How much heat is required to vaporize 20.0 L of CCl4 at its normal boiling point?arrow_forward
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