The Cl-P-Cl angles have to be determined in PCl 6 − molecule. Concept introduction: VSEPR theory: Using VSEPR theory, the exact geometry of a molecule can be obtained. In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry. [Bond angles: tetrahedral = 109 .5 o , trigonal planar = 120 o , T-shape = 90 o ] Rules to predict the shapes of molecules by VSEPR model: Write electron-dot structure of the given molecule. Count the number of electron charge clouds surrounding the central atom. Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

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Answer 1

Question

Chapter 5, Problem 5.35SP

(a)

Interpretation Introduction

Interpretation:

The Cl-P-Cl angles have to be determined in PCl6− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

(b)

Interpretation Introduction

Interpretation:

The Cl-I-Cl angle has to be determined in ICl2− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

(c)

Interpretation Introduction

Interpretation:

The O-S-O angle has to be determined in SO42− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

(d)

Interpretation Introduction

Interpretation:

The O-B-O angle has to be determined in BO33− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

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MISSED THIS? Read Section 19.9 (Pages 878-881); Watch IWE 19.10 Consider the following reaction: CH3OH(g) CO(g) + 2H2(g) (Note that AG,CH3OH(g) = -162.3 kJ/mol and AG,co(g)=-137.2 kJ/mol.) Part A Calculate AG for this reaction at 25 °C under the following conditions: PCH₂OH Pco PH2 0.815 atm = 0.140 atm 0.170 atm Express your answer in kilojoules to three significant figures. Ο ΑΣΦ AG = -150 Submit Previous Answers Request Answer □? kJ × Incorrect; Try Again; 2 attempts remaining Calculate the free energy change under nonstandard conditions (AGrxn) by using the following relationship: AGrxn = AGrxn + RTInQ, AGxn+RTInQ, where AGxn is the standard free energy change, R is the ideal gas constant, T is the temperature in kelvins, a is the reaction quotient. Provide Feedback Next >

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Answer 2

Question

Chapter 5, Problem 5.35SP

(a)

Interpretation Introduction

Interpretation:

The Cl-P-Cl angles have to be determined in PCl6− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

(b)

Interpretation Introduction

Interpretation:

The Cl-I-Cl angle has to be determined in ICl2− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

(c)

Interpretation Introduction

Interpretation:

The O-S-O angle has to be determined in SO42− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

(d)

Interpretation Introduction

Interpretation:

The O-B-O angle has to be determined in BO33− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

Expert Solution & Answer

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Answer 3

Question

Chapter 5, Problem 5.35SP

(a)

Interpretation Introduction

Interpretation:

The Cl-P-Cl angles have to be determined in PCl6− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

(b)

Interpretation Introduction

Interpretation:

The Cl-I-Cl angle has to be determined in ICl2− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

(c)

Interpretation Introduction

Interpretation:

The O-S-O angle has to be determined in SO42− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

(d)

Interpretation Introduction

Interpretation:

The O-B-O angle has to be determined in BO33− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

Expert Solution & Answer

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Check out a sample textbook solution

See solution

Answer 4

Question

Chapter 5, Problem 5.35SP

(a)

Interpretation Introduction

Interpretation:

The Cl-P-Cl angles have to be determined in PCl6− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

(b)

Interpretation Introduction

Interpretation:

The Cl-I-Cl angle has to be determined in ICl2− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

(c)

Interpretation Introduction

Interpretation:

The O-S-O angle has to be determined in SO42− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

(d)

Interpretation Introduction

Interpretation:

The O-B-O angle has to be determined in BO33− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

Expert Solution & Answer

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Check out a sample textbook solution

See solution

Answer 5

Chapter 5, Problem 5.35SP

(a)

Interpretation Introduction

Interpretation:

The Cl-P-Cl angles have to be determined in PCl6− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

(b)

Interpretation Introduction

Interpretation:

The Cl-I-Cl angle has to be determined in ICl2− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

(c)

Interpretation Introduction

Interpretation:

The O-S-O angle has to be determined in SO42− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

(d)

Interpretation Introduction

Interpretation:

The O-B-O angle has to be determined in BO33− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

Answer 6

Chapter 5, Problem 5.35SP

(a)

Interpretation Introduction

Interpretation:

The Cl-P-Cl angles have to be determined in PCl6− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

Answer 7

Chapter 5, Problem 5.35SP

(a)

Interpretation Introduction

Interpretation:

The Cl-P-Cl angles have to be determined in PCl6− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

Answer 8

(b)

Interpretation Introduction

Interpretation:

The Cl-I-Cl angle has to be determined in ICl2− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

Answer 9

(b)

Interpretation Introduction

Interpretation:

The Cl-I-Cl angle has to be determined in ICl2− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

Answer 10

(c)

Interpretation Introduction

Interpretation:

The O-S-O angle has to be determined in SO42− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

Answer 11

(c)

Interpretation Introduction

Interpretation:

The O-S-O angle has to be determined in SO42− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

Answer 12

(d)

Interpretation Introduction

Interpretation:

The O-B-O angle has to be determined in BO33− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

Answer 13

(d)

Interpretation Introduction

Interpretation:

The O-B-O angle has to be determined in BO33− molecule.

Concept introduction:

VSEPR theory:

Using VSEPR theory, the exact geometry of a molecule can be obtained.

In VSEPR, the geometry of the molecule is explained based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom

Bond angle is the angle between two bonds of a molecule and it is determined based on the electron-domain geometry.
[Bond angles: tetrahedral = 109.5o, trigonal planar = 120o, T-shape = 90o]

Rules to predict the shapes of molecules by VSEPR model:

Write electron-dot structure of the given molecule.

Count the number of electron charge clouds surrounding the central atom.

Determine the geometric arrangement of charge clouds surround the each atom and assume its charge clouds can be oriented in the space as far away from one to another as possible.

Answer 14

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Answer 15

Expert Solution & Answer

Answer 16

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Answer 17

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Solution Summary: The author explains VSEPR theory, based on minimizing electrostatic repulsion between the molecules’ valence electrons around a central atom.

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