For the given set of structures the multiplicity of each signal to be identified. Concept Introduction : Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds. Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other. (n+1) where n indicates number of neighboring protons

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Answer 1

Question

Chapter 15.7, Problem 15PTS

(a)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

(b)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

(c)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

(d)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

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Answer 2

Question

Chapter 15.7, Problem 15PTS

(a)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

(b)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

(c)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

(d)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

Expert Solution & Answer

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Answer 3

Question

Chapter 15.7, Problem 15PTS

(a)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

(b)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

(c)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

(d)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

Expert Solution & Answer

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See solution

Answer 4

Question

Chapter 15.7, Problem 15PTS

(a)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

(b)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

(c)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

(d)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

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Answer 5

Chapter 15.7, Problem 15PTS

(a)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

(b)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

(c)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

(d)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

Answer 6

Chapter 15.7, Problem 15PTS

(a)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

Answer 7

Chapter 15.7, Problem 15PTS

(a)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

Answer 8

(b)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

Answer 9

(b)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

Answer 10

(c)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

Answer 11

(c)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

Answer 12

(d)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

Answer 13

(d)

Interpretation Introduction

Interpretation: For the given set of structures the multiplicity of each signal to be identified.

Concept Introduction:

Multiplicity: The number of peaks on the each signal in NMR spectrum is defined as multiplicity; the multiplicity of each signal indicates the neighboring protons. It is generated by coupling of the subjected protons with the neighboring protons (both subjected and neighbor protons are to be chemically not equivalent) separated by either two or three sigma bonds.

Rule: Multiplicity of each signal is calculated using (n+1) rule only when the neighboring protons are chemically equivalent to each other.

(n+1)where n indicates number of neighboring protons

Answer 14

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Answer 15

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Answer 17

Ch. 15.4 - Prob. 1LTS Ch. 15.4 - Prob. 1PTS Ch. 15.4 - Prob. 2PTS Ch. 15.4 - Prob. 3PTS Ch. 15.4 - Prob. 4ATS Ch. 15.4 - Prob. 2LTS Ch. 15.4 - Prob. 5PTS Ch. 15.4 - Prob. 6PTS Ch. 15.4 - Carvone, a natural product isolated from plants,...Ch. 15.5 - Prob. 3LTS

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