Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn. Concept Introduction: A carbon atom that is bonded to four different groups is known as a chiral carbon atom. This can rotate the plane polarized light. D- and L- isomers of monosaccharide can be identified by looking into the chiral center that is farther from the carbonyl group. In a Fischer projection, if the OH group is present on the right side in the chiral center that is farthest from the carbonyl group means it is a D monosaccharide and if the OH group is present on the left side means it is a L monosaccharide. Enantiomers are two stereoisomers of a compound that rotate the plane polarized light exactly opposite. The configuration present in the enantiomers will be exactly opposite to each other.

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Answer 1

Question

Chapter 14.2, Problem 14.7P

a.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

A carbon atom that is bonded to four different groups is known as a chiral carbon atom. This can rotate the plane polarized light. D- and L- isomers of monosaccharide can be identified by looking into the chiral center that is farther from the carbonyl group. In a Fischer projection, if the OH group is present on the right side in the chiral center that is farthest from the carbonyl group means it is a D monosaccharide and if the OH group is present on the left side means it is a L monosaccharide.

Enantiomers are two stereoisomers of a compound that rotate the plane polarized light exactly opposite. The configuration present in the enantiomers will be exactly opposite to each other.

b.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

Refer part “a.”.

c.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

Refer part “a.”.

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Answer 2

Question

Chapter 14.2, Problem 14.7P

a.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

A carbon atom that is bonded to four different groups is known as a chiral carbon atom. This can rotate the plane polarized light. D- and L- isomers of monosaccharide can be identified by looking into the chiral center that is farther from the carbonyl group. In a Fischer projection, if the OH group is present on the right side in the chiral center that is farthest from the carbonyl group means it is a D monosaccharide and if the OH group is present on the left side means it is a L monosaccharide.

Enantiomers are two stereoisomers of a compound that rotate the plane polarized light exactly opposite. The configuration present in the enantiomers will be exactly opposite to each other.

b.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

Refer part “a.”.

c.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

Refer part “a.”.

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Answer 3

Question

Chapter 14.2, Problem 14.7P

a.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

A carbon atom that is bonded to four different groups is known as a chiral carbon atom. This can rotate the plane polarized light. D- and L- isomers of monosaccharide can be identified by looking into the chiral center that is farther from the carbonyl group. In a Fischer projection, if the OH group is present on the right side in the chiral center that is farthest from the carbonyl group means it is a D monosaccharide and if the OH group is present on the left side means it is a L monosaccharide.

Enantiomers are two stereoisomers of a compound that rotate the plane polarized light exactly opposite. The configuration present in the enantiomers will be exactly opposite to each other.

b.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

Refer part “a.”.

c.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

Refer part “a.”.

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Answer 4

Question

Chapter 14.2, Problem 14.7P

a.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

A carbon atom that is bonded to four different groups is known as a chiral carbon atom. This can rotate the plane polarized light. D- and L- isomers of monosaccharide can be identified by looking into the chiral center that is farther from the carbonyl group. In a Fischer projection, if the OH group is present on the right side in the chiral center that is farthest from the carbonyl group means it is a D monosaccharide and if the OH group is present on the left side means it is a L monosaccharide.

Enantiomers are two stereoisomers of a compound that rotate the plane polarized light exactly opposite. The configuration present in the enantiomers will be exactly opposite to each other.

b.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

Refer part “a.”.

c.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

Refer part “a.”.

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Answer 5

Chapter 14.2, Problem 14.7P

a.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

A carbon atom that is bonded to four different groups is known as a chiral carbon atom. This can rotate the plane polarized light. D- and L- isomers of monosaccharide can be identified by looking into the chiral center that is farther from the carbonyl group. In a Fischer projection, if the OH group is present on the right side in the chiral center that is farthest from the carbonyl group means it is a D monosaccharide and if the OH group is present on the left side means it is a L monosaccharide.

Enantiomers are two stereoisomers of a compound that rotate the plane polarized light exactly opposite. The configuration present in the enantiomers will be exactly opposite to each other.

b.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

Refer part “a.”.

c.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

Refer part “a.”.

Answer 6

Chapter 14.2, Problem 14.7P

a.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

A carbon atom that is bonded to four different groups is known as a chiral carbon atom. This can rotate the plane polarized light. D- and L- isomers of monosaccharide can be identified by looking into the chiral center that is farther from the carbonyl group. In a Fischer projection, if the OH group is present on the right side in the chiral center that is farthest from the carbonyl group means it is a D monosaccharide and if the OH group is present on the left side means it is a L monosaccharide.

Enantiomers are two stereoisomers of a compound that rotate the plane polarized light exactly opposite. The configuration present in the enantiomers will be exactly opposite to each other.

Answer 7

Chapter 14.2, Problem 14.7P

a.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

A carbon atom that is bonded to four different groups is known as a chiral carbon atom. This can rotate the plane polarized light. D- and L- isomers of monosaccharide can be identified by looking into the chiral center that is farther from the carbonyl group. In a Fischer projection, if the OH group is present on the right side in the chiral center that is farthest from the carbonyl group means it is a D monosaccharide and if the OH group is present on the left side means it is a L monosaccharide.

Enantiomers are two stereoisomers of a compound that rotate the plane polarized light exactly opposite. The configuration present in the enantiomers will be exactly opposite to each other.

Answer 8

b.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

Refer part “a.”.

Answer 9

b.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

Refer part “a.”.

Answer 10

c.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

Refer part “a.”.

Answer 11

c.

Interpretation Introduction

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

Refer part “a.”.

Answer 12

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Answer 13

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Answer 14

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Answer 15

Ch. 14.1 - Draw a Lewis structure for glucose that clearly...Ch. 14.2 - Prob. 14.2P Ch. 14.2 - Prob. 14.3P Ch. 14.2 - Prob. 14.4P Ch. 14.2 - Rank the following compounds in order of...Ch. 14.2 - Prob. 14.6P Ch. 14.2 - Prob. 14.7P Ch. 14.2 - Prob. 14.8P Ch. 14.2 - Prob. 14.9P Ch. 14.3 - Prob. 14.10P

Solution Summary: The author explains that chiral carbon atoms can rotate the plane polarized light. The enantiomer of the monosaccharide has to be drawn.

Concept explainers

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

Refer part “a.”.

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

Refer part “a.”.

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Chapter 14 Solutions

Solution Summary: The author explains that chiral carbon atoms can rotate the plane polarized light. The enantiomer of the monosaccharide has to be drawn.

Concept explainers

Interpretation: Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn. Concept Introduction: Refer part “a.”.

Interpretation: Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn. Concept Introduction: Refer part “a.”.

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Chapter 14 Solutions

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

Refer part “a.”.

Interpretation:

Chiral centers in the given monosaccharide has to be labelled, the monosaccharide has to be classified as D or L and also the enantiomer of the given monosaccharide has to be drawn.

Concept Introduction:

Refer part “a.”.