Concept explainers
(a)
Interpretation: The products formed by the treatment of D-altrose with
Concept introduction: The
Answer to Problem 28.51P
The products formed by the treatment of D-altrose with
Explanation of Solution
The
Figure 1
The products formed by the treatment of D-altrose with
(b)
Interpretation: The products formed by the treatment of D-altrose with
Concept introduction: The
Answer to Problem 28.51P
The products formed by the treatment of D-altrose with
Explanation of Solution
The
The products formed by the treatment of D- altrose with
Figure 2
The products formed by the treatment of D-altrose with
(c)
Interpretation: The products formed by the treatment of D-altrose with
Concept introduction: The substitution reaction involves the replacement of one
Answer to Problem 28.51P
The product formed by the treatment of D-altrose with
Explanation of Solution
The product formed by the treatment of D-altrose with
Figure 3
In the given reaction, sodium borohydride is used as a reducing agent. Sodium borohydride is used to for the reduction of carbonyl compounds to alcohols.
The product formed by the treatment of D-altrose with
(d)
Interpretation: The products formed by the treatment of D-altrose with
Concept introduction: The aldehyde group of aldoses oxidizes to carboxyl group on treatment with
Answer to Problem 28.51P
The product formed by the treatment of D-altrose with
Explanation of Solution
The oxidation of aldehyde group of aldoses leads to the formation of aldonic acid, in which the terminal carbon atoms are substituted by carboxyl group and alcoholic group. The product formed by the treatment of D-altrose with
Figure 4
The product formed by the treatment of D-altrose with
(e)
Interpretation: The products formed by the treatment of D-altrose with
Concept introduction: The aldehyde group and primary alcohol of aldoses oxidizes to carboxyl groups on treatment with warm
Answer to Problem 28.51P
The product formed by the treatment of D-altrose with
Explanation of Solution
The oxidation of aldehyde group and primary alcohol of aldoses leads to the formation of aldaric acid, in which the terminal carbon atoms are substituted by carboxyl groups. The product formed by the treatment of D-altrose with
Figure 5
The product formed by the treatment of D-altrose with
(f)
Interpretation: The products formed by the treatment of D-altrose with [1]
Concept introduction: The
Answer to Problem 28.51P
The product formed by the treatment of D-altrose with [1]
Explanation of Solution
The reaction of D-altrose with hydroxylamine results in the formation of oxime. The second step is the dehydration of oxime to nitriles. The reaction of nitrile with
The product formed by the treatment of D-altrose with [1]
Figure 6
The product formed by the treatment of D-altrose with [1]
(g)
Interpretation: The products formed by the treatment of D-altrose with [1]
Concept introduction: The
Answer to Problem 28.51P
The products formed by the treatment of D-altrose with [1]
Explanation of Solution
The products formed by the treatment of D-altrose with [1]
Figure 7
The products formed by the treatment of D-altrose with [1]
(h)
Interpretation: The products formed by the treatment of D-altrose with
Concept introduction: The
Answer to Problem 28.51P
The products formed by the treatment of D-altrose with
Explanation of Solution
The
Figure 8
The products formed by the treatment of D-altrose with
(i)
Interpretation: The products formed by the treatment of D-altrose with
Concept introduction: The
Answer to Problem 28.51P
The products formed by the treatment of D-altrose with
Explanation of Solution
The
Figure 9
The products formed by the treatment of D-altrose with
(j)
Interpretation: The products formed by the treatment of D-altrose with
Concept introduction: The
Answer to Problem 28.51P
The products formed by the treatment of D-altrose with
Explanation of Solution
The
Figure 10
The products formed by the treatment of D-altrose with
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Chapter 28 Solutions
Organic Chemistry
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