
(a)
Interpretation:
The product with detailed mechanism for the reaction between methyl cyclohexylmethanoate and
Concept introduction:
The esters in acidic condition undergo hydrolysis and form the corresponding

Answer to Problem 21.53P
The product with detailed mechanism for the reaction between methyl cyclohexylmethanoate and
Explanation of Solution
The equation for the reaction of methyl cyclohexylmethanoate with
The methyl cyclohexylmethanoate is an ester; in an acidic condition, it undergoes hydrolysis to form carboxylic acid and alcohol. The ester is activated by protonation of carbonyl oxygen. The water molecule acts as a nucleophile and attacks the carbonyl carbon of protonated ester and removes methanol as the leaving group. The product with detailed mechanism is as follows:
The product with detailed mechanism for the given reaction is drawn based on the reactivity of ester in an acidic condition.
(b)
Interpretation:
The product with detailed mechanism for the reaction between methyl cyclohexylmethanoate and
Concept introduction:
The ester can be hydrolyzed in basic condition and forms corresponding carboxylic acid and alcohol. As hydrolysis occurs in basic condition, it deprotonates carboxylic acid to carboxylate ion. Thus, to recover, it must then be treated with an acid.

Answer to Problem 21.53P
The product with detailed mechanism for the reaction between methyl cyclohexylmethanoate and
Explanation of Solution
The equation for the reaction of methyl cyclohexylmethanoate with
The methyl cyclohexylmethanoate is an ester; in a basic condition, it undergoes hydrolysis to form carboxylic acid and alcohol. The hydroxide ion acts as a nucleophile and attacks ester carbonyl to form an intermediate having negatively charged oxygen. The intermediate undergoes elimination of methoxide by delocalization of lone pair of negatively charged oxygen and forms carboxylic acid. The carboxylic acid further undergoes deprotonated to carboxylate ion due to basic reaction condition. Therefore, the carboxylic acid is recovered by addition of
The product with detailed mechanism for the given reaction is drawn based on the reactivity of ester in a basic condition.
(c)
Interpretation:
The product with detailed mechanism for the reaction between methyl cyclohexylmethanoate and
Concept introduction:
The alcohols are weak nucleophiles and thus cannot react with an ester under normal condition. Thus, on addition of base, the alcohol is converted to alkoxide ion, which acts as a good nucleophile and undergoes transesterification when reacted with an ester.

Answer to Problem 21.53P
The product with detailed mechanism for the reaction between methyl cyclohexylmethanoate and
Explanation of Solution
The equation for the reaction of methyl cyclohexylmethanoate with
The methyl cyclohexylmethanoate is an ester; on reaction with
The product with detailed mechanism for the given reaction is drawn based on the reactivity of ester with alkoxide ion.
(d)
Interpretation:
The product with detailed mechanism for the reaction between methyl cyclohexylmethanoate and
Concept introduction:
Alcohols are weak nucleophiles and cannot react with an ester under normal condition. Thus, for the reaction to carry out, it can be catalyzed by addition of an acid. The ester, on acid-catalyzed reaction with alcohol, undergoes transesterification, called acid-catalyzed transesterification.

Answer to Problem 21.53P
The product with detailed mechanism for the reaction between methyl cyclohexylmethanoate and
Explanation of Solution
The equation for the reaction of methyl cyclohexylmethanoate with
The methyl cyclohexylmethanoate is an ester; on reaction with
The product with detailed mechanism for the given reaction is drawn based on the reactivity of ester with alcohol in an acidic condition.
(e)
Interpretation:
The product with detailed mechanism for the reaction between methyl cyclohexylmethanoate and
Concept introduction:
The ester, on reaction with an excess of

Answer to Problem 21.53P
The product with detailed mechanism for the reaction between methyl cyclohexylmethanoate and
Explanation of Solution
The equation for the reaction of methyl cyclohexylmethanoate with
The methyl cyclohexylmethanoate is an ester; in an acidic condition, it undergoes aminolysis to form amide and alcohol. The ester is activated by protonation of carbonyl oxygen. The amine molecule acts as a nucleophile and attacks the carbonyl carbon of protonated ester and removes methanol as the leaving group. The product with detailed mechanism is as follows:
The product with detailed mechanism for the given reaction is drawn based on the reactivity of ester with amine in an acidic condition.
(f)
Interpretation:
The product with detailed mechanism for the reaction between methyl cyclohexylmethanoate and
Concept introduction:
The alcohols are weak nucleophiles; in an acidic or basic condition, they undergo transesterification with an ester, but under normal condition, the reaction does not occur.

Answer to Problem 21.53P
No reaction takes place between methyl cyclohexylmethanoate and
Explanation of Solution
The equation for the reaction of methyl cyclohexylmethanoate with
The methyl cyclohexylmethanoate is an ester, and the given reagent
It is determined that there is no reaction between methyl cyclohexylmethanoate and
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Chapter 21 Solutions
EBK ORGANIC CHEMISTRY: PRINCIPLES AND M
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- Rank each of the following substituted benzene molecules in order of which will react fastest (1) to slowest (4) by electrophilic aromatic substitution. OCH 3 (Choose one) OH (Choose one) Br (Choose one) Explanation Check NO2 (Choose one) © 2025 McGraw Hill LLC. All Rights Reserved. Terms of Use | Privacy Center | Aarrow_forwardFor each of the substituted benzene molecules below, determine the inductive and resonance effects the substituent will have on the benzene ring, as well as the overall electron-density of the ring compared to unsubstituted benzene. Molecule Inductive Effects O donating O withdrawing O no inductive effects Resonance Effects Overall Electron-Density ○ donating ○ withdrawing O no resonance effects O electron-rich O electron-deficient O similar to benzene Cl O donating O withdrawing ○ donating ○ withdrawing O no inductive effects O no resonance effects O Explanation Check O electron-rich O electron-deficient similar to benzene X © 2025 McGraw Hill LLC. All Rights Reserved. Terms of Use | Privacy Center | Accessarrow_forwardIdentifying electron-donating and For each of the substituted benzene molecules below, determine the inductive and resonance effects the substituent will have on the benzene ring, as well as the overall electron-density of the ring compared to unsubstituted benzene. Molecule Inductive Effects NH2 ○ donating NO2 Explanation Check withdrawing no inductive effects Resonance Effects Overall Electron-Density ○ donating O withdrawing O no resonance effects O donating O withdrawing O donating withdrawing O no inductive effects Ono resonance effects O electron-rich electron-deficient O similar to benzene O electron-rich O electron-deficient O similar to benzene olo 18 Ar 2025 McGraw Hill LLC. All Rights Reserved. Terms of Use | Privacy Center | Accessibilityarrow_forward
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