Linked from

The 23 pages that link to Nucleophilic acyl substitution, each with the reason it gives.

• Carbonyl groupRelated: Carboxylic acid derivatives undergo substitution because their carbonyl carbon also bears a leaving group.

• EsterRelated: This reaction pattern accounts for many ways esters form and react.

• AmideRelated: Amide formation and cleavage commonly proceed through this reaction pathway.

• SaponificationRelated: Hydroxide attacks each ester carbonyl through this reaction pathway.

• AcetateRelated: Acetate esters can form when a nucleophile displaces a leaving group at an acetyl carbonyl.

• Condensation reactionRelated: Many condensation reactions form bonds by substitution at a carbonyl carbon.

• Acetyl groupRelated: This reaction transfers acetyl groups from activated donors to nucleophiles.

• Carbonyl compoundRelated: Carboxylic acid derivatives favor substitution because their carbonyl carbon bears a leaving group.

• Acetic anhydrideRelated: Nucleophiles attack its carbonyl groups and displace acetate during acetyl transfer.

• Thionyl chlorideRelated: Acyl chloride formation proceeds through substitution at the carboxyl-derived carbon.

• FormamideRelated: This reaction class describes transformations of formamide's carbonyl carbon.

• Haloform reactionRelated: Hydroxide attacks the carbonyl, enabling cleavage of the trihalomethyl group.