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The 62 pages that link to Carbonyl group, each with the reason it gives.

• Maillard reactionRelated: The carbonyl group in a reducing sugar reacts with amino groups in the early stages.

• Carboxylic acidBroader topic: The carbonyl is one half of the carboxyl group’s defining arrangement.

• EsterificationRelated: The carboxylic acid’s carbonyl carbon is the site where the new ester linkage forms.

• AldehydeNarrower topic: The C=O bond is the shared reactive core of every aldehyde.

• UreaRelated: Its carbonyl group defines the central unit in urea’s structure.

• EsterBroader topic: An ester’s defining carbonyl is part of its characteristic linkage.

• AmideBroader topic: The carbonyl carbon is the defining attachment point in an amide.

• Nucleophilic additionBroader topic: Its polarized C=O bond is the most common substrate for this reaction.

• ElectrophileBroader topic: The polarized carbonyl bond leaves its carbon atom open to nucleophilic attack.

• KetoneNarrower topic: The carbonyl is the defining structural feature of every ketone.

• Nucleophilic acyl substitutionNarrower topic: Its polarized π bond makes nucleophilic attack possible.

• Carboxyl groupBroader topic: The carbonyl is one of the two linked groups that define the carboxyl structure.

• AcetoneBroader topic: Acetone’s central carbonyl group defines its ketone structure and drives much of its reactivity.

• TautomerismRelated: Carbonyl compounds commonly form enol tautomers by moving an adjacent proton.

• AcetaldehydeBroader topic: This group makes acetaldehyde susceptible to nucleophilic addition and oxidation.

• EnolateNarrower topic: Enolates originate from compounds containing this group.

• Sugar alcoholRelated: Reduction of this group converts a sugar into its corresponding sugar alcohol.

• TransesterificationRelated: The ester carbonyl carbon is the reaction site attacked by the incoming alcohol.

• CarboxylateBroader topic: The carbonyl carbon remains part of the carboxylate’s central structure.

• Aldol reactionNarrower topic: Aldol reactions depend on the electrophilic carbonyl carbon and carbonyl-derived nucleophiles.

• EnolNarrower topic: Enols commonly interconvert with compounds containing this group.

• Ester hydrolysisNarrower topic: The electrophilic carbonyl carbon is the site attacked by water or hydroxide.

• Hydration reactionRelated: Water can add to carbonyl compounds to form geminal diols.

• Keto–enol tautomerismNarrower topic: The keto form contains the carbonyl group that participates in tautomerization.

• Acetyl groupRelated: Its polarized C=O bond gives the acetyl carbon its characteristic reactivity.

• Fischer esterificationBroader topic: Protonation makes the carboxylic acid carbonyl more susceptible to alcohol attack.

• QuinoneRelated: Two carbonyl groups are defining structural features of quinones.

• sp² hybridizationBroader topic: The carbonyl carbon is sp²-hybridized, shaping its geometry and electrophilic character.

• Hydride transferRelated: Its polarized bond makes the carbon atom a common target for hydride.

• Wittig reactionNarrower topic: The reaction replaces this group’s oxygen with a carbon from the ylide.

• Acyl chlorideNarrower topic: The carbonyl bond makes the acyl carbon susceptible to nucleophilic attack.

• Carbonyl compoundBroader topic: It is the defining structural unit present in every carbonyl compound.

• CyclohexanoneBroader topic: Its polarized bond gives cyclohexanone its characteristic reactions.

• Acetic anhydrideRelated: Its two carbonyl groups make the anhydride susceptible to nucleophilic attack.

• Acyl groupBroader topic: The carbonyl is the defining structural unit within every acyl group.

• Addition reactionRelated: Its polarized double bond makes carbonyl compounds susceptible to nucleophilic addition.

• AnthraquinoneBroader topic: Two carbonyl groups at positions 9 and 10 distinguish anthraquinone from anthracene.

• GlyceraldehydeRelated: Glyceraldehyde’s open-chain form has a terminal aldehyde carbonyl.

• Oxidation of aldehydesNarrower topic: Its carbon atom is the site transformed during aldehyde oxidation.

• AcetophenoneBroader topic: The carbonyl is the reactive center that defines acetophenone as a ketone.

• Aldol condensationBroader topic: Its polarized bond makes carbonyl carbons electrophilic and α-hydrogens enolizable.

• Acetyl chlorideRelated: Its polarized carbonyl bond makes acetyl chloride’s acyl carbon susceptible to attack.

• Amadori rearrangementNarrower topic: The sugar carbonyl is the electrophilic site that reacts with the amino compound.

• BenzophenoneBroader topic: The carbonyl group gives benzophenone its ketone reactivity and its characteristic light absorption.

• DiacetylNarrower topic: Diacetyl’s two carbonyl groups give it characteristic chemical reactivity.

• DihydroxyacetoneRelated: Its ketone carbonyl distinguishes dihydroxyacetone from its aldose isomer.

• GlyoxalNarrower topic: Glyoxal’s two carbonyl groups account for its characteristic electrophilic reactions.

• ButanoneBroader topic: Its carbonyl group gives butanone its ketone reactivity and polarity.

• ButyraldehydeBroader topic: Its carbonyl carbon is bonded to hydrogen in butyraldehyde, making the compound an aldehyde.

• FormamideRelated: Its carbonyl carbon is bonded directly to nitrogen in formamide.