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The 52 pages that link to Electrophilic aromatic substitution, each with the reason it gives.

• AromaticityRelated: The reaction preserves the ring’s aromatic stabilization after a temporary loss of aromaticity.

• BenzeneRelated: This reaction class preserves benzene’s aromatic ring during substitution.

• Nucleophilic substitutionCompared with: The aromatic ring is attacked by an electrophile, reversing the roles seen in nucleophilic substitution.

• PhenolRelated: Phenol’s hydroxyl group activates the ring and directs substitution mainly to ortho and para positions.

• ElectrophileBroader topic: Aromatic rings capture electrophiles while ultimately preserving aromaticity.

• Electrophilic additionCompared with: Aromatic rings restore aromaticity by substitution instead of retaining addition across the ring.

• Polycyclic aromatic hydrocarbonRelated: It is a common route for adding substituents to PAH ring systems.

• AnilineRelated: The amino group activates aniline’s ring and directs many substitutions to ortho and para positions.

• PyridineCompared with: Pyridine’s electron deficiency makes this reaction harder than it is for benzene.

• NaphthaleneRelated: Naphthalene commonly reacts by substitution rather than addition, preserving its aromatic system.

• Nucleophilic aromatic substitutionCompared with: It reverses the polarity of the attacking species compared with nucleophilic aromatic substitution.

• Aromatic compoundBroader topic: It is a central pathway for modifying aromatic rings without permanently disrupting aromaticity.

• Friedel–Crafts reactionNarrower topic: Friedel–Crafts alkylation and acylation are members of this reaction family.

• NitrationNarrower topic: This is the usual pathway for nitrating electron-rich aromatic rings.

• PyrroleRelated: Pyrrole commonly reacts this way, often at a ring carbon adjacent to nitrogen.

• AlkylationBroader topic: Friedel–Crafts alkylation is this reaction applied to aromatic rings.

• IndoleRelated: Indole commonly reacts with electrophiles at its electron-rich C3 position.

• Friedel–Crafts acylationNarrower topic: Acylation follows this general mechanism, including formation and loss of a sigma complex.

• TolueneNarrower topic: The methyl group directs many ring substitutions toward the ortho and para positions.

• Phenyl groupRelated: A phenyl ring can undergo this characteristic reaction when it has a replaceable ring hydrogen.

• FuranRelated: Furan undergoes this reaction readily, chiefly at its 2-position.

• NitrosationRelated: Some activated aromatic rings undergo carbon nitrosation by electrophilic substitution.

• Azo compoundRelated: Azo coupling forms the new carbon–nitrogen bond through this reaction pattern.

• BrominationRelated: Benzene bromination follows this pathway, with a Lewis acid activating bromine.

• DiazotizationNarrower topic: Azo coupling, one major use of diazonium salts, proceeds by this reaction family.

• SulfonationNarrower topic: Aromatic sulfonation proceeds by replacing a ring hydrogen with an electrophilic sulfur-containing group.

• Aromatic hydrocarbonRelated: This reaction lets the ring form new bonds while recovering its aromatic electron system.

• BenzimidazoleRelated: It provides a route to carbon-substituted benzimidazole derivatives.

• Sulfonic acidRelated: Aromatic sulfonation commonly forms aryl sulfonic acids by this mechanism.

• AnthraquinoneRelated: Substitution on the fused aromatic framework produces many functional anthraquinone derivatives.

• ThiopheneNarrower topic: Thiophene commonly undergoes substitution rather than addition, retaining aromaticity.

• ChlorobenzeneNarrower topic: Chlorobenzene undergoes this reaction family, though chlorine slows it relative to benzene.

• AnisoleNarrower topic: Anisole’s characteristic ring reactions belong to this broader reaction family.

• BenzonitrileRelated: The cyano group deactivates benzonitrile’s ring and directs substitution mainly to the meta position.

• CarboraneCompared with: Carborane carbon vertices can undergo substitution, but their cage bonding is not ordinary aromatic-ring chemistry.

• QuinolineRelated: Quinoline’s benzene portion undergoes this reaction more readily than its pyridine portion.

• BiphenylRelated: Biphenyl’s rings undergo substitution reactions, with the second phenyl group influencing their reactivity.

• CarbazoleRelated: Carbazole undergoes substitution on its electron-rich aromatic rings.

• PyrazineCompared with: Pyrazine’s electron-poor ring is less reactive in this reaction than benzene.

• Electrophilic substitutionBroader topic: This common form proceeds through a temporary loss and restoration of aromaticity.

• IsoquinolineRelated: Isoquinoline’s electron-poor nitrogen influences where electrophilic substitution occurs.

• IsoxazoleRelated: Isoxazole can undergo substitution, though its electron-poor ring affects reactivity and position.

• NitrobenzeneNarrower topic: The nitro group deactivates the ring and directs incoming electrophiles mainly to the meta position.

• PyrazoleRelated: Pyrazole’s ring can undergo electrophilic substitution, commonly at a carbon position.

• ResorcinolRelated: Resorcinol’s hydroxyl groups activate its ring toward substitution reactions.

• ThiazoleRelated: Thiazole undergoes electrophilic substitution most readily at the 5-position.

• Arene substitution patternRelated: Existing substituents direct incoming groups toward characteristic positions on the ring.

• AzuleneRelated: Azulene’s electron-rich framework undergoes electrophilic substitution, especially at the five-membered ring.

• BenzofuranNarrower topic: It describes common substitution reactions of benzofuran’s electron-rich fused system.

• Chlorosulfuric acidNarrower topic: Aromatic sulfonation with chlorosulfuric acid proceeds by electrophilic substitution.