Linked from

The 62 pages that link to Nucleophilic substitution, each with the reason it gives.

• Arrow pushingBroader topic: Its mechanisms show bond formation and bond cleavage as linked arrow-pushing steps.

• AziridineRelated: Nucleophiles can open activated aziridine rings by attacking a ring carbon.

• Benzyl chlorideNarrower topic: Nucleophiles displace chloride from its activated benzylic carbon.

• Chloroacetic acidRelated: The carbon bearing chlorine can undergo substitution, enabling formation of many derivatives.

• Cyanogen chlorideRelated: Cyanogen chloride can undergo substitution at its electrophilic carbon in synthesis.

• Electrophilic substitutionCompared with: It features a nucleophile as the incoming species rather than an electrophile.

• Organochlorine chemistryRelated: Many alkyl chlorides undergo substitution when nucleophiles displace chloride.

• ThioureaRelated: Thiourea substitutes for halides in routes to thiols and other sulfur compounds.

• BromoethaneNarrower topic: Nucleophiles displace bromide from bromoethane to form new carbon–nitrogen, carbon–oxygen, and carbon–carbon bonds.

• Caesium fluorideRelated: Fluoride from caesium fluoride can replace leaving groups in suitable organic substrates.

• IodomethaneNarrower topic: Nucleophiles commonly displace iodide from iodomethane in carbon–carbon bond-forming reactions.

• Non-nucleophilic baseCompared with: Suppressing this competing pathway is a central reason to choose a non-nucleophilic base.