Linked from

The 28 pages that link to Organometallic chemistry, each with the reason it gives.

• Organic synthesisRelated: Organometallic reagents enable carbon–carbon bond formation and other key transformations.

• Organic chemistryRelated: It bridges organic and inorganic chemistry through metal–carbon bonding and catalytic reactions.

• LigandNarrower topic: Many organometallic compounds use organic groups as ligands that tune metal reactivity.

• Coordination chemistryCompared with: It overlaps with coordination chemistry but centers on metal–carbon bonds.

• Hard and soft acids and basesNarrower topic: Soft donor atoms and transition-metal centers make HSAB useful in this field.

• Friedel–Crafts reactionNarrower topic: Early Friedel–Crafts work grew from investigations of organometallic compounds and Lewis-acid chemistry.

• Grignard reagentNarrower topic: Grignard reagents are a foundational class of carbon–metal compounds.

• Cross-coupling reactionNarrower topic: Many cross-couplings rely on organometallic intermediates or reagents to deliver one fragment.

• Inorganic chemistryRelated: Metal–carbon bonds connect inorganic reactivity to a large family of catalysts and reagents.

• Organolithium reagentNarrower topic: Organolithium reagents are among the most reactive and widely used organometallic compounds.

• FerroceneNarrower topic: Ferrocene became a foundational model for metal–carbon bonding and organometallic reactivity.

• HapticityNarrower topic: Hapticity is chiefly used to describe bonding in organometallic compounds.

• CyclobutadieneNarrower topic: Metal complexes offer a way to handle cyclobutadiene without isolating its unstable free form.

• RutheniumNarrower topic: Many ruthenium catalysts use metal–carbon bonds to bind and transform organic molecules.

• Metal carbonylNarrower topic: Metal carbonyls sit at a boundary where metal–carbon bonding involves an inorganic ligand.

• Alfred WernerRelated: It developed alongside coordination chemistry, applying related ideas to metal–carbon bonding.

• Ernst Otto FischerNarrower topic: Fischer helped establish this field through structural discoveries and extensive work on metal–carbon compounds.

• Karl ZieglerNarrower topic: Ziegler’s catalyst research grew from reactions of organometallic compounds.

• Victor GrignardNarrower topic: Grignard’s discovery became a foundational example of metal–carbon chemistry.

• Ei-ichi NegishiNarrower topic: Negishi’s cross-coupling depends on the behavior of organometallic reagents and catalysts.

• Richard F. HeckNarrower topic: Heck’s mechanistic studies drew on organometallic chemistry and helped expand its synthetic reach.

• Boron groupRelated: Aluminum, gallium, and indium form organometallic compounds used in synthesis and materials chemistry.

• Inorganic compoundCompared with: Organometallic compounds sit near the classification boundary because they combine organic groups and metal centers.

• Electron countingNarrower topic: Electron counting is a routine tool for analyzing organometallic structures and reactions.

• Potassium hydrideRelated: KH can generate reactive organometallic reagents by deprotonating suitable substrates.

• Inorganic chemicalsRelated: It bridges organic and inorganic chemistry rather than fitting cleanly into either.

• Ligand cone angleNarrower topic: Ligand cone angle became a standard descriptor within this field.

• n-ButyllithiumNarrower topic: n-Butyllithium exemplifies how metal–carbon bonding enables synthetic reactivity.