Linked from

The 16 pages that link to Frontier molecular orbital theory, each with the reason it gives.

• Lewis acidRelated: A Lewis acid’s empty or low-energy orbital can accept electron density from a base.

• Molecular orbitalRelated: It uses orbital shapes and energies to predict which molecules react and where.

• Hard and soft acids and basesRelated: Orbital interactions offer a complementary account of hard-soft bonding preferences.

• Lewis baseRelated: Its HOMO–LUMO interaction models donation from a base to an acid.

• Woodward–Hoffmann rulesCompared with: Frontier-orbital reasoning often reaches similar predictions through localized orbital interactions rather than correlation diagrams.

• Electrocyclic reactionRelated: Its orbital phases show why terminal rotation is restricted to particular modes.

• CycloadditionRelated: Orbital energy and phase matching help explain which cycloaddition partners react.

• Pericyclic reactionRelated: It explains pericyclic selectivity through constructive and destructive overlap of frontier orbitals.

• Robert S. MullikenBroader topic: It turns orbital energies into predictions of reactivity and chemical selectivity.

• Otto DielsRelated: It explains why the diene’s highest occupied orbital and dienophile’s lowest unoccupied orbital promote cycloaddition.

• Kenichi FukuiBroader topic: Fukui’s best-known contribution predicts reactions from these frontier orbitals.

• Kurt AlderRelated: It describes how diene and dienophile orbitals cooperate as bonds form.

• HSAB theoryCompared with: Orbital energies and overlap can explain selectivity beyond HSAB's hard–soft labels.

• Koopmans' theoremRelated: Koopmans estimates help relate frontier orbital energies to ionization and electron attachment.

• Forbidden mechanismRelated: It offers a practical orbital-interaction view of symmetry-allowed and forbidden reactions.

• Lewis acids and basesRelated: The base’s occupied orbital donates into the acid’s available orbital.