Linked from

The 44 pages that link to Molecular orbital, each with the reason it gives.

• Schrödinger equationRelated: Approximate solutions help describe electron distributions and chemical bonding.

• Atomic orbitalRelated: Combining atomic orbitals provides a common route to constructing molecular orbitals.

• FluorescenceRelated: Changes in molecular electronic states underlie absorption and fluorescence.

• Pi bondRelated: Pi bonding is described by molecular orbitals spread across bonded atoms.

• ElectrophileRelated: The lowest unoccupied molecular orbital often identifies where an electrophile can accept electron density.

• PhotoionizationRelated: Molecular orbital structure shapes which electrons can be ejected and at what energies.

• Free radicalRelated: Orbital occupancy shows where an unpaired electron resides in a radical.

• Molecular symmetryRelated: Orbital symmetry governs how atomic orbitals combine and which transitions are allowed.

• Hartree–Fock methodRelated: Hartree–Fock produces optimized molecular orbitals for interpreting bonding and electronic structure.

• Electron correlationRelated: Independent-orbital approximations build many-electron states from these functions.

• Molecular structureRelated: Molecular orbitals explain bonding and electron distributions beyond localized bond pictures.

• Photochemical reactionRelated: Electronic transitions between molecular orbitals account for many light absorptions.

• Fritz LondonRelated: Molecular orbitals provide a language for the shared-electron bonds London helped explain.

• Electron densityRelated: In orbital-based calculations, occupied orbitals are combined to construct the total density.

• AnthraceneRelated: Its π molecular orbitals account for anthracene's absorption and electronic transport.

• Diatomic moleculeRelated: Molecular orbitals explain bonding and antibonding states in two-atom molecules.

• Electronic spectroscopyRelated: Molecular orbitals provide a framework for interpreting molecular electronic transitions.

• CyclobutadieneRelated: Cyclobutadiene’s unusual stability depends on how its π molecular orbitals are occupied.

• Molecular electronicsRelated: Orbital energies and shapes govern molecular coupling to electrode states.

• PhenolphthaleinRelated: Changes in phenolphthalein's electronic structure alter the energies of absorbed light.

• CyclopentadieneRelated: Orbital overlap accounts for conjugation and the symmetry requirements of its cycloadditions.

• NeopentaneRelated: Orbital bonding describes the equivalent carbon–carbon bonds around its central atom.

• Endohedral fullereneRelated: Orbital interactions explain how guest and cage electronic states influence one another.

• PyrazineRelated: Pyrazine’s delocalized π molecular orbitals account for its aromatic ring.

• El-Sayed ruleRelated: The rule distinguishes transitions by changes in the orbital types involved.

• Electric field effectsRelated: Field-induced energy shifts depend on how molecular orbitals distribute charge.

• Molecular modellingRelated: Orbital descriptions provide one route to calculating molecular properties from electronic structure.