Linked from

The 13 pages that link to Electron correlation, each with the reason it gives.

• Electron configurationRelated: Correlation changes orbital energies and limits simple independent-electron configurations.

• Quantum chemistryRelated: Accurately representing correlated electrons is a central challenge in molecular calculations.

• Computational chemistryRelated: Capturing it is central to improving many approximate electronic-structure predictions.

• Hartree–Fock methodRelated: Hartree–Fock omits most correlated motion beyond its average-field treatment.

• Mott insulatorNarrower topic: Mott insulation is a prominent case where correlated motion defeats independent-electron predictions.

• Relativistic effectCompared with: It is a distinct source of electronic-structure corrections, often treated alongside relativistic effects.

• Hund's rulesRelated: Correlation and configuration mixing can complicate term ordering beyond the rules' simple predictions.

• Inert-pair effectRelated: Many-electron interactions contribute to accurate predictions of heavy-element oxidation-state stability.

• Hydrogen-like atomCompared with: A single-electron atom has no electron–electron correlation, unlike multi-electron systems.

• Mott transitionNarrower topic: Correlated motion is the underlying source of the interaction-driven insulating state.

• John PopleRelated: Accounting for it explains why accurate molecular energies require more than a basic Hartree–Fock calculation.

• Koopmans' theoremRelated: Correlation effects are absent from the Hartree–Fock energies underlying the estimate.

• Nevill MottRelated: Correlated electrons are central to the insulating behavior Mott explained.