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The 31 pages that link to Crystal field theory, each with the reason it gives.

• Coordination complexRelated: It explains how ligand arrangement changes the metal’s d-orbital energies.

• Transition metalRelated: It connects ligand arrangement to the splitting of d orbitals in metal complexes.

• Coordination chemistryRelated: It accounts for d-orbital splitting and many observed colors and magnetic properties.

• ParamagnetismRelated: Orbital splitting can change whether a complex has unpaired electrons.

• Electron paramagnetic resonanceRelated: Ligand environments alter the spin levels and spectra of metal ions.

• Jahn–Teller effectRelated: It predicts the orbital degeneracies that often precede metal-complex distortions.

• SphaleriteRelated: Iron substitutions in sphalerite affect light absorption and can darken its color.

• Coordination geometryRelated: It predicts how ligand arrangement splits a metal ion’s d orbitals.

• d-blockRelated: It connects d-orbital splitting to color, magnetism, and coordination geometry.

• Octahedral molecular geometryRelated: The octahedral ligand arrangement splits the five d orbitals into two energy groups.

• 18-electron ruleRelated: Its orbital picture helps explain why filled valence shells can stabilize some complexes.

• 4f electronRelated: It explains how ligands perturb 4f energy levels despite substantial shielding.

• Manganese(II)Related: It accounts for the weak ligand-field effects and spin behavior of many Mn²⁺ complexes.

• Square planar molecular geometryRelated: Its orbital splitting helps account for square-planar stability in some transition-metal complexes.

• Alfred WernerRelated: It built on the structural picture of metal complexes while addressing their electronic behavior.

• EuropiumRelated: The host crystal influences europium emission energies and the efficiency of its phosphors.

• Valence shellRelated: The splitting of metal valence orbitals explains many coordination-complex colors and magnetic properties.

• SpinelRelated: It helps explain color produced by transition-metal impurities in spinel.

• Chromium(III) oxideRelated: The theory helps explain the visible-light absorption that contributes to Cr₂O₃’s green color.

• John Hasbrouck Van VleckRelated: Van Vleck’s analysis of magnetic ions helped establish how their crystal environments shape magnetic properties.

• Spinel groupRelated: It helps explain color and magnetic behavior arising from transition-metal cations.

• FerricyanideRelated: The cyanide ligands create a strong octahedral field around ferricyanide’s iron center.

• PraseodymiumRelated: The host material’s crystal field shifts and splits praseodymium’s optical energy levels.

• CrocoiteRelated: It helps explain chromium-related optical behavior in minerals.

• Chromium(III) chlorideRelated: It helps explain the colors and magnetic properties of chromium(III) complexes.

• Coordination sphereRelated: It connects the identities and arrangement of sphere ligands to metal d-orbital splitting.