Linked from

The 27 pages that link to Coordination chemistry, each with the reason it gives.

• ChelationNarrower topic: Chelation is a major pattern of ligand binding within this broader chemistry.

• Organometallic chemistryNarrower topic: Organometallic chemistry shares coordination structures and ligand-exchange reactions with this broader field.

• ZincNarrower topic: Zinc ions commonly bind ligands in biological and industrial compounds.

• HemeNarrower topic: Heme binds gases and proteins through coordination bonds to iron.

• Rare-earth separationNarrower topic: Rare-earth separation depends on how ligands coordinate metal ions.

• Potassium cyanideNarrower topic: Cyanide’s strong binding to metals underlies several uses of KCN.

• Alfred WernerNarrower topic: Werner established the structural principles that organize this field.

• AcetylacetoneNarrower topic: Acetylacetone’s metal complexes are a standard case of ligand coordination.

• Beryllium hydroxideNarrower topic: Beryllium’s tendency to form hydroxide complexes helps explain its behavior in strong base.

• HSAB theoryNarrower topic: HSAB predicts which ligands preferentially bind particular metal centers.

• Iron(III) citrateNarrower topic: It describes the bonding principles behind iron–citrate complexes.

• Chromium(II) acetateNarrower topic: Acetate and water ligands shape the chromium centers’ coordination environment.

• Chromium(III) chlorideNarrower topic: Chloride and water ligands shape chromium(III) chloride’s structures and solution chemistry.

• Complexometric indicatorNarrower topic: Indicator behavior rests on metal ions coordinating dye molecules and titrant ligands.

• Henry TaubeNarrower topic: Taube’s electron-transfer research became a landmark contribution to this broader field.

• Salt metathesis reactionNarrower topic: Ligand-exchange metathesis is widely used to prepare and modify metal complexes.