Coordination Chemistry: Basics

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Page 3 of 4

Explores metal complex bonding, oxidative addition, and reductive elimination in depth.

Explains splitting diagrams and Crystal Field Stabilization Energy calculations for transition metal complexes.

Explores X-ray Absorption Near-Edge Spectroscopy transitions and applications in tackling diesel emissions and optimizing catalytic converters.

Explores ligand field theory, pi-acceptors, bonding in complexes, and spectrochemical series in 3-d metals.

Delves into olefin coordination mechanisms, phosphine dissociation, ligand effects, and catalyst reactivity.

Explores complexation chemistry principles, metal-ligand interactions, toxicity mechanisms, and environmental implications.

Explores the impact of pi-donor and p-acceptor ligands on ligand field splitting diagrams and metal orbitals in coordination complexes.

Covers the preparation and stabilities of complexes, including redox reactions, substitution, and catalytic reactions.

Explains the 18 Valence Electron rule for stability in transition metal complexes and the common ligands' electron contributions.

Explores electronic transitions in photochemistry, covering HOMO-LUMO, charge-transfer, selection rules, solvatochromism, and vibronic coupling.