Lecture

IR Spectroscopy in Coordination Chemistry

Related lectures (32)

Infrared Spectroscopy in Bonding: Carbonyl Compounds

Explores Infrared Spectroscopy in bonding with a focus on carbonyl compounds and discusses the factors influencing the color of transition metal complexes.

Spectroscopy and chemical kinetics

Explores spectroscopic techniques in biology and chemical kinetics, including reaction mechanisms and coordination chemistry.

Coordination Chemistry: Transition Metals

Explores coordination chemistry principles with a focus on transition metals and their electronic configurations.

Metal Carbonyls: Applications and Reactions

Discusses metal carbonyls and their applications in catalysis and chemical reactions, including the introduction of metal carbines and their significance in synthetic chemistry.

Metal Carbonyls and Their Applications: Understanding Catalysis

Discusses metal carbonyls and carbines, focusing on their bonding, reactivity, and applications in catalysis.

Crystal Field Theory: Spectrochemical Series

Explores the Spectrochemical Series for metals and ligands, Crystal Field Splitting, Jahn-Teller distortion, and bonding interactions in coordination compounds.

Homogeneous Catalysis Basics

Introduces the basics of homogeneous catalysis, focusing on reaction mechanisms and catalyst design.

Crystal Field Theory: Square Planar Complexes

Explores crystal field theory, focusing on square planar complexes and the spectrochemical series.

Coordination Chemistry: Basics

Covers the basics of coordination chemistry, including metal complex formation and ligand effects.

Stability of Complexes

Explores the concept of 18 valence electrons and the stability of metal-ligand complexes.

Coordination Chemistry: Ligands and Geometries

Covers coordination numbers, common ligands, and preferred geometries in coordination chemistry, emphasizing the spatial distribution between ligands and the role of d⁸ electron configurations.

Pi-Donor and P-Acceptor Ligands

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

Ligand Field Theory

Explores Ligand Field Theory, color theory, transition metal complexes, and protein stability.

Organometallic Chemistry: Fundamentals

Covers the fundamentals of organometallic chemistry, including ligand types, bonding, reactivity, and applications in catalysis and medicine.

Coordination Chemistry: Chapter 3

Delves into Chapter 3 of Coordination Chemistry, exploring spherical and planar geometries, ligand effects, and MO diagrams.

Transition Metal Complexes

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

Alkenes in Organometallic Chemistry

Explores alkene complexes, their bonding, synthesis methods, and nucleophilic attack rationalization in organometallic chemistry.

Metal Carbonyls: Bonding

Covers the bonding in metal carbonyls and the Mond process for nickel purification.

Coordination Chemistry: Ligand Interactions

Explores ligand interactions with metal ions in coordination chemistry.

SCR Mechanism: Experimental Set-up and Procedures

Explains the SCR mechanism and experimental set-up procedures for NH3 adsorption and NO desorption.