Foundational Organometallic Chemistry: Bonding, Structure, and Reactivity

Organometallic chemistry bridges organic and inorganic fields, providing essential tools for complex synthesis and industrial catalysis. Understanding these unique compounds is crucial for advanced chemistry studies. This course provides a comprehensive introduction to the foundational principles of organometallic chemistry. By the end, you will be able to analyze the structure, predict the stability using the 18-electron rule, and describe the common reaction types that underpin modern synthetic methods and industrial catalysis. What you'll learn: * Understand the nomenclature and classification of common organometallic compounds based on oxidation state and electron count. * Master the application of the 18-electron rule to predict the stability and structure of transition metal complexes. * Analyze the bonding modes of key ligands, including carbonyls, phosphines, alkenes, and cyclopentadienyls. * Practice identifying and describing the fundamental reaction mechanisms: oxidative addition, reductive elimination, and migratory insertion. * Apply knowledge of reaction mechanisms to interpret simplified catalytic cycles, such as hydrogenation or basic cross-coupling concepts. The course begins with essential terminology and electron counting rules before exploring the structure and bonding of various ligand types. The later sections focus on the core reactivity patterns and their application in catalytic processes, reinforcing concepts with written examples and practice exercises. This course is designed for absolute beginners in chemistry or science students seeking a solid foundation in organometallic chemistry. No prior advanced knowledge of inorganic or organic synthesis is required. Start building your expertise in this vital area of chemical synthesis today.