Organometallic Chemistry: Principles of Structure, Bonding, and Catalysis

Organometallic chemistry bridges inorganic and organic disciplines, providing powerful tools for chemical synthesis and industrial catalysis. Without a strong grasp of the principles governing metal-carbon bonds, modern synthetic pathways remain inaccessible. By the end of this text-only course, you will have a solid theoretical and practical understanding of how transition metals interact with organic ligands. You will be prepared to analyze complex organometallic structures, predict reaction mechanisms, and understand the role of these compounds in homogeneous catalysis. What you'll learn: Understand the foundational concepts of metal-carbon bonding and the 18-electron rule for stability prediction. Analyze common ligand types, including carbonyls, alkenes, and phosphines, and their influence on metal centers. Master the key reaction mechanisms: oxidative addition, reductive elimination, migratory insertion, and beta-hydride elimination. Apply principles of homogeneous catalysis to classic cross-coupling reactions like Heck and Suzuki couplings. Practice naming conventions and determining oxidation states and coordination numbers for complex organometallic species. Explore the role of organometallic compounds in green chemistry and sustainable synthetic routes. The course begins by establishing basic definitions and electron counting rules before moving into detailed discussions of major ligand classes and fundamental reaction types. The final sections focus on applying these concepts to practical catalytic cycles used in industrial synthesis. This course is designed for chemistry students, researchers, and professionals who are beginners in organometallic chemistry. No prior advanced knowledge of inorganic or organic synthesis is required, only basic college-level chemistry concepts. Start reading today to unlock the power of transition metal catalysis.