Organometallic Chemistry: Fundamentals of Structure and Catalysis

Organometallic chemistry bridges inorganic and organic chemistry, offering powerful and selective tools for complex synthetic challenges. A strong foundation in this field is critical for advanced chemical study and industrial application. This course provides a solid understanding of how metal-carbon bonds form, the fundamental rules governing complex stability, and the practical application of these compounds in modern synthesis. You will be prepared to analyze and predict the outcomes of key metal-catalyzed reactions. What you'll learn: * Understand the definition, history, and classification of organometallic compounds and common ligands. * Master the 18-electron rule, formal oxidation states, and electron counting methods to predict complex stability and reactivity. * Analyze key elementary reaction types specific to organometallic chemistry, including oxidative addition, reductive elimination, and insertion. * Practice characterizing organometallic complexes using fundamental spectroscopic methods, primarily focusing on NMR analysis. * Apply the mechanisms of significant catalytic cycles, focusing on modern cross-coupling reactions essential for efficient synthesis. This text-based course begins with foundational terminology and bonding theories before moving into the core principles of reactivity and stability, culminating in an exploration of practical catalytic mechanisms. You will practice applying theoretical rules to various complex structures through written exercises. This course is designed for absolute beginners in advanced chemistry, including students and professionals seeking a comprehensive introduction to the field; no prior knowledge of organometallic chemistry is required. Start reading today to unlock the power of metal-mediated synthesis.