Foundations of Inorganic Chemistry

Inorganic chemistry explores the structure, properties, and reactions of all chemical compounds that do not have carbon-hydrogen bonds, forming the bedrock of modern materials science and catalysis. This course provides a robust textual foundation, enabling you to confidently analyze periodic trends, predict molecular geometry, and understand the diverse behaviors of metals and nonmetals in various chemical environments. What you'll learn: * Understand the principles of atomic structure, quantum numbers, and electron configuration that dictate chemical behavior. * Practice interpreting periodic trends for properties like ionization energy, electron affinity, and electronegativity. * Apply VSEPR theory and hybridization models to accurately predict the three-dimensional geometry of molecules and ions. * Master modern bonding concepts, including Molecular Orbital (MO) theory, to explain the stability and magnetic properties of diatomic species. * Analyze the structure and function of coordination compounds, including isomerism, ligand types, and basic Crystal Field Theory. * Configure and interpret common solid-state structures, focusing on crystal lattice systems and unit cell concepts. We begin by establishing fundamental atomic theory and periodic law before moving into detailed discussions of chemical bonding, molecular geometry, and the properties of main group elements. The course concludes with an introduction to transition metal chemistry and solid-state concepts. This course is designed for absolute beginners interested in chemistry and requires no prior scientific knowledge or prerequisite coursework. Begin reading and building your expertise in inorganic chemistry today.