Kinetic Processes in Materials: Foundational Materials Science

Understanding how materials change and evolve is essential for designing next-generation technologies and predicting material behavior in the real world. This course offers a comprehensive introduction to the thermodynamic and kinetic principles that govern how materials transform, solidify, and react. You will progress from core physical concepts to the mathematical models used to analyze real-world material processes. Starting with essential thermodynamic definitions, you will explore how atoms move, how new phases form, and how microstructures develop over time. What you'll learn: Understand the principles of irreversible thermodynamics and driving forces; Analyze atomic diffusion mechanisms and solve steady-state transport equations; Evaluate the thermodynamics of nucleation and the kinetics of phase growth; Explain solid-state, liquid-solid, and gas-solid chemical reactions; Study heat and fluid transport alongside morphological instabilities; Practice modeling microstructural evolution using modern computational concepts. The course begins with foundational definitions of kinetics and thermodynamics, moves through diffusion and phase transformations, and concludes with practical applications in modern material processing. This course is designed for beginners in materials science, engineering, or physics, with no prior advanced thermodynamics required. Start building your foundational knowledge of material kinetics today.