Core Principles of Thermo-Mechanical and Chemical Processes

Designing robust materials and complex systems requires a deep understanding of how they respond to combined thermal, mechanical, and chemical loads. This course provides the essential analytical toolkit to predict and manage these interactions. By the end of this course, you will be able to define the core state variables, analyze phase transformations driven by combined stresses, and apply fundamental laws of thermodynamics and kinetics to solve problems involving coupled thermo-chemo-mechanical phenomena. What you'll learn: * Understand the fundamental laws of thermodynamics and their application to non-equilibrium systems. * Analyze the interplay between mechanical stresses, strain, and temperature fields in various engineering materials. * Master the principles of chemical kinetics and reaction mechanisms under varying thermal and pressure conditions. * Practice calculating phase equilibria and predicting phase transformations driven by simultaneous thermal and mechanical changes. * Apply foundational concepts for setting up basic computational models of coupled chemo-mechanical behavior. * Learn to identify and quantify transport phenomena, including heat and mass transfer, within reacting systems. The curriculum begins with a rigorous review of fundamental thermodynamics and continuum mechanics before moving into coupled systems, reaction kinetics, and practical analytical techniques used in engineering analysis. This course is designed for absolute beginners in materials science, mechanical engineering, or chemical engineering who need a comprehensive introduction to coupled thermal, mechanical, and chemical processes. No prior specialized knowledge is required. Start building your foundational expertise in advanced materials analysis today.