Chemical Engineering Thermodynamics: Problem Solving and Core Principles

Struggling to bridge the gap between abstract thermodynamic theory and practical engineering calculations? This comprehensive text-based course breaks down complex chemical engineering thermodynamics into clear, structured problem-solving methodologies. You will learn how to approach and solve the most common thermodynamic challenges faced by chemical engineers today. Starting with core thermodynamic definitions and the fundamental laws, you will transition into analyzing real-world systems. Through detailed written explanations and step-by-step mathematical derivations, you will build the confidence to tackle thermodynamic problems independently. What you'll learn: Understand the fundamental laws of thermodynamics and key state functions; Calculate phase equilibria for multi-component systems using fugacity and activity models; Analyze chemical reaction equilibria and determine equilibrium constants; Solve energy and entropy balances for open and closed systems; Apply modern equations of state to predict real gas behavior and thermodynamic properties. The course begins with foundational definitions of energy, entropy, and equilibrium before moving systematically through phase behavior, chemical reactions, and practical engineering applications. This course is designed for chemical engineering students, chemistry majors, and junior engineers looking to strengthen their technical problem-solving skills, with no advanced prerequisites required. Start mastering chemical engineering thermodynamics one clear calculation at a time.