Chemical Engineering Thermodynamics: Solution and Reaction Equilibria

Moving beyond basic energy balances is essential for designing real-world chemical processes and separation systems. This comprehensive text-based course guides you through the complex world of multi-component mixtures, phase behavior, and chemical reaction equilibria. You will develop a strong intuitive and mathematical grasp of how substances interact in mixtures. By working through structured written examples, you will learn to calculate phase compositions, evaluate chemical equilibrium constants, and apply thermodynamic models to solve practical engineering problems. What you'll learn: Understand the fundamental property relations for homogeneous mixtures and partial molar properties; Apply activity coefficient models and equations of state to predict vapor-liquid equilibria; Calculate chemical reaction equilibrium constants and compositions for single and multi-reaction systems; Evaluate phase stability and liquid-liquid equilibria using thermodynamic criteria; Explore modern thermodynamic modeling concepts used in industrial process simulation; Practice solving complex thermodynamic numerical problems through step-by-step written exercises. The course begins with foundational definitions of mixture properties before advancing to phase equilibrium criteria and chemical reaction thermodynamics. You will progress systematically from ideal solutions to highly non-ideal real mixtures, supported by detailed written derivations and calculations. This course is designed for chemical engineering students, graduates, and professionals who have a basic understanding of introductory thermodynamics and want to master solution thermodynamics. Start reading today to master the core thermodynamic principles that drive chemical process design.