Chemical Engineering Thermodynamics: Fundamentals and Problem Solving

Thermodynamics is the language of energy and matter transformation essential for chemical process design. Lay a robust foundation in the principles governing chemical and phase equilibria, fluid behavior, and energy transfer. By the end of this course, you will be able to apply the fundamental laws of thermodynamics to solve quantitative problems common in industrial chemical engineering. You will gain the analytical skills necessary to calculate energy requirements, predict reaction spontaneity, and design efficient separation processes. What you'll learn: Understand the First and Second Laws of Thermodynamics and their implications for open and closed systems. Master the calculation of thermodynamic properties for pure substances and mixtures using state equations. Apply phase equilibrium concepts, including vapor-liquid equilibrium (VLE), critical for separation processes. Analyze chemical reaction thermodynamics, predicting spontaneity and equilibrium constants for industrial synthesis. Practice systematic problem-solving methods for energy balances and entropy generation in steady-flow processes. Configure basic thermodynamic models (like ideal gas/solution assumptions) and understand their limitations in real-world applications. The course begins with essential definitions and the foundational laws, progressing through property relationships and equations of state before culminating in complex applications involving phase and reaction equilibria. Each section includes detailed, step-by-step written examples and practice exercises designed to solidify conceptual understanding. This course is explicitly designed for beginners in chemical engineering, materials science, or related fields. No prior knowledge of advanced thermodynamics is required, only basic calculus and chemistry. Start building your essential engineering analysis skills today.