Engineering Thermodynamics through Practical Numerical Problems

Thermodynamics is the cornerstone of mechanical and chemical engineering, yet abstract formulas can be difficult to grasp without practical application. This course bridges the gap between complex theory and real-world engineering by teaching you core principles through structured numerical examples. You will build a solid foundation in energy systems, heat transfer, and power cycles by working through detailed, written calculations. What you'll learn: Understand core thermodynamic concepts, definitions, and system boundaries; Apply the First Law of Thermodynamics to both closed and open systems; Analyze gas power cycles, vapor power cycles, and refrigeration systems; Calculate entropy changes and evaluate second-law efficiencies; Solve complex equations state-by-state using thermodynamic property tables; Practice modern energy analysis techniques to evaluate system sustainability. The course begins with essential terminology, state variables, and fundamental laws before guiding you through progressively challenging numerical problems. Designed specifically for beginners, engineering students, and professionals looking for a refresher, this course requires no prior advanced thermodynamics knowledge. Start mastering engineering thermodynamics today through clear explanations and structured problem-solving.