Applied Thermodynamics: Understanding Energy Systems

Every engineering system, from jet engines to air conditioners, relies on the efficient conversion and transfer of thermal energy. A strong grasp of applied thermodynamics is essential for analyzing, optimizing, and designing these critical systems. This course provides a rigorous, text-based introduction to the principles of classical thermodynamics, enabling you to confidently apply the fundamental laws of energy to solve complex engineering problems involving power generation, propulsion, and cooling. What you'll learn: * Understand the core concepts of thermodynamic systems, properties, states, and the Zeroth and First Laws of Thermodynamics (energy conservation). * Master the analysis of pure substances using property tables and diagrams and calculate energy changes during phase transitions. * Apply the Second Law of Thermodynamics, define entropy, and calculate the maximum theoretical efficiency of heat engines and refrigerators. * Analyze and evaluate the performance of major power generation cycles, including the Rankine cycle (steam power) and the Brayton cycle (gas turbines). * Practice calculating the performance and coefficient of performance (COP) for vapor compression refrigeration and heat pump cycles. * Apply the principles of energy and entropy to control volume analysis for steady-flow devices like nozzles, turbines, and compressors. The course begins with foundational definitions and the basic laws, progressing systematically through the properties of substances and the detailed analysis of practical engineering cycles. You will read detailed explanations and work through structured example problems. This course is designed for absolute beginners in thermal engineering, including students and practicing engineers seeking a foundational understanding of applied thermodynamics. No prior knowledge of thermodynamics is required. Start building your essential engineering foundation today.