Internal Combustion Engines and Gas Turbines: Principles and Analysis

Powering everything from automotive transportation to aerospace propulsion and electricity generation requires a rock-solid understanding of thermal energy conversion. This comprehensive text-based guide breaks down the complex thermodynamics and mechanical principles behind internal combustion engines and gas turbines into clear, accessible concepts. You will transition from understanding basic thermodynamic cycles to analyzing real-world engine performance and modern efficiency-boosting technologies. What you'll learn: Understand the fundamental thermodynamic cycles of Otto, Diesel, Dual, and Brayton systems; Analyze the mechanics of fuel induction, combustion chemistry, and heat transfer in engines; Evaluate gas turbine performance, including compressor and turbine aerodynamics and jet propulsion principles; Explore modern emissions-reduction strategies and alternative fuel integration; Practice calculating key engine performance parameters, thermal efficiency, and power output. This course begins with foundational thermodynamic definitions and core terminology before guiding you step-by-step through combustion analysis, engine subsystems, and gas turbine mechanics. It is designed specifically for engineering students, technicians, and aspiring mechanical professionals looking to build a strong theoretical and practical foundation in thermal power systems. No advanced prior background in engine design is required. Start building your thermal engineering expertise today.