Applied Thermodynamics for Power Plant Engineering and Design

Power plants are the backbone of global energy generation, operating on complex thermodynamic principles that convert raw heat into usable electricity. Understanding these energy conversion processes is essential for anyone aspiring to build a career in mechanical, thermal, or energy engineering. This text-based course breaks down complex mathematical models and cycle configurations into clear, structured explanations that build your confidence from the ground up. You will begin with a solid grounding in basic thermodynamic laws, properties of pure substances, and fundamental cycles before moving on to practical power plant configurations. Through step-by-step analytical breakdowns, you will learn to evaluate thermal efficiency, identify system losses, and optimize power output using modern engineering methodologies. What you will learn: - Understand the core principles of Rankine, Brayton, and combined cycle power plants - Analyze steam and gas turbine performance using modern thermodynamic property tables - Evaluate the impact of reheating, regeneration, and cogeneration on cycle efficiency - Calculate power plant performance metrics, including work ratio and specific steam consumption - Identify modern trends in power generation, including carbon capture integration and hybrid systems - Solve complex numerical problems systematically to prepare for technical engineering assessments This course progresses logically from fundamental molecular energy concepts to full-scale power plant system design. You will explore real-world engineering scenarios, work through detailed mathematical derivations, and analyze practical problems that simulate industrial challenges. This course is designed for engineering students, mechanical engineering graduates, and professionals preparing for technical examinations who want a rigorous, text-based foundation in thermal power systems. No prior advanced thermodynamics knowledge is required. Start reading today to master the thermal principles that drive modern power generation systems.