Applied Thermodynamics: Principles and Cycle Analysis

Thermodynamics is the backbone of all modern energy and mechanical systems, but applying the theory to real-world engineering problems can be challenging. This course provides a comprehensive, practical foundation in applied thermodynamics, transforming theoretical knowledge into the ability to analyze and solve engineering problems related to energy conversion, efficiency, and system design. You will gain confidence in calculating system performance and understanding the limitations imposed by the laws of nature. ### What you'll learn * Understand the fundamental concepts, definitions, and properties of thermodynamic systems and pure substances. * Apply the First and Second Laws of Thermodynamics to closed and control volume systems for work and heat transfer calculations. * Analyze the performance of essential power cycles, including the Rankine and Brayton cycles, and common refrigeration cycles. * Practice calculating efficiency, irreversibility, and entropy generation in real-world energy conversion devices. * Configure and evaluate advanced cycles, such as gas turbine cycles and vapor-compression systems, focusing on efficiency improvements. The course begins with essential terminology and the foundational laws governing energy and entropy, progressing methodically to the detailed analysis of common thermodynamic cycles. You will read clear explanations and work through practical examples using written calculations and systematic problem-solving methods. This introductory course is designed for beginners, including students and technical professionals, seeking a solid foundation in applied thermodynamics. No prior knowledge of advanced engineering concepts is required. Start your journey toward mastering the principles that govern all energy systems today.