Foundational Thermodynamics for Engineers and Scientists

Understanding how energy transforms and interacts with matter is fundamental to nearly all physical science and engineering disciplines. Mastering thermodynamics provides the analytical framework necessary to design efficient and functional systems. By the end of this course, you will be able to apply the four laws of thermodynamics to analyze closed and open systems, calculate changes in energy and entropy, and model the behavior of ideal gases and common working fluids. This foundational knowledge is essential for careers in mechanical, chemical, and materials engineering. What you'll learn: * Understand the core concepts of energy, work, heat, and temperature, and define thermodynamic systems and boundaries. * Master the First Law of Thermodynamics (conservation of energy) and apply it to steady-flow and non-flow processes. * Analyze the Second Law of Thermodynamics, calculating entropy change and determining the direction and efficiency limits of real processes. * Practice modeling the behavior of pure substances, including phase changes, using property tables and the ideal gas equation. * Apply foundational thermodynamic concepts to analyze basic power cycles, refrigeration cycles, and heat transfer processes. This text-based course begins with essential terminology and definitions, establishing the core principles before moving into practical problem-solving using the fundamental laws. You will work through detailed written explanations and example calculations. This course is designed for absolute beginners, including engineering students, science majors, and professionals who need a rigorous introduction to thermal physics. No prior knowledge of thermodynamics is required. Start building your essential analytical skills in thermodynamics today.