Fundamentals of Thermal Energy and Heat Transfer

How is energy generated, moved, and transformed in the machines we rely on? Mastering the principles of thermal engineering is essential for understanding any system that involves heat or work. This introductory course establishes a strong theoretical base in thermodynamics and heat transfer. You will move from foundational concepts like the Laws of Thermodynamics and ideal gas behavior to practical applications, learning how to analyze the efficiency of power cycles and predict thermal behavior in technical systems. What you'll learn: * Understand the fundamental Laws of Thermodynamics and their application to open and closed systems. * Analyze the behavior of ideal and real gases, including the complex properties of water vapor and steam tables. * Master the three primary mechanisms of heat transfer: conduction, convection, and thermal radiation. * Calculate the performance and efficiency of key energy conversion cycles, such as the Rankine and Otto cycles. * Apply exergy analysis principles to determine the true thermodynamic efficiency and potential for improvement in energy systems. * Practice solving foundational problems related to thermal process analysis and energy balance equations. The course begins with defining key thermal properties and state variables before systematically introducing the laws governing energy conversion. We then delve into the specifics of heat transfer mechanics and conclude by analyzing common power and refrigeration cycles. This course is designed for absolute beginners interested in mechanical, chemical, or energy engineering, requiring no prior knowledge of thermodynamics or complex physics. Start building your expertise in thermal engineering today.