Essential Principles of Heat and Mass Transfer Analysis

A deep understanding of how energy and matter are transported is crucial for engineers working in thermal management, system design, and process optimization. This course provides the analytical foundation necessary to understand and predict thermal behavior in mechanical, chemical, and materials systems, ensuring you can design more efficient and reliable products. Upon completing this course, you will have a strong grasp of the core concepts and governing equations used in thermal science, enabling you to tackle complex engineering challenges using fundamental principles. What you'll learn: * Learn the fundamental definitions and governing equations for heat and mass transfer, including Fourier's and Fick's laws. * Apply analytical methods to solve steady-state conduction problems in one dimension across various geometries. * Analyze convective heat transfer using boundary layer concepts and relevant dimensionless parameters. * Understand radiative heat exchange between surfaces, including emissivity, absorptivity, and view factors. * Master the relationship between heat and mass transfer through diffusion and convection principles. * Practice foundational numerical techniques, like basic finite difference, for solving simple heat transfer problems where analytical solutions are unavailable. The course begins by establishing the core terminology and conservation laws, then progresses through detailed modules on conduction, convection, radiation, and combined mass transfer. The focus is on reading and applying written analytical techniques and problem-solving strategies. This course is designed for absolute beginners in thermal science, including new engineering students or those transitioning into roles requiring thermal analysis. No prior heat or mass transfer experience is required. Start building your foundation in thermal science today.