Chemical Engineering: Filtration, Fluidisation, and Mixing Fundamentals

Understanding how fluids interact with solid particles and mix within vessels is fundamental to chemical, pharmaceutical, and environmental process industries. This comprehensive text-only course guides you through the essential physical principles, mathematical models, and design equations governing filtration, fluidisation, and mixing. You will develop a strong conceptual foundation, progressing from basic fluid mechanics to solving advanced transport equations with confidence. What you'll learn: - Understand the key physical mechanisms of cake, leaf, and deep-bed filtration systems - Calculate pressure drops, flow rates, and minimum fluidisation velocity in packed beds - Analyze mixing equipment design, impeller types, and power consumption requirements - Apply governing engineering equations to solve standard process design problems - Explore modern energy-efficient separation techniques and sustainable mixing practices Starting with foundational definitions of fluid-particle dynamics, the course guides you step-by-step through derivations, practical design criteria, and solved analytical problems. This text-based format allows you to study at your own pace, focusing deeply on the equations and theoretical concepts. This course is designed for chemical engineering students, process technicians, and exam candidates seeking a thorough, structured refresher on core unit operations. No advanced background in transport phenomena is required to begin. Start reading today to master the core principles of fluid-solid operations.