Fundamentals of Particle and Fluid-Solid Processing

Industrial manufacturing, chemical processing, and environmental engineering rely heavily on the efficient handling of particulate materials and fluid-solid systems. Understanding how particles behave, flow, and interact with fluids is essential for optimizing industrial processes. This course provides a clear, step-by-step introduction to the physics and engineering principles behind multiphase systems, helping you build a solid foundation in solid-fluid processing. You will transition from grasping basic physical concepts to analyzing complex industrial separation and transport systems. Through structured explanations and practical examples, you will learn how to design, analyze, and troubleshoot processes involving particles and fluids. What you'll learn: - Understand the physical properties and characterization techniques of particulate solids. - Analyze the mechanics of single particles and particle swarms moving through fluids. - Evaluate industrial separation processes, including sedimentation, filtration, and centrifugation. - Learn the fundamentals of fluidization and its applications in chemical reactors. - Apply transport equations to predict pressure drops in packed and fluidized beds. - Explore modern process monitoring techniques and sustainable engineering practices in solid-fluid systems. The course begins with foundational definitions of particle size, shape, and distribution before moving into the dynamics of fluid-solid interfaces, slurry transport, and separation equipment. It concludes with an overview of modern process modeling and efficiency standards. This course is designed for engineering students, entry-level process engineers, and technical professionals looking to build or refresh their knowledge of multiphase processing. No advanced prerequisites are required; a basic background in general physics and mathematics is sufficient. Start reading today to master the essential mechanics of particle and fluid-solid processing.