This book offers a comprehensive examination of dynamic gas-liquid separators (DGLS) by integrating theoretical analysis, numerical simulations, and experimental measurements. It systematically investigates the distribution of internal flow fields, mechanisms for energy loss, and separation performance under both constant and variable flow conditions. The focus is on how various operating and structural parameters impact performance. Building on this foundation, the book delves into unstable flow mechanisms, energy evolution patterns, and gas-liquid phase separation processes within the separator. Additionally, it presents a model for predicting separation performance based on dimensional analysis, along with an optimization of structural parameters. Moreover, the book explores the effects of pulsating flow conditions, specifically examining how pulsation parameters influence the evolution of the internal flow field, separation efficiency, and the distribution of transient pressure pulsations.
Dynamic Gas-Liquid Separators: Modeling, Simulation, and Experiments provides academic researchers and practicing engineers with essential theoretical insights and scientific evidence for the efficient and stable operation of DGLS in complex working environments.