1.Introduction to high-gravity reaction engineering 1.1 Introduction to chemical reaction engineering 1.2 High-gravity intensification technology 1.3 High-gravity reaction engineering 1.4 Future development References 2.Hydrodynamic behavior in high-gravity reactors 2.1 Phenomena and description of fluid flow in high-gravity reactors 2.2 Characteristic parameters of fluid flow in high-gravity reactors 2.3 Liquid holdup in high-gravity reactors 2.4 The residence time of liquid in high-gravity reactors References 3.Design principles and methods of high-gravity reactors 3.1 General design information of high-gravity reactors 3.2 Structural design of high-gravity reactors 3.3 High-gravity reactor power calculation 3.4 High-gravity reactor structure References 4.Liquid-liquid reaction system enhancement by high-gravity technology and engineering application 4.1 Molecular mixing and its modeling 4.2 Enhancement of high-gravity condensation reaction and industrial application 4.3 Enhancement of high-gravity sulfonation reaction and industrial application 4.4 High-gravity enhanced polymerization 4.5 Enhancement of high-gravity alkylation reaction 4.6 Enhanced halogenation reaction by high-gravity technology References 5.Reaction enhancement and industrial application of high-gravity technology in gas-liquid system 5.1 Mass transfer behavior and modeling in high-gravity reactors 5.2 High-gravity reaction absorption technology 5.3 High-gravity enhanced reaction and separation coupling technology 5.4 High-gravity oxidation reaction technology References 6.High-gravity reaction engineering of gas-solid system 6.1 Visualization of hydrodynamic characteristics of gas-solid multiphase system in high-gravity reactors 6.2 CFD simulation of gas-phase flow in RPBs 6.3 Research and application of high-gravity catalytic reaction in gas-solid system References 7.High-gravity reaction engineering of gas-liquid-solid system 7.1 CO2 absorption in K2CO3/KHCO3 solution enhanced by the organic phase in high-gravity reactors 7.2 α-Methylstyrene (AMS) catalytic hydrogenation under high-gravity environment 7.3 Hydrogen peroxide production by the high-gravity anthraquinone process 7.4 High-gravity catalytic oxidation for sulfur removal 7.5 High-gravity biochemical reaction References 8.High-gravity reactive crystallization and its industrial application 8.1 Basic principles of nanomaterial preparation by high-gravity reactive crystallization 8.2 Preparation of nanopowders by gas-liquid-solid high-gravity reactive crystallization 8.3 Nanopowder preparation by gas-liquid high-gravity reactive crystallization 8.4 Nanopowder preparation by liquid-liquid high-gravity reactive crystallization 8.5 Scale production of nanopowders by high-gravity method
8.6 Preparation and application of nanodispersions by high-gravity reactive crystallization and extractive phase transfer References Index
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