HiGee Chemical Reaction Engineering
- 1st Edition - March 4, 2025
- Imprint: Elsevier
- Author: Jian-Feng Chen
- Language: English
- Paperback ISBN:9 7 8 - 0 - 4 4 3 - 1 8 5 2 1 - 2
- eBook ISBN:9 7 8 - 0 - 4 4 3 - 1 8 5 2 0 - 5
Higee Chemical Reaction Engineering systematically discusses the fundamentals, principles, and methods of molecular mixing and reaction process intensification. The book de… Read more
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Request a sales quoteHigee Chemical Reaction Engineering systematically discusses the fundamentals, principles, and methods of molecular mixing and reaction process intensification. The book demonstrates the implementation approach, process, and effectiveness of Higee chemical reaction engineering through novel industrial case studies that help industrial technicians select reaction intensification technology route more scientifically. Sections cover the innovation and development process of Higee chemical reaction engineering, hydrodynamics behavior in Higee reactors, equipment design principles and methods, multiphase reaction of liquid-liquid, gas-liquid, gas-solid, gas-liquid-solid and reactive crystallization process intensification principles and effectiveness.
Higee Chemical Reaction Engineering is a systematic summary of several national award and key projects, such as the State Technological Innovation Award, State Science and Technology Advancement Award, National Natural Science Foundation of China, National key R&D Program of China, National ‘‘863’’ Program of China, National ‘‘973’’ Program of China, and also some international cooperation.
- Handles high gravity process intensification technology
- Covers theoretical innovation in multiphase reaction intensified by high gravity
- Provides engineering application cases in chemical engineering, materials science, ocean engineering, and environmental engineering
- Provides systematic understanding of high gravity process intensification through theories and industrial applications
(Under)graduate students, researchers and engineers in chemical engineering, materials science, environmental science, and biology
- Higee Chemical Reaction Engineering
- Cover image
- Title page
- Table of Contents
- Copyright
- About the author
- Preface
- Chapter 1 Introduction to high-gravity reaction engineering
- Abstract
- Keywords
- 1.1 Introduction to chemical reaction engineering
- 1.2 High-gravity intensification technology
- 1.3 High-gravity reaction engineering
- 1.3.1 Creating cross-scale molecular reaction engineering model and proposing new way to intensify high-gravity reaction
- 1.3.2 Establishing scientific scale-up method for high-gravity reactor and making breakthroughs in key technology for large-scale equipment
- 1.3.3 Creating series of new high-gravity intensification technologies and achieving scale-up applications
- 1.4 Future development
- 1.4.1 Application of high-gravity process intensification technology in industrial catalysis
- 1.4.2 Application of high-gravity process intensification technology in polymerization reaction
- 1.4.3 Application of high-gravity intensification technology in intrinsic safety and process reengineering in chemical production
- 1.4.4 Application of high-gravity intensification technology in preparation of nanomaterial and nanodispersion
- References
- Chapter 2 Hydrodynamic behavior in high-gravity reactors
- Abstract
- Keywords
- 2.1 Phenomenon and description of fluid flow in high-gravity reactors
- 2.1.1 Flow pattern of fluid in the packing
- 2.1.2 Uneven distribution of liquid in the packing
- 2.1.3 Flow pattern of liquid in the cavity area
- 2.2 Characteristic parameters of fluid flow in high-gravity reactors
- 2.2.1 Characteristics of liquid flow in RPB
- 2.2.2 Characteristics of gas-phase flow in RPB
- 2.3 Liquid holdup in high-gravity reactor
- 2.3.1 Overview of liquid holdup and measurement methods
- 2.3.2 Research on liquid holdup in RPB
- 2.4 The residence time of liquid in a high-gravity reactor
- References
- Chapter 3 Design principles and methods of high-gravity reactor
- Abstract
- Keywords
- 3.1 General design information of high-gravity reactor
- 3.2 Structural design of high-gravity reactor
- 3.2.1 Determination of the geometric dimensions of the main components
- 3.2.2 Structural design and strength calculation of the drum
- 3.2.3 Comparison of the two forms of drums
- 3.3 High-gravity reactor power calculation
- 3.3.1 Liquid dumping power
- 3.3.2 Gas resistance losses
- 3.3.3 Mechanical losses
- 3.4 High-gravity reactor structure
- 3.4.1 Development of high-gravity equipment structure
- 3.4.2 New high-gravity equipment
- References
- Chapter 4 Liquid-liquid reaction system enhancement by high-gravity and engineering application
- Abstract
- Keywords
- 4.1 Molecular mixtures and their modeling
- 4.1.1 The concept of molecular mixing and microscopic visualization
- 4.1.2 Experimental study on molecular mixing
- 4.1.3 Molecular mixing model of high-gravity reactor
- 4.2 Enhancement of high-gravity condensation reaction and industrial application
- 4.2.1 Overview of condensation reaction
- 4.2.2 New process of high-gravity condensation reaction
- 4.2.3 Industrial application and effectiveness
- 4.3 Enhancement of high-gravity sulfonation reaction and industrial application
- 4.3.1 Overview of sulfonation reaction
- 4.3.2 New process of high-gravity sulfonation reaction
- 4.4 High-gravity enhanced polymerization
- 4.4.1 Overview of polymerization
- 4.4.2 New process of high-gravity enhanced polymerization
- 4.5 Enhancement of high-gravity alkylation reaction
- 4.5.1 Overview of alkylation reaction
- 4.5.2 New process of high-gravity alkylation reaction enhancement
- 4.6 Enhanced halogenation reaction by high-gravity technology
- 4.6.1 Introduction of halogenation reaction
- 4.6.2 The new process for high-gravity technology enhanced halogenation reaction
- References
- Chapter 5 Reaction enhancement and industrial application of high-gravity technology in gas-liquid system
- Abstract
- Keywords
- 5.1 Mass transfer behavior and modeling in high-gravity reactor
- 5.1.1 Research on gas-liquid mass transfer behavior in high-gravity reactor
- 5.1.2 Modeling of mass transfer behavior in high-gravity reactor
- 5.1.3 CFD simulation of gas–liquid two-phase flow in high-gravity reactor
- 5.2 High-gravity reaction absorption technology
- 5.2.1 Removal of CO2 by high-gravity reaction
- 5.2.2 Removal of H2S in high-gravity reactor
- 5.2.3 Removal of SO2 by high-gravity reactor
- 5.2.4 Removal of NOx by high-gravity reaction technology
- 5.3 High-gravity enhanced reaction and separation coupling technology
- 5.3.1 Production of hypochlorous acid by high-gravity reaction and separation coupling technology
- 5.3.2 Application of high-gravity reaction and separation coupling technology in mercaptan removal from liquefied gas
- 5.4 High-gravity oxidation reaction technology
- 5.4.1 Preparation of cyclohexanone by high-gravity oxidation of cyclohexane
- 5.4.2 High-gravity advanced oxidation technology
- References
- Chapter 6 High-gravity reaction engineering of gas-solid system
- Abstract
- Keywords
- 6.1 Visualization of hydrodynamic characteristics of gas-solid multiphase system in high-gravity reactors
- 6.1.1 Visual observation of fluid flow in gas-solid multiphase system in high-gravity reactors
- 6.1.2 Visual analysis of gas-phase flow field
- 6.1.3 Analysis of experimental results of influence factors on gas-phase flow field
- 6.2 CFD simulation of gas-phase flow in the RPB
- 6.2.1 Establishment of gas flow model in the RPB
- 6.2.2 CFD simulation of gas-phase flow field in the RPB
- 6.2.3 Effect of operating conditions on gas-phase flow characteristics
- 6.2.4 Simulation of gas-phase residence time distribution
- 6.3 Research and application of high-gravity catalytic reaction in gas-solid system
- 6.3.1 Establishment of gas-solid catalytic reaction model in the RPB
- 6.3.2 Characteristics of gas-solid catalytic reaction in the RPB
- References
- Chapter 7 High-gravity reaction engineering of gas-liquid-solid system
- Abstract
- Keywords
- 7.1 CO2 absorption in K2CO3/KHCO3 solution enhanced by the organic phase in the high-gravity reactor
- 7.1.1 Effect of benzene volume fraction and rotation speed
- 7.1.2 Effect of gas flow rate and liquid flow rate
- 7.1.3 Effect of temperature and NaClO concentration
- 7.1.4 Establishment of correlation
- 7.1.5 Comparison of CO2 absorption performance between three organic phases
- 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
- 7.4.1 Principle of catalytic oxidation of spent caustics for sulfur removal
- 7.4.2 Effect of various factors on sulfur removal
- 7.5 High-gravity biochemical reaction
- 7.5.1 Internal circulation high-gravity reactor
- 7.5.2 Study on fermentation performance of exopolysaccharide in high-gravity reactor
- References
- Chapter 8 High-gravity reactive crystallization and its industrial application
- Abstract
- Keywords
- 8.1 Basic principles of nanomaterial preparation by high-gravity reactive crystallization
- 8.1.1 Formation of nanoparticles by liquid-phase methods [1–4]
- 8.1.2 Basic principles of nanomaterial preparation by high-gravity method [4,5]
- 8.2 Preparation of nanopowders by gas-liquid-solid high-gravity reactive crystallization
- 8.2.1 Principle and process of nano CaCO3 preparation by high-gravity method
- 8.2.2 Study on process characteristics of nano CaCO3 preparation by high-gravity method
- 8.2.3 Effect of operating conditions
- 8.2.4 Morphology control of nano CaCO3
- 8.2.5 Comparison of different methods for nano CaCO3 preparation
- 8.3 Nanopowder preparation by gas-liquid high-gravity reactive crystallization
- 8.3.1 Principle and process of nano aluminum hydroxide preparation by high-gravity method [15–20]
- 8.3.2 Analysis of carbonation decomposition of sodium aluminate solution
- 8.4 Nanopowder preparation by liquid-liquid high-gravity reactive crystallization
- 8.4.1 Nanometal preparation by liquid-liquid high-gravity method [29–32]
- 8.4.2 Nano metal oxide preparation by liquid-liquid high-gravity method [30–32]
- 8.4.3 Nano metal hydroxide preparation by liquid-liquid high-gravity method [33–37]
- 8.4.4 Preparation of other nano materials by liquid-liquid high-gravity method [38–48]
- 8.4.5 Nanocomposite preparation by liquid-liquid high-gravity method [49–55]
- 8.5 Scale production of nanopowder by high-gravity method
- 8.5.1 Scale production of nano CaCO3 by high-gravity method
- 8.5.2 Nano magnesium hydroxide preparation by high-gravity method
- 8.6 Preparation and application of nanodispersion by high-gravity reactive crystallization and extractive phase transfer
- 8.6.1 Nanodispersion preparation by high-gravity reactive in situ extractive phase transfer
- 8.6.2 Nanodispersion preparation by high-gravity reactive crystallization/extractive phase transfer
- 8.6.3 Applications of nanodispersions
- References
- Index
- Edition: 1
- Published: March 4, 2025
- Imprint: Elsevier
- No. of pages: 376
- Language: English
- Paperback ISBN: 9780443185212
- eBook ISBN: 9780443185205
JC
Jian-Feng Chen
Professor Jian-Feng Chen is the Member of the Chinese Academy of Engineering and has been promoted to Secretary-general of the Chinese Academy of Engineering since June 2018. He is also Director of State Key Laboratory of Organic-Inorganic Composites, Director of Research Center of the Ministry of Education for High Gravity Engineering and Technology and Vice President of Beijing University of Chemical Technology, China. Prof. Chen received a BSc degree and a PhD degree from Zhejiang University in Chemical Engineering in 1986 and 1992, respectively. He finished his postdoctoral research in Zhejiang University in 1994, and then joined Beijing University of Chemical Technology as an Associate Professor and a Full Professor in 1997. Prof. Chen was a visiting full professor at Case Western Reserve University, USA from 1997 to 1998 and a Research Professor in Nanyang Technological University, Singapore from 1999 to 2000. He has received many awards including Cheung Kong Distinguished Professor (2002), National Science Foundation Prize for Distinguished Young Scholars (2003), Leading Scientist of National High-level Personnel of Special Support Program (2012). Moreover, Prof. Chen served as the Vice-Chairman of the Institute of Chemical Engineering of China, Vice-Chairman of Chinese Particuology Society; Panel Committee Chair of National “863” Program for Nanomaterials and Nanodevices technology; and Associate Editor/Editorial Board Member of several international journals such as Industrial & Engineering Chemistry Research (ACS), Particuology (Elsevier), Chemical Engineering & Technology (Wiley), The Canadian Journal of Chemical Engineering (Wiley), Reaction Chemistry & Engineering (RSC); Member of Executive Committee of World Chemical Engineering Council (WCEC).
Prof. Chen’s research interests involve Process Intensification (especially high gravity technology (Rotating Packed Bed Reactor technology)), Nanomaterials and Nanodrug delivery systems. He has filed over 160 patents and published more than 400 papers in AIChE J., Angew. Chem. Int. Ed., Adv. Mater. etc. As the Principal Investigator, Prof. Chen has been granted the National Invention Award and the National Scientific and Technological Progress Award 4 times. He has also been granted nine provincial awards, Dow Chemical Fellowship Award, the 8th National Outstanding Young Scientist Award, and the title of the National Excellent Teacher, etc.
Affiliations and expertise
State Key Laboratory of Organic-Inorganic Composites and Beijing University of Chemical Technology, Beijing, ChinaRead HiGee Chemical Reaction Engineering on ScienceDirect