HiGee Chemical Reaction Engineering
- 1st Edition - March 4, 2025
- Latest edition
- Author: Jian-Feng Chen
- Language: English
Higee Chemical Reaction Engineering systematically discusses the fundamentals, principles, and methods of molecular mixing and reaction process intensification. The book de… Read more
World Book Day celebration
Where learning shapes lives
Up to 25% off trusted resources that support research, study, and discovery.
Description
Description
Higee 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.
Key features
Key features
- 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
Readership
Readership
(Under)graduate students, researchers and engineers in chemical engineering, materials science, environmental science, and biology
Table of contents
Table of contents
1. Introduction of Higee chemical reaction engineering
1.1 Introduction of Higee intensification technology
1.2 Higee chemical reaction engineering
1.3 Outlook
1.4 References
2. Hydrodynamics behavior in Higee reactor
2.1 Fluid flow phenomenon and description in Higee reactor
2.2 Characteristic parameter of fluid in Higee reactor
2.3 Liquid holding capacity of packing in Higee reactor
2.4 Residence time of liquid in Higee reactor
2.5 References
3. Design principle and method of Higee reactor
3.1 General design idea of Higee reactor
3.2 Structure design of Higee reactor
3.3 Power calculation of Higee reactor
3.4 Structure and development of Higee reactor
3.5 References
4. Liquid-liquid system intensified by high gravity and industrial application
4.1 Molecular mixing and modeling
4.2 Condensation reaction intensified by high gravity and industrial application
4.3 Sulfonation reaction intensified by high gravity and industrial application
4.4 Polymerization reaction intensified by high gravity
4.5 Alkylation reaction intensified by high gravity
4.6 Halogenation reaction intensified by high gravity
4.7 References
5. Gas-liquid system intensified by high gravity and industrial application
5.1 Mass transfer in Higee reactor and modeling
5.2 Absorption in Higee reactor
5.3 Separation coupling in Higee reactor
5.4 Oxidation reaction in Higee reactor
5.5 References
6. Gas-solid multiphase system Higee reaction engineering
6.1 Fluid mechanics visualization research for gas-solid multiphase system in Higee reactor
6.2 CFD simulation study of gas flow in RPB
6.3 Research and application of gas-solid multiphase catalytic reaction in Higee reactor
6.4 References
7. Gas-liquid-solid system Higee reaction engineering
7.1 Absorption of CO2 by K2CO3/KHCO3 intensified by organic phase in Higee reactor
7.2 α-Methylstyrene hydrogenation reaction in Higee reactor
7.3 Hydrogen peroxide preparation by anthracene- quinone in Higee reactor
7.4 Desulfurization by high gravity catalytic oxidation
7.5 Biochemical reaction by high gravity
7.6 References
8. Crystallization reaction by high gravity and industrial application
8.1 Basic principle of nanomaterial preparation by high gravity crystallization
8.2 Nano powder preparation by gas-liquid-solid high gravity crystallization
8.3 Nano powder preparation by gas-liquid high gravity crystallization
8.4 Nano powder preparation by liquid-liquid high gravity crystallization
8.5 Large-scale Nano powder production by high gravity
8.6 Nano dispersion preparation by high gravity crystallization extraction and application
8.7 References
1.1 Introduction of Higee intensification technology
1.2 Higee chemical reaction engineering
1.3 Outlook
1.4 References
2. Hydrodynamics behavior in Higee reactor
2.1 Fluid flow phenomenon and description in Higee reactor
2.2 Characteristic parameter of fluid in Higee reactor
2.3 Liquid holding capacity of packing in Higee reactor
2.4 Residence time of liquid in Higee reactor
2.5 References
3. Design principle and method of Higee reactor
3.1 General design idea of Higee reactor
3.2 Structure design of Higee reactor
3.3 Power calculation of Higee reactor
3.4 Structure and development of Higee reactor
3.5 References
4. Liquid-liquid system intensified by high gravity and industrial application
4.1 Molecular mixing and modeling
4.2 Condensation reaction intensified by high gravity and industrial application
4.3 Sulfonation reaction intensified by high gravity and industrial application
4.4 Polymerization reaction intensified by high gravity
4.5 Alkylation reaction intensified by high gravity
4.6 Halogenation reaction intensified by high gravity
4.7 References
5. Gas-liquid system intensified by high gravity and industrial application
5.1 Mass transfer in Higee reactor and modeling
5.2 Absorption in Higee reactor
5.3 Separation coupling in Higee reactor
5.4 Oxidation reaction in Higee reactor
5.5 References
6. Gas-solid multiphase system Higee reaction engineering
6.1 Fluid mechanics visualization research for gas-solid multiphase system in Higee reactor
6.2 CFD simulation study of gas flow in RPB
6.3 Research and application of gas-solid multiphase catalytic reaction in Higee reactor
6.4 References
7. Gas-liquid-solid system Higee reaction engineering
7.1 Absorption of CO2 by K2CO3/KHCO3 intensified by organic phase in Higee reactor
7.2 α-Methylstyrene hydrogenation reaction in Higee reactor
7.3 Hydrogen peroxide preparation by anthracene- quinone in Higee reactor
7.4 Desulfurization by high gravity catalytic oxidation
7.5 Biochemical reaction by high gravity
7.6 References
8. Crystallization reaction by high gravity and industrial application
8.1 Basic principle of nanomaterial preparation by high gravity crystallization
8.2 Nano powder preparation by gas-liquid-solid high gravity crystallization
8.3 Nano powder preparation by gas-liquid high gravity crystallization
8.4 Nano powder preparation by liquid-liquid high gravity crystallization
8.5 Large-scale Nano powder production by high gravity
8.6 Nano dispersion preparation by high gravity crystallization extraction and application
8.7 References
Product details
Product details
- Edition: 1
- Latest edition
- Published: June 13, 2025
- Language: English
About the author
About the author
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, ChinaView book on ScienceDirect
View book on ScienceDirect
Read HiGee Chemical Reaction Engineering on ScienceDirect