HiGee Chemical Reaction Engineering

Name: HiGee Chemical Reaction Engineering
Price: 180 USD
Availability: InStock
ISBN: 9780443185212

by Jian-Feng Chen

1st Edition

Publisher: Elsevier

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Chemical Engineering

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Book Details

Print ISBN	9780443185212
eText ISBN	9780443185205
Publisher	Elsevier
Publishing Year	2025
Edition	1st Edition
Language	English

"HiGee Chemical Reaction Engineering, 1st Edition", authored by Jian-Feng Chen and published by Elsevier, is an academic textbook that systematically presents the core fundamentals, principles, and methods of molecular mixing and reaction process intensification. The volume outlines the primary theoretical foundations necessary to evaluate how high gravity fields modify fluid transport phenomena and chemical process efficiency.

The text systematically examines hydrodynamic behavior inside HiGee reactors, evaluating critical operational parameters including liquid holdup and fluid residence time. In addition to fluid dynamics analysis, the text outlines primary equipment design principles, detailing structural design methods and mechanical power calculations required to construct functioning high gravity reactor units.

This textbook supports advanced coursework and technical reference needs for undergraduate students, graduate students, and academic researchers. It delivers relevant technical guidance for chemical engineers, materials science engineers, environmental science engineers, and biology engineers who seek clear analytical methods for high gravity process intensification.

Chapter 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
Chapter 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
Chapter 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
Chapter 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
Chapter 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
Chapter 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
Chapter 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
Chapter 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