- 超重力反应工程(英文版)(精)/化工过程强化关键技术丛书
- - 作者：陈建峰//孙宝昌//罗勇//张亮亮|责编:任睿婷//杜进祥//吕尤|总主编:中国化工学会
  - 出版社：化学工业
  - ISBN：9787122485229
  - 出版日期：2026/01/01
  - 页数：364
- 售价：239.2

内容大纲
《超重力反应工程》是一本极具权威性与实用性的综合性参考书籍，系统且全面地呈现了超重力反应工程的基本原理及其在工业领域的广泛应用。书中从分子化学工程视角出发，深入剖析超重力反应过程强化的科学内涵、核心原理、实施方法及实际应用场景，构建起从微观分子到宏观工厂应用的完整知识体系。同时，对超重力反应器的流体动力学行为、设计准则与方法，以及新型多相反应过程和反应结晶技术进行了重点阐释。
本书融合多学科知识，内容丰富，适用于化学工程、能源化学工程、化工机械、环境工程和材料工程等领域的科研人员、技术工作者、教师和学生参考。
作者介绍
陈建峰，中国工程院院士（2015），北京化工大学教授，博士生导师。现任有机无机复合材料国家重点实验室主任，教育部超重力工程研究中心主任。1986年浙江大学本科毕业，1992年获浙江大学博士学位，1994年6月浙江大学博士后出站至北京化工大学工作。曾任美国凯斯西储大学客座/兼职教授，新加坡南洋理工大学环境科技研究院研究员。兼任/曾任世界化工联盟（WCEC）执委，国家“863”计划纳米材料与器件主题专家组召集人，国家重点研发计划专家组成员，中国工程院院刊Engineerinig执行主编，国际杂志Reaction Chemistry & Engineering、 ChemicalEngineering & Technology等编委。化学工程专家，长期从事纳米材料和超重力技术领域的研究。提出微观混合反应工程理论，在国际上率先提出并开拓了超重力反应工程新领域，并实现大规模工业应用，为我国超重力技术由合作跟踪到国际工业引领的转变做出了突出贡献。曾主持国家基金委重大项目、创新研究群体项目、国家863重点项目等。发表SCl论文400余篇，授权发明专利160余件。作为第一完成人获国家技术发明奖二等奖2项、国家科技进步奖二等奖1项，另作为主要完成人获国家技术发明奖二等奖、国家专利金奖和国家级教学成果奖一等奖各1项等。获全国首届创新争先奖、何梁何利基金创新奖、全国优秀教师等荣誉。
目录
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

内容大纲

作者介绍

目录

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