Part OneLubrication Theory and Lubrication Design
Chapter 1Properties of lubrication film
1.1Lubrication states
1.2Density of lubricants
1.3Viscosity of fluids
1.4NonNewtonian properties and rheological model
1.5Lubricant wettability
1.6Measurement and exchange of viscosity
References
Chapter 2Basic theory of hydrodynamic lubrication
2.1Reynolds equation
2.2Hydrodynamic lubrication
2.3Basic elasticity theory of contact problems
2.4Elastohydrodynamic lubrication inlet analysis
2.5Grease lubrication
2.6Elastohydrodynamic lubrication state diagrams
References
Chapter 3Numerical methods of lubrication calculation
3.1Numerical solutions of Reynolds equation
3.2Numerical solutions of energy equation
3.3Numerical solutions of elastohydrodynamic lubrication
3.4Multigrid level method used in lubrication problems
References
Chapter 4Lubrication design of typical mechanical elements
4.1Slider and thrust bearing
4.2Journal bearing
4.3Hydrostatic bearing
4.4Squeezing bearing
4.5Dynamic bearing
4.6Gas bearing
4.7Rolling contaet bearing
4.8Gear lubrication
4.9Cam lubrication
References
Chapter 5Lubrication of special fluid medias
5.1Magneto fluid lubrication
5.2Micropolar fluid lubrication
5.3Liquid crystal lubrication
5.4Double electric layer effect in water thin film lubrication
5.5Emulsion lubrication
References
Chapter 6Transformation of lubrication states and nano thin film lubrication
6.1Transformation of lubrication states
6.2Nano film lubrication of liquid
6.3Numerical analysis of thin film lubrication
6.4Nano film lubrication of gas
References
Chapter 7Boundary lubrication and additives
7.1Types of boundary lubrication
7.2Theory of boundary lubrication
7.3Additives of lubricant
References
Chapter 8Lubrication failure and mixed lubrication
8.1Influence of roughness and material viscoelastic property on lubrication
failure
8.2Influence of fluid limiting shear stress on lubrication failure
8.3Influence of temperature on lubrication failure
8.4Mixed lubrication state
References
Part TwoFriction and Wear Mechanisms and Friction Control
Chapter 9Surface topography and surface contacts
9.1Parameters of surface topography
9.2Statistic parameters of surface topography
9.3Rough surface contacts
References
Chapter 10Soliding friction and its applications
10.1Basic characteristics of friction
10.2Macro friction theory
10.3Micro friction theory
10.4Sliding friction
10.5Other friction problems and friction control
References
Chapter 11Fretting friction and its applications
11.1Development and classification of fretting tribology
11.2Theory of fretting friction
11.3Approches of improving fretting performance
11.4Researches on the applications of fretting tribology
References
Chapter 12Rolling friction and its applications
12.1Basic theories of rolling friction
12.2Wheelrail rolling friction and thermal analysis
12.3Application of rolling friction theory in design of lunar rover
vehicle
References
Chapter 13Wear characteristics and mechanisms
13.1Wear classification
13.2Abrasive wear
13.3Adhesive wear
13.4Fatigue wear
13.5Corrosion wear
References
Chapter 14Macro wear laws and wear theories
14.1Materials of friction pair
14.2Curves of wear processes
14.3Surface quality and wear
14.4Adhesive wear theory
14.5Energy wear theory
14.6Spalling theory and fatigue wear theory
14.7Wear calculation
References
Chapter 15Antiwear designs and surface coatings
15.1Choice of lubricants and additives
15.2Principles of friction pair material choice
15.3Surface coatings
15.4Measurement of coating properties
References
Chapter 16Tribological experiments and state detection
16.1Methods and equipments of tribological experiments
16.2Measurement of wear
16.3State analysis of friction surface
16.4Detection of wear states
16.5Analysis of wear failure
References
Part ThreeApplied Tribology
Chapter 17Micro tribology
17.1Micro friction
17.2Micro contact and adhesive phenomena
17.3Micro wear
17.4Molecular film and boundary lubrication
References
Chapter 18Metal forming tribology
18.1Mechanics basics in forming technology
18.2Forge tribology
18.3Drawing tribology
18.4Milling tribology
18.5Cutting tribology
References
Chapter 19Biological tribology
19.1Fundamental of mechanics on biological soft tissue
19.2Characteristics of liquid lubricant of joints
19.3Men and animal joint lubrication
19.4Friction and wear of joint
19.5Study on other biological tribology
References
Chapter 20Space tribology
20.1Space machinery and features of space tribology
20.2Analysis of space tribological properties
20.3Space lubricants
20.4Features of space lubrication
20.5Accelerating life tests and equipments
References
Chapter 21Ocean tribology
21.1Ocean enriro ment and ocean tribology characteristics
21.2Systems and equipments in ocean tribology
21.3Tribology characteristics of ocean materials
21.4Derelopment trend of ocean tribology
References
Chapter 22MEMS tribology
22.1Tribological problems in MEMS
22.2Friction analysis of MEMS
22.3Study on micromotor friction
22.4Wear analysis of MEMS
References
ChineseEnglish List and Index
內容試閱:
清华大学摩擦学国家重点实验室于1984年开始筹建,1988年通过国家验收并正式成立,成为我国摩擦学领域重要的基础性研究和人才培养基地,一直致力于服务国家的现代化建设,迄今已走过30余年的历程。与此同时,温诗铸教授撰写的《摩擦学原理》著作于1988年末定稿,1990年初正式出版发行,迄今也走过近30年历程。在这一过程中,根据科学研究持续发展,我们不断充实和扩展学科内容,相继修订再版。该书可作为培养机械工程学科以摩擦学为研究方向、机械设计与理论专业研究生的学位课程教材,也可作为从事相关学科领域科学技术人员的参考书。《摩擦学原理》自出版以来得到从事机械工程科技工作的同行们的热情支持,得以广泛引用,对于推动摩擦学知识传播和科学技术发展起到重要作用。1992年,本书获得第六届全国优秀科技图书二等奖。在这近30年期间,《摩擦学原理》从初版到历次修订共发行了4版。篇幅逐版增加,由初版40.9万字,扩充到第4版67.5万字,增加了近60%,所阐述的科学内容在深度和广度方面都有很大的发展。从《摩擦学原理(第2版)》开始,邀请了在清华大学摩擦学国家重点实验室工作多年的黄平教授共同编写。黄平教授在摩擦学研究中取得了丰硕的创新成果,对于不断提高本书的学术水平做出了重要贡献。2012年,根据英国Wiley出版社的要求,我们在中文版《摩擦学原理(第4版)》的基础上出版了英文版Principles of Tribology。2015年,再次应Wiley出版社的要求,作者进一步充实和补充内容,Principles of Tribology(2nd Edition)于2017年8月在国外出版发行,同年10月在中国大陆出版发行。科学实践使我们深刻认识到科技著作必须跟随着科学技术的日益发展而不断充实提高,我们需要努力发现本学科发展的新原理新技术,同时也要密切关注未来社会生产提出的挑战和需求。为此,在《摩擦学原理(第5版)》的编写过程中,我们力争做到推陈出新。为此,我们邀请清华大学摩擦学国家重点实验室在科学研究中做出突出贡献的青年学者田煜和马丽然共同参与编写。他们学风严谨踏实,具有开拓进取和求实创新的精神,一贯坚持深入科学研究实践。在本学科及其相关领域,积累了较全面的认识。本书由他们对于全书进行进一步整合修订,同时,根据近年来科学技术的发展补充了新的内容。在本书编写中,我们力图全面系统地反映当今摩擦学的基本内容,同时,介绍新近的研究进展以及未来发展趋势。对于本学科的经典内容作了进一步精炼。本书引用了国内外许多学者的研究成果,作者对于他们为摩擦学发展做出的贡献,及为本书出版给予的热情支持,表示最衷心的感谢!
作者2018年1月于清华大学