Engineering TribologyAs with the previous edition, the third edition of Engineering Tribology provides a thorough understanding of friction and wear using technologies such as lubrication and special materials. Tribology is a complex topic with its own terminology and specialized concepts, yet is vitally important throughout all engineering disciplines, including mechanical design, aerodynamics, fluid dynamics and biomedical engineering. This edition includes updated material on the hydrodynamic aspects of tribology as well as new advances in the field of biotribology, with a focus throughout on the engineering applications of tribology.This book offers an extensive range if illustrations which communicate the basic concepts of tribology in engineering better than text alone. All chapters include an extensive list of references and citations to facilitate further in-depth research and thorough navigation through particular subjects covered in each chapter.
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Contents
| 1 | |
| 11 | |
| 51 | |
CHAPTER 4 HYDRODYNAMIC LUBRICATION | 103 |
CHAPTER 5 COMPUTATIONAL HYDRODYNAMICS | 205 |
CHAPTER 6 HYDROSTATIC LUBRICATION | 261 |
CHAPTER 7 ELASTOHYDRODYNAMIC LUBRICATION | 287 |
CHAPTER 8 BOUNDARY AND EXTREME PRESSURE LUBRICATION | 363 |
CHAPTER 11 ABRASIVE EROSIVE AND CAVITATION WEAR | 501 |
CHAPTER 12 ADHESION AND ADHESIVE WEAR | 553 |
CHAPTER 13 CORROSIVE AND OXIDATIVE WEAR | 573 |
CHAPTER 14 FATIGUE WEAR | 595 |
CHAPTER 15 FRETTING AND MINOR WEAR MECHANISMS | 621 |
CHAPTER 16 WEAR OF NONMETALLIC MATERIALS | 651 |
CHAPTER 17 FUTURE DIRECTIONS IN TRIBOLOGY | 705 |
APPENDIX | 719 |
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Common terms and phrases
abrasive wear additives adhesive wear adsorption alloys applications ASLE Transactions asperities boundary calculated cause cavitation ceramics characteristics chemical coating coefficient of friction contact area contact fatigue counterface crack dimensionless effect EHL film elastic elastohydrodynamic engineering EP additives erosive wear example fluid formation fprintf friction and wear friction coefficient friction force geometry grease groove heat hexadecane high temperatures hydrodynamic lubrication illustrated in Figure increase iteration journal bearing layer load capacity lubricant flow lubricating film material maximum mineral oils molybdenum disulphide nodes non-dimensional occurs oxidation oxide film oxygen pad bearing parameter plastic deformation polymer pressure field Proc ratio Reynolds equation rolling contact scuffing shaft shear rate shear stress shown in Figure silicon sliding contact sliding speed solid lubricant squeeze film steel substrate thermal Transactions ASME Tribology velocity viscosity wear and friction wear debris wear particles wear rate wear resistance worn surface