Metal Machining: Theory and ApplicationsMetal machining is the most widespread metal-shaping process in the mechanical manufacturing industry. World-wide investment in metal machining tools increases year on year - and the wealth of nations can be judged by it. This text - the most up-to-date in the field - provides in-depth discussion of the theory and application of metal machining at an advanced level. It begins with an overview of the development of metal machining and its role in the current industrial environment and continues with a discussion of the theory and practice of machining. The underlying mechanics are analysed in detail and there are extensive chapters examining applications through a discussion of simulation and process control."Metal Machining: Theory and Applications" is essential reading for senior undergraduates and postgraduates specialising in cutting technology. It is also an invaluable reference tool for professional engineers. Professors Childs, Maekawa, Obikawa and Yamane are four of the leading authorities on metal machining and have worked together for many years.Of interest to all mechanical, manufacturing and materials engineersTheoretical and practical problems addressed |
Contents
| 1 | |
| 35 | |
Chapter 3 Work and tool materials | 81 |
Chapter 4 Tool damage | 118 |
Chapter 5 Experimental methods | 136 |
Chapter 6 Advances in mechanics | 159 |
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Common terms and phrases
alumina aluminium analysis asperity carbon steel ceramic tools cermets Chapter chip and tool chip flow chip formation chip/tool coated components constant contact length contact stress cost cutting conditions cutting force cutting speed cutting tool deformation depends depth of cut developed deviatoric drilling elastic end milling equation example feed finite element finite element method flank wear flow stress fracture friction stress fuzzy geometry hardening heat high speed steel increases insert kwork load lubrication m/min machine tool manufacturing maximum measured mechanical metal cutting metal machining milling machines monitoring Obikawa operation optimization Oxley prediction rake angle rake face range region Section shear plane angle shear stress Shirakashi shown in Figure shows simulation slip-line field strain rate Table thermal tion tool materials tool wear turning Uchip uncut chip thickness Usui Uwork values variations velocity workpiece Young's modulus