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Cover image for Metal cutting
Title:
Metal cutting
Personal Author:
Edition:
4th ed.
Publication Information:
Boston : Butterworth Heinemann, 2000
ISBN:
9780750670692
Added Author:

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30000004571604 TJ1185 T73 2000 Open Access Book Book
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30000004357152 TJ1185 T73 2000 Open Access Book Book
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30000003480757 TJ1185 T73 2000 Open Access Book Book
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Summary

Summary

Metal cutting is an essential process throughout engineering design and manufacturing industries. To increase efficiency and reduce costs, it is necessary to improve understanding of the metal cutting process. This book presents a comprehensive treatment of the subject that focuses on the features of the behavior of tool and work materials that influence the efficiency of metal cutting operations.

The fourth edition of this acclaimed book has been expanded and revised to include significant changes and additions to metal cutting theory, and to cover developments in tool materials and industrial practice. In particular, improvements in the understanding of the generation of heat and distribution of temperature in the cutting tool are described; a discussion of the structure, properties, and performance of newly developed ceramic tool materials and tool coatings is presented; new information of the machinability of alloys is given; and the introduction of calcium deoxidized steels and their improved machinability are assessed. Additionally, a material selection and design-based approach is expanded upon to improve industrial relevance.

Metal Cutting provides invaluable information for those engaged in machining, toolmaking, and related engineering activities, and it serves as a useful introduction to the subject for students of metallurgy and engineering.


Author Notes

Edward Moor Trent, who was born in England, gained his M.Sc., Ph.D. and D.Met. in Metallurgy at Sheffield University. At Wickman/Wimet in Coventry, England, he was the first to describe the diffusion wear mechanisms in tungsten-carbide-cobalt cutting tools. This work was the foundation for new grades of carbide for cutting steels, and subsequently for the development of coated cutting tools. He was later a Senior Lecturer in the Industrial Metallurgy Department at Birmingham University. He was awarded the "Hadfield Medal" by the Iron and Steel Institute in recognition of his contributions to metallurgy.
Paul Kenneth Wright, who was born in England and now resides in Berkeley, California, is professor of Mechanical Engineering and co-chairman of the Management of Technology Program at the University of California, Berkeley School of Engineering. He is also the Associate Dean for Distance Learning and Instructional Technology.


Table of Contents

Forewordp. ix
Prefacep. xi
Acknowledgementsp. xv
Chapter 1 Introduction: Historical and Economic Contextp. 1
The Metal Cutting (or Machining) Processp. 1
A Short History of Machiningp. 2
Machining and the Global Economyp. 4
Summary and Conclusionp. 7
Referencesp. 8
Chapter 2 Metal Cutting Operations and Terminologyp. 9
Introductionp. 9
Turningp. 9
Boring Operationsp. 12
Drillingp. 13
Facingp. 14
Forming and Parting Offp. 14
Millingp. 14
Shaping and Planingp. 16
Broachingp. 18
Conclusionp. 19
Referencesp. 19
Bibliography (Also see Chapter 15)p. 19
Chapter 3 The Essential Features of Metal Cuttingp. 21
Introductionp. 21
The Chipp. 23
Techniques for Study of Chip Formationp. 24
Chip Shapep. 25
Chip Formationp. 26
The Chip/tool Interfacep. 29
Chip Flow Under Conditions of Seizurep. 40
The Built-up Edgep. 41
Machined Surfacesp. 47
Summary and Conclusionp. 47
Referencesp. 55
Chapter 4 Forces and Stresses in Metal Cuttingp. 57
Introductionp. 57
Stress on the Shear Planep. 58
Forces in the Flow Zonep. 60
The Shear Plane and Minimum Energy Theoryp. 62
Forces in Cutting Metals and Alloysp. 74
Stresses in the Toolp. 79
Stress Distributionp. 80
Conclusionp. 95
Referencesp. 95
Chapter 5 Heat in Metal Cuttingp. 97
Introductionp. 97
Heat In the Primary Shear Zonep. 98
Heat at the Tool/work Interfacep. 102
Heat Flow at the Tool Clearance Facep. 112
Heat in Areas of Slidingp. 113
Methods of Tool Temperature Measurementp. 114
Measured Temperature Distribution in Toolsp. 121
Relationship of Tool Temperature to Speedp. 126
Relationship of Tool Temperature to Tool Designp. 128
Conclusionp. 130
Referencesp. 130
Chapter 6 Cutting Tool Materials I: High Speed Steelsp. 132
Introduction and Short Historyp. 132
Carbon Steel Toolsp. 133
High Speed Steelsp. 138
Structure and Compositionp. 140
Properties of High Speed Steelsp. 144
Tool Life and Performance of High Speed Steel Toolsp. 149
Tool-life Testingp. 163
Conditions of Usep. 166
Further Developmentp. 167
Conclusionp. 173
Referencesp. 173
Chapter 7 Cutting Tool Materials II: Cemented Carbidesp. 175
Cemented Carbides: an Introductionp. 175
Structures and Propertiesp. 176
Tungsten Carbide-Cobalt Alloys (WC-Co)p. 177
Tool Life and Performance of Tungsten Carbide-Cobalt Toolsp. 186
Tungsten-Titanium-Tantalum Carbide Bonded with Cobaltp. 202
Performance of (WC+TiC+TaC) -Co Toolsp. 205
Perspective: "Straight" WC-Co Grades versus the "Steel-Cutting" Gradesp. 209
Performance of "TiC Only" Based Toolsp. 210
Performance of Laminated and Coated Toolsp. 211
Practical Techniques of Using Cemented Carbides for Cuttingp. 215
Conclusion on Carbide Toolsp. 224
Referencesp. 225
Chapter 8 Cutting Tool Materials III: Ceramics, CBN Diamondp. 227
Introductionp. 227
Alumina (Ceramic) Toolsp. 227
Alumina-Based Composites (Al[subscript 2]O[subscript 3] + TiC)p. 229
Sialonp. 231
Cubic Boron Nitride (CBN)p. 236
Diamond, Synthetic Diamond, and Diamond Coated Cutting Toolsp. 239
General Survey of All Tool Materialsp. 245
Referencesp. 249
Chapter 9 Machinabilityp. 251
Introductionp. 251
Magnesiump. 252
Aluminum and Aluminum Alloysp. 254
Copper, Brass and Other Copper Alloysp. 258
Commercially Pure Ironp. 269
Steels: Alloy Steels and Heat-Treatmentsp. 269
Free-Cutting Steelsp. 278
Austenitic Stainless Steelsp. 290
Cast Ironp. 293
Nickel and Nickel Alloysp. 296
Titanium and Titanium Alloysp. 303
Zirconiump. 307
Conclusions on Machinabilityp. 307
Referencesp. 309
Chapter 10 Coolants and Lubricantsp. 311
Introductionp. 311
Coolantsp. 313
Lubricantsp. 322
Conclusions on Coolants and Lubricantsp. 334
Referencesp. 337
Chapter 11 High Speed Machiningp. 339
Introduction to High Speed Machiningp. 339
Economics of High Speed Machiningp. 340
Brief Historical Perspectivep. 341
Material Properties at High Strain Ratesp. 343
Influence of Increasing Speed on Chip Formationp. 348
Stainless Steelp. 352
AISI 4340p. 359
Aerospace Aluminum and Titaniump. 360
Conclusions and Recommendationsp. 363
Referencesp. 368
Chapter 12 Modeling of Metal Cuttingp. 371
Introduction to Modelingp. 371
Empirical Modelsp. 373
Review of Analytical Modelsp. 374
Mechanistic Modelsp. 375
Finite Element Analysis Based Modelsp. 382
Artificial Intelligence Based Modelingp. 397
Conclusionsp. 404
Referencesp. 406
Chapter 13 Management of Technologyp. 411
Retrospective and Perspectivep. 411
Conclusions on New Tool Materialsp. 412
Conclusions on Machinabilityp. 414
Conclusions on Modelingp. 416
Machining and the Global Economyp. 417
Referencesp. 422
Chapter 14 Exercises For Studentsp. 425
Review Questionsp. 425
Interactive Further Work on the Shear Planep. 434
Bibliography and Selected Web-sitesp. 435
Indexp. 439
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