Jackson Mark. Machining with Abrasives
Подождите немного. Документ загружается.
References
1. Hutchings IM (1992) Tribology: friction and wear of engineering materials. Edward Arnold,
London
2. Ludema KC (1996) Friction, wear, lubrication: a textbook in tribology. CRC Press, Boca
Raton
3. Rabinowicz E (1995) Friction and wear of materials. Wiley-Interscience, New York
4. Stachowiak GW, Batchelor AW (2005) Engineering tribology. Elsevier Butterworth-
Heinemann, Amsterdam
5. Blazynski TZ (1983) Explosive welding, forming, and compaction. Applied Science,
London
6. Ezra AA (1973) Principles and practice of explosive metalworking. Industrial Newspapers,
London,
7. Ritter JE (1992) Erosion of ceramic materials. Trans Tech Pub., Zurich
8. Kleis I, Kulu P (2008) Solid particle erosion: occurrence, prediction and control. Springer,
London
9. Engel PA (1976) Impact wear of materials. Elsevier, Amsterdam
10. Springer GS (1976) Erosion by liquid impact. Scripta Pub., Washington
11. Preece CM (1979) Erosion. Academic Press, New York
12. Melosh HJ (1989) Impact cratering. Oxford University Press, New York
13. Kaczmarek J (1976) Principles of machining by cutting, abrasion and erosion. P. Peregrinus,
Stevenage, England
14. Marinescu ID, Rowe WB, Dimitrov B, Inasaki I (2004) Tribology of abrasive machining
processes. William Andrew, Norwich
15. Marinescu ID, Rowe WB, Dimitrov B, Inasaki I (2007) Handbook of machining with
grinding wheels. CRC, Boca Raton
16. Malkin S, Guo C (2008) Grinding technology: theory and application of machining with
abrasives. Industrial Press, New York
17. Shaw MC (1996) Principles of abrasive processing. Clarendon Press, Oxford
18. Flow International. http://www.flowcorp.com/. Accessed 7/2009
19. Haskel Pumps. http://www.haskel.com.au/. Accessed 7/2009
20. Hashish M (2009) Trends and cost analysis of AWJ operation at 600 MPa pressure. J Press
Vessel Technol Trans ASME 131: 021410: 1-7
21. Labus TJ (2001) High pressure equipment and systems. In: Labus TJ, Savanick GA (eds) An
overview of waterjet fundamentals and applications, 5th Ed. Waterjet Technology Assoc.,
Saint Louis
22. Waterjets.Org. http://www.waterjets.org/. Accessed 7/2009
23. Water Jetting Directory. http://www.waterjettingdirectory.com/waterjet.htm. Accessed
7/2009
24. WaterJet Technology Association. http://www.wjta.org/. Accessed 7/2009
25. Water Jetting Association. http://www.waterjetting.org.uk/. Accessed 7/2009
26. Al-Obaid YF (1995) Shot peening mechanics: experimental and theoretical analysis. Mech
Mater 19: 251–260
27. Kobayashi M, Matsui T, Murakami Y (1998) Mechanism of creation of compressive residual
stress by shot peening. Int J Fatigue 20: 351–357
28. Wang S, Li Y, Yao M, Wang R (1998) Compressive residual stress introduced by shot
peening. J Mater Process Technol 73: 64–73
29. Ramulu M, Kunaporn S, Arola D, Hashish M, Hopkins J (2000) Waterjet machining and
peening of metals. J Press Vessel Technol Trans ASME 122: 90–95
30. Kunaporn S, Ramulu M, Hashish M (2005) Mathematical modeling of ultra-high-pressure
waterjet peening. J Eng Mater Technol Trans ASME 127: 186–191
31. Ellermaa RRR (1993) Erosion prediction of pure metals and carbon steels. Wear 162–164:
1114–1122
9 Impact Abrasive Machining 415
32. Unified Abrasives Manufacturers’ Association. http://www.uama.org/. Accessed 7/2009
33. FEPA. http://www.fepa-abrasives.org/. Accessed 7/2009
34. British Abrasives Federation. http://www.thebaf.org.uk/. Accessed 7/2009
35. Abrasive Engineering Society. http://www.abrasiveengineering.com/. Accessed 7/2009
36. Fox RW, McDonald AT, Pritchard PJ (2009) Introduction to fluid mechanics, 7th Ed. Wiley,
Hoboken
37. Momber AW, Kovacevic R (1998) Principles of abrasive water jet machining. Springer,
London
38. Korobkin A (2004) Analytical models of water impact. Eur J Appl Math 15: 821–838
39. Korobkin AA (1997) Asymptotic theory of liquid-solid impact. Philos Trans R Soc A Math
Phys Eng Sci 355: 507–522
40. Korobkin AA, Pukhnachov VV (1988) Initial stage of water impact. Annu Rev Fluid Mech
20: 159–185
41. Battistin D, Iafrati A (2003) Hydrodynamic loads during water entry of two-dimensional and
axisymmetric bodies. J Fluids Struct 17: 643–664
42. May A, Woodhull JC (1950) The virtual mass of a sphere entering water vertically. J Appl
Phys 21: 1285–1289
43. May A, Woodhull JC (1948) Drag coefficients of steel spheres entering water vertically.
J Appl Phys 19: 1109–1121
44. Shiffman M, Spencer DC (1945) The force of impact on a sphere striking a water surface,
AMP Report 42. 2R. AMG-New York University, New York
45. Chow C-Y (1979) An introduction to computational fluid mechanics. Wiley, New York
46. Nguyen T, Shanmugam DK, Wang J (2008) Effect of liquid properties on the stability of an
abrasive waterjet. Int J Mach Tools Manuf 48: 1138–1147
47. Labus TJ, Neusen KF, Alberts DG, Gores TJ (1991) Factors influencing the particle size
distribution in an abrasive waterjet. J Eng Ind Trans ASME 113: 402–411
48. Vijay MM (2001) Fluid mechanics of jets. In: Labus TJ, Savanick GA (eds) An overview of
waterjet fundamentals and applications, 5th Ed. Waterjet Technology Assoc., Saint Louis
49. Momber AW, Kovacevic R (1999) An energy balance of high-speed abrasive water jet
erosion. Proc Inst Mech Eng Part J J Eng Tribol 213: 463–472
50. Whiting CE, Graham EE, Ghorashi B (1990) Evaluation of parameters in a fluid cutting
equation. J Eng Ind Trans ASME 112: 240–244
51. Lesser MB (1981) Analytic solutions of liquid-drop impact problems. Proc R Soc A Math
Phys Eng Sci 377: 289–308
52. Pack DC, Evans WM (1951) Penetration by high-velocity (‘Munroe’) jets: I. Proc Phys Soc
B 64: 298–302
53. Wood B (2001) Cleaning applications for waterjets. In: Labus TJ, Savanick GA (eds) An
overview of waterjet fundamentals and applications, 5th Ed. Waterjet Technology Assoc.,
Saint Louis
54. Summers DA (1995) Waterjetting technology. E & FN Spon, London
55. Hashish M (1994) Observations of wear of abrasive-waterjet nozzle materials. J Tribol-Trans
ASME 116: 439–444
56. Li HZ, Wang J, Fan JM (2009) Analysis and modelling of particle velocities in micro-
abrasive air jet. Int J Mach Tools Manuf 49: 850–858
57. Shimizu S, Wu Z-L (1996) Acceleration of abrasive particles in premixed abrasive water jet
nozzle. JSME Int J 39: 562–567
58. Tazibt A, Parsy F, Abriak N (1996) Theoretical analysis of the particle acceleration process
in abrasive water jet cutting. Comput Mater Sci 5: 243–254
59. Wang J (2003) Abrasive waterjet machining of engineering materials. Trans Tech Publications,
Uetikon-Zuerich, Switzerland
60. Liu H, Wang J, Kelson N, Brown RJ (2004) A study of abrasive waterjet characteristics by
CFD simulation. J Mater Process Technol 153–154: 488–493
416 Y.M. Ali and J. Wang
61. Wang J (2009) Particle velocity models for ultra-high pressure abrasive waterjets. J Mater
Process Technol 209: 4573–4577
62. Prisco U, D’Onofrio MC (2008) Three-dimensional CFD simulation of two-phase flow
inside the abrasive water jet cutting head. Int J Comp Meth Eng Sci Mech 9: 300–319
63. Ye J, Kovacevic R (1999) Turbulent solid-liquid flow through the nozzle of premixed
abrasive water jet cutting systems. Proc Inst Mech Eng B J Eng Manuf 213: 59–67
64. Yong Z, Kovacevic R (1997) Simulation of chaotic particle motion in particle-laden jetflow
and application to abrasive waterjet machining. J Fluids Eng Trans ASME 119: 435–442
65. Johnson KL (1985) Contact mechanics. Cambridge University Press, Cambridge
66. Galin LA (1961) Contact problems in the theory of elasticity. Dept. of Mathematics, North
Carolina State College, Raleigh
67. Gladwell GML (1980) Contact problems in the classical theory of elasticity. Sijthoff
& Noordhoff, Alphen aan den Rijn, The Netherlands
68. Hamilton GM (1983) Explicit equations for the stresses beneath a sliding spherical contact.
Proc Inst Mech Eng C 197: 53–59
69. Sackfield A, Hills D (1983) A note on the hertz contact problem: a correlation of standard
formulae. J Strain Anal 18: 195–197
70. Neilson JH, Gilchrist A (1968) Erosion by a stream of solid particles. Wear 11: 111–122
71. Finnie I (1960) Erosion of surfaces by solid particles. Wear 3: 87–103
72. Bitter JGA (1963) A study of erosion phenomena, Part I. Wear 6: 5–21
73. Bitter JGA (1963) A study of erosion phenomena, Part II. Wear 6: 169–190
74. Beckmann G, Gotzmann J (1981) Analytical model of the blast wear intensity of metals
based on a general arrangement for abrasive wear. Wear 73: 325–353
75. Bowden FP, Field JE (1964) The brittle fracture of solids by liquid impact, by solid impact,
and by shock. Proc R Soc A Math Phys Eng Sci 282: 331–352
76. Sheldon GL, Finnie I (1966) The mechanism of material removal in the erosive cutting of
brittle materials. J Eng Ind Trans ASME 88: 393–400
77. Wiederhorn SM, Lawn BR (1977) Strength degradation of glass resulting from impact with
spheres. J Am Ceram Soc 60: 451–458
78. Evans AG, Wilshaw TR (1977) Dynamic solid particle damage in brittle materials: an
appraisal. J Mater Sci 12: 97–116
79. Evans AG, Gulden ME, Rosenblatt M (1978) Impact damage in brittle materials in the
elastic-plastic response regime. Proc R Soc A Math Phys Eng Sci 361: 343–365
80. Hashish M (1984) A modeling study of metal cutting with abrasive waterjets. J Eng Mater
Technol Trans ASME 106: 88–100
81. Hashish M (1989) A model for abrasive-waterjet (AWJ) machining. J Eng Mater Technol
Trans ASME 111: 154–162
82. Finnie I, McFadden DH (1978) On the velocity dependence of the erosion of ductile metals
by solid particles at low angles of incidence. Wear 48: 181–190
83. Lemma E, Deam R, Chen L (2005) Maximum depth of cut and mechanics of erosion in AWJ
oscillation cutting of ductile materials. J Mater Process Technol 160: 188–197
84. Paul S, Hoogstrate AM, Van Luttervelt CA, Kals HJJ (1998) Analytical and experimental
modelling of the abrasive water jet cutting of ductile materials. J Mater Process Technol
73: 189–199
85. El-Domiaty AA, Shabara MA, Abdel-Rahman AA, Al-Sabeeh AK (1996) On the modelling
of abrasive waterjet cutting. Int J Adv Manuf Technol 12: 255–265
86. Ness E, Zibbell R (1996) Abrasion and erosion of hard materials related to wear in the
abrasive waterjet. Wear 196: 120–125
87. El-Domiaty AA, Abdel-Rahman AA (1997) Fracture mechanics-based model of abrasive
waterjet cutting for brittle materials. Int J Adv Manuf Technol 13: 172–181
88. Zeng J, Kim TJ (1996) An erosion model of polycrystalline ceramics in abrasive waterjet
cutting. Wear 193: 207–217
9 Impact Abrasive Machining 417
89. Hashish M (1988) Visualization of the abrasive-waterjet cutting process. Exp Mech 28:
159–169
90. Hashish M (1991) Characteristics of surfaces machined with abrasive-waterjets. J Eng Mater
Technol Trans ASME 113: 354–362
91. Chen L, Siores E, Wong WCK (1996) Kerf characteristics in abrasive waterjet cutting of
ceramic materials. Int J Mach Tools Manuf 36: 1201–1206
92. Chen FL, Wang J, Lemma E, Siores E (2003) Striation formation mechanisms on the jet
cutting surface. J Mater Process Technol 141: 213–218
93. Wang J, Wong WCK (1999) A study of abrasive waterjet cutting of metallic coated sheet
steels. Int J Mach Tools Manuf 39: 855–870
94. Wang J (1999) Machinability study of polymer matrix composites using abrasive waterjet
cutting technology. J Mater Process Technol 94: 30–35
95. Wang J (1999) Abrasive waterjet machining of polymer matrix composites – cutting
performance, erosive process and predictive models. Int J Adv Manuf Technol 15: 757–768
96. Wang J, Guo DM (2002) A predictive depth of penetration model for abrasive waterjet
cutting of polymer matrix composites. J Mater Process Technol 121: 390–394
97. Wang J (2007) Predictive depth of jet penetration models for abrasive waterjet cutting of
alumina ceramics. Int J Mech Sci 49: 306–316
98. Kovacevic R (1991) Surface texture in abrasive waterjet cutting. J Manuf Syst 10: 32–40
99. Kovacevic R, Fang M (1994) Modeling of the influence of the abrasive waterjet cutting
parameters on the depth of cut based on fuzzy rules. Int J Mach Tools Manuf 34: 55–72
100. Hashish M (1993) Effect of beam angle in abrasive-waterjet machining. J Eng Ind Trans
ASME 115: 51–56
101. Shanmugam DK, Wang J, Liu H (2008) Minimisation of kerf tapers in abrasive waterjet
machining of alumina ceramics using a compensation technique. Int J Mach Tools Manuf 48:
1527–1534
102. Xu S, Wang J (2006) A study of abrasive waterjet cutting of alumina ceramics with
controlled nozzle oscillation. Int J Adv Manuf Technol 27: 693–702
103. Wang J (2009) A focused review on enhancing the abrasive waterjet cutting performance by
using controlled nozzle oscillation. Key Eng Mater 404: 33–44
104. Wang J, Guo DM (2003) The cutting performance in multipass abrasive waterjet machining
of industrial ceramics. J Mater Process Technol 133: 371–377
105. Wang J, Zhong Y (2009) Enhancing the depth of cut in abrasive waterjet cutting of alumina
ceramics by using multipass cutting with Nozzle oscillation. Mach Sci Technol 13: 76–91
106. Kovacevic R, Mohan R, Beardsley HE (1996) Monitoring of thermal energy distribution in
abrasive waterjet cutting using infrared thermography. J Manuf Sci Eng Trans ASME 118:
555–563
107. Ohadi MM, Ansari AL, Hashish M (1992) Thermal energy distributions in the workpiece
during cutting with an abrasive waterjet. J Eng Ind Trans ASME 114: 67–73
108. Fowler G, Pashby IR, Shipway PH (2009) The effect of particle hardness and shape when
abrasive water jet milling titanium alloy Ti6Al4V. Wear 266: 613–620
109. Hashish M (1998) Controlled-depth milling of isogrid structures with AWJs. J Manuf Sci
Eng Trans ASME 120: 21–27
110. Hocheng H, Tsai HY, Shiue JJ, Wang B (1997) Feasibility study of abrasive-waterjet milling
of fiber-reinforced plastics. J Manuf Sci Eng Trans ASME 119: 133–142
111. Paul S, Hoogstrate AM, Van Luttervelt CA, Kals HJJ (1998) An experimental investigation
of rectangular pocket milling with abrasive water jet. J Mater Process Technol 73: 179–188
112. Hashish M (1989) Investigation of milling with abrasive-waterjets. J Eng Ind Trans ASME
111: 158–166
113. Feng YX, Huang CZ, Wang J, Hou RG, Lu XY (2007) An experimental study on milling
Al2O3 ceramics with abrasive waterjet. Key Eng Mater 339: 500–504
114. Zeng J, Kim TJ (1996) An erosion model for abrasive waterjet milling of polycrystalline
ceramics. Wear 199: 275–282
418 Y.M. Ali and J. Wang
115. Axinte DA, Stepanian JP, Kong MC, McGourlay J (2009) Abrasive waterjet turning-An
efficient method to profile and dress grinding wheels. Int J Mach Tools Manuf 49: 351–356
116. Manu R, Babu NR (2009) An erosion-based model for abrasive waterjet turning of ductile
materials. Wear 266: 1091–1097
117. Ansari AI, Hashish M, Ohadi MM (1992) Flow visualization study of the macromechanics of
abrasive-waterjet turning. Exp Mech 32: 358–364
118. Ansari AI, Hashish M (1995) Effect of abrasive waterjet parameters on volume removal
trends in turning. J Eng Ind Trans ASME 117: 475–484
119. Zhong ZW, Han ZZ (2002) Turning of glass with abrasive waterjet. Mater Manuf Process 17:
339–349
120. Wang J, Nguyen T, Pang KL (2009) Mechanisms of microhole formation on glasses by an
abrasive slurry jet. J Appl Phys 105(4): 044906.1–044906.4
9 Impact Abrasive Machining 419
Index
A
Abrasives, 1–72, 79, 131, 182, 247, 272,
311–314, 317, 320, 324–331, 334,
343, 344, 347, 387–416
Adaptive, 274–292, 294, 300
Alumina, 9–13, 20–22, 24–29, 34–38,
53, 59, 60, 62–66, 69, 79–88,
90–92, 99, 116, 124, 126, 156, 186,
254, 362, 405
Alumina zirconia, 11, 29–34
Analysis,
densification and phase, 67–71
molecular dynamic (MD), 306, 312
quantitative, 116, 117, 335, 336
stress, 156–158, 160, 165–175, 311,
318, 324–328
B
Bonding systems, 1–72, 92, 97, 101, 102,
106, 107, 111–128, 161, 329–331,
334–344
Buffing, 375, 379–382
Burning, 287, 288, 292, 301
C
Carbide, 10, 40, 52, 53, 85, 87, 88, 124,
125, 212, 344
CBN. See Cubic boron nitride
Ceramic, 20, 27, 34–38, 40, 45, 54–57,
62–64, 66–71, 79, 80, 83, 85–92, 97,
115, 116, 128, 215, 225, 235, 236,
248, 254–258, 264, 266, 312,
320–322, 327, 335, 354, 361, 369,
375, 384, 396, 399, 403, 411, 412
Cleaning, 182, 183, 189, 226, 228–230, 382,
389, 396
Conditioning, 29, 31, 32, 182–189, 212, 214,
219, 225–238
Control systems, 214, 237, 273–276, 279,
281, 283, 284, 286, 289, 290, 292,
295, 299, 300, 349
Cracks, 11, 12, 27, 31, 33, 46, 47, 54–62, 71,
72, 82, 88, 89, 94, 95, 97, 111, 113, 197,
208, 220, 223, 225, 255–260, 262, 265,
266, 329, 331, 332, 376, 399, 402
Cubic boron nitride (CBN), 9–11, 13–18, 38,
42–44, 52, 64, 66, 92, 93, 99–103,
107–110, 128, 129, 136, 140–146,
183, 187, 199, 206, 208, 210–213,
215, 218–225, 230–233, 235, 390
D
Deformation, 9, 55, 142, 155, 204, 211, 215,
247–249, 251, 266, 272, 285, 306–308,
311, 312, 383, 387–390, 395, 396, 399,
402, 405, 408
Diamond, 1, 2, 7, 9–11, 13–15, 18, 38–43, 49,
52, 64, 66, 102, 183–187, 189–214, 254,
306, 362, 390,
Dissolution, 58, 64, 65, 68, 70, 83–85, 98, 106,
108–128, 235, 329–332, 335–337, 339,
341–344
Dressing, 11, 92, 131, 181–241, 248, 274, 327,
F
Fabrication, 7, 36, 38, 40, 42, 258, 348, 368
Failure, 45, 49, 50, 54–56, 61, 62, 108, 111,
112, 128, 134, 147, 158, 160, 164, 165,
169, 172, 231, 320, 326, 329–331, 396,
402
Finite element analysis, 54, 135–140, 147,
149–152, 155, 160, 171, 172, 174, 249,
250, 324, 327
Firing, 35, 56–58, 60, 61, 63, 66, 67, 70, 79, 80,
83–92, 102–105, 107, 114, 119, 120,
128, 328, 334, 339, 340
421
Flexible tools, 347–384
Forces, 1, 95, 131, 187, 249, 271–274,
277–287, 290, 291, 295, 296,
299, 308–311, 315–318, 320, 321,
324–327, 349, 390
Fracture, 8, 86, 93–97, 100, 102, 106–111,
114, 128, 132, 142, 146–148, 158,
160, 165, 172, 174, 179, 192, 248,
314, 397,
G
Grains, 1–18, 20, 22, 24–39, 43–46, 54, 55,
57, 59–64, 68, 71, 79–88, 90–114,
116, 128, 131, 183, 254, 311–321,
324–331, 334, 357
Grain shape, 1–8, 37, 43, 312
Grindability, 53, 95, 248
Grinding, 1, 79, 131, 181, 247, 271, 306,
355, 388
Grinding ratio, 44, 53, 93, 102, 103, 105,
107, 110, 124–128, 220, 222, 223,
229, 239, 313, 314, 321, 324, 326,
327, 343, 344
Grinding wheels, 5, 79, 131, 181, 248,
249, 254, 255, 258, 259, 263, 264,
266, 272, 320, 321, 328–334,
344, 353
H
Heat, 9–13, 20, 22–24, 28, 31, 48–50, 52, 63,
65, 68, 69, 132, 190, 194, 196, 198, 219,
225–228, 233, 236, 249, 250, 280, 306,
311, 334, 348, 355, 357, 382, 396, 397,
413
Heat treatment, 12, 62, 69, 72, 79–128,
328–332, 341–344
High speeds, 10, 28, 53, 93, 116, 132, 137–142,
177, 189, 284, 311, 312, 389, 398, 405,
412
I
Impact, 1, 9–12, 14, 24, 27, 34, 94, 124, 158,
211, 221, 312, 370, 387–416
Integrity, 4, 7, 22, 113, 247–266, 279, 280,
332, 361
Interfaces, 13, 45, 46, 48, 51, 62–66, 84, 85,
94, 97, 105–108, 110, 111, 127, 128,
131, 165, 172, 259, 260, 262, 274,
275, 320, 328–330, 351, 374
K
Kinematics, 183–185, 200, 201, 205, 206,
208, 212, 214–216, 397, 409, 414, 415
L
Lasers, 42, 112, 183, 192, 225–234, 237,
313, 328, 331, 351, 368,
398, 413, 416
M
Machining, 39, 181, 214, 215, 225, 226,
231, 235, 236, 258, 273, 306, 349,
350, 353, 355–357, 360, 361, 368,
369, 380, 381, 384, 387
Mechanical design, 131
Mechanics, 145, 147, 255, 306, 308–310,
393, 397, 399
Mechanisms, 10, 11, 44–46, 48–52, 54, 56,
67, 92–97, 107, 111, 148, 158, 183,
212, 218, 223–225, 228, 229, 233, 235,
237, 248, 249, 252, 254, 258, 261,
264, 265, 285, 295–298, 308, 312–314,
321, 327, 329, 349, 352, 376, 388,
402, 405
Mill, 27, 375–378, 381
Milling, 29, 31, 37, 57, 58, 60, 378, 389,
412–414, 416
Miniaturization, 368
Modeling, 4, 70, 155, 248, 249, 279, 290, 308
P
Performance, 1, 2, 7, 10, 37, 44, 50, 54, 63,
64, 66, 71, 72, 79–128, 131, 181, 193,
225, 229, 247, 274, 275, 279, 281,
283, 287, 290–293, 297, 299–301,
313, 327, 332, 334–356, 364–368,
383, 394, 397
Polishing, 39, 80, 160, 236, 321,
347–384, 388
Porosity, 18, 35, 45, 55–57, 59, 61, 63, 64,
70, 93, 103, 160, 161, 187, 229,
248, 328, 372
Processing
Bayer, 22, 24, 29, 30
polish (see Polishing)
signal, 286
Profiling, 182–186, 193, 199, 202, 212, 219,
225, 226, 236
Q
Quality, 2, 11, 25, 27, 39, 42, 44, 49, 92, 181,
187, 192, 209, 214, 231, 248, 254, 258,
259, 263, 272, 273, 278, 284, 288, 289,
309, 310, 313, 344, 348, 350, 351, 353,
355, 356, 359–369, 375, 383, 384, 407,
411–413
Quartz, 18, 80, 92, 97, 110–128, 329–344
422 Index
R
Removal, 18, 116, 183, 248, 279, 286, 287,
308, 353, 387
Removal rates, 10, 32, 51, 97, 112, 126, 137,
187, 209, 214, 219, 232, 274, 275, 277,
280, 290, 313, 321, 327, 350, 354–359,
374, 377, 378, 405, 407, 408, 411–413,
415, 416
Residual stress, 55, 61, 71, 113, 248–265,
280, 296, 297, 311, 332, 348,
388, 396
Robotics, 248, 277, 348–360, 382, 413
S
Safety, 131–179, 280, 292, 295
Safety factor, 134, 142, 147, 174
Segments, 102, 132, 135–142, 144, 147, 149,
174, 175, 177, 288
Sharpness, 4–8, 39, 46, 47, 49, 94, 95,
280, 287
Shear, 54, 65, 109, 142, 257, 260, 264, 310,
311, 315, 320–322, 324, 325, 401
Silicon carbide (SiC), 9–11, 13, 18–21, 47, 52,
53, 62, 65, 95, 111, 112, 114, 118–122,
186, 194, 329, 330, 332, 334, 377, 378,
383, 390
Slurry, 348, 369, 370, 374, 375, 382, 388
Sodium aluminate, 64, 98
Sol gel, 34–38, 116, 126
Steel, 9, 10, 12, 22, 23, 27–29, 31, 32, 42, 45,
52, 53, 93, 102, 114, 116, 124, 125,
136, 138, 141, 143–145, 152, 177,
189, 194, 196, 212, 236, 250, 253,
321, 323, 327, 344, 370–375, 384,
389, 405
Strain, 133, 134, 142, 249, 251, 252,
307, 404
Stress, 47, 84, 132–139, 141–148, 150–153,
156–158, 160, 162–175, 177–179, 191,
248, 295, 307, 390
Structure, 24, 31, 32, 34, 35, 40–42, 44, 59, 63,
64, 66, 69, 72, 79–92, 97, 98, 102–105,
107–110, 116, 149, 155, 156, 158–160,
165, 174, 182, 183, 192, 248, 254,
256–257, 264, 265, 278, 279, 285, 292,
294, 296, 297, 306, 307, 310, 311, 328,
332, 350, 359, 376, 412
Subsurface, 248–266, 272, 348, 383
Surface, 4, 80, 135, 181, 247, 272, 306, 347,
348, 351–353, 355, 356, 358, 359,
361–375, 378–384, 387
Surface damage, 258, 259, 261, 263, 264,
289, 355, 383, 384
Surface finishing, 112, 263, 273–275, 280,
287, 290, 293, 295, 347–349, 351,
355–360, 362, 363, 367–372, 374,
375, 377–384, 409, 413, 416
T
Topography, 182, 184–187, 189, 193,
197, 198, 200, 201, 204, 206, 208,
209, 212, 217, 218, 221, 225,
228–230, 232, 234, 238, 254–257,
359, 369, 374
Touch dressing, 212–213
Tribology, 72, 388
Tumbling, 375–382, 384
Turning, 10, 11, 50, 183, 197, 258, 264, 389,
412, 415–416
V
Vibration, 12, 51, 124, 132, 194, 214–216,
218–220, 281, 292, 306, 313, 321,
353, 355
Vitrification, 57, 58, 63, 97, 101–103, 105,
109, 111, 113, 119, 128, 328, 329,
331, 332, 334, 338
Vitrified bonding system, 14, 36, 37, 43–71,
93, 97, 101, 103, 105–108, 110,
111, 113–117, 124–128, 131, 161,
186, 187, 206, 211–213, 218–220,
225, 230, 231, 233, 328–331, 334,
337, 344
W
Wear, 7, 92–112, 124, 126, 128, 132, 182,
254, 272, 313, 354, 388
Wedges, 54, 314–321, 324–327
Wheels. See Grinding wheels
Workpiece materials, 10, 17, 44, 46, 47,
52–53, 62, 71, 72, 95, 97, 124, 126,
187, 189, 248, 251, 265, 266, 281,
314, 321, 327, 344, 376, 408
Z
Zirconia, 361, 363, 370, 372–374, 383, 384
Index 423