Machining: fundamentals and recent advances
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| Format: | Book |
| Language: | English |
| Published: |
London
Springer
2008
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| Subjects: | |
| Online Access: | Inhaltsverzeichnis |
| Physical Description: | XIII, 361 S. Ill., graph. Darst. |
| ISBN: | 1848002122 9781848002128 |
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| 245 | 1 | 0 | |a Machining |b fundamentals and recent advances |c J. Paulo Davim ed. |
| 264 | 1 | |a London |b Springer |c 2008 | |
| 300 | |a XIII, 361 S. |b Ill., graph. Darst. | ||
| 336 | |b txt |2 rdacontent | ||
| 337 | |b n |2 rdamedia | ||
| 338 | |b nc |2 rdacarrier | ||
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| 650 | 4 | |a Machining | |
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| 856 | 4 | 2 | |m Digitalisierung UB Bayreuth |q application/pdf |u http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=016681596&sequence=000002&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA |3 Inhaltsverzeichnis |
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| adam_text | Contents
Metal Cutting Mechanics, Finite Element Modelling.
Viktor P. Astakhov and
José C.
Outeiro
1.1
Advanced Metal Cutting Mechanics
..................
1.1.1
Objective of Metal Cutting Mechanics
.
1.1.2
State of the Art
......................................
1.1.3
1.1.4
1.1.5
1.1.6
.................... 1
.................... 1
.................... 1
Advanced Methodology
................................................... 4
Combined Influence of the Minor Cutting Edge
.............. 7
Influence of the Cutting Speed, Depth of Cut
and Cutting Feed on Power Partition
............................... 9
Concluding Remarks
........................................................ 11
1.2
Finite Element Analysis
(FEA)
..................................................... 13
.2.1
Numerical Formulations
.................................................. 14
.2.2
Modelling Chip Separation from the Workpiece
and Chip Segmentation
.................................................... 15
1.2.3
Mesh Design
.................................................................... 16
1.2.4
Work Material Modelling
................................................ 18
1.2.5
Modelling of Contact Conditions
..................................... 19
1.2.6
Numerical Integration
...................................................... 19
1.2.7
Errors
............................................................................... 20
1.2.8
Example
........................................................................... 20
1.2.9
Advanced Numerical Modelling
...................................... 21
1.2.10
Model Validation
............................................................. 22
References
................................................................................................. 25
viii Contents
2 Tools
(Geometry
and Material) and Tool Wear
................................... 29
Viktor P. Astakhov and J. Paulo
Davim
2.1
Essentials of Tool Geometry
......................................................... 29
2.1.1
Importance of the Cutting Tool Geometry
....................... 29
2.1.2
Basic Terms and Definitions
............................................ 31
2.1.3
System of Considerations
................................................. 32
2.1.4
Basic Tool Geometry Components
.................................. 33
2.1.5
Influence of the Tool Angles
............................................ 35
2.2
Tool Materials
............................................................................... 37
2.2.1
Carbides
........................................................................... 39
2.2.2
Ceramics
.......................................................................... 43
2.2.3
Cubic Boron Nitride (CBN)
............................................. 44
2.2.4
Polycrystalline Diamond (PCD)
and Solid Film Diamond (SFD)
....................................... 45
2.3
Tool Wear
...................................................................................... 48
2.3.1
Tool Wear Types
.............................................................. 48
2.3.2
Tool Wear Evolution
........................................................ 50
2.3.4
Mechanisms of Tool Wear
............................................... 52
2.4
Tool Life
........................................................................................ 52
2.4.1
Taylor s Tool Life Formula
............................................. 53
2.4.2
Expanded Taylor s Tool Life Formula
............................. 55
2.4.3
Recent Trends in Tool Life Evaluation
............................ 55
References
................................................................................................. 57
3
Workpiece Surface Integrity
.................................................................. 59
Joël
Rech,
Hédi Hamdi
and
Stéphane Valette
3.1
What Does Surface Integrity Mean?
.............................................. 59
3.1.1
Link Between Surface Integrity
and its Manufacturing Procedure
..................................... 62
3.1.2
Impact of the Surface Integrity
on the Dimensional Accuracy
.......................................... 64
3.1.3
Impact of the Surface Integrity on Fatigue Resistance
..... 67
3.2
Material and Mechanical Aspects of Surface Integrity
.................. 68
3.2.1
Mechanisms Leading to Material and Mechanical
Modifications in Machining
............................................. 68
3.2.2
Modelling of Residual Stresses
........................................ 74
3.2.3
Experimental Approach
................................................... 80
References
................................................................................................. 91
Contents ix
4
Machining of Hard Materials
................................................................ 97
Wiř
Grzesik
4.1
Basic Features of HM
.................................................................... 97
4.1.1
Definition of Hard Machining
.......................................... 97
4.1.2
Comparison with Grinding Operations
............................ 98
4.1.3
Technological Processes Including Hard Machining
....... 100
4.2
Equipment and Tooling
................................................................. 101
4.2.1
Machine Tools
................................................................. 101
4.2.2
Cuting Tools and Materials
.............................................. 102
4.2.3
Complete Machining Using Hybrid Processes
................. 104
4.3
Characterization of Hard Machining Processes
............................. 105
4.3.1
Cutting Forces
.................................................................. 105
4.3.2
Chip Formation
................................................................ 105
4.3.3
Cutting Temperature
........................................................ 108
4.3.4
Wear of Ceramic and PCBN Tools
.................................. 110
4.3.5
Modelling of Hard Cutting Processes
.............................. 110
4.4
Surface Integrity in Hard Machining Processes
............................ 113
4.4.1
Surface Roughness
........................................................... 113
4.4.2
Residual Stresses
.............................................................. 114
4.4.3
Micro/Nanohardness Distribution
and White-Layer Effect
.................................................... 115
4.4.4
Modification of Surface Finish in Hybrid Processes
........ 117
4.4.5
Cutting Errors and Dimensional Accuracy
...................... 118
4.5
Applications of Hard Machining Processes
................................... 119
4.5.1
Hard Turning
.................................................................... 119
4.5.2
Hard and High-Speed Milling of Dies and Moulds
......... 120
4.5.3
Hard Reaming
.................................................................. 121
4.5.4
Hard Broaching
................................................................ 122
4.5.5
Hard Skive Hobbing
......................................................... 122
4.5.6
Optimization of Hard Machining Processes
..................... 123
References
................................................................................................. 124
5
Machining of Particulate-Reinforced Metal Matrix Composites
....... 127
A. Pramanik, J.A. Arsecularatne
andL.C.
Zhang
5.1
Introduction
................................................................................... 127
5.2
Effect of Reinforcement Particles on Surface Integrity
and Chip Formation
....................................................................... 129
5.2.1
Strength of
MMC
During Machining
............................... 130
5.2.2
Chip Shape
....................................................................... 131
χ
Contents
5.2.3
Surface
Integrity
............................................................... 135
5.2.4
Shear and Friction Angles
................................................ 142
5.2.5
Relation Between Shear and Friction Angles
................... 144
5.2.6
Forces
............................................................................... 145
5.3
Modelling
...................................................................................... 147
5.3.1
Forces
............................................................................... 147
5.3.2
Tool-Particle Interaction
.................................................. 157
5.4
Tool Wear
...................................................................................... 159
5.4.1
Performance of Cutting Tools
.......................................... 159
5.4.2
Modelling of Tool Wear
.................................................. 161
Acknowledgements
................................................................................... 162
References
................................................................................................. 162
6
Drilling Polymeric Matrix Composites
................................................. 167
Edoardo Capello,
Antonio
Langella,
Luigi
Nele,
Alfonso
Paoleíti,
Loredana
Santo,
Vincenzo Tagliaferri
6.1
Introduction
................................................................................... 167
6.1.1
What Are Polymeric Matrix Composites?
....................... 167
6.1.2
The Importance of Drilling
.............................................. 171
6.2
Drilling Technology of Polymeric Matrix Composites
................. 173
6.2.1
Conventional Drilling Process
........ ................................. 173
6.2.2
Unconventional Drilling Processes
.................................. 178
6.3
Modelling of Conventional Drilling
.............................................. 179
6.3.1
The Need for Modelling
................................................... 179
6.3.2
Cutting Force Modelling
.................................................. 180
6.4
Damage Generated During Drilling
and Residual Mechanical Properties
.............................................. 183
6.4.1
Structural Damage
............................................................ 183
6.4.2
Residual Mechanical Properties
....................................... 186
6.5
Damage Suppression Methods
...................................................... 188
6.5.1
Introduction
...................................................................... 188
6.5.2
Process Parameters Selection
........................................... 188
6.5.3
Drilling Conditions
............................................................189
6.5.4
Special Tools
.................................................................... 190
References
................................................................................................. 191
7
Ecological Machining: Near-dry Machining........................................
195
Viktor P. Astakhov
7.1
Introduction
................................................................................... 195
7.2
Amount and Cost
........................................................................... 196
7.3
Health and Environmental Aspects
............................................... 197
7.4
Principal Directions in the Reduction of MWF Economical,
Ecological and Helth Impacts
........................................................ 198
Contents xi
7.5
Nearly Dry Machining (NDM)
...................................................... 201
7.5.1
How NDM Operates
........................................................ 201
7.5.2
Classification of NDM
..................................................... 202
7.5.3
Why NDM Works
............................................................ 212
7.5.4
Consideration of the NDM System Components
............. 217
References
................................................................................................. 221
8
Sculptured Surface Machining
.............................................................. 225
L. Norberto
López
de
Lacalle and
A. Lűmikiz
8.1
Introduction
................................................................................... 225
8.2
The Manufacturing Process
........................................................... 227
8.2.1
Technologies Involved
..................................................... 228
8.2.2
Five-axis Milling
.............................................................. 229
8.3
The CAM, Centre of Complex Surfaces Production
..................... 231
8.4
Workpiece Precision
...................................................................... 233
8.4.1
Cutting Forces
.................................................................. 235
8.5
Workpiece Roughness
................................................................... 237
8.6
Tool Path Selection Using Cutting Force Prediction
..................... 239
8.6.1
Three-axis Case
................................................................ 240
8.6.2
Five-axis Case
.................................................................. 241
8.7
Examples
....................................................................................... 242
8.7.1
Three-axis Mould
............................................................. 242
8.7.2
Five-axis Mould
............................................................... 243
8.7.3
Three-axis Deep Mould
................................................... 245
8.8
Present and Future
......................................................................... 246
Acknowledgements
................................................................................... 246
References
................................................................................................. 247
9
Grinding Technology and New Grinding Wheels
................................ 249
M.J. Jackson
9.1
Introduction
................................................................................... 249
9.2
High-efficiency Grinding Using Conventional Abrasive Wheels
. 250
9.2.1
Introduction
...................................................................... 250
9.2.2
Grinding Wheel Selection
................................................ 251
9.2.3
Grinding Machine Requirements
for High-efficiency Dressing
............................................ 253
9.2.4
Diamond Dressing Wheels
............................................... 253
9.2.5
Application of Diamond Dressing Wheels
....................... 256
9.2.6
Modifications to the Grinding Process
............................. 257
9.2.7
Selection of Grinding Process Parameters
....................... 257
9.2.8
Selection of Cooling Lubricant Type and Application
..... 258
xii Contents
9.3
High-efficiency Grinding Using CBN Grinding Wheels
............... 258
9.3.1
Introduction
...................................................................... 258
9.3.2
Grinding Wheel Selection
................................................ 259
9.3.3
Grinding Machine Requirements
for High-efficiency CBN Grinding
.................................. 264
9.3.4
Dressing High-efficiency CBN Grinding Wheels
............ 265
9.3.5
Selection of Dressing Parameters
for High-efficiency CBN Grinding
.................................. 266
9.3.6
Selection of Cooling Lubrication
for High-efficiency CBN Grinding Wheels
..................... 266
9.4
Internet Resources
............................................................................... 267
References
................................................................................................. 269
10
Micro and Nanomachining
.................................................................... 271
M.J. Ja^on
10.1
Introduction
................................................................................... 271
10.2
Machining Effects at the
Microscale
............................................. 272
10.2.1
Shear Angle Prediction
.................................................... 275
10.2.2
Plastic Behaviour at Large Strains
................................... 278
10.2.3
Langford
and Cohen s Model
.......................................... 278
10.2.4
Walker and Shaw s Model
............................................... 279
10.2.5
Usui s Model
.................................................................... 280
10.2.6
Saw-tooth Chip Formation in Hard Turning
................... 281
10.2.7
Fluid-like Flow in Chip Formation
................................. 281
10.3
Size Effects in Micromachining
.................................................... 282
10.4
Nanomachining
.............................................................................. 282
10.4.1
Nanometric Machining
.................................................... 283
10.4.2
Theoretical Basis of Nanomachining
............................... 284
10.4.3
Comparison of Nanometric Machining
and Conventional Machining
........................................... 294
Acknowledgements
................................................................................... 295
References
................................................................................................. 295
11
Advanced (Non-traditional) Machining Processes
............................... 299
V.K. Jain
11.1
Introduction
................................................................................... 299
11.2
Mechanical Advanced Machining Processes (MAMP)
................. 301
11.2.1
Ultrasonic Machining (USM)
.......................................... 301
11.2.2
Abrasive Water Jet Cutting (AWJC)
................................ 304
11.3
Thermoelectric Advanced Machining Processes
........................... 307
11.3.1
Electric Discharge Machining (EDM) and Wire EDM....
307
11.3.2
Laser Beam Machining (LBM)
........................................ 312
Contents xiii
11.4 Electrochemical Advanced
Machining Processes.........................
313
11.4.1 Electrochemical
Machining (ECM)
................................. 313
11.4.2 ECM Machine.................................................................. 315
11.5
Fine Finishing Processes...............................................................
317
11.5.1
Abrasive Flow Machining (AFM)
................................... 317
11.5.2
Magnetic Abrasive Finishing
(MAF)
............................... 320
11.5.3
Magnetic Float Polishing (MFP)
...................................... 323
11.6
Micromachining
............................................................................ 324
11.7
Finished Surface Characteristics
.................................................... 325
References
................................................................................................. 325
12
Intelligent Machining: Computational Methods
and Optimization
.................................................................................... 329
Sankha Deb and U.S. Dixit
12.1
Intelligent Machining
.................................................................... 329
12.2
Neural Network Modelling
............................................................ 332
12.3
Fuzzy Set Theory
........................................................................... 339
12.4
Neuro-fuzzy Modelling
................................................................. 344
12.5
A Note on
FEM
Modelling
............................................................ 347
12.6
Machining Optimization
................................................................ 348
12.6.1
Objective Functions and Constraints
............................... 348
12.6.2
Optimization Techniques
................................................. 350
12.7
Future Challenges
.......................................................................... 355
References
................................................................................................. 356
Index
................................................................................................................. 359
|
| adam_txt |
Contents
Metal Cutting Mechanics, Finite Element Modelling.
Viktor P. Astakhov and
José C.
Outeiro
1.1
Advanced Metal Cutting Mechanics
.
1.1.1
Objective of Metal Cutting Mechanics
.
1.1.2
State of the Art
.
1.1.3
1.1.4
1.1.5
1.1.6
. 1
. 1
. 1
Advanced Methodology
. 4
Combined Influence of the Minor Cutting Edge
. 7
Influence of the Cutting Speed, Depth of Cut
and Cutting Feed on Power Partition
. 9
Concluding Remarks
. 11
1.2
Finite Element Analysis
(FEA)
. 13
.2.1
Numerical Formulations
. 14
.2.2
Modelling Chip Separation from the Workpiece
and Chip Segmentation
. 15
1.2.3
Mesh Design
. 16
1.2.4
Work Material Modelling
. 18
1.2.5
Modelling of Contact Conditions
. 19
1.2.6
Numerical Integration
. 19
1.2.7
Errors
. 20
1.2.8
Example
. 20
1.2.9
Advanced Numerical Modelling
. 21
1.2.10
Model Validation
. 22
References
. 25
viii Contents
2 Tools
(Geometry
and Material) and Tool Wear
. 29
Viktor P. Astakhov and J. Paulo
Davim
2.1
Essentials of Tool Geometry
. 29
2.1.1
Importance of the Cutting Tool Geometry
. 29
2.1.2
Basic Terms and Definitions
. 31
2.1.3
System of Considerations
. 32
2.1.4
Basic Tool Geometry Components
. 33
2.1.5
Influence of the Tool Angles
. 35
2.2
Tool Materials
. 37
2.2.1
Carbides
. 39
2.2.2
Ceramics
. 43
2.2.3
Cubic Boron Nitride (CBN)
. 44
2.2.4
Polycrystalline Diamond (PCD)
and Solid Film Diamond (SFD)
. 45
2.3
Tool Wear
. 48
2.3.1
Tool Wear Types
. 48
2.3.2
Tool Wear Evolution
. 50
2.3.4
Mechanisms of Tool Wear
. 52
2.4
Tool Life
. 52
2.4.1
Taylor's Tool Life Formula
. 53
2.4.2
Expanded Taylor's Tool Life Formula
. 55
2.4.3
Recent Trends in Tool Life Evaluation
. 55
References
. 57
3
Workpiece Surface Integrity
. 59
Joël
Rech,
Hédi Hamdi
and
Stéphane Valette
3.1
What Does Surface Integrity Mean?
. 59
3.1.1
Link Between Surface Integrity
and its Manufacturing Procedure
. 62
3.1.2
Impact of the Surface Integrity
on the Dimensional Accuracy
. 64
3.1.3
Impact of the Surface Integrity on Fatigue Resistance
. 67
3.2
Material and Mechanical Aspects of Surface Integrity
. 68
3.2.1
Mechanisms Leading to Material and Mechanical
Modifications in Machining
. 68
3.2.2
Modelling of Residual Stresses
. 74
3.2.3
Experimental Approach
. 80
References
. 91
Contents ix
4
Machining of Hard Materials
. 97
Wiř
Grzesik
4.1
Basic Features of HM
. 97
4.1.1
Definition of Hard Machining
. 97
4.1.2
Comparison with Grinding Operations
. 98
4.1.3
Technological Processes Including Hard Machining
. 100
4.2
Equipment and Tooling
. 101
4.2.1
Machine Tools
. 101
4.2.2
Cuting Tools and Materials
. 102
4.2.3
Complete Machining Using Hybrid Processes
. 104
4.3
Characterization of Hard Machining Processes
. 105
4.3.1
Cutting Forces
. 105
4.3.2
Chip Formation
. 105
4.3.3
Cutting Temperature
. 108
4.3.4
Wear of Ceramic and PCBN Tools
. 110
4.3.5
Modelling of Hard Cutting Processes
. 110
4.4
Surface Integrity in Hard Machining Processes
. 113
4.4.1
Surface Roughness
. 113
4.4.2
Residual Stresses
. 114
4.4.3
Micro/Nanohardness Distribution
and White-Layer Effect
. 115
4.4.4
Modification of Surface Finish in Hybrid Processes
. 117
4.4.5
Cutting Errors and Dimensional Accuracy
. 118
4.5
Applications of Hard Machining Processes
. 119
4.5.1
Hard Turning
. 119
4.5.2
Hard and High-Speed Milling of Dies and Moulds
. 120
4.5.3
Hard Reaming
. 121
4.5.4
Hard Broaching
. 122
4.5.5
Hard Skive Hobbing
. 122
4.5.6
Optimization of Hard Machining Processes
. 123
References
. 124
5
Machining of Particulate-Reinforced Metal Matrix Composites
. 127
A. Pramanik, J.A. Arsecularatne
andL.C.
Zhang
5.1
Introduction
. 127
5.2
Effect of Reinforcement Particles on Surface Integrity
and Chip Formation
. 129
5.2.1
Strength of
MMC
During Machining
. 130
5.2.2
Chip Shape
. 131
χ
Contents
5.2.3
Surface
Integrity
. 135
5.2.4
Shear and Friction Angles
. 142
5.2.5
Relation Between Shear and Friction Angles
. 144
5.2.6
Forces
. 145
5.3
Modelling
. 147
5.3.1
Forces
. 147
5.3.2
Tool-Particle Interaction
. 157
5.4
Tool Wear
. 159
5.4.1
Performance of Cutting Tools
. 159
5.4.2
Modelling of Tool Wear
. 161
Acknowledgements
. 162
References
. 162
6
Drilling Polymeric Matrix Composites
. 167
Edoardo Capello,
Antonio
Langella,
Luigi
Nele,
Alfonso
Paoleíti,
Loredana
Santo,
Vincenzo Tagliaferri
6.1
Introduction
. 167
6.1.1
What Are Polymeric Matrix Composites?
. 167
6.1.2
The Importance of Drilling
. 171
6.2
Drilling Technology of Polymeric Matrix Composites
. 173
6.2.1
Conventional Drilling Process
.'. 173
6.2.2
Unconventional Drilling Processes
. 178
6.3
Modelling of Conventional Drilling
. 179
6.3.1
The Need for Modelling
. 179
6.3.2
Cutting Force Modelling
. 180
6.4
Damage Generated During Drilling
and Residual Mechanical Properties
. 183
6.4.1
Structural Damage
. 183
6.4.2
Residual Mechanical Properties
. 186
6.5
Damage Suppression Methods
. 188
6.5.1
Introduction
. 188
6.5.2
Process Parameters Selection
. 188
6.5.3
Drilling Conditions
.189
6.5.4
Special Tools
. 190
References
. 191
7
Ecological Machining: Near-dry Machining.
195
Viktor P. Astakhov
7.1
Introduction
. 195
7.2
Amount and Cost
. 196
7.3
Health and Environmental Aspects
. 197
7.4
Principal Directions in the Reduction of MWF Economical,
Ecological and Helth Impacts
. 198
Contents xi
7.5
Nearly Dry Machining (NDM)
. 201
7.5.1
How NDM Operates
. 201
7.5.2
Classification of NDM
. 202
7.5.3
Why NDM Works
. 212
7.5.4
Consideration of the NDM System Components
. 217
References
. 221
8
Sculptured Surface Machining
. 225
L. Norberto
López
de
Lacalle and
A. Lűmikiz
8.1
Introduction
. 225
8.2
The Manufacturing Process
. 227
8.2.1
Technologies Involved
. 228
8.2.2
Five-axis Milling
. 229
8.3
The CAM, Centre of Complex Surfaces Production
. 231
8.4
Workpiece Precision
. 233
8.4.1
Cutting Forces
. 235
8.5
Workpiece Roughness
. 237
8.6
Tool Path Selection Using Cutting Force Prediction
. 239
8.6.1
Three-axis Case
. 240
8.6.2
Five-axis Case
. 241
8.7
Examples
. 242
8.7.1
Three-axis Mould
. 242
8.7.2
Five-axis Mould
. 243
8.7.3
Three-axis Deep Mould
. 245
8.8
Present and Future
. 246
Acknowledgements
. 246
References
. 247
9
Grinding Technology and New Grinding Wheels
. 249
M.J. Jackson
9.1
Introduction
. 249
9.2
High-efficiency Grinding Using Conventional Abrasive Wheels
. 250
9.2.1
Introduction
. 250
9.2.2
Grinding Wheel Selection
. 251
9.2.3
Grinding Machine Requirements
for High-efficiency Dressing
. 253
9.2.4
Diamond Dressing Wheels
. 253
9.2.5
Application of Diamond Dressing Wheels
. 256
9.2.6
Modifications to the Grinding Process
. 257
9.2.7
Selection of Grinding Process Parameters
. 257
9.2.8
Selection of Cooling Lubricant Type and Application
. 258
xii Contents
9.3
High-efficiency Grinding Using CBN Grinding Wheels
. 258
9.3.1
Introduction
. 258
9.3.2
Grinding Wheel Selection
. 259
9.3.3
Grinding Machine Requirements
for High-efficiency CBN Grinding
. 264
9.3.4
Dressing High-efficiency CBN Grinding Wheels
. 265
9.3.5
Selection of Dressing Parameters
for High-efficiency CBN Grinding
. 266
9.3.6
Selection of Cooling Lubrication
for High-efficiency CBN Grinding Wheels
. 266
9.4
Internet Resources
. 267
References
. 269
10
Micro and Nanomachining
. 271
M.J. Ja^on
10.1
Introduction
. 271
10.2
Machining Effects at the
Microscale
. 272
10.2.1
Shear Angle Prediction
. 275
10.2.2
Plastic Behaviour at Large Strains
. 278
10.2.3
Langford
and Cohen's Model
. 278
10.2.4
Walker and Shaw's Model
. 279
10.2.5
Usui's Model
. 280
10.2.6
Saw-tooth Chip Formation in Hard Turning
. 281
10.2.7
Fluid-like Flow in Chip Formation
. 281
10.3
Size Effects in Micromachining
. 282
10.4
Nanomachining
. 282
10.4.1
Nanometric Machining
. 283
10.4.2
Theoretical Basis of Nanomachining
. 284
10.4.3
Comparison of Nanometric Machining
and Conventional Machining
. 294
Acknowledgements
. 295
References
. 295
11
Advanced (Non-traditional) Machining Processes
. 299
V.K. Jain
11.1
Introduction
. 299
11.2
Mechanical Advanced Machining Processes (MAMP)
. 301
11.2.1
Ultrasonic Machining (USM)
. 301
11.2.2
Abrasive Water Jet Cutting (AWJC)
. 304
11.3
Thermoelectric Advanced Machining Processes
. 307
11.3.1
Electric Discharge Machining (EDM) and Wire EDM.
307
11.3.2
Laser Beam Machining (LBM)
. 312
Contents xiii
11.4 Electrochemical Advanced
Machining Processes.
313
11.4.1 Electrochemical
Machining (ECM)
. 313
11.4.2 ECM Machine. 315
11.5
Fine Finishing Processes.
317
11.5.1
Abrasive Flow Machining (AFM)
. 317
11.5.2
Magnetic Abrasive Finishing
(MAF)
. 320
11.5.3
Magnetic Float Polishing (MFP)
. 323
11.6
Micromachining
. 324
11.7
Finished Surface Characteristics
. 325
References
. 325
12
Intelligent Machining: Computational Methods
and Optimization
. 329
Sankha Deb and U.S. Dixit
12.1
Intelligent Machining
. 329
12.2
Neural Network Modelling
. 332
12.3
Fuzzy Set Theory
. 339
12.4
Neuro-fuzzy Modelling
. 344
12.5
A Note on
FEM
Modelling
. 347
12.6
Machining Optimization
. 348
12.6.1
Objective Functions and Constraints
. 348
12.6.2
Optimization Techniques
. 350
12.7
Future Challenges
. 355
References
. 356
Index
. 359 |
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| illustrated | Illustrated |
| index_date | 2024-07-02T21:44:17Z |
| indexdate | 2024-07-09T21:20:10Z |
| institution | BVB |
| isbn | 1848002122 9781848002128 |
| language | English |
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| spelling | Machining fundamentals and recent advances J. Paulo Davim ed. London Springer 2008 XIII, 361 S. Ill., graph. Darst. txt rdacontent n rdamedia nc rdacarrier Usinage ram Machining Materialbearbeitung (DE-588)4139082-9 gnd rswk-swf Materialbearbeitung (DE-588)4139082-9 s DE-604 Davim, J. Paulo 1964- (DE-588)1043445226 edt Erscheint auch als Online-Ausgabe 978-1-84800-213-5 Digitalisierung UB Bayreuth application/pdf http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=016681596&sequence=000002&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA Inhaltsverzeichnis |
| spellingShingle | Machining fundamentals and recent advances Usinage ram Machining Materialbearbeitung (DE-588)4139082-9 gnd |
| subject_GND | (DE-588)4139082-9 |
| title | Machining fundamentals and recent advances |
| title_auth | Machining fundamentals and recent advances |
| title_exact_search | Machining fundamentals and recent advances |
| title_exact_search_txtP | Machining fundamentals and recent advances |
| title_full | Machining fundamentals and recent advances J. Paulo Davim ed. |
| title_fullStr | Machining fundamentals and recent advances J. Paulo Davim ed. |
| title_full_unstemmed | Machining fundamentals and recent advances J. Paulo Davim ed. |
| title_short | Machining |
| title_sort | machining fundamentals and recent advances |
| title_sub | fundamentals and recent advances |
| topic | Usinage ram Machining Materialbearbeitung (DE-588)4139082-9 gnd |
| topic_facet | Usinage Machining Materialbearbeitung |
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