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Discover the ins and outs of additive manufacturing in this student-friendly textbook
Also known as 3D printing, additive manufacturing is a process by which layers of material are added to create three-dimensional objects guided by a digital model. It has revolutionized the design and manufacture of customized products, facilitating the rapid, flexible production of a huge range of goods. It promises to revolutionize manufacturing engineering, shorten industrial supply chains, and more.
Theory and Practice of Additive Manufacturing provides the first introduction to this subject designed specifically for students. Balancing the underlying theories behind additive manufacturing with concrete applications, it guides readers through basic processes, essential tools and materials, and more. The result is essential for readers looking to bring additive manufacturing to bear on engineering or industry careers of almost any kind.
Theory and Practice of Additive Manufacturing readers will also find:
* Over 100 worked-out example problems
* Detailed discussion of the emerging digital tools including mechanistic modeling, machine learning, and more
* Commitment to pedagogy and reinforcement geared towards student learning outcomes
Theory and Practice of Additive Manufacturing is ideal for undergraduate and graduate students and instructors in introductory additive manufacturing courses, as well as practicing engineers and researchers working in industries that use additive manufacturing technologies, including aerospace, automotive, and consumer goods.
Also known as 3D printing, additive manufacturing is a process by which layers of material are added to create three-dimensional objects guided by a digital model. It has revolutionized the design and manufacture of customized products, facilitating the rapid, flexible production of a huge range of goods. It promises to revolutionize manufacturing engineering, shorten industrial supply chains, and more.
Theory and Practice of Additive Manufacturing provides the first introduction to this subject designed specifically for students. Balancing the underlying theories behind additive manufacturing with concrete applications, it guides readers through basic processes, essential tools and materials, and more. The result is essential for readers looking to bring additive manufacturing to bear on engineering or industry careers of almost any kind.
Theory and Practice of Additive Manufacturing readers will also find:
* Over 100 worked-out example problems
* Detailed discussion of the emerging digital tools including mechanistic modeling, machine learning, and more
* Commitment to pedagogy and reinforcement geared towards student learning outcomes
Theory and Practice of Additive Manufacturing is ideal for undergraduate and graduate students and instructors in introductory additive manufacturing courses, as well as practicing engineers and researchers working in industries that use additive manufacturing technologies, including aerospace, automotive, and consumer goods.
Discover the ins and outs of additive manufacturing in this student-friendly textbook
Also known as 3D printing, additive manufacturing is a process by which layers of material are added to create three-dimensional objects guided by a digital model. It has revolutionized the design and manufacture of customized products, facilitating the rapid, flexible production of a huge range of goods. It promises to revolutionize manufacturing engineering, shorten industrial supply chains, and more.
Theory and Practice of Additive Manufacturing provides the first introduction to this subject designed specifically for students. Balancing the underlying theories behind additive manufacturing with concrete applications, it guides readers through basic processes, essential tools and materials, and more. The result is essential for readers looking to bring additive manufacturing to bear on engineering or industry careers of almost any kind.
Theory and Practice of Additive Manufacturing readers will also find:
* Over 100 worked-out example problems
* Detailed discussion of the emerging digital tools including mechanistic modeling, machine learning, and more
* Commitment to pedagogy and reinforcement geared towards student learning outcomes
Theory and Practice of Additive Manufacturing is ideal for undergraduate and graduate students and instructors in introductory additive manufacturing courses, as well as practicing engineers and researchers working in industries that use additive manufacturing technologies, including aerospace, automotive, and consumer goods.
Also known as 3D printing, additive manufacturing is a process by which layers of material are added to create three-dimensional objects guided by a digital model. It has revolutionized the design and manufacture of customized products, facilitating the rapid, flexible production of a huge range of goods. It promises to revolutionize manufacturing engineering, shorten industrial supply chains, and more.
Theory and Practice of Additive Manufacturing provides the first introduction to this subject designed specifically for students. Balancing the underlying theories behind additive manufacturing with concrete applications, it guides readers through basic processes, essential tools and materials, and more. The result is essential for readers looking to bring additive manufacturing to bear on engineering or industry careers of almost any kind.
Theory and Practice of Additive Manufacturing readers will also find:
* Over 100 worked-out example problems
* Detailed discussion of the emerging digital tools including mechanistic modeling, machine learning, and more
* Commitment to pedagogy and reinforcement geared towards student learning outcomes
Theory and Practice of Additive Manufacturing is ideal for undergraduate and graduate students and instructors in introductory additive manufacturing courses, as well as practicing engineers and researchers working in industries that use additive manufacturing technologies, including aerospace, automotive, and consumer goods.
Über den Autor
Tuhin Mukherjee, PhD, is an Assistant Professor of Mechanical Engineering at Iowa State University. Previously he was a postdoctoral researcher in the Department of Materials Science and Engineering at the Pennsylvania State University, USA. He was awarded the American Welding Society Research fellowship and the Robert E. Newnham Research Excellence Award by Pennsylvania State University.
Tarasankar DebRoy, PhD, is a Professor of Materials Science and Engineering at the Pennsylvania State University, USA. He previously held positions as a Fulbright Distinguished Chair in Brazil, Distinguished Visiting Professor at IIT Bombay, Aditya Birla Chair at IISc, Bangalore, UK Royal Academy of Engineering Distinguished Visiting Fellow at??Cambridge University, and Visiting Professor at KTH, Stockholm.
Tarasankar DebRoy, PhD, is a Professor of Materials Science and Engineering at the Pennsylvania State University, USA. He previously held positions as a Fulbright Distinguished Chair in Brazil, Distinguished Visiting Professor at IIT Bombay, Aditya Birla Chair at IISc, Bangalore, UK Royal Academy of Engineering Distinguished Visiting Fellow at??Cambridge University, and Visiting Professor at KTH, Stockholm.
Inhaltsverzeichnis
Preface xiii
1 Introduction 1
1.1 What is additive manufacturing? 2
1.2 Terminology 4
1.3 Uses 6
1.4 Scientific synergy with welding 12
1.5 The role of computers 14
1.6 The important scientific issues 18
1.7 Technological and commercial issues 21
1.8 Content of this book 22
2 Feedstocks and Processes for Additive Manufacturing of Metals and Alloys 27
2.1 Introduction 28
2.2 Additive manufacturing processes 28
2.3 Powder feedstock 34
2.4 Wire and sheet feedstocks 42
2.5 Summary 44
3 Feedstocks and Processes for Additive Manufacturing of Polymeric Parts 49
3.1 Introduction 50
3.2 Additive manufacturing processes and equipment 50
3.3 Feedstocks 60
3.4 Additive manufacturing of polymer composites 64
3.5 Applications of additively manufactured polymer and composite parts 69
3.6 Summary 71
4 Feedstocks and Processes for Additive Manufacturing of Ceramic Parts 75
4.1 Introduction 75
4.2 Feedstocks 76
4.3 Additive manufacturing processes 78
4.4 Defects and properties 81
4.5 Applications 84
4.6 Outlook 86
4.7 Summary 86
5 Design for Additive Manufacturing 91
5.1 Introduction 92
5.2 Uniqueness considerations in the design for additive manufacturing 94
5.3 Constraints in the design for additive manufacturing 96
5.4 Materials selection in the design for additive manufacturing 98
5.5 Topology optimization 105
5.6 Process selection in the design for additive manufacturing 108
5.7 Sustainability consideration in the design for additive manufacturing 118
5.8 Summary 120
6 Sensing, Control, and Qualifications 125
6.1 Introduction 126
6.2 Sensors 126
6.3 Applications 133
6.4 Processing and storage of the sensing data 140
6.5 Control models 140
6.6 Sensing and control in part qualification 142
6.7 Summary 143
7 Heat Transfer in Additive Manufacturing 147
7.1 Introduction 148
7.2 Heat sources 150
7.3 Heat absorption by the feedstock 154
7.4 Heat conduction through the deposit and substrate 157
7.5 Convective heat transfer within the molten pool 165
7.6 Convective and radiative heat losses from the part 178
7.7 Temperature and velocity fields, thermal cycles, and heating and cooling rates 179
7.8 Emerging numerical simulations of heat transfer in additive manufacturing 184
7.9 Summary 185
8 Microstructure and Its Control 191
8.1 Introduction 192
8.2 Grain structure 193
8.3 Microstructures of common alloys 215
8.4 Process dependence of microstructure 217
8.5 Control of microstructure 219
8.6 Single crystals 222
8.7 Microstructure characterization techniques 223
8.8 Summary 224
9 Properties 229
9.1 Introduction 230
9.2 Mechanical properties 230
9.3 Post-processing to improve mechanical properties 250
9.4 Corrosion resistance 251
9.5 Summary 257
10 Common Defects in Additively Manufactured Parts 263
10.1 Introduction 264
10.2 Cracking 265
10.3 Voids and pores 270
10.4 Surface defects 280
10.5 Loss of alloying elements 286
10.6 Characterization methods 291
10.7 Defect mitigation 294
10.8 Summary 297
11 Residual Stresses and Distortion 303
11.1 Introduction 304
11.2 Origin of residual stresses and distortion 305
11.3 Measurement techniques 311
11.4 Analytical calculations of strain 320
11.5 Numerical simulation of residual stresses and distortion 323
11.6 Residual stresses and distortion in different AM processes 324
11.7 Effects of process parameters and printing strategies 326
11.8 Effects of residual stresses and distortion 328
11.9 Controlling residual stresses and distortion 332
11.10 Summary 333
12 Mechanistic Models, Machine Learning, and Digital Twins in Additive Manufacturing 339
12.1 Introduction 340
12.2 Mechanistic models 340
12.3 Machine learning 353
12.4 Digital twin in additive manufacturing 373
12.5 Summary 374
13 Safety, Sustainability, and Economic Issues in Additive Manufacturing 385
13.1 Introduction 386
13.2 Safety 386
13.3 Sustainability 389
13.4 Economic issues 392
13.5 Summary 396
14 Current Status, Trends, and Prospects 401
14.1 Introduction 402
14.2 Current status 402
14.3 Case studies and ongoing efforts 406
14.4 Trends 412
14.5 Outlook 414
14.6 Summary 415
References 417
Index 421
1 Introduction 1
1.1 What is additive manufacturing? 2
1.2 Terminology 4
1.3 Uses 6
1.4 Scientific synergy with welding 12
1.5 The role of computers 14
1.6 The important scientific issues 18
1.7 Technological and commercial issues 21
1.8 Content of this book 22
2 Feedstocks and Processes for Additive Manufacturing of Metals and Alloys 27
2.1 Introduction 28
2.2 Additive manufacturing processes 28
2.3 Powder feedstock 34
2.4 Wire and sheet feedstocks 42
2.5 Summary 44
3 Feedstocks and Processes for Additive Manufacturing of Polymeric Parts 49
3.1 Introduction 50
3.2 Additive manufacturing processes and equipment 50
3.3 Feedstocks 60
3.4 Additive manufacturing of polymer composites 64
3.5 Applications of additively manufactured polymer and composite parts 69
3.6 Summary 71
4 Feedstocks and Processes for Additive Manufacturing of Ceramic Parts 75
4.1 Introduction 75
4.2 Feedstocks 76
4.3 Additive manufacturing processes 78
4.4 Defects and properties 81
4.5 Applications 84
4.6 Outlook 86
4.7 Summary 86
5 Design for Additive Manufacturing 91
5.1 Introduction 92
5.2 Uniqueness considerations in the design for additive manufacturing 94
5.3 Constraints in the design for additive manufacturing 96
5.4 Materials selection in the design for additive manufacturing 98
5.5 Topology optimization 105
5.6 Process selection in the design for additive manufacturing 108
5.7 Sustainability consideration in the design for additive manufacturing 118
5.8 Summary 120
6 Sensing, Control, and Qualifications 125
6.1 Introduction 126
6.2 Sensors 126
6.3 Applications 133
6.4 Processing and storage of the sensing data 140
6.5 Control models 140
6.6 Sensing and control in part qualification 142
6.7 Summary 143
7 Heat Transfer in Additive Manufacturing 147
7.1 Introduction 148
7.2 Heat sources 150
7.3 Heat absorption by the feedstock 154
7.4 Heat conduction through the deposit and substrate 157
7.5 Convective heat transfer within the molten pool 165
7.6 Convective and radiative heat losses from the part 178
7.7 Temperature and velocity fields, thermal cycles, and heating and cooling rates 179
7.8 Emerging numerical simulations of heat transfer in additive manufacturing 184
7.9 Summary 185
8 Microstructure and Its Control 191
8.1 Introduction 192
8.2 Grain structure 193
8.3 Microstructures of common alloys 215
8.4 Process dependence of microstructure 217
8.5 Control of microstructure 219
8.6 Single crystals 222
8.7 Microstructure characterization techniques 223
8.8 Summary 224
9 Properties 229
9.1 Introduction 230
9.2 Mechanical properties 230
9.3 Post-processing to improve mechanical properties 250
9.4 Corrosion resistance 251
9.5 Summary 257
10 Common Defects in Additively Manufactured Parts 263
10.1 Introduction 264
10.2 Cracking 265
10.3 Voids and pores 270
10.4 Surface defects 280
10.5 Loss of alloying elements 286
10.6 Characterization methods 291
10.7 Defect mitigation 294
10.8 Summary 297
11 Residual Stresses and Distortion 303
11.1 Introduction 304
11.2 Origin of residual stresses and distortion 305
11.3 Measurement techniques 311
11.4 Analytical calculations of strain 320
11.5 Numerical simulation of residual stresses and distortion 323
11.6 Residual stresses and distortion in different AM processes 324
11.7 Effects of process parameters and printing strategies 326
11.8 Effects of residual stresses and distortion 328
11.9 Controlling residual stresses and distortion 332
11.10 Summary 333
12 Mechanistic Models, Machine Learning, and Digital Twins in Additive Manufacturing 339
12.1 Introduction 340
12.2 Mechanistic models 340
12.3 Machine learning 353
12.4 Digital twin in additive manufacturing 373
12.5 Summary 374
13 Safety, Sustainability, and Economic Issues in Additive Manufacturing 385
13.1 Introduction 386
13.2 Safety 386
13.3 Sustainability 389
13.4 Economic issues 392
13.5 Summary 396
14 Current Status, Trends, and Prospects 401
14.1 Introduction 402
14.2 Current status 402
14.3 Case studies and ongoing efforts 406
14.4 Trends 412
14.5 Outlook 414
14.6 Summary 415
References 417
Index 421
Details
| Erscheinungsjahr: | 2023 |
|---|---|
| Fachbereich: | Fertigungstechnik |
| Genre: | Technik |
| Rubrik: | Naturwissenschaften & Technik |
| Medium: | Buch |
| Seiten: | 448 |
| Inhalt: | 448 S. |
| ISBN-13: | 9781394202263 |
| ISBN-10: | 1394202261 |
| Sprache: | Englisch |
| Einband: | Gebunden |
| Autor: |
Debroy, Tarasankar
Mukherjee, Tuhin |
| Hersteller: | John Wiley & Sons Inc |
| Maße: | 260 x 183 x 28 mm |
| Von/Mit: | Tarasankar Debroy (u. a.) |
| Erscheinungsdatum: | 21.09.2023 |
| Gewicht: | 1,023 kg |
Über den Autor
Tuhin Mukherjee, PhD, is an Assistant Professor of Mechanical Engineering at Iowa State University. Previously he was a postdoctoral researcher in the Department of Materials Science and Engineering at the Pennsylvania State University, USA. He was awarded the American Welding Society Research fellowship and the Robert E. Newnham Research Excellence Award by Pennsylvania State University.
Tarasankar DebRoy, PhD, is a Professor of Materials Science and Engineering at the Pennsylvania State University, USA. He previously held positions as a Fulbright Distinguished Chair in Brazil, Distinguished Visiting Professor at IIT Bombay, Aditya Birla Chair at IISc, Bangalore, UK Royal Academy of Engineering Distinguished Visiting Fellow at??Cambridge University, and Visiting Professor at KTH, Stockholm.
Tarasankar DebRoy, PhD, is a Professor of Materials Science and Engineering at the Pennsylvania State University, USA. He previously held positions as a Fulbright Distinguished Chair in Brazil, Distinguished Visiting Professor at IIT Bombay, Aditya Birla Chair at IISc, Bangalore, UK Royal Academy of Engineering Distinguished Visiting Fellow at??Cambridge University, and Visiting Professor at KTH, Stockholm.
Inhaltsverzeichnis
Preface xiii
1 Introduction 1
1.1 What is additive manufacturing? 2
1.2 Terminology 4
1.3 Uses 6
1.4 Scientific synergy with welding 12
1.5 The role of computers 14
1.6 The important scientific issues 18
1.7 Technological and commercial issues 21
1.8 Content of this book 22
2 Feedstocks and Processes for Additive Manufacturing of Metals and Alloys 27
2.1 Introduction 28
2.2 Additive manufacturing processes 28
2.3 Powder feedstock 34
2.4 Wire and sheet feedstocks 42
2.5 Summary 44
3 Feedstocks and Processes for Additive Manufacturing of Polymeric Parts 49
3.1 Introduction 50
3.2 Additive manufacturing processes and equipment 50
3.3 Feedstocks 60
3.4 Additive manufacturing of polymer composites 64
3.5 Applications of additively manufactured polymer and composite parts 69
3.6 Summary 71
4 Feedstocks and Processes for Additive Manufacturing of Ceramic Parts 75
4.1 Introduction 75
4.2 Feedstocks 76
4.3 Additive manufacturing processes 78
4.4 Defects and properties 81
4.5 Applications 84
4.6 Outlook 86
4.7 Summary 86
5 Design for Additive Manufacturing 91
5.1 Introduction 92
5.2 Uniqueness considerations in the design for additive manufacturing 94
5.3 Constraints in the design for additive manufacturing 96
5.4 Materials selection in the design for additive manufacturing 98
5.5 Topology optimization 105
5.6 Process selection in the design for additive manufacturing 108
5.7 Sustainability consideration in the design for additive manufacturing 118
5.8 Summary 120
6 Sensing, Control, and Qualifications 125
6.1 Introduction 126
6.2 Sensors 126
6.3 Applications 133
6.4 Processing and storage of the sensing data 140
6.5 Control models 140
6.6 Sensing and control in part qualification 142
6.7 Summary 143
7 Heat Transfer in Additive Manufacturing 147
7.1 Introduction 148
7.2 Heat sources 150
7.3 Heat absorption by the feedstock 154
7.4 Heat conduction through the deposit and substrate 157
7.5 Convective heat transfer within the molten pool 165
7.6 Convective and radiative heat losses from the part 178
7.7 Temperature and velocity fields, thermal cycles, and heating and cooling rates 179
7.8 Emerging numerical simulations of heat transfer in additive manufacturing 184
7.9 Summary 185
8 Microstructure and Its Control 191
8.1 Introduction 192
8.2 Grain structure 193
8.3 Microstructures of common alloys 215
8.4 Process dependence of microstructure 217
8.5 Control of microstructure 219
8.6 Single crystals 222
8.7 Microstructure characterization techniques 223
8.8 Summary 224
9 Properties 229
9.1 Introduction 230
9.2 Mechanical properties 230
9.3 Post-processing to improve mechanical properties 250
9.4 Corrosion resistance 251
9.5 Summary 257
10 Common Defects in Additively Manufactured Parts 263
10.1 Introduction 264
10.2 Cracking 265
10.3 Voids and pores 270
10.4 Surface defects 280
10.5 Loss of alloying elements 286
10.6 Characterization methods 291
10.7 Defect mitigation 294
10.8 Summary 297
11 Residual Stresses and Distortion 303
11.1 Introduction 304
11.2 Origin of residual stresses and distortion 305
11.3 Measurement techniques 311
11.4 Analytical calculations of strain 320
11.5 Numerical simulation of residual stresses and distortion 323
11.6 Residual stresses and distortion in different AM processes 324
11.7 Effects of process parameters and printing strategies 326
11.8 Effects of residual stresses and distortion 328
11.9 Controlling residual stresses and distortion 332
11.10 Summary 333
12 Mechanistic Models, Machine Learning, and Digital Twins in Additive Manufacturing 339
12.1 Introduction 340
12.2 Mechanistic models 340
12.3 Machine learning 353
12.4 Digital twin in additive manufacturing 373
12.5 Summary 374
13 Safety, Sustainability, and Economic Issues in Additive Manufacturing 385
13.1 Introduction 386
13.2 Safety 386
13.3 Sustainability 389
13.4 Economic issues 392
13.5 Summary 396
14 Current Status, Trends, and Prospects 401
14.1 Introduction 402
14.2 Current status 402
14.3 Case studies and ongoing efforts 406
14.4 Trends 412
14.5 Outlook 414
14.6 Summary 415
References 417
Index 421
1 Introduction 1
1.1 What is additive manufacturing? 2
1.2 Terminology 4
1.3 Uses 6
1.4 Scientific synergy with welding 12
1.5 The role of computers 14
1.6 The important scientific issues 18
1.7 Technological and commercial issues 21
1.8 Content of this book 22
2 Feedstocks and Processes for Additive Manufacturing of Metals and Alloys 27
2.1 Introduction 28
2.2 Additive manufacturing processes 28
2.3 Powder feedstock 34
2.4 Wire and sheet feedstocks 42
2.5 Summary 44
3 Feedstocks and Processes for Additive Manufacturing of Polymeric Parts 49
3.1 Introduction 50
3.2 Additive manufacturing processes and equipment 50
3.3 Feedstocks 60
3.4 Additive manufacturing of polymer composites 64
3.5 Applications of additively manufactured polymer and composite parts 69
3.6 Summary 71
4 Feedstocks and Processes for Additive Manufacturing of Ceramic Parts 75
4.1 Introduction 75
4.2 Feedstocks 76
4.3 Additive manufacturing processes 78
4.4 Defects and properties 81
4.5 Applications 84
4.6 Outlook 86
4.7 Summary 86
5 Design for Additive Manufacturing 91
5.1 Introduction 92
5.2 Uniqueness considerations in the design for additive manufacturing 94
5.3 Constraints in the design for additive manufacturing 96
5.4 Materials selection in the design for additive manufacturing 98
5.5 Topology optimization 105
5.6 Process selection in the design for additive manufacturing 108
5.7 Sustainability consideration in the design for additive manufacturing 118
5.8 Summary 120
6 Sensing, Control, and Qualifications 125
6.1 Introduction 126
6.2 Sensors 126
6.3 Applications 133
6.4 Processing and storage of the sensing data 140
6.5 Control models 140
6.6 Sensing and control in part qualification 142
6.7 Summary 143
7 Heat Transfer in Additive Manufacturing 147
7.1 Introduction 148
7.2 Heat sources 150
7.3 Heat absorption by the feedstock 154
7.4 Heat conduction through the deposit and substrate 157
7.5 Convective heat transfer within the molten pool 165
7.6 Convective and radiative heat losses from the part 178
7.7 Temperature and velocity fields, thermal cycles, and heating and cooling rates 179
7.8 Emerging numerical simulations of heat transfer in additive manufacturing 184
7.9 Summary 185
8 Microstructure and Its Control 191
8.1 Introduction 192
8.2 Grain structure 193
8.3 Microstructures of common alloys 215
8.4 Process dependence of microstructure 217
8.5 Control of microstructure 219
8.6 Single crystals 222
8.7 Microstructure characterization techniques 223
8.8 Summary 224
9 Properties 229
9.1 Introduction 230
9.2 Mechanical properties 230
9.3 Post-processing to improve mechanical properties 250
9.4 Corrosion resistance 251
9.5 Summary 257
10 Common Defects in Additively Manufactured Parts 263
10.1 Introduction 264
10.2 Cracking 265
10.3 Voids and pores 270
10.4 Surface defects 280
10.5 Loss of alloying elements 286
10.6 Characterization methods 291
10.7 Defect mitigation 294
10.8 Summary 297
11 Residual Stresses and Distortion 303
11.1 Introduction 304
11.2 Origin of residual stresses and distortion 305
11.3 Measurement techniques 311
11.4 Analytical calculations of strain 320
11.5 Numerical simulation of residual stresses and distortion 323
11.6 Residual stresses and distortion in different AM processes 324
11.7 Effects of process parameters and printing strategies 326
11.8 Effects of residual stresses and distortion 328
11.9 Controlling residual stresses and distortion 332
11.10 Summary 333
12 Mechanistic Models, Machine Learning, and Digital Twins in Additive Manufacturing 339
12.1 Introduction 340
12.2 Mechanistic models 340
12.3 Machine learning 353
12.4 Digital twin in additive manufacturing 373
12.5 Summary 374
13 Safety, Sustainability, and Economic Issues in Additive Manufacturing 385
13.1 Introduction 386
13.2 Safety 386
13.3 Sustainability 389
13.4 Economic issues 392
13.5 Summary 396
14 Current Status, Trends, and Prospects 401
14.1 Introduction 402
14.2 Current status 402
14.3 Case studies and ongoing efforts 406
14.4 Trends 412
14.5 Outlook 414
14.6 Summary 415
References 417
Index 421
Details
| Erscheinungsjahr: | 2023 |
|---|---|
| Fachbereich: | Fertigungstechnik |
| Genre: | Technik |
| Rubrik: | Naturwissenschaften & Technik |
| Medium: | Buch |
| Seiten: | 448 |
| Inhalt: | 448 S. |
| ISBN-13: | 9781394202263 |
| ISBN-10: | 1394202261 |
| Sprache: | Englisch |
| Einband: | Gebunden |
| Autor: |
Debroy, Tarasankar
Mukherjee, Tuhin |
| Hersteller: | John Wiley & Sons Inc |
| Maße: | 260 x 183 x 28 mm |
| Von/Mit: | Tarasankar Debroy (u. a.) |
| Erscheinungsdatum: | 21.09.2023 |
| Gewicht: | 1,023 kg |
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