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Cover |
1 |
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Title Page |
5 |
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Copyright Page |
6 |
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Table of Contents |
7 |
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Preface |
11 |
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Chapter 1. Environmental Impact in Micro-device Manufacturing |
13 |
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1.1. Introduction |
14 |
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1.1.1. Sustainability in micro-manufacturing |
17 |
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1.2. Role of LCA |
19 |
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1.2.1. Energy considerations in micro-device manufacturing methods |
22 |
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1.3. Energy consideration in micro-manufacturing |
26 |
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1.3.1. Mass and energy balance |
26 |
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1.3.2. Minimum work |
29 |
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1.4. Energy consideration in micro-end-milling manufacturing |
34 |
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1.4.1. Energy consumption with spindle and slide speed variation |
35 |
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1.4.2. Efficiency of the machining process |
39 |
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1.5. Conclusions |
40 |
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1.6. References |
41 |
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Chapter 2. Cutting Tool Sustainability |
45 |
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2.1. Introduction |
45 |
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2.2. Statistical reliability of cutting tools as quantification of their sustainability |
49 |
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2.2.1. State of the art |
49 |
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2.2.2. Cutting tool reliability concept |
50 |
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2.2.3. Practical evaluation of tool reliability under invariable cutting conditions |
53 |
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2.3. Construction of the probability density function of the tool flank wear distribution with tool test results |
62 |
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2.3.1. Simplified method |
62 |
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2.3.2. Statistical analysis of tool wear curves |
64 |
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2.4. Tool quality and the variance of tool life |
70 |
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2.5. The Bernstein distribution |
71 |
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2.6. Concept of physical resources of the cutting tool |
79 |
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2.7. References |
88 |
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Chapter 3. Minimum Quantity Lubrication in Machining |
91 |
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3.1. Introduction |
91 |
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3.1.1. Cutting fluids and problems related to cutting fluids |
92 |
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3.1.2. Dry cutting and its limitations |
93 |
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3.1.3. MQL and its performance in machining |
93 |
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3.1.4. Limitations of MQL |
95 |
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3.2. The state-of-the-art research for MQL in machining |
96 |
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3.2.1. Experimental studies on MQL in drilling |
96 |
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3.2.2. Experimental studies on MQL in milling |
98 |
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3.2.3. Experimental studies on MQL in turning |
99 |
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3.2.4. Experimental studies on MQL in other machining processes |
101 |
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3.3. Case studies on MQL in machining |
102 |
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3.3.1. Case study 1: analysis of the effect of MQL on machinability of brass during turning — ANN modeling approach |
103 |
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3.3.2. Case study 2: selection of optimal MQL on machinability of brass during turning — Taguchi approach |
111 |
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3.4. Summary |
116 |
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3.5. Acknowledgments |
117 |
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3.6. References |
117 |
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Chapter 4. Application of Minimum Quantity Lubrication in Grinding |
123 |
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4.1. Introduction |
123 |
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4.1.1. Concern about cutting fluids |
125 |
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4.2. Minimum quantity lubrication |
126 |
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4.2.1. Classification and design of MQL systems |
128 |
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4.2.2. MQL application in grinding |
130 |
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4.3. Results |
134 |
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4.3.1. Plunge external cylindrical grinding |
134 |
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4.3.2. Internal plunge grinding |
158 |
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4.3.3. Surface grinding |
166 |
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4.4. Conclusions |
181 |
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4.5. Acknowledgments |
182 |
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4.6. References |
182 |
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Chapter 5. Single-Point Incremental Forming |
185 |
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5.1. Introduction |
185 |
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5.2. Incremental sheet forming processes |
186 |
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5.2.1. Single-point incremental forming |
186 |
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5.2.2. Incremental forming with counter tool |
188 |
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5.2.3. Two-point incremental forming |
189 |
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5.3. Analytical framework |
191 |
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5.3.1. Membrane analysis |
193 |
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5.3.2. State of stress and strain |
194 |
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5.3.3. Formability limits |
197 |
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5.4. FE background |
199 |
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5.4.1. Modeling conditions |
200 |
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5.4.2. Post-processing of results |
201 |
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5.5. Experimental |
203 |
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5.5.1. Forming and fracture forming limit diagrams |
203 |
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5.5.2. SPIF experiments |
206 |
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5.6. Results and discussion |
207 |
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5.6.1. Stress and strain fields |
208 |
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5.6.2. Formability limits |
211 |
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5.7. Examples of applications |
215 |
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5.7.1. Sector shower tray |
215 |
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5.8. Conclusions |
218 |
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5.9. References |
218 |
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Chapter 6. Molding of Spent Rubber from Tire Recycling |
223 |
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6.1. Introduction |
224 |
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6.2. State of the art of tire recycling |
227 |
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6.3. Direct molding of rubber particles |
233 |
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6.4. Experimental results |
237 |
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6.5. Concluding remarks |
245 |
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6.6. References |
246 |
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List of Authors |
253 |
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Index |
257 |
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