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Preface |
6 |
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Contents |
8 |
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Chapter 1: Aerospace Trailblazers |
10 |
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1.1 Introduction |
10 |
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1.2 Beatrice Hicks (1919–1979) |
10 |
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1.3 Yvonne Brill (1924–2013) |
14 |
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1.4 Mildred Dresselhaus (1930–2017) |
18 |
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1.5 Bonnie Dunbar (1949–) |
20 |
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1.6 Tresa Pollock (1961–) |
22 |
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1.7 Cady Coleman (1960–) |
24 |
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References |
25 |
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Chapter 2: Peeking Inside the Black Box: NMR Metabolomics for Optimizing Cell-Free Protein Synthesis |
27 |
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2.1 Literature Review of Cell-Free Protein Synthesis |
27 |
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2.2 Experimental |
31 |
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2.3 Conclusions |
39 |
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References |
39 |
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Chapter 3: Development of Organic Nonlinear Optical Materials for Light Manipulation |
42 |
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3.1 Introduction |
42 |
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3.2 Overview of Classes of Nonlinear Optical Materials |
44 |
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3.3 Lessons Learned in Development and Utility for AF Applications |
50 |
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3.4 Conclusions |
53 |
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References |
53 |
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Chapter 4: 2D Materials: Molybdenum Disulfide for Electronic and Optoelectronic Devices |
55 |
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4.1 Introduction |
55 |
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4.2 MoS2 Research |
56 |
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4.3 Conclusion |
61 |
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References |
61 |
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Chapter 5: Emerging Materials to Move Plasmonics into the Infrared |
64 |
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5.1 Introduction |
64 |
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5.2 Material Properties |
65 |
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5.3 Transparent Conducting Oxides |
67 |
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5.4 Metal Nitrides |
69 |
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5.5 Semiconductors |
70 |
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5.6 Graphene and Organics |
71 |
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5.7 Nanoparticles and Nanostructures |
72 |
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5.8 Future Outlook |
76 |
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References |
77 |
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Chapter 6: Materials for Flexible Thin-Film Transistors: High-Power Impulse Magnetron Sputtering of Zinc Oxide |
83 |
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6.1 Introduction |
83 |
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6.2 Experimental Details |
86 |
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6.3 Results and Discussion |
88 |
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6.4 Conclusions |
93 |
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References |
94 |
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Chapter 7: Printed Electronics for Aerospace Applications |
97 |
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7.1 Introduction |
97 |
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7.2 Materials for Printing |
98 |
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7.3 Printing and Post-processing |
99 |
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7.4 Material Characterization |
101 |
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7.5 Applications |
104 |
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7.6 Summary |
107 |
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References |
108 |
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Chapter 8: Challenges in Metal Additive Manufacturing for Large-Scale Aerospace Applications |
109 |
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8.1 Background: Metal Additive Manufacturing for Aerospace Applications |
109 |
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8.2 Attributes of Additive Manufacturing Processes |
110 |
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8.3 Directed Energy Deposition: Electron Beam Freeform Fabrication (EBF3) |
111 |
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8.4 Case Studies: Challenges in EBF3 Deposition |
116 |
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8.4.1 Generic Inconel® 718 Rocket Nozzle |
116 |
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8.4.2 Generic Ti-6Al-4V Rocket Nozzle |
119 |
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8.4.3 Copper-Nickel Bimetallic Nozzle |
121 |
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8.4.4 Aluminum Stiffened Panels for Aerostructures and Launch Vehicles |
124 |
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8.5 Concluding Remarks |
127 |
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References |
127 |
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Chapter 9: Advanced Characterization of Multifunctional Nanocomposites |
129 |
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9.1 Introduction |
129 |
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9.2 The Interphase |
130 |
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9.3 Nanoscale Characterization: Techniques and Challenges |
131 |
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9.4 AFM of Polymer Nanocomposites |
131 |
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9.5 SEM of Polymer Nanocomposites |
134 |
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9.6 Atomic Force Microscopy with Infrared Spectroscopy |
139 |
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9.7 Summary: The Power of Multiple Techniques |
143 |
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References |
144 |
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Chapter 10: Materials and Process Development of Aerospace Polymer Matrix Composites |
146 |
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10.1 Introduction |
146 |
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10.2 Materials Process Development |
147 |
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10.2.1 Influence of Out-Time on the Out-of-Autoclave Processability of Large Composite Structures [1, 2] |
147 |
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10.2.2 Evaluation of Exotherm Development in Processing Thick Composite Parts |
150 |
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10.3 Materials Development |
157 |
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10.3.1 Thermoplastic Interleave Approach to Meet Damage Tolerance Requirement of a Composite Fan Blade [9] |
157 |
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10.4 Summary |
160 |
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References |
161 |
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Author Biographies |
162 |
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Index |
177 |
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