Carbon Nanotube Reinforced Composites: Metal and Ceramic ...

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Figure 4.19 Friction coefficient vs applied load for electrodeless deposited Ni/MWNT coatings. Reproduced with permission from [47]. Copyright Ó (2006) Elsevier. 1.1 g /L 1 CNTexhibits the lowest friction coefficient and wear rate. It is evident that the tribological properties of Ni can be enhanced by increasing the nanotube content in the deposit. A similar beneficial effect of CNTs in improving the wear resistance of Ni-P coating has been reported in the literature [48, 49]. Wang et al. deposited Ni-P/MWNT nanocomposite coating onto a carbon steel substrate in which the MWNTs were shortened by ball milling prior to deposition [49]. The dry sliding pin-on-disk measurement revealed that the friction coefficient of electro- Figure 4.20 Wear volume vs applied load for electrodeless deposited Ni/MWNT coatings. Reproduced with permission from [47]. Copyright Ó (2006) Elsevier. 4.4 Wearj125
126j 4 Mechanical Characteristics of Carbon Nanotube–Metal Nanocomposites Figure 4.21 Carbon nanotube content in the coatings as a function of MWNT concentration in the plating bath. Reproduced with permission from [47]. Copyright Ó (2006) Elsevier. deless plated composite coating decreases with increasing nanotube content due to self-lubrication of nanotubes (Figure 4.22). Further, the wear rate of the composite coating decreased with increasing nanotube content up to 11.2 vol%, but then increased with further increasing filler volume fraction due to clustering of nanotubes. Figure 4.22 Friction coefficient and wear rate as a function of carbon nanotube content for electrodeless deposited Ni-P/MWNT coatings. Reproduced with permission from [49]. Copyright Ó (2003) Elsevier.
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Sie Chin Tjong Carbon Nanotube Rein
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Sie Chin Tjong Carbon Nanotube Rein
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Contents Preface IX List of Abbrevi
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5 Carbon Nanotube-Ceramic Nanocompo
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Preface Carbon nanotubes are nanost
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XII List of Abbreviations HIP hot i
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1 Introduction 1.1 Background Compo
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Figure 1.2 Transmission electron mi
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1.3 Synthesis of Carbon Nanotubes 1
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MWNTs can be as high as 70% of the
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Figure 1.7 In situ TEM images recor
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1.3 Synthesis of Carbon Nanotubesj1
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show TEM images of MWNTs synthesize
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Since then, large efforts have been
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1.3.4 Patent Processes Carbon nanot
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1.4 Purification of Carbon Nanotube
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Table 1.3 Patent processes for the
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Figure 1.13 Schematic illustration
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1.5 Mechanical Properties of Carbon
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Figure 1.14 Carbon nanotubes in hig
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Figure 1.15 In situ tensile deforma
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Table 1.7 Theoretical and experimen
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Nomenclature ~a 1 , ~a 2 Unit vecto
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carbon nanotubes. Physical Review L
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70 Jang, I., Uh, H.S., Cho, H.J., L
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108 Shelimov, K.B., Esenaliev, R.O.
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Bonnamy, S., Beguin, F., Burnham, N
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2 Carbon Nanotube-Metal Nanocomposi
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isostatic pressing. In certain case
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This implies the absence of effecti
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coating material, the plasma gun an
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Table 2.4 Changes in the size and v
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Figure 2.6 (a) Low and (b) high mag
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Figure 2.8 SEM micrographs showing
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Figure 2.11 Bright field TEM microg
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Figure 2.13 TEM image of bulk Al/5
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2.5 Magnesium-Based Nanocomposites
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limited improvement in ultimate ten
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Figure 2.18 SEM micrographs of the
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Figure 2.19 (a) Low and (b) high ma
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Figure 2.22 SEM micrographs of (a)
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Figure 2.25 (a) TEM micrograph show
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2.8 Transition Metal-Based Nanocomp
Page 90 and 91: Figure 2.27 TEM image of electrodep
Page 92 and 93: Figure 2.29 SEM micrographs of (a)
Page 94 and 95: Figure 2.31 Schematic representatio
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Page 98 and 99: Materials Science Forum, 534-536 (P
Page 100 and 101: composite. Materials Science and En
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176j 6 Physical Properties of Carbo
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186j 7 Mechanical Properties of Car
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Table 8.1 Patent processes for maki
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218j 8 Conclusions development of c
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220j 8 Conclusions Figure 8.2 TEM m
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222j 8 Conclusions increase in Vick
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224j 8 Conclusions References 1 Cha
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226j 8 Conclusions nano-matrix. Scr
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228j Index l laser ablation 7 load
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