High Ampacity Carbon Nanotube Materials

被引:16
作者
Mokry, Guillermo [1 ]
Pozuelo, Javier [1 ]
Vilatela, Juan J. [2 ]
Sanz, Javier [3 ]
Baselga, Juan [1 ]
机构
[1] Univ Carlos III Madrid, Dept Ciencia & Ingn Mat & Ingn Quim IAAB, Madrid 28911, Spain
[2] IMDEA Mat Inst, Eric Kandel 2, Madrid 28906, Spain
[3] Univ Carlos III Madrid, Dept Ingn Elect, Madrid 28911, Spain
关键词
ampacity; carbon-nanotubes; composites; interconnects; electromigration; diffusion; current carrying capacity; miniaturization; electronics; MECHANICAL-PROPERTIES; ELECTRICAL-TRANSPORT; COPPER COMPOSITE; MWCNT SYNTHESIS; ELECTROMIGRATION; ELECTRODEPOSITION; CONDUCTIVITY; INTERCONNECTS; LIGHTWEIGHT; PARAMETERS;
D O I
10.3390/nano9030383
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
Constant evolution of technology is leading to the improvement of electronical devices. Smaller, lighter, faster, are but a few of the properties that have been constantly improved, but these developments come hand in hand with negative downsides. In the case of miniaturization, this shortcoming is found in the inherent property of conducting materials-the limit of current density they can withstand before failure. This property, known as ampacity, is close to reaching its limits at the current scales of use, and the performances of some conductors such as gold or copper suffer severely from it. The need to find alternative conductors with higher ampacity is, therefore, an urgent need, but at the same time, one which requires simultaneous search for decreased density if it is to succeed in an ever-growing electronical world. The uses of these carbon nanotube-based materials, from airplane lightning strike protection systems to the microchip industry, will be evaluated, failure mechanisms at maximum current densities explained, limitations and difficulties in ampacity measurements with different size ranges evaluated, and future lines of research suggested. This review will therefore provide an in-depth view of the rare properties that make carbon nanotubes and their hybrids unique.
引用
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页数:19
相关论文
共 109 条
[31]   The effects of electrodeposition current density on properties of Ni-CNTs composite coatings [J].
Guo, Chao ;
Zuo, Yu ;
Zhao, Xuhui ;
Zhao, Jingmao ;
Xiong, Jinping .
SURFACE & COATINGS TECHNOLOGY, 2008, 202 (14) :3246-3250
[32]   Carbon nanotube-copper composites by electrodeposition on carbon nanotube fibers [J].
Hannula, Pyry-Mikko ;
Peltonen, Antti ;
Aromaa, Jari ;
Janas, Dawid ;
Lundstrom, Mari ;
Wilson, Benjamin P. ;
Koziol, Krzysztof ;
Forsen, Olof .
CARBON, 2016, 107 :281-287
[33]   An approach to obtaining homogeneously dispersed carbon nanotubes in Al powders for preparing reinforced Al-matrix composites [J].
He, Chunnian ;
Zhao, Naiqin ;
Shi, Chunsheng ;
Du, Xiwen ;
Li, Jiajun ;
Li, Haipeng ;
Cui, Qingran .
ADVANCED MATERIALS, 2007, 19 (08) :1128-1132
[34]   Electrical and thermal transport properties of magnetically aligned single walt carbon nanotube films [J].
Hone, J ;
Llaguno, MC ;
Nemes, NM ;
Johnson, AT ;
Fischer, JE ;
Walters, DA ;
Casavant, MJ ;
Schmidt, J ;
Smalley, RE .
APPLIED PHYSICS LETTERS, 2000, 77 (05) :666-668
[35]   ELECTROMIGRATION AND SELF-DIFFUSION IN IONIC MELTS [J].
HONIG, EP ;
KETELAAR, JA .
TRANSACTIONS OF THE FARADAY SOCIETY, 1966, 62 (517P) :190-&
[36]   CURRENT-INDUCED MARKER MOTION IN GOLD WIRES [J].
HUNTINGTON, HB ;
GRONE, AR .
JOURNAL OF PHYSICS AND CHEMISTRY OF SOLIDS, 1961, 20 (1-2) :76-87
[37]   HELICAL MICROTUBULES OF GRAPHITIC CARBON [J].
IIJIMA, S .
NATURE, 1991, 354 (6348) :56-58
[38]  
IRDS, 2017, IEEE ADV TECHNOL HUM, P1
[39]   Electrodeposition and mechanical properties of Ni-carbon nanotube nanocomposite coatings [J].
Jeon, Y. S. ;
Byun, J. Y. ;
Oh, T. S. .
JOURNAL OF PHYSICS AND CHEMISTRY OF SOLIDS, 2008, 69 (5-6) :1391-1394
[40]  
Kaili J., 2002, NATURE, V49, P5246