Nanotechnologies — one of the future directions of the composing of new elastomeric structural materials
Heading:
1Elkady, MM, 1Khorolskyi, MS, 1Sanin, AF 1Oles Honchar Dnipro National University, Dnipro, Ukraine |
Space Sci.&Technol. 2018, 24 ;(1):71-75 |
https://doi.org/10.15407/knit2018.01.071 |
Publication Language: Russian |
Abstract: Elastomeric materials are widely used for the production of components and structural elements of rocket, spacecraft, and aviation equipment. Rubber is the most common of the elastomeric materials used for this purpose. One of the most effective ways to improve the technical properties of rubbers is to fill with solid, liquid or gaseous fillers. The last ones evenly distributed in the volume of the newly created composition improve its physical and mechanical properties. The action of fillers is determined by a variety of factors, including a shape and size of the filler particles, the amount of filler, its type and structure, the characteristics of the interaction of the filler particles with rubber and other ingredients. We discuss the use of carbon nanotubes as filler, which is one of the methods for obtaining rubbers with improved technical properties.
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Keywords: carbon nanotubes, elastomeric materials, heat-resistant coatings, rocket and space technology, technical properties |
References:
1. Kutsova V. Z., Kutova T. V. Uglerodnye nanotrubki:Uchebnoe posobie, 6—11 (NmetAU, Dnepr, 2014) [in Ukrainian].
2. Mishenko S. V., Tkachov A. G. Carbon nanomaterials. Production, properties, application. Mechanical Engineering, 320, 17—18 (2008) [in Russian].
3. Charles E. H., Mark J. S., Hugh R. G. A survey of emerging materials for revolutionary aerospace vehicle structures and propulsion systems, 4—6 (National Aeronautics and Space Administration, Washington, 2002) [in English].
4. Dever P. D., Duffy K. P., Provenza A. J., et al. Assessment of technologies for noncryogenic hybrid electric propulsion, 13—15 (National Aeronautics and Space Administration.Article, Washington, 2015) [in English].
5. Gullapalli S., Wong M. S. Nanotechnology: A Guide to Nano-Objects. Chemical Engineering Progress, 107 (5), 28—32 (2011) [in English].
6. Hungo C., Yeonsu J., Youngjin J., et al. Fabrication and applications of carbon nanotube fibers. Carbon Letters, N 4, 191—194 (2012) [in English].
7. Larson D. L., Boyer E., Wachs T., et al. Mechanical and combustion performance of multi-walled carbon nanotubes as an additive to paraffin-based solid fuels for hybrid rockets. Thesis, 1—2 (Pennsylvania State University, 2008) [in English].
2. Mishenko S. V., Tkachov A. G. Carbon nanomaterials. Production, properties, application. Mechanical Engineering, 320, 17—18 (2008) [in Russian].
3. Charles E. H., Mark J. S., Hugh R. G. A survey of emerging materials for revolutionary aerospace vehicle structures and propulsion systems, 4—6 (National Aeronautics and Space Administration, Washington, 2002) [in English].
4. Dever P. D., Duffy K. P., Provenza A. J., et al. Assessment of technologies for noncryogenic hybrid electric propulsion, 13—15 (National Aeronautics and Space Administration.Article, Washington, 2015) [in English].
5. Gullapalli S., Wong M. S. Nanotechnology: A Guide to Nano-Objects. Chemical Engineering Progress, 107 (5), 28—32 (2011) [in English].
6. Hungo C., Yeonsu J., Youngjin J., et al. Fabrication and applications of carbon nanotube fibers. Carbon Letters, N 4, 191—194 (2012) [in English].
7. Larson D. L., Boyer E., Wachs T., et al. Mechanical and combustion performance of multi-walled carbon nanotubes as an additive to paraffin-based solid fuels for hybrid rockets. Thesis, 1—2 (Pennsylvania State University, 2008) [in English].