Paper Titles
Identification of the Mechanism of Synthesis of SDRL Rubber
p.211
Synthesis of Galactomannan Sulfate-Citrate
p.218
Calculation and Analysis of the Molecular Weight Characteristics of the Polymer in the Synthesis of Butyl Rubber
p.224
System Analysis and Simulation of the Process of Destructive Hydrogenization of Deasphaltisate of Heavy Oil
p.232
Carbon-Carbon Composite Materials Based on Low Modulus Fabrics
p.240
Finite Element Calculation of the Polymer Stamp Material Redistribution under Restrictions on Fatigue Life
p.248
Using Granulate Composites with Calcined Phosphogypsum and Pet Additive in Asphalting
p.257
Chemical and Mineralogical Compositions of Mortar Mixes of Architectural Monuments of Uzbekistan of the IX-XII Centuries
p.266
Some Evaluations on the Technical State of Metal Products and Determination of their Safe Operation Period on the Basis of Criterial Control
p.275

Carbon-Carbon Composite Materials Based on Low Modulus Fabrics

Article Preview

Abstract:

Scientific research and the search for new technologies to increase the level of mechanical and high-temperature properties are ongoing. The article discusses the technology of using carbon materials, pyrolysis and impregnation with phenol-formaldehyde resins. It is shown that the proposed technology makes it possible to achieve a sufficient level of mechanical properties when using low-modulus carbon fabrics after pyrolytic treatment as a prepreg at a temperature treatment no higher than 900 K. Pillowcase and resole phenol-formaldehyde resins were used to impregnate the prepreg. The proposed technology also allows the introduction of alloying additives into the system to improve the properties. An example of the introduction of nitrogen into a composite by adding urotropine to a phenol-formaldehyde resin, which was used to impregnate the composite, is considered.

You might also be interested in these eBooks
Workshop Advances in Materials Science II View Preview

Info:

Periodical:

Materials Science Forum (Volume 1049)

Pages:

240-247

DOI:

https://doi.org/10.4028/www.scientific.net/MSF.1049.240

Citation:

Cite this paper

Online since:

January 2022

Authors:

Ivan S. Zherebcov*, Valeriy V. Savin, Alexander V. Osadchy, Victoriia A. Chaika, Vadim Borkovskih

Keywords:

Carbon Fibers, Carbon-Carbon Composite Materials, Carbonization, Impregnated with Phenol-Formaldehyde Resins

Export:

RIS, BibTeX

Price:

Permissions CCC:

Request Permissions

Permissions PLS:

Request Permissions

Сopyright:

© 2022 Trans Tech Publications Ltd. All Rights Reserved

Share:

Citation:

* - Corresponding Author

References

[1] Combat railway missile system 15P961 Molodets with ICBM 15ZH61 (RT-23 UTTH). http://rbase.new-factoria.ru/missile/wobb/ 15g61/15g61.shtml.

Google Scholar

[2] S.A. Kolesnikov, V.I. Kostikov, Large-size carbon-carbon composite nozzles for solid propellant rocket engines, Aviation equipment and technology. 2(2006) 53 – 60.

Google Scholar

[3] Yu.S. Virgiliev, I.P. Kalyagina, V.I. Kostikov, A.K. Protsenko, Radiation changes in the structure and properties of carbon-carbon composite materials, Physics and chemistry of material processing. 4(1991) 21 – 28.

DOI: 10.1007/978-94-011-3676-1_92

Google Scholar

[4] S.A. Kolesnikov and A.K. Protsenko, Carbon composites with multidimensional reinforcement as new class of refractory construction materials, Refractories and industrial Ceramics. 47(2007) 241 – 244.

DOI: 10.1007/s11148-006-0098-6

Google Scholar

[5] I.V. Gurin, V.A. Gurin, S.Yu. Saenko, V.V. Guida, E.V. Gurina, On the possibility of using a pyrocarbon matrix for reversible immobilization of radioactive waste. National Scientific Center Kharkov Institute of Physics and Technology,, Kharkov, Ukraine. http:// vant.kipt.kharkov.ua/ARTICLE/VANT_2013_5/article_2013_5_74.pdf 246 p.

DOI: 10.22606/jaap.2020.21001

Google Scholar

[6] M.A. Pashnev, Missile system 15P960 Molodets with ICBM 15Zh60 (RT23 UTTH) http://rbase.new-factoria.ru/missile/wobb/15g60/15g60.shtml.

Google Scholar

[7] L.B. Reznik, D.Yu. Borzunov, D.S. Mokhovikov, I.V. Stasenko, Experience with long bones defects replacement on the basis of combined use of transosseous osteosynthesis and osteoconductive materials in clinical practice, Scientifically-practical reviewed journal POLYTRAUMA. 2(2017) 16-22.

Google Scholar

[8] A.G. Shchurik, Artificial carbon materials. Permian, 2009, 342 p.

Google Scholar

[9] V.I. Kostikov, A.N. Varenkov, Ultra-high-temperature composite materials. Moscow. Engineering, 2003, 560 p.

Google Scholar

[10] A.A. Smerdov, S.V. Tashchilov, K.A. Ponomarev et al, Features of the formulation and solution of problems of optimization of the structure and composition of spatially reinforced carbon-carbon and carbon-ceramic composite structures of rocket technology. Bulletin of MSTU im. N.E. Bauman. Ser. Mechanical Engineering,, 2012, p.137–147.

Google Scholar

[11] I.G. Zhigun, Properties of spatially reinforced composites. In: V.V. Vasilieva, Yu.M. Tarnopolsky (eds.) Composite materials: Handbook. Moscow. Mechanical engineering, 1990, p.267–301.

Google Scholar

[12] N.A. Korchinsky, Research and development of CCCM with increased deformation stability for long periods of operation at temperatures over 2300 K. Carbon: Fundamental Problems of Science, Materials Science, Technology. 2020: Proceedings of 12th International Conference, Moscow (Troitsk). Troitsk, 2020, pp.95-96.

Google Scholar

[13] Y.Sementsov, Y.Grebel'na, V.Strelchuk, G.Dovbeshko, S.Zhuravskyi, S.Makhno, B. Wang, M. Kartel, Carbon-Carbon Composition Expanded Graphite – Multiwalled Carbon Nanotubes, International Journal of Materials Science and Applications. 8 (2019) 127-134.

DOI: 10.4236/msce.2019.77004

Google Scholar