Polymer composites for improving the resource of pipeline transport


  • A. V. Buketov, A. V. Sapronova, M. V. Brailo, V. V. Sotsenko, K. Yu. Yurenin, B. Antonio


activity of the filler, adhesion strength, cohesive strength, fracture structure, IR-spectral analysis, optical microscopy.


Epoxy-composite protective coatings filled with anti-agglomerating additive have been investigated using IR-spectral
analysis. The presence of O-H and C-H bonds in the range of wave numbers ν = 2848–2922 cm-1, C-C in the range of wave
numbers ν = 1112–1541 cm-1 and the amino groups in the range of wave numbers ν = 623–667 cm-1, indicating the catalytic
activity of the additive. It has been established that it is expedient to use an additive for the contents of q = 20 pts.wt. for the
formation of the adhesive layer of coating, while there was observed the maximum growth of adhesion strength. Then, as for the
formation of a coating with high cohesive strength, it is advisable to use an additive containing q = 10–20 pts.wt., which provides
both elastic properties and moderate stiffness of the epoxy composite material. By the method of optical microscopy there is
analyzed the structure of epoxy composites and determined the optimum content of the filler with the ordered structure, without
defects, which provides high indicators of cohesive strength of materials.


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[1] Buketov, AV, Sapronov, ОО, Leshchenko, OV &
Voronenko, SV 2017, ‘Use of dispersive additives to ensure
high indicators of physico-mechanical properties of functional
polymer coatings’, Journal of Hydrocarbon Power
Engineering, vol. 4, iss. 2, pp. 54–63.
[2] Sapronov, O, Maruschak, R, Buketova, N,
Leschenko, O & Panin, S 2016, ‘Investigation of PM-75
Carbon Black Addition on the Properties of Protective
Polymer Coatings, Advanced Materials with Hierarchical
Structure for New Technologies and Reliable Structures’, AIP
Conf. Proc. 1783. 020194-1–020194-4.
[3] Brai'lo, MV 2014, ‘Investigation of the impact
strength of epoxy composite materials’, Scientific Herald of
the Kherson State Maritime Academy, no. 1, pp. 148–157.
[in Ukrainian]
[4] Ershova, OV, Mullyna, IeR, Chuprova, LV,
Myshuryna, OA & Bodian, LA 2014, ‘Study of the effect of
the composition of the inorganic filler on the physicochemical
properties of the polymer composite material’,
Fundamental researches, no. 12-3, pp. 487–491.
[5] Koryakina, MI 1988, Testing of paints and coatings,
Moscow, Chemistry. [in Russian]
[6] Nakamoto, K 1991, IR spectra and Raman spectra of
inorganic and coordination compounds: transl. from English,
Moscow, Myr. [in Russian]
[7] Safulyn, RS 1983, Inorganic composite materials,
Moscow, Chemistry. [in Russian]
[8] Buketov, AV, Sapronov, OO & Aleksenko, VL
2015, Epoxynanocomposites: monograph, KSMA, Kherson.
[9] Brailo, MV 2013, ‘Investigation of the effect of the
cementitious content and crosslinking temperature on the
properties of epoxy binders’, Bulletin of the Zhytomyr State
Technological University. Series: Technical Sciences,
no. 2(65), pp. 3–12. [in Ukrainian]
[10] Brailo, MV, Jakushhenko, SV & Fesenko, IP 2017,
‘Optimization of the initiator content in the polyester matrix
for its physical and mechanical properties’, Scientific notes of
LNTU, iss. 57, pp. 32–36. [in Ukrainian]
[11] Buketov, AV, Sapronov, OO, Brailo, MV &
Aleksenko, VL 2014, ‘Influence of the ultrasonic treatment on
the mechanical and thermal properties of epoxynanocomposites’,
Materials Science, vol. 49, no. 5, pp. 696–702.
[12] Buketov, A, Maruschak, P, Sapronov, O,
Zinchenko, D, Yatsyuk, V & Panin, S 2016, ‘Enhancing
performance characteristics of equipment of sea and river
transport by using epoxy composites’, Transport, vol. 31(3),
pp. 333–342.




How to Cite

K. Yu. Yurenin, B. Antonio, A. V. B. A. V. S. M. V. B. V. V. S. (2018). Polymer composites for improving the resource of pipeline transport. JOURNAL OF HYDROCARBON POWER ENGINEERING, 5(2), 63–68. Retrieved from https://ogpe.nung.edu.ua/index.php/jhpe/article/view/85