Use of 3D Optical Techniques in the Analysis of the Effect of Adding Rubber Recyclate to the Matrix on Selected Strength Parameters of Epoxy–Glass Composites

1 Abtew MA, Boussu F, Bruniaux P, Loghin C, Cristian I. Ballistic impact mechanisms – A review on textiles and fibre-reinforced composites impact responses. Composite Structures. 1 wrzesień 2019;223:110966. Search in Google Scholar

2 Sienkiewicz M. Kompozyty poliuretanowo-gumowe otrzymane przy udziale recyklatów gumowych jako sposób na zagospodarowanie poużytkowych opon samochodowych. Politechnika Gdańska; 2010. Search in Google Scholar

3 \Lopacka J. Nanocząstki wykorzystywane w celu poprawy w\laściwości fizycznych kompozytów polimerowych stosowanych jako materia\ly opakowaniowe do żywności. Polimery. 2013;58 (11–12):864–8. Search in Google Scholar

4 Andrzej Wilczyński. Polimerowe kompozyty włókniste. Warszawa: Wydawnictwo Naukowo Techniczne; 1996. Search in Google Scholar

5 Golewski P, Sadowski T. A novel application of alumina fiber mats as TBC protection for CFRP/epoxy laminates –Laboratory tests and numerical modeling. Journal of the European Ceramic Society. 2018;38(8):2920–7. Search in Google Scholar

6 A.A. Nayeeif, Z.K. Hamdan, Z.W. Metteb, F.A. Abdulla, N.A. Jebur. Natural filler based composite materials. 1 lipiec 2022;116(1):5–13. Search in Google Scholar

7 Dębska B, Lichołai L, Miąsik P. Assessment of the Applicability of Sustainable Epoxy Composites Containing Waste Rubber Aggregates in Buildings. Buildings [Internet]. 2019;9(2). Dostępne na: https://www.mdpi.com/2075-5309/9/2/31 Search in Google Scholar

8 Żuk D, Abramczyk N, Drewing S. Investigation of the influence of recyclate content on Poisson number of composites. Science and Engineering of Composite Materials. 2021;28(1):668–75. Search in Google Scholar

9 Marta Chojnacka. Zastosowanie kopolimerów blokowych i recyklatów gumowych do modyfikacji asfaltów. 2012;TOM 16. Search in Google Scholar

10 Parasiewicz W., Pyskło L., Magryta J., Recykling zużytych opon samochodowych. Instytut Przemysłu Gumowego „STOMIL”, Piastów 2005. Search in Google Scholar

11 Al-Shablle M, Al-Waily M, Njim E. Analytical evaluation of the influence of adding rubber layers on free vibration of sandwich structure with presence of nano-reinforced composite skins. Archives of Materials Science and Engineering. 2022;116(2):57–70. Search in Google Scholar

12 Jweeg M, Alazawi D, Jebur Q, Al-Waily M, Yasin N. Hyperelastic modelling of rubber with multi-walled carbon nanotubes subjected to tensile loading. 2021;108(2):75–85. Search in Google Scholar

13 Valášek P, Žarnovskỳ J, Müller M. Thermoset composite on basis of recycled rubber. W: Advanced materials research. Trans Tech Publ; 2013. s. 67–73. Search in Google Scholar

14 Luo J, Dai CY, Wang Z, Liu K, Mao WG, Fang DN, i in. In-situ measurements of mechanical and volume change of LiCoO2 lithium-ion batteries during repeated charge–discharge cycling by using digital image correlation. Measurement. 2016;94:759–70. Search in Google Scholar

15 Gljušćić M, Franulović M, Lanc D, Božić Ž. Digital image correlation of additively manufactured CFRTP composite systems in static tensile testing. Procedia Structural Integrity. 2021;31:116–21. Search in Google Scholar

16 Kneć M, Sadowski T, Balawender T. Technological problems and experimental investigation of hybrid: clinched-adhesively bonded joint. Archives of Metallurgy and Materials. 2011;(2). Search in Google Scholar

17 Nelson TM, Quiros KAM, Mariano CA, Sattari S, Ulu A, Dominguez EC, i in. Associating local strains to global pressure–volume mouse lung mechanics using digital image correlation. Physiological Reports. 2022;10(19):e15466. Search in Google Scholar

18 Lusiak T, Knec M. Use of ARAMIS for Fatigue Process Control in the Accelerated Test for Composites. Transportation Research Procedia. 2018;35:250–8. Search in Google Scholar

19 Lomov SV, Ivanov DS, Verpoest I, Zako M, Kurashiki T, Nakai H, i in. Full-field strain measurements for validation of meso-FE analysis of textile composites. Composites Part A: Applied Science and Manufacturing. 2008;39(8):1218–31. Search in Google Scholar

20 Le AT, Gacoin A, Li A, Mai TH, Wakil NE. Influence of various starch/hemp mixtures on mechanical and acoustical behavior of starch-hemp composite materials. Composites Part B: Engineering. 2015;75:201–11. Search in Google Scholar

21 Nag-Chowdhury S, Bellégou H, Pillin I, Castro M, Longrais P, Feller JF. Crossed investigation of damage in composites with embedded quantum resistive strain sensors (sQRS), acoustic emission (AE) and digital image correlation (DIC). Composites Science and Technology. 2018;160:79–85. Search in Google Scholar

22 Paul SC, Pirskawetz S, Zijl GPAG van, Schmidt W. Acoustic emission for characterising the crack propagation in strain-hardening cement-based composites (SHCC). Cement and Concrete Research. 2015;69:19–24. Search in Google Scholar

23 Zhang Z, Richardson M. Structural integrity evaluation of impacted glass fibre reinforced polyester composites using Optical deformation and Strain Measurement system (ARAMIS). W: ACMC/SAMPE Conference on Marine Composites, Plymouth, 11-12 September 2003. University of Plymouth; 2003. s. 99–106. Search in Google Scholar

24 Golewski GL. Estimation of the optimum content of fly ash in concrete composite based on the analysis of fracture toughness tests using various measuring systems. Construction and Building Materials. 2019;213:142–55. Search in Google Scholar

25 Grynkiewicz-Bylina B, Rakwic B, Słomka-Słupik B. Tests of rubber granules used as artificial turf for football fields in terms of toxicity to human health and the environment. Scientific Reports. 23 kwiecień 2022;12(1):6683. Search in Google Scholar

26 https://orzelsa.com/wp-content/uploads/2020/10/Karta-techniczna-1-3-mm.pdf. Search in Google Scholar

27 Liang S, Gning PB, Guillaumat L. A comparative study of fatigue behaviour of flax/epoxy and glass/epoxy composites. Composites Science and Technology. t. 72, nr 5, s. 535–543, 2012, doi: https://doi.org/10.1016/j.compscitech.2012.01.011. Search in Google Scholar

28 Koricho EG, Belingardi G, Beyene AT. Bending fatigue behavior of twill fabric E-glass/epoxy composite. Composite Structures. t. 111, s. 169–178, 2014, doi: https://doi.org/10.1016/j.compstruct.2013.12.032. Search in Google Scholar

29 Bhatnagar A. Lightweight Ballistic Composites: Military and Law-Enforcement Applications. Elsevier Science, 2016. [Online]. Dostępne na: https://books.google.pl/books?id=qZPBCQAAQBAJ Search in Google Scholar

30 Chatterjee VA, Verma SK, Bhattacharjee D, Biswas I, Neogi S. Enhancement of energy absorption by incorporation of shear thickening fluids in 3D-mat sandwich composite panels upon ballistic impact. Composite Structures. t. 225, s. 111148, 2019, doi: https://doi.org/10.1016/j.compstruct.2019.111148. Search in Google Scholar

31 Abdel-Magid B, Ziaee S, Gass K, Schneider M. The combined effects of load, moisture and temperature on the properties of E-glass/epoxy composites. Composite Structures, t. 71, nr 3, s. 320–326, 2005, doi: https://doi.org/10.1016/j.compstruct.2005.09.022. Search in Google Scholar