PSI - Issue 42
Stefan Sieberer et al. / Procedia Structural Integrity 42 (2022) 72–79 S. Sieberer et al. / Structural Integrity Procedia 00 (2019) 000–000
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giving a higher than expected increase in strength. The sti ff ness in the shaft reflects the fibre volume increase well. Furthermore, the behaviour is generally linear until fracture with only small nonlinear influence, indicating that most of the load is transferred by fibres. Under the compressive force of the pin on the eye, there is significant vertical deflection, and the bearing sti ff ness was calculated. Notably, the influence of φ on the bearing sti ff ness is much smaller, as this is a matrix and void dependent parameter.
Acknowledgements
Funding was provided by the EU funded network M-Era.Net, European Regional Development Fund (ERDF) through IWB 2014–2020, the BMVIT (Austrian Ministry for Transport, Innovation, and Technology); the FFG (Aus trian Research Promotion Agency), and the federal state of Upper Austria.
References
Ai, P., Feng, P., Lin, H., Zhu, P., Ding, G., 2021. Novel self-anchored cfrp cable system: Concept and anchorage behavior. Composite Structures 263, 113736. Azarov, A., Antonov, F., Vasil’ev, V., Golubev, M., Krasovskii, D., Razin, A., Salov, V., Stupnikov, V., Khaziev, A., 2017. Development of a two-matrix composite material fabricated by 3d printing. Polymer Science, Series D 10, 87–90. Azarov, A.V., Antonov, F.K., Golubev, M.V., Khaziev, A.R., Ushanov, S.A., 2019. Composite 3D printing for the small size unmanned aerial vehicle structure. Composites Part B: Engineering 169, 157–163. Chen, Y., Ye, L., 2021. Topological design for 3D-printing of carbon fibre reinforced composite structural parts. Composites Science and Technol ogy 204, 108644. Dickson, A.N., Barry, J.N., McDonnell, K.A., Dowling, D.P., 2017. Fabrication of continuous carbon, glass and kevlar fibre reinforced polymer composites using additive manufacturing. Additive Manufacturing 16, 146–152. Dickson, A.N., Dowling, D.P., 2019. Enhancing the bearing strength of woven carbon fibre thermoplastic composites through additive manufac turing. Composite Structures 212, 381–388. Fedulov, B., Fedorenko, A., Khaziev, A., Antonov, F., 2021. Optimization of parts manufactured using continuous fiber three-dimensional printing technology. Composites Part B: Engineering 227, 109406. Garcia, C., Hurmane, A., Irisarri, F.X., Laurin, F., Leclercq, S., Desmorat, R., 2021. Experimental analysis and damage modeling of the shear-out failure mode of a 3d woven composite lug. Composite Structures 261, 113522. Hou, Z., Tian, X., Zheng, Z., Zhang, J., Zhe, L., Li, D., Malakhov, A.V., Polilov, A.N., 2020. A constitutive model for 3d printed continuous fiber reinforced composite structures with variable fiber content. Composites Part B: Engineering 189, 107893. Li, J., Durandet, Y., Huang, X., Sun, G., Ruan, D., 2022. Additively manufactured fiber-reinforced composites: A review of mechanical behavior and opportunities. J Mat Sci Technol 119, 219–244. Matsuzaki, R., Nakamura, T., Sugiyama, K., Ueda, M., Todoroki, A., Hirano, Y., Yamagata, Y., 2018. E ff ects of set curvature and fiber bundle size on the printed radius of curvature by a continuous carbon fiber composite 3d printer. Additive Manufacturing 24, 93–102. Peng, Y., Wu, Y., Li, S., Wang, K., Yao, S., Liu, Z., Garmestani, H., 2020. Tailorable rigidity and energy-absorption capability of 3D printed continuous carbon fiber reinforced polyamide composites. Composites Science and Technology 199, 108337. Polyzos, E., Van Hemelrijck, D., Pyl, L., 2021. Numerical modelling of the elastic properties of 3d-printed specimens of thermoplastic matrix reinforced with continuous fibres. Composites Part B: Engineering 211, 108671. Pyl, L., Kalteremidou, K.A., Van Hemelrijck, D., 2019. Exploration of the design freedom of 3d printed continuous fibre-reinforced polymers in open-hole tensile strength tests. Composites Science and Technology 171, 135–151. Savandaiah, C., Sieberer, S., Plank, B., Maurer, J., Steinbichler, G., Sapkota, J., 2022a. Influence of rapid consolidation on co-extruded additively manufactured composites. Polymers 14, 1838. Savandaiah, C., Sieberer, S., Steinbichler, G., 2022b. Additively manufactured composite lug with continuous carbon fibre steering based on finite element analysis. Materials 15, 1820. Schaberger, M., 2016. Damage detection in thin-walled structures with strain measurements along zero-strain trajectories. Schu¨rmann, H. (Ed.), 2007. Konstruieren mit Faser-Kunststo ff -Verbunden, 2. Auflage. Springer-Verlag Berlin Heidelberg. Tian, X., Todoroki, A., Liu, T., Wu, L., Hou, Z., Ueda, M., Hirano, Y., Matsuzaki, R., Mizukami, K., Iizuka, K., Malakhov, A.V., Polilov, A.N., Li, D., Lu, B., 2022. 3d printing of continuous fiber reinforced polymer composites: Development, application, and prospective. Chinese J o Mech Eng: Add Man Frontiers 1, 100016. van de Werken, N., Tekinalp, H., Khanbolouki, P., Ozcan, S., Williams, A., Tehrani, M., 2020. Additively manufactured carbon fiber-reinforced composites: State of the art and perspective. Additive Manufacturing 31, 100962. Zwingmann, B., Liu, Y., Schlaich, M., Janetzko, S., 2017. The sling anchorage: approach to anchor the full load bearing capacity of pin-loaded straps. Composite Structures 178, 110–118.
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