Abstract
Polypropylene (PP) nanocomposite films reinforced with surface-modified nanoclay, maleic anhydride-grafted PP (PP-g-MA), and surfactants, such as cetyl-trimethyl-ammonium bromide (CTAB) and octadecyl-trimethyl-ammonium bromide (ODAB), were fabricated by extrusion, and the effect of surfactant type used for the nanoclay and the take-up speed of extrusion on the mechanical properties and crystallinity of the nanocomposite films were investigated. Multi-scale hybrid composites (MHCs) consisting of plasma-treated plain woven carbon fiber (WCF) and nanocomposite films were manufactured by hot pressing. Flexural and impact tests were performed to measure the mechanical properties at various plasma treatment times. Scanning electron microscopy and X-ray photoelectron spectroscopy (XPS) were used to observe the surface morphology and detect polar functional groups, respectively. Results of XPS analysis showed a considerable increase in the oxygen atomic percentage after plasma treatment. The mechanical properties of the MHCs were greatly affected by the presence of nanoclay in the composite and the plasma treatment. The flexural modulus and strength, impact force, and absorbed impact energy of the MHC specimens treated with plasma (15 s) and reinforced with nanoclay/ODAB(5:1, 1.5 wt%) and PP-g-MA(3 wt%), increased by 69, 87, 49 and 54%, respectively, compared to the neat non-plasma-treated WCF/PP composites.
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References
Eller, B. (2009) Automotive thermoplastic composite industry structure and new technologies respond to a global recession. In: Paper presented at: SPE Automotive Composites Conference; Sep 15, 2009; Detroit, MI.
Soutis, C. (2005). Carbon fiber reinforced plastics in aircraft construction. Materials Science and Engineering A, 412(1-2), 171–176.
Rezaei, F., Yunus, R., Ibrahim, N. A., & Mahdi, E. S. (2008). Development of short-carbon-fiber-reinforced polypropylene composite for car bonnet. Polymer-Plastics Technology and Engineering, 47(4), 351–357.
Garate, J., Solovitz, S. A., & Kim, D. (2018). Fabrication and performance of segmented thermoplastic composite wind turbine blades. International Journal of Precision Engineering and Manufacturing-Green Technology, 5(2), 271–277.
Mastura, M. T., Sapuan, S. M., Mansor, M. R., & Nuraini, A. A. (2018). Materials selection of thermoplastic matrices for ‘green’ natural fibre composites for automotive anti-roll bar with particular emphasis on the environment. International Journal of Precision Engineering and Manufacturing-Green Technology, 5(1), 111–119.
Chen, W., Tao, X. M., & Liu, Y. Y. (2006). Carbon nanotube-reinforced polyurethane composite fibers. Composites Science and Technology, 66(15), 3029–3034.
Lee, C.-K., & Cho, H.-K. (2015). Nano-Composite manufacturing using the electro-orientation method of micro/nano-particles in a liquid polymer with mechanical characteristics analysis. International Journal of Precision Engineering and Manufacturing, 16(2), 379–384.
Joo, S.-J., Yu, M.-H., Kim, W. S., & Kim, H.-S. (2018). Damage detection and self-healing of carbon fiber polypropylene (CFPP)/carbon nanotube (CNT) nano-composite via addressable conducting network. Composites Science and Technology, 167, 62–70.
Kalaitzidou, K., Fukushima, H., & Drzal, L. T. (2007). A new compounding method for exfoliated graphite-polypropylene nanocomposites with enhanced flexural properties and lower percolation threshold. Composites Science and Technology, 67(10), 2045–2051.
Pedrazzoli, D., & Pegoretti, A. (2014). Expanded graphite nanoplatelets as coupling agents in glass fiber reinforced polypropylene composites. Composites: Part A, 66, 25–34.
Young, R. J., Kinloch, I. A., Gong, L., & Novoselov, K. S. (2012). The mechanics of graphene nanocomposites: a review. Composites Science and Technology, 72(12), 1459–1476.
Penkov, O., Kim, H. J., Kim, H. J., & Kim, D. E. (2014). Tribology of graphene: A review. International Journal of Precision Engineering and Manufacturing, 15(3), 577–585.
Castillo, L., Lopez, O., Lopez, C., et al. (2013). Thermoplastic starch films reinforced with talc nanoparticles. Carbohydrate Polymers, 95(2), 664–674.
Faruk, O., & Matuana, L. M. (2008). Nanoclay reinforced HDPE as a matrix for wood-plastic composites. Composites Science and Technology, 68(9), 2073–2077.
Golebiewski, J., & Galeski, A. (2007). Thermal stability of nanoclay polypropylene composites by simultaneous DSC and TGA. Composites Science and Technology, 67(15-16), 3442–3447.
Hamidi, Y. K., Aktas, L., & Altan, M. C. (2008). Effect of nanoclay content on void morphology in resin transfer molded composites. Journal of Thermoplastic Composite Materials, 21(2), 141–163.
Isitman, N. A., Aykol, M., & Kaynak, C. (2010). Nanoclay assisted strengthening of the fiber/matrix interface in functionally filled polyamide 6 composites. Composite Structures, 92(9), 2181–2186.
Pattanayak, A., & Jana, S. C. (2005). High-strength and low-stiffness composites of nanoclay-filled thermoplastic polyurethanes. Polymer Engineering and Science, 45(11), 1532–1539.
Pumera, M. (2011). Graphene-based nanomaterials for energy storage. Energy and Environmental Science, 4(3), 668–674.
Kashiwagi, T., Harris, R. H., Zhang, X., et al. (2004). Flame retardant mechanism of polyamide 6-clay nanocomposites. Polymer, 45(3), 881–891.
Shah, A. U. R., Prabhakar, M. N., & Song, J. I. (2017). Current advances in the fire retardancy of natural fiber and bio-based composites—A review. International Journal of Precision Engineering and Manufacturing-Green Technology, 4(2), 247–262.
Jagadish, P. R., Khalid, M., Li, L. P., et al. (2018). Cost effective thermoelectric composites from recycled carbon fibre: from waste to energy. Journal of Cleaner Production, 195, 1015–1025.
Baji, A., Mai, Y. W., Wong, S. C., Abtahi, M., & Chen, P. (2010). Electrospinning of polymer nanofibers: effects on oriented morphology, structures and tensile properties. Composites Science and Technology, 70(5), 703–718.
Modesti, M., Lorenzetti, A., Bon, D., & Besco, S. (2006). Thermal behaviour of compatibilised polypropylene nanocomposite: effect of processing conditions. Polymer Degradation and Stability, 91(4), 672–680.
Razavi-Nouri, M., Ghorbanzadeh-Ahangari, M., Fereidoon, A., & Jahanshahi, M. (2009). Effect of carbon nanotubes content on crystallization kinetics and morphology of polypropylene. Polymer Testing, 28(1), 46–52.
Kim, B. J., Deka, B. K., Bae, I. J., Choi, D. H., Son, D. I., & Park, Y. B. (2018). Unidirectional spread-tow carbon fiber/polypropylene composites reinforced with mechanically aligned multi-walled carbon nanotubes and exfoliated graphite nanoplatelets. Polymer Composites, 39, E1251–E1261.
Camargo, P. H. C., Satyanarayana, K. G., & Wypych, F. (2009). Nanocomposites: Synthesis, structure, properties and new application opportunities. Materials Research, 12(1), 1–39.
Zazoum, B., David, E., & Ngô, A. D. (2013). LDPE/HDPE/Clay nanocomposites: Effects of compatibilizer on the structure and dielectric response. Journal of Nanotechnology, 2013, 1–10.
Frida, E., Bukit, N., & Bukit, B. F. (2014). Natural zeolite modification with a surfactant Cetyl trimethyl ammonium bromide (Ctab) as material to filler in polypropylene. Chemistry and Materials Research, 6(6), 34–41.
Karian, H. (2003). Handbook of polypropylene and polypropylene composites, revised and expanded. Boca Raton: CRC Press.
Li, J. (2009). The research on the interfacial compatibility of polypropylene composite filled with surface treated carbon fiber. Applied Surface Science, 255(20), 8682–8684.
Andideh, M., & Esfandeh, M. (2016). Statistical optimization of treatment conditions for the electrochemical oxidation of PAN-based carbon fiber by response surface methodology: Application to carbon fiber/epoxy composite. Composites Science and Technology, 134, 132–143.
Zhang, T., Song, Y. X., Zhao, Y. Q., & Zhang, B. M. (2018). Effect of hybrid sizing with nano-SiO2 on the interfacial adhesion of carbon fibers/nylon 6 composites. Colloids and Surfaces A, 553, 125–133.
Kim, B. J., Cha, S. H., Kong, K., Ji, W., Park, H. W., & Park, Y. B. (2018). Synergistic interfacial reinforcement of carbon fiber/polyamide 6 composites using carbon-nanotube-modified silane coating on ZnO-nanorod-grown carbon fiber. Composites Science and Technology, 165, 362–372.
Deka, B. K., Kong, K., Park, Y. B., & Park, H. W. (2014). Large pulsed electron beam (LPEB)-processed woven carbon fiber/ZnO nanorod/polyester resin composites. Composites Science and Technology, 102, 106–112.
Lee, H., Ohsawa, I., & Takahashi, J. (2015). Effect of plasma surface treatment of recycled carbon fiber on carbon fiber-reinforced plastics (CFRP) interfacial properties. Applied Surface Science, 328, 241–246.
Tang, L. G., & Kardos, J. L. (1997). A review of methods for improving the interfacial adhesion between carbon fiber and polymer matrix. Polymer Composites, 18(1), 100–113.
Kale, K. H., & Desai, A. N. (2011). Atmospheric pressure plasma treatment of textiles using non-polymerising gases. Indian Journal of Fibre and Textile, 36(3), 289–299.
Rauwendaal, C. (2014). Polymer extrusion 5E. München: HANSER.
Campoy, I., Gomez, M. A., & Marco, C. (1998). Structure and thermal properties of blends of nylon 6 and a liquid crystal copolyester. Polymer, 39(25), 6279–6288.
Shi, K. H., Ye, L., & Li, G. X. (2015). Structure and hydrothermal stability of highly oriented polyamide 6 produced by solid hot stretching. RSC Advances, 5(38), 30160–30169.
Wagner, J. R., & Giles, H. E. (2013). Solidification and cooling extrusion: the definitive processing guide and handbook (pp. 9–10). New York: William Andrew.
Tong, Z. H., & Deng, Y. L. (2006). Synthesis of water-based polystyrene-nanoclay composite suspension via miniemulsion polymerization. Industrial and Engineering Chemistry Research, 45(8), 2641–2645.
Xie, J., Xin, D., Cao, H., et al. (2011). Improving carbon fiber adhesion to polyimide with atmospheric pressure plasma treatment. Surface and Coatings Technology, 206(2-3), 191–201.
Dai, Z. S., Zhang, B. Y., Shi, F. H., Li, M., Zhang, Z. G., & Gu, Y. Z. (2011). Effect of heat treatment on carbon fiber surface properties and fibers/epoxy interfacial adhesion. Applied Surface Science, 257(20), 8457–8461.
Han, S.-H., Oh, H.-J., & Kim, S.-S. (2014). Evaluation of fiber surface treatment on the interfacial behavior of carbon fiber-reinforced polypropylene composites. Composites: Part B, 60, 98–105.
Hosur, M. V., Chowdhury, F., & Jeelani, S. (2007). Low-velocity impact response and ultrasonic NDE of woven carbon/epoxy—nanoclay nanocomposites. Journal of Composite Materials, 41(18), 2195–2212.
Mahdi, T. H., Islam, M. E., Hosur, M. V., & Jeelani, S. (2017). Low-velocity impact performance of carbon fiber-reinforced plastics modified with carbon nanotube, nanoclay and hybrid nanoparticles. Journal of Reinforced Plastics and Composites, 36(9), 696–713.
Acknowledgement
This work was supported by the National Research Foundation of Korea (NRF) grant funded by the Ministry of Science and ICT, Korea (NRF-2017R1A5A1015311), and the Human Resources Development of the Korea Institute of Energy Technology Evaluation and Planning (KETEP) grant funded by the Korea Government Ministry of Trade Industry and Energy (MOTIE) (No. 20174030201430).
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Kim, BJ., Deka, B.K., Joung, C. et al. Synergistic Mechanical Reinforcement of Woven Carbon Fiber/Polypropylene Composites Using Plasma Treatment and Nanoclay. Int. J. of Precis. Eng. and Manuf.-Green Tech. 8, 595–609 (2021). https://doi.org/10.1007/s40684-020-00206-6
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DOI: https://doi.org/10.1007/s40684-020-00206-6