The Effect of Chopped Glass and Carbon Fiber Reinforcement on Physical, Mechanical, and Fire Performance of Wood Plastic Composites

Aamir M., Tolouei-Rad M., Giasin K. , Nosrati, A. [2019]: Recent advances in drilling of carbon fiber–reinforced polymers for aerospace applications: A review. The International Journal of Advanced Manufacturing Technology 105 [5]: 2289-2308.

Google Scholar

Altgen M., Rautkari L. [2021]: Humidity-dependence of the hydroxyl accessibility in Norway spruce wood. Cellulose 28 [1]: 45-58.

Google Scholar

Anandamurthy A., Guna V., Ilangovan M., Reddy N. [2017]: A review of fibrous reinforcements of concrete. Journal of Reinforced Plastics and Composites 36 [7]: 519-552.

Google Scholar

Araújo E.M., Araújo K.D., Pereira O.D., Ribeiro P.C., de Melo T. J. [2006]: Fiberglass wastes/polyester resin composites: mechanical properties and water sorption. Polímeros 16: 332-335.

Google Scholar

Ashori, A. [2008]: Wood–plastic composites as promising green-composites for automotive industries!. Bioresource technology 99 [11]: 4661-4667.

Google Scholar

ASTM D570-98:2018 Standard Test Method for Water Absorption of Plastics.

Google Scholar

ASTM D790-17:2017 Standard test methods for flexural properties of unreinforced and reinforced plastics and electrical insulating materials.

Google Scholar

ASTM D638-14:2014 Standard test methods for tensile properties of plastics.

Google Scholar

ASTM D2863-19:2019 Standard Test Method for Measuring the Minimum Oxygen Concentration to Support Candle-Like Combustion of Plastics [Oxygen Index].

Google Scholar

10.

Ayrilmis N., Benthien J.T., Thoemen H., White, R.H. [2011]: Properties of flat‐pressed wood plastic composites containing fire retardants. Journal of Applied Polymer Science 122 [5]: 3201-3210.

Google Scholar

11.

Bajracharya R.M., Manalo A.C., Karunasena W., Lau K.T. [2014]: An overview of mechanical properties and durability of glass-fibre reinforced recycled mixed plastic waste composites. Materials and Design 1980-2015 [62]: 98-112.

Google Scholar

12.

Budai Z., Sulyok Z., Vargha, V. [2012]: Glass-fibre reinforced composite materials based on unsaturated polyester resins. Journal of thermal analysis and calorimetry 109 [3]: 1533-1544.

Google Scholar

13.

Chaharmahali M., Tajvidi M., Najafi S.K. [2008]: Mechanical properties of wood plastic composite panels made from waste fiberboard and particleboard. Polymer composites 29 [6]: 606-610.

Google Scholar

14.

Chavooshi A., Madhoushi M. [2013]: Mechanical and physical properties of aluminum powder/MDF dust/polypropylene composites. Construction and Building Materials 44: 214-220.

Google Scholar

15.

Fabiyi J.S., McDonald A.G. [2010]: Effect of wood species on property and weathering performance of wood plastic composites. Composites Part A: Applied Science and Manufacturing 41 [10]: 1434-1440.

Google Scholar

16.

Guan X., Zhou D., Pan M., Chen H., Ding C. [2021]: Study on the Effect of Carbon Fiber Addition on the Properties of Rice Straw-Plastic Composites. BioResources 16 [2]: 3411-3421.

Google Scholar

17.

Guo G., Kethineni, C. [2020]: Direct injection molding of hybrid polypropylene/wood-fiber composites reinforced with glass fiber and carbon fiber. The International Journal of Advanced Manufacturing Technology 106 [1]: 201-209.

Google Scholar

18.

Kada D., Migneault S., Tabak G., Koubaa A. [2016]: Physical and mechanical properties of polypropylene-wood-carbon fiber hybrid composites. BioResources 11 [1]: 1393-1406.

Google Scholar

19.

Khan Z.I., Arsad A., Mohamad Z., Habib U., Zaini M.A.A. [2021]: Comparative study on the enhancement of thermo-mechanical properties of carbon fiber and glass fiber reinforced epoxy composites. Ma.

Google Scholar

20.

Kocaman M., Çuvalcı H., Güler, O. [2022]: Novel Flame-retarded Novolac Matrix Hybrid Composites with Graphite Particles and Glass Fiber Reinforcement. Fibers and Polymers 23 [7]: 2017-2029.

Google Scholar

21.

Kozłowski R., Władyka‐Przybylak M. [2008]: Flammability and fire resistance of composites reinforced by natural fibers. Polymers for advanced technologies 19[6]: 446-453.

Google Scholar

22.

Martikka O., Kärki T., Puurtinen, A. [2019]: Improving durability of wood-mixed waste plastic composites with compatibilizers. In IOP Conference Series: Materials Science and Engineering 490 [2]: 022001.

Google Scholar

23.

Rahman S., Islam M.N., Ratul S.B., Dana N.H., Musa S.M., Hannan, M. [2018]: Properties of flat-pressed wood plastic composites as a function of particle size and mixing ratio. Journal of Wood Science 64 [3]: 279-286.

Google Scholar

24.

Rowell R.M. [2012]: Handbook of Wood Chemistry and Wood Composites, Second Edition, CRC press, USA, 473s.

Google Scholar

25.

Shalbafan A., Benthien J.T., Welling J., Barbu M.C. [2013]: Flat pressed wood plastic composites made of milled foam core particleboard residues. European Journal of Wood and Wood Products 71 [6]: 805-813.

Google Scholar

26.

Turku I., Kärki, T. [2014]: The effect of carbon fibers, glass fibers and nanoclay on wood flour-polypropylene composite properties. European Journal of Wood and Wood Products 72 [1]: 73-79.

Google Scholar

27.

Unterweger C., Duchoslav J., Stifter D., Fürst, C. [2015]: Characterization of carbon fiber surfaces and their impact on the mechanical properties of short carbon fiber reinforced polypropylene composites. Composites Science and Technology 108: 41-47.

Google Scholar

28.

Valente M., Sarasini F., Marra F., Tirillò J., Pulci, G. [2011]: Hybrid recycled glass fiber/wood flour thermoplastic composites: Manufacturing and mechanical characterization. Composites Part A: Applied Science and Manufacturing 42 [6]: 649-657.

Google Scholar

29.

Wang W.H., Huang H.B., Du H.H., Wang, H. [2015]: Effects of fiber size on short‐term creep behavior of wood fiber/HDPE composites. Polymer Engineering and Science 55 [3]: 693-700.

Google Scholar

30.

Wu Y., Xia C., Cai L., Garcia A.C. Shi S.Q. [2018]: Development of natural fiber-reinforced composite with comparable mechanical properties and reduced energy consumption and environmental impacts for replacing automotive glass-fiber sheet molding compound. Journal of Cleaner Production 184: 92-100.

Google Scholar

31.

Xue Y., Zhao R., Zhang L., Li C. [2020]: Flame retardant synergy between interfacial and bulk carbonation in glass fiber reinforced polypropylene. Chinese Journal of Chemical Engineering 28 [6]: 1725-1732.

Google Scholar

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