TURHAN ET AL .
15
35. Esteves B, Nunes L, Pereira H. Properties of furfurylated wood (Pinus pinaster). Eur J Wood Wood Prod . 2011;69(4):521-525. 36. Sar ı o glu E, Turhan EA, Karaz S, et al. A facile method for cross-linking of methacrylated wood fibers for engineered wood composites. Ind Crops Prod . 2023;193:116296. 37. Paulsson M, Parkås J. Light-induced yellowing of lignocellu- losic pulps-mechanisms and preventive methods. Bioresour . 2012;7(4):5995-6040. 38. Harris PJ, Stone BA. Chemistry and molecular organization of plant cell walls. Biomass Recalcitrance . Wiley; 2008:61-93. 39. Modzel G, Kamke F, de Carlo F. Comparative analysis of a wood: adhesive bondline. Wood Sci Technol . 2011;45(1):147- 158. doi:10.1007/s00226-010-0304-z 40. He Z, Li Y, Liu G, et al. Fabrication of a novel hollow wood fiber membrane decorated with halloysite and metal-organic frameworks nanoparticles for sustainable water treatment. Ind Crops Prod . 2023;202:117082. 41. Ji X, Dong Y, Nguyen TT, Chen X, Guo M. Environment- friendly wood fibre composite with high bonding strength and water resistance. R Soc Open Sci . 2018;5(4):172002. 42. Ouyang L, Huang Y, Cao J. Hygroscopicity and characteriza- tion of wood fibers modified by alkoxysilanes with different chain lengths. Bioresour . 2014;9(4):7222-7233. 43. Tian Z, Zong L, Niu R, Wang X, Li Y, Ai S. Recovery and char- acterization of lignin from alkaline straw pulping black liquor: as feedstock for bio-oil research. J Appl Polym Sci . 2015; 132(25):42057. doi:10.1002/app.42057 44. Yang H, Yan R, Chen H, Lee DH, Zheng C. Characteristics of hemicellulose, cellulose and lignin pyrolysis. Fuel . 2007;86(12 – 13):1781-1788. 45. Nurazzi N, Asyraf M, Fatimah Athiyah S, et al. A review on mechanical performance of hybrid natural fiber polymer com- posites for structural applications. Polymers . 2021;13(13):2170. 46. Bongers H, Beckers E. Mechanical properties of acetylated solid wood treated on pilot plant scale. Paper presented at: Proceedings of the First European Conference on Wood Modification. 2003. 47. Bischof Vukusic S, Katovic D, Schramm C, Trajkovic J, Sefc B. Polycarboxylic acids as non-formaldehyde anti-swelling agents forwood. Holzforschung . 2006;60:439-444. 48. Cai Z, Muehl JH, Winandy JE. Effects of panel density and mat moisture content on processing medium density fiberboard. For Prod J . 2006;56(10):20. 49. Thoemen H. Wood-Based Panels: An Introduction for Special- ists . Brunel University Press; 2010. 50. EN622-5. Fibreboards – specifications. Part 5 – requirements for dry process boards (MDF). European Committee for Standardi- zation . CEN; 2010. 51. Guler C, Copur Y, Tascioglu C. The manufacture of particle- boards using mixture of peanut hull ( Arachis hypoqaea L.) and European black pine ( Pinus nigra Arnold) wood chips. Biore- sour Technol . 2008;99(8):2893-2897. 52. Zamarian EHC, Iwakiri S, Trianoski R, Albuquerque CECD. Production of particleboard from discarded furniture. Rev Arvore . 2017;41(4):e410407. 53. Korai H, Kojima Y, Suzuki S. Bending strength and internal bond strength of wood-based boards subjected to various expo- sure conditions. JWoodSci . 2015;61:500-509. 54. Siimer K, Kaljuvee T, Christjanson P. Thermal behaviour of urea-formaldehyde resins during curing. J Therm Anal Calorim . 2003;72:607-617.
55. Park BD, Kang EC, Park JY. Thermal curing behavior of modi- fied urea-formaldehyde resin adhesives with two formaldehyde scavengers and their influence on adhesion performance. J Appl Polym Sci . 2008;110(3):1573-1580. 56. Fang G, Li J, Liu Y. Effect of pH value on cross linking reaction between wood and polycarboxilic acid. Chem Ind Prod . 1999; 19(1):28-32. 57. Xi X, Pizzi A, Lei H, Zhou X, Du G. Self-neutralizing melamine – urea – formaldehyde – citric acid resins for wood panel adhesives. Polymers . 2024;16(13):1819. 58. Gebresas GA, Szab o T, Marossy K. A comparative study of car- boxylic acids on the cross-linking potential of corn starch films. J Mol Struct . 2023;1277:134886. 59. Katovi c D, Trajkovi c J, Vuku ˇ si c S, ˇ Sefc B. Alternative agents and methods for chemical modification of wood. 2004. 60. de Jong J, Jonge J. The hydrolysis of methylene diurea. Recl Trav Chim Pays-Bas . 1953;72(3):202-206. doi:10.1002/recl. 19530720305 61. Myers GE. Hydrolytic stability of cured urea-formaldehyde resins. 1982. 62. Poblete H, Pinto A. Advances on the effect of catalyst on the cure process of ureaformaldehyde in tepa boards. Rev Bosque . 1993;14(1):55-61. 63. Xing C, Zhang S, Deng J, Wang S. Urea – formaldehyde-resin gel time as affected by the pH value, solid content, and catalyst. J Appl Polym Sci . 2007;103(3):1566-1569. 64. Mahlberg R, Paajanen L, Nurmi A, Kivisto A, Koskela K, Rowell R. Effect of chemical modification of wood on the mechanical and adhesion properties of wood fiber/polypropylene fiber and polypropylene/veneer composites. Holz Roh Werkst . 2001;59(5):319-326. 65. Tsoumis G. Science and Technology of Wood: Structure, Proper- ties, Utilization . Vol 115. Van Nostrand Reinhold; 1991. 66. Essoua GG, Landry V, Beauregard LR, Blanchet P. Pine wood treated with a citric acid and glycerol mixture: biomaterial per- formance improved by a bio-byproduct. BioResources . 2016; 11(2):3049-3072. 67. Lubis M, Iswanto AH, Hua L, et al. Post-modification of ultra- low molar ratio urea-formaldehyde adhesive with different types and levels of organic acid hardener. Paper presented at: IOP Conference Series: Earth and Environmental Science. 2022. 68. Que Z, Furuno T, Katoh S, Nishino Y. Effects of urea – formaldehyde resin mole ratio on the properties of particle- board. Build Environ . 2007;42(3):1257-1263. SUPPORTING INFORMATION Additional supporting information can be found online in the Supporting Information section at the end of this article. How to cite this article: Turhan EA, Yar ı c ı T, Dizman B, et al. Fiber level catalyst-free oxidative carboxylation enhances physical properties of wood polymer composites. Polym Compos . 2025; 1 ‐ 15. doi:10.1002/pc.29690
Made with FlippingBook flipbook maker