Treatment of Oil Palm Wood with Low-Molecular Weight Phenol Formaldehyde Resin and Its Planing Characteristics
Abstract
In line with the Malaysian government calls to turn waste into wealth, oil palm wood (OPW) is establishing itself as a potential wood substitute. However, the OPW on its own has four imperfections, i.e.: low strength, low durability, poor dimensional stability, and poor machining characteristics. Previous studies have shown that the first three imperfections were able to be solved by impregnating with low molecular weight phenol formaldehyde (Lmw-PF) through modified compreg method. But, the machining behaviour of OPW remains uncovered. A planing test was carried out to evaluate the machining characteristics of the treated OPW. For comparison purpose, another set of test for the rubberwood and untreated OPW samples were also conducted. It is acknowledged that the planing quality of the treated OPW is of equal grade to that of rubberwood. In general, the planing of the treated OPW and the rubberwood fell into the Grade I (very good), compared to Grade III (average) for untreated OPW. The treatment significantly improves the machining characteristics of OPW, adding significant improvements on the physico-mechanical properties, durability, and appearance that have been proven in the previous studies, which make it can be used as a new, high-grade alternative for solid wood material.
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Abdurrachman, A.J.; S. Karnasudirdja. 1982. Sifat Permesinan Kayu-kayu Indonesia, Laporan BPHH 160: 23-37.
ASTM. D-1666-87. 1999. Standard Method for Conducting Machining Test of Wood and Wood-base Materials. West Conshohocken: American Standard for Testing and Materials.
Bakar, E.S. 2000. Utilization of Oil Palm Stem (Elaeis guineensis Jacq) as Housing and Furniture Material. Department of Forest Production, Bogor Agricultural University.
Bakar, E.S.; P. Md. Tahir; M.H. Sahri. 2005. Properties Enhancement of Oil Palm Wood through the Compreg Method. Proc. International Symposium of Wood Science and Technology 2: 91-92.
Bakar, E.S.; F. Febrianto; I. Wahyudi; Z. Ashaari. 2006. Polygon Sawing: An Optimum Sawing Pattern of Oil Palm Stems. Journal of Biological Science 6(4): 744-749.
Bakar, E.S.; M.H. Sahri; Z. Ashaari; F. Febrianto, F. 2007. Oil Palm Trunks - A New Alternative Material for Solid Wood Products. In IUFRO-All Division 5 Conference. Forest Product and Environment: A Productive Symbiosis. Held in Taipei, Taiwan, 29 Oct-2 Nov 2007. p. 112.
Bakar, E.S.; M.H. Sahri; P.S. H’ng. 2008. Anatomical Characteristics and Utilization of Oil Palm Wood. In the Formation of Wood in Tropical Forest Trees: A Challenge from the Perspective of Functional Wood Anatomy. Editor: Nobuchi, T. and M.H. Sahri. Penerbit Universiti Putra Malaysia. Kuala Lumpur.
Ismail, A.; M.N. Mamat. 2002. The Optimal Age of Oil Palm Replanting. Oil Palm Industry Economic Journal 2(1): 11-18.
ISO 4288. 1996. Geometrical Product Specifications (GPS). Surface Texture. Profile Method. Rules and Procedures for the Assessment of Surface Texture. British Standards Institute, London.
Kamaruddin, H.; A. Mokhtar; Y.M. Choo; M.B. Wahid. 2007. 3-N Lumber from Oil Palm Trunk. MPOB Information Series. Kuala Lumpur: Malaysia Palm Oil Board.
Malaysia Palm Oil Board (MPOB). 2009. In “Annual Statistic” as in www.mpob.gov.my. Accessed on 10-10-2009.
Ratanawilai, T.; T. Chumthong; S. Kirdkong. 2006. An Investigation on the Mechanical Properties of Trunks of Palm Oil Trees for the Furniture Industry. Journal of Oil Palm Research (special issue - April 2006), p. 114-121.
Tomlinson, T.L. 1961. Anatomy of Monocotyledoneae. London: University Press.
DOI: https://doi.org/10.51850/wrj.2010.1.1.7-12
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