4.7 Article

Characterization of Thermal Bio-Insulation Materials Based on Oil Palm Wood: The Effect of Hybridization and Particle Size

期刊

POLYMERS
卷 13, 期 19, 页码 -

出版社

MDPI
DOI: 10.3390/polym13193287

关键词

bio-insulation; hybrid panel; oil palm wood; bio-based adhesive; tapioca starch; thermal conductivity; physical and mechanical properties

资金

  1. Domestic Graduate Education Scholarship Program by the Ministry of Education, Culture, Research and Technology, Indonesia
  2. Doctoral Dissertation Research Grant Scheme [056/SP2H/LT/DPRM/2021]

向作者/读者索取更多资源

Oil palm wood, as a primary biomass waste, has been explored for its potential use in thermal insulation materials. Through incorporating hybridization and varying particle sizes, the study found that panels with coarse particles displayed superior thermal resistance and mechanical properties. This research demonstrates the promising potential of utilizing oil palm wood wastes for thermal insulation materials.
Oil palm wood is the primary biomass waste produced from plantations, comprising up to 70% of the volume of trunks. It has been used in non-structural materials, such as plywood, lumber, and particleboard. However, one aspect has not been disclosed, namely, its use in thermal insulation materials. In this study, we investigated the thermal conductivity and the mechanical and physical properties of bio-insulation materials based on oil palm wood. The effects of hybridization and particle size on the properties of the panels were also evaluated. Oil palm wood and ramie were applied as reinforcements, and tapioca starch was applied as a bio-binder. Panels were prepared using a hot press at a temperature of 150 degrees C and constant pressure of 9.8 MPa. Thermal conductivity, bending strength, water absorption, dimensional stability, and thermogravimetric tests were performed to evaluate the properties of the panels. The results show that hybridization and particle size significantly affected the properties of the panels. The density and thermal conductivity of the panels were in the ranges of 0.66-0.79 g/cm(3) and 0.067-0.154 W/mK, respectively. The least thermal conductivity, i.e., 0.067 W/mK, was obtained for the hybrid panels with coarse particles at density 0.66 g/cm(3). The lowest water absorption (54.75%) and thickness swelling (18.18%) were found in the hybrid panels with fine particles. The observed mechanical properties were a bending strength of 11.49-18.15 MPa and a modulus of elasticity of 1864-3093 MPa. Thermogravimetric analysis showed that hybrid panels had better thermal stability than pure panels. Overall, the hybrid panels manufactured with a coarse particle size exhibited better thermal resistance and mechanical properties than did other panels. Our results show that oil palm wood wastes are a promising candidate for thermal insulation materials.

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