Processing and Alkali Treatment Impact Towards Oil Palm Frond Fibers Bulk Density and Wood-Plastic Composite Performance

The oil palm biomass is challenging in term of its mass utilization and its compatibility to various processing. The use of alkali treatment on wood fibers could modify the surface, thus making it more suitable for processing with polypropylene. This work analyses the impact of alkali treatment on t...

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Published in:Springer Proceedings in Materials
Main Author: Yunus N.Y.M.; Jasmi N.F.; Rahman W.M.N.W.A.
Format: Book chapter
Language:English
Published: Springer Nature 2023
Online Access:https://www.scopus.com/inward/record.uri?eid=2-s2.0-85142880046&doi=10.1007%2f978-981-19-6195-3_6&partnerID=40&md5=b6a27e0165be6438a7fa51dd16fee491
id 2-s2.0-85142880046
spelling 2-s2.0-85142880046
Yunus N.Y.M.; Jasmi N.F.; Rahman W.M.N.W.A.
Processing and Alkali Treatment Impact Towards Oil Palm Frond Fibers Bulk Density and Wood-Plastic Composite Performance
2023
Springer Proceedings in Materials
19

10.1007/978-981-19-6195-3_6
https://www.scopus.com/inward/record.uri?eid=2-s2.0-85142880046&doi=10.1007%2f978-981-19-6195-3_6&partnerID=40&md5=b6a27e0165be6438a7fa51dd16fee491
The oil palm biomass is challenging in term of its mass utilization and its compatibility to various processing. The use of alkali treatment on wood fibers could modify the surface, thus making it more suitable for processing with polypropylene. This work analyses the impact of alkali treatment on the bulk density and its impact on the mechanical properties of wood-plastic composite (WPC). Fibers used were treated at 3 concentration level of sodium hydroxide: NaOH (1, 2, and 4%) and compared to control (no treatment). Two fiber loading 10 and 50 wt.% were blended representing high matrix and high fiber environment respectively. The materials were blended at 180 °C for 40 min and palletized. The test samples were pressed at 1000psi with temperature of 195 °C for 6 min. Test samples were prepared and tested in accordance to relevant ASTM procedure. Bulk density of fibers indicated an inversely proportional relation to concentration of alkali. Mechanical and physical properties showed better performance after alkali treatment and the impact was varied according to the loading factor of the composite. While tensile and flexural modulus of rupture plus elongation was at higher value for 10 wt.% fiber loading, the composite with 50 wt.% fibers exhibited higher modulus of elasticity and impact performance. The trend of 10 wt.% loading was either V shaped or inverted V shaped for mechanical properties indicating the impact at 2% modification being strongest. The 50 wt.% fiber loaded WPC have upward trend throughout the mechanical properties proportional to the alkali content. Capillary action of fiber in void created in higher loaded composite explained the lower absorption for 10 wt.% loaded WPC. Composites using treated fiber are a good option for future development as it could be further optimized using varying processing parameters such as temperature, pressure, time, loading factor, and coupling agents addition. © 2023, The Author(s), under exclusive license to Springer Nature Singapore Pte Ltd.
Springer Nature
26623161
English
Book chapter

author Yunus N.Y.M.; Jasmi N.F.; Rahman W.M.N.W.A.
spellingShingle Yunus N.Y.M.; Jasmi N.F.; Rahman W.M.N.W.A.
Processing and Alkali Treatment Impact Towards Oil Palm Frond Fibers Bulk Density and Wood-Plastic Composite Performance
author_facet Yunus N.Y.M.; Jasmi N.F.; Rahman W.M.N.W.A.
author_sort Yunus N.Y.M.; Jasmi N.F.; Rahman W.M.N.W.A.
title Processing and Alkali Treatment Impact Towards Oil Palm Frond Fibers Bulk Density and Wood-Plastic Composite Performance
title_short Processing and Alkali Treatment Impact Towards Oil Palm Frond Fibers Bulk Density and Wood-Plastic Composite Performance
title_full Processing and Alkali Treatment Impact Towards Oil Palm Frond Fibers Bulk Density and Wood-Plastic Composite Performance
title_fullStr Processing and Alkali Treatment Impact Towards Oil Palm Frond Fibers Bulk Density and Wood-Plastic Composite Performance
title_full_unstemmed Processing and Alkali Treatment Impact Towards Oil Palm Frond Fibers Bulk Density and Wood-Plastic Composite Performance
title_sort Processing and Alkali Treatment Impact Towards Oil Palm Frond Fibers Bulk Density and Wood-Plastic Composite Performance
publishDate 2023
container_title Springer Proceedings in Materials
container_volume 19
container_issue
doi_str_mv 10.1007/978-981-19-6195-3_6
url https://www.scopus.com/inward/record.uri?eid=2-s2.0-85142880046&doi=10.1007%2f978-981-19-6195-3_6&partnerID=40&md5=b6a27e0165be6438a7fa51dd16fee491
description The oil palm biomass is challenging in term of its mass utilization and its compatibility to various processing. The use of alkali treatment on wood fibers could modify the surface, thus making it more suitable for processing with polypropylene. This work analyses the impact of alkali treatment on the bulk density and its impact on the mechanical properties of wood-plastic composite (WPC). Fibers used were treated at 3 concentration level of sodium hydroxide: NaOH (1, 2, and 4%) and compared to control (no treatment). Two fiber loading 10 and 50 wt.% were blended representing high matrix and high fiber environment respectively. The materials were blended at 180 °C for 40 min and palletized. The test samples were pressed at 1000psi with temperature of 195 °C for 6 min. Test samples were prepared and tested in accordance to relevant ASTM procedure. Bulk density of fibers indicated an inversely proportional relation to concentration of alkali. Mechanical and physical properties showed better performance after alkali treatment and the impact was varied according to the loading factor of the composite. While tensile and flexural modulus of rupture plus elongation was at higher value for 10 wt.% fiber loading, the composite with 50 wt.% fibers exhibited higher modulus of elasticity and impact performance. The trend of 10 wt.% loading was either V shaped or inverted V shaped for mechanical properties indicating the impact at 2% modification being strongest. The 50 wt.% fiber loaded WPC have upward trend throughout the mechanical properties proportional to the alkali content. Capillary action of fiber in void created in higher loaded composite explained the lower absorption for 10 wt.% loaded WPC. Composites using treated fiber are a good option for future development as it could be further optimized using varying processing parameters such as temperature, pressure, time, loading factor, and coupling agents addition. © 2023, The Author(s), under exclusive license to Springer Nature Singapore Pte Ltd.
publisher Springer Nature
issn 26623161
language English
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