Optimizing the formulation of polypropylene and rubberwood flour composites for moisture resistance by mixture design

D-optimal mixture experimental design was used to determine the optimal mixture of composites from rubberwood Hevea brasiliensis) flour and recycled polypropylene and to systematically analyze the effects of composition, namely recycled polypropylene, rubberwood flour, maleic anhydride-grafted poly...

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Main Authors: Ratanawilai, Thanate, Homkhiew, Chatree, Thongruang, Wiriya
Format: Article
Language:English
Published: Journal of Reinforced Plastics and Composites 2014
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Online Access:http://kb.psu.ac.th/psukb/handle/2010/9195
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Institution: Prince of Songkhla University
Language: English
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spelling th-psu.2010-91952023-10-19T04:17:12Z Optimizing the formulation of polypropylene and rubberwood flour composites for moisture resistance by mixture design Ratanawilai, Thanate Homkhiew, Chatree Thongruang, Wiriya Wood–plastic composites rubberwood flour recycled polypropylene statistical method water absorption D-optimal mixture experimental design was used to determine the optimal mixture of composites from rubberwood Hevea brasiliensis) flour and recycled polypropylene and to systematically analyze the effects of composition, namely recycled polypropylene, rubberwood flour, maleic anhydride-grafted polypropylene, and ultraviolet stabilizer fractions. Panel samples were extruded, and their properties were characterized. The overall compositions significantly affected water absorption, thickness swelling, flexural strength and modulus, and maximum strain. Water absorption and thickness swelling increased with the fraction of rubberwood flour. At long immersion times, flexural strength and modulus decreased, but maximum strain increased with high fraction of rubberwood flour. The fraction of maleic anhydridegrafted polypropylene only slightly affected water absorption and flexural properties, while the ultraviolet stabilizer fraction had a clear negative effect increasing water absorption and decreasing flexural properties. The models fitted were used for optimization of a desirability score, substituting for the multiple objectives modeled. The optimal formulation found was 68.9 wt% recycled polypropylene, 25.0 wt% rubberwood flour, 5.0 wt% maleic anhydride-grafted polypropylene, 0.1 wt% ultraviolet stabilizer, and 1.0 wt% lubricant. This formulation of the composites can be used for most suitable applications based on the moisture resistance. 2014-06-19T09:36:24Z 2014-06-19T09:36:24Z 2014-01-20 Article 07316844 http://kb.psu.ac.th/psukb/handle/2010/9195 en_US application/pdf Journal of Reinforced Plastics and Composites
institution Prince of Songkhla University
building Khunying Long Athakravi Sunthorn Learning Resources Center
continent Asia
country Thailand
Thailand
content_provider Khunying Long Athakravi Sunthorn Learning Resources Center
collection PSU Knowledge Bank
language English
topic Wood–plastic composites
rubberwood flour
recycled polypropylene
statistical method
water absorption
spellingShingle Wood–plastic composites
rubberwood flour
recycled polypropylene
statistical method
water absorption
Ratanawilai, Thanate
Homkhiew, Chatree
Thongruang, Wiriya
Optimizing the formulation of polypropylene and rubberwood flour composites for moisture resistance by mixture design
description D-optimal mixture experimental design was used to determine the optimal mixture of composites from rubberwood Hevea brasiliensis) flour and recycled polypropylene and to systematically analyze the effects of composition, namely recycled polypropylene, rubberwood flour, maleic anhydride-grafted polypropylene, and ultraviolet stabilizer fractions. Panel samples were extruded, and their properties were characterized. The overall compositions significantly affected water absorption, thickness swelling, flexural strength and modulus, and maximum strain. Water absorption and thickness swelling increased with the fraction of rubberwood flour. At long immersion times, flexural strength and modulus decreased, but maximum strain increased with high fraction of rubberwood flour. The fraction of maleic anhydridegrafted polypropylene only slightly affected water absorption and flexural properties, while the ultraviolet stabilizer fraction had a clear negative effect increasing water absorption and decreasing flexural properties. The models fitted were used for optimization of a desirability score, substituting for the multiple objectives modeled. The optimal formulation found was 68.9 wt% recycled polypropylene, 25.0 wt% rubberwood flour, 5.0 wt% maleic anhydride-grafted polypropylene, 0.1 wt% ultraviolet stabilizer, and 1.0 wt% lubricant. This formulation of the composites can be used for most suitable applications based on the moisture resistance.
format Article
author Ratanawilai, Thanate
Homkhiew, Chatree
Thongruang, Wiriya
author_facet Ratanawilai, Thanate
Homkhiew, Chatree
Thongruang, Wiriya
author_sort Ratanawilai, Thanate
title Optimizing the formulation of polypropylene and rubberwood flour composites for moisture resistance by mixture design
title_short Optimizing the formulation of polypropylene and rubberwood flour composites for moisture resistance by mixture design
title_full Optimizing the formulation of polypropylene and rubberwood flour composites for moisture resistance by mixture design
title_fullStr Optimizing the formulation of polypropylene and rubberwood flour composites for moisture resistance by mixture design
title_full_unstemmed Optimizing the formulation of polypropylene and rubberwood flour composites for moisture resistance by mixture design
title_sort optimizing the formulation of polypropylene and rubberwood flour composites for moisture resistance by mixture design
publisher Journal of Reinforced Plastics and Composites
publishDate 2014
url http://kb.psu.ac.th/psukb/handle/2010/9195
_version_ 1781416869904777216