Improving the Tribological Performance of POM through the Incorporation of Bio-Based Materials

Polyoxymethylene (POM), an engineering polymer commonly used in tribological applications, is often reinforced with fossil-based fibers such as carbon and/or glass fibers to improve its properties. To find more sustainable solutions, in this study, the tribological performance of POM/short cellulose fiber composites at different sliding conditions is investigated. An improvement in the wear coefficient of roughly 69% is observed at the harshest conditions of 5 MPa and 1 m · s<sup>-1</sup> with only 10 wt.% cellulose fibers. The friction behavior is furthermore stabilized through fiber addition, as the unfilled polymer did not show a steady state. No signs of thermo-oxidative degradation are found after tribological testing. This study presents promising results for sustainable wear-resistant polymer materials in tribological applications.

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Publication Details

Journal
Polymers
Published
2024-08-15
DOI
https://doi.org/10.3390/polym16162310
Citations
4
Primary Topic
Tribology and Wear Analysis
Type
article
Field-Weighted Citation Impact
1.08
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article

Improving the Tribological Performance of POM through the Incorporation of Bio-Based Materials

Lucas M. Kneißl, Roberts Joffe, Mitjan Kalin, Nazanin Emami
4 citations
Polymers
Tribology and Wear Analysis
1.08
article

Improving the Tribological Performance of POM through the Incorporation of Bio-Based Materials

Lucas M. Kneißl, Roberts Joffe, Mitjan Kalin, Nazanin Emami
article en
4 citations

Abstract

Polyoxymethylene (POM), an engineering polymer commonly used in tribological applications, is often reinforced with fossil-based fibers such as carbon and/or glass fibers to improve its properties. To find more sustainable solutions, in this study, the tribological performance of POM/short cellulose fiber composites at different sliding conditions is investigated. An improvement in the wear coefficient of roughly 69% is observed at the harshest conditions of 5 MPa and 1 m · s<sup>-1</sup> with only 10 wt.% cellulose fibers. The friction behavior is furthermore stabilized through fiber addition, as the unfilled polymer did not show a steady state. No signs of thermo-oxidative degradation are found after tribological testing. This study presents promising results for sustainable wear-resistant polymer materials in tribological applications.

PolymersVol. 16(16)
University of Ljubljana (SI), Luleå University of Technology (SE)
Openalex Percentile: Top 28%
Tribology and Wear Analysis
1.08
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