| Autor: |
Bello, Sefiu Adekunle, Adeyemo, Raphael Gboyega, Alabi, Abdul Ganiyu Funsho, Kolawole, Maruf Yinka, Oniwa, Sadam, Kareem, Azim Bayonle, Azeez, Muizz Oyeleye, Olaiya, Bunmi Bisola, Salami, Tosin Adewale, Abdulkareem, Sofiu Oladimeji, Lawal, Quamdeen Aremu, Mohammad, Kabir Omoniyi, Akindahunsi, Peter Akinola, Agunsoye, Johnson Olumuyiwa, Hassan, Suleiman Bolaji |
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| Zdroj: |
Polymer Bulletin; Apr2024, Vol. 81 Issue 6, p5551-5596, 46p |
| Abstrakt: |
Knowledge of wear resistance properties of newly emerging materials as complements to their mechanical properties is important to broaden their applications. This study focuses on wear resistance properties of particle-reinforced epoxy. Results obtained reveal that surface wear of the examined epoxy-based composites occurred by the crack initiation by the abrasive tips of the wear tester, crack propagation and/or crack pinning. Linear regression model has accuracies of 99.94, 99.92, 99.93, 99.88, 99.91 and 99.92% with respect to various grades of composites examined. Response surface two-functional interaction model exhibits a better goodness of fit than the response surface linear model that shows an outlier. The response surface linear model best fits the wear rates of AlnpUCSnp/epoxy and AlnpCCSnp/epoxy with respective adequate precision of 14.138 and 10.204 affirming the model's adequate signal. Hence, this study establishes that epoxy-based hybrid composite having 4.7%–82.47 nm-sized aluminium-5.76%–49.85 nm-sized carbonised coconut shell hybrid particles experiences a surface wear of 0.00272721 g per metre when it is in contact with a rough surface under an applied load of 16.71 N at a speed of 0.7 ms−1. [ABSTRACT FROM AUTHOR] |
| Databáze: |
Complementary Index |
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