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Pseudo-Ductility, Morphology and Fractography Resulting from the Synergistic Effect of CaCO(3) and Bentonite in HDPE Polymer Nano Composite

Polymeric materials such as High density polyethylene(HDPE) are ductile in nature, having very low strength. In order to improve strength by non-treated rigid fillers, polymeric materials become extremely brittle. Therefore, this work focuses on achieving pseudo-ductility (high strength and ductilit...

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Autores principales: Ahmed, Tauseef, Ya, Hamdan H., Khan, Rehan, Hidayat Syah Lubis, Abdul Munir, Mahadzir, Shuhaimi
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2020
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7435876/
https://www.ncbi.nlm.nih.gov/pubmed/32726965
http://dx.doi.org/10.3390/ma13153333
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author Ahmed, Tauseef
Ya, Hamdan H.
Khan, Rehan
Hidayat Syah Lubis, Abdul Munir
Mahadzir, Shuhaimi
author_facet Ahmed, Tauseef
Ya, Hamdan H.
Khan, Rehan
Hidayat Syah Lubis, Abdul Munir
Mahadzir, Shuhaimi
author_sort Ahmed, Tauseef
collection PubMed
description Polymeric materials such as High density polyethylene(HDPE) are ductile in nature, having very low strength. In order to improve strength by non-treated rigid fillers, polymeric materials become extremely brittle. Therefore, this work focuses on achieving pseudo-ductility (high strength and ductility) by using a combination of rigid filler particles (CaCO(3) and bentonite) instead of a single non-treated rigid filler particle. The results of all tensile-tested (D638 type i) samples signify that the microstructural features and surface properties of rigid nano fillers can render the required pseudo-ductility. The maximum value of tensile strength achieved is 120% of the virgin HDPE, and the value of elongation is retained by 100%. Furthermore, the morphological and fractographic analysis revealed that surfactants are not always going to obtain polymer–filler bonding, but the synergistic effect of filler particles can carry out sufficient bonding for stress transfer. Moreover, pseudo-ductility was achieved by a combination of rigid fillers (bentonite and CaCO(3)) when the content of bentonite dominated as compared to CaCO(3). Thus, the achievement of pseudo-ductility by the synergistic effect of rigid particles is the significance of this study. Secondly, this combination of filler particles acted as an alternative for the application of surfactant and compatibilizer so that adverse effect on mechanical properties can be avoided.
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spelling pubmed-74358762020-08-25 Pseudo-Ductility, Morphology and Fractography Resulting from the Synergistic Effect of CaCO(3) and Bentonite in HDPE Polymer Nano Composite Ahmed, Tauseef Ya, Hamdan H. Khan, Rehan Hidayat Syah Lubis, Abdul Munir Mahadzir, Shuhaimi Materials (Basel) Article Polymeric materials such as High density polyethylene(HDPE) are ductile in nature, having very low strength. In order to improve strength by non-treated rigid fillers, polymeric materials become extremely brittle. Therefore, this work focuses on achieving pseudo-ductility (high strength and ductility) by using a combination of rigid filler particles (CaCO(3) and bentonite) instead of a single non-treated rigid filler particle. The results of all tensile-tested (D638 type i) samples signify that the microstructural features and surface properties of rigid nano fillers can render the required pseudo-ductility. The maximum value of tensile strength achieved is 120% of the virgin HDPE, and the value of elongation is retained by 100%. Furthermore, the morphological and fractographic analysis revealed that surfactants are not always going to obtain polymer–filler bonding, but the synergistic effect of filler particles can carry out sufficient bonding for stress transfer. Moreover, pseudo-ductility was achieved by a combination of rigid fillers (bentonite and CaCO(3)) when the content of bentonite dominated as compared to CaCO(3). Thus, the achievement of pseudo-ductility by the synergistic effect of rigid particles is the significance of this study. Secondly, this combination of filler particles acted as an alternative for the application of surfactant and compatibilizer so that adverse effect on mechanical properties can be avoided. MDPI 2020-07-27 /pmc/articles/PMC7435876/ /pubmed/32726965 http://dx.doi.org/10.3390/ma13153333 Text en © 2020 by the authors. Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (http://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Ahmed, Tauseef
Ya, Hamdan H.
Khan, Rehan
Hidayat Syah Lubis, Abdul Munir
Mahadzir, Shuhaimi
Pseudo-Ductility, Morphology and Fractography Resulting from the Synergistic Effect of CaCO(3) and Bentonite in HDPE Polymer Nano Composite
title Pseudo-Ductility, Morphology and Fractography Resulting from the Synergistic Effect of CaCO(3) and Bentonite in HDPE Polymer Nano Composite
title_full Pseudo-Ductility, Morphology and Fractography Resulting from the Synergistic Effect of CaCO(3) and Bentonite in HDPE Polymer Nano Composite
title_fullStr Pseudo-Ductility, Morphology and Fractography Resulting from the Synergistic Effect of CaCO(3) and Bentonite in HDPE Polymer Nano Composite
title_full_unstemmed Pseudo-Ductility, Morphology and Fractography Resulting from the Synergistic Effect of CaCO(3) and Bentonite in HDPE Polymer Nano Composite
title_short Pseudo-Ductility, Morphology and Fractography Resulting from the Synergistic Effect of CaCO(3) and Bentonite in HDPE Polymer Nano Composite
title_sort pseudo-ductility, morphology and fractography resulting from the synergistic effect of caco(3) and bentonite in hdpe polymer nano composite
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7435876/
https://www.ncbi.nlm.nih.gov/pubmed/32726965
http://dx.doi.org/10.3390/ma13153333
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