Cargando…

Expanding the “Magic Triangle” of Reinforced Rubber Using a Supramolecular Filler Strategy

A strategy for optimizing the rolling resistance, wet skid and cut resistance of reinforced rubber simultaneously using a supramolecular filler is demonstrated. A β-alanine trimer-grafted Styrene Butadiene Rubber (A(3)-SBR) pristine polymer was designed and mechanically mixed with commercially avail...

Descripción completa

Detalles Bibliográficos
Autores principales: Zhao, Yihong, Ren, Mingwei, Zhu, Xiangdong, Ren, Zhangyu, Hu, Yaofang, Zhao, Huhu, Wang, Weiheng, Chen, Yunbo, Gao, Kewei, Zhou, Yujing
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2023
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10179851/
https://www.ncbi.nlm.nih.gov/pubmed/37176310
http://dx.doi.org/10.3390/ma16093429
_version_ 1785041195857084416
author Zhao, Yihong
Ren, Mingwei
Zhu, Xiangdong
Ren, Zhangyu
Hu, Yaofang
Zhao, Huhu
Wang, Weiheng
Chen, Yunbo
Gao, Kewei
Zhou, Yujing
author_facet Zhao, Yihong
Ren, Mingwei
Zhu, Xiangdong
Ren, Zhangyu
Hu, Yaofang
Zhao, Huhu
Wang, Weiheng
Chen, Yunbo
Gao, Kewei
Zhou, Yujing
author_sort Zhao, Yihong
collection PubMed
description A strategy for optimizing the rolling resistance, wet skid and cut resistance of reinforced rubber simultaneously using a supramolecular filler is demonstrated. A β-alanine trimer-grafted Styrene Butadiene Rubber (A(3)-SBR) pristine polymer was designed and mechanically mixed with commercially available styrene butadiene rubber to help the dispersion of a β-alanine trimer (A(3)) supramolecular filler in the rubber matrix. To increase the miscibility of A(3)-SBR with other rubber components during mechanical mixing, the pristine polymer was saturated with ethanol before mixing. The mixture was vulcanized using a conventional rubber processing method. The morphology of the assembles of the A(3) supramolecular filler in the rubber matrix was studied by Differential Scanning Calorimetry (DSC) and Transmission Electron Microscopy (TEM). The Differential Scanning Calorimetry study showed that the melting temperature of β-sheet crystals in the vulcanizates was around 179 °C and was broad. The melting temperature was similar to that of the pristine polymer, and the broad melting peak likely suggests that the size of the crystals is not uniform. The Transmission Electron Microscopy study revealed that after mixing the pristine polymer with SBR, some β-sheet crystals were rod-like with several tens of nanometers and some β-sheet crystals were particulate with low aspect ratios. Tensile testing with pre-cut specimens showed that the vulcanizate containing A(3)-SBR was more cut-resistant than the one that did not contain A(3)-SBR, especially at a large cut size. The rolling resistance and wet skid were predicted by dynamic mechanical analysis (DMA). DMA tests showed that the vulcanizates containing A(3)-SBR were significantly less hysteretic at 60 °C and more hysteretic at 0 °C based on loss factor. Overall, the “magic triangle” was expanded by optimizing the rolling resistance, wet-skid, and cut resistance simultaneously using a β-alanine trimer supramolecular filler. The Payne effect also became less severe after introducing the β-alanine trimer supramolecular filler into the system.
format Online
Article
Text
id pubmed-10179851
institution National Center for Biotechnology Information
language English
publishDate 2023
publisher MDPI
record_format MEDLINE/PubMed
spelling pubmed-101798512023-05-13 Expanding the “Magic Triangle” of Reinforced Rubber Using a Supramolecular Filler Strategy Zhao, Yihong Ren, Mingwei Zhu, Xiangdong Ren, Zhangyu Hu, Yaofang Zhao, Huhu Wang, Weiheng Chen, Yunbo Gao, Kewei Zhou, Yujing Materials (Basel) Article A strategy for optimizing the rolling resistance, wet skid and cut resistance of reinforced rubber simultaneously using a supramolecular filler is demonstrated. A β-alanine trimer-grafted Styrene Butadiene Rubber (A(3)-SBR) pristine polymer was designed and mechanically mixed with commercially available styrene butadiene rubber to help the dispersion of a β-alanine trimer (A(3)) supramolecular filler in the rubber matrix. To increase the miscibility of A(3)-SBR with other rubber components during mechanical mixing, the pristine polymer was saturated with ethanol before mixing. The mixture was vulcanized using a conventional rubber processing method. The morphology of the assembles of the A(3) supramolecular filler in the rubber matrix was studied by Differential Scanning Calorimetry (DSC) and Transmission Electron Microscopy (TEM). The Differential Scanning Calorimetry study showed that the melting temperature of β-sheet crystals in the vulcanizates was around 179 °C and was broad. The melting temperature was similar to that of the pristine polymer, and the broad melting peak likely suggests that the size of the crystals is not uniform. The Transmission Electron Microscopy study revealed that after mixing the pristine polymer with SBR, some β-sheet crystals were rod-like with several tens of nanometers and some β-sheet crystals were particulate with low aspect ratios. Tensile testing with pre-cut specimens showed that the vulcanizate containing A(3)-SBR was more cut-resistant than the one that did not contain A(3)-SBR, especially at a large cut size. The rolling resistance and wet skid were predicted by dynamic mechanical analysis (DMA). DMA tests showed that the vulcanizates containing A(3)-SBR were significantly less hysteretic at 60 °C and more hysteretic at 0 °C based on loss factor. Overall, the “magic triangle” was expanded by optimizing the rolling resistance, wet-skid, and cut resistance simultaneously using a β-alanine trimer supramolecular filler. The Payne effect also became less severe after introducing the β-alanine trimer supramolecular filler into the system. MDPI 2023-04-27 /pmc/articles/PMC10179851/ /pubmed/37176310 http://dx.doi.org/10.3390/ma16093429 Text en © 2023 by the authors. https://creativecommons.org/licenses/by/4.0/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 (https://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Zhao, Yihong
Ren, Mingwei
Zhu, Xiangdong
Ren, Zhangyu
Hu, Yaofang
Zhao, Huhu
Wang, Weiheng
Chen, Yunbo
Gao, Kewei
Zhou, Yujing
Expanding the “Magic Triangle” of Reinforced Rubber Using a Supramolecular Filler Strategy
title Expanding the “Magic Triangle” of Reinforced Rubber Using a Supramolecular Filler Strategy
title_full Expanding the “Magic Triangle” of Reinforced Rubber Using a Supramolecular Filler Strategy
title_fullStr Expanding the “Magic Triangle” of Reinforced Rubber Using a Supramolecular Filler Strategy
title_full_unstemmed Expanding the “Magic Triangle” of Reinforced Rubber Using a Supramolecular Filler Strategy
title_short Expanding the “Magic Triangle” of Reinforced Rubber Using a Supramolecular Filler Strategy
title_sort expanding the “magic triangle” of reinforced rubber using a supramolecular filler strategy
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10179851/
https://www.ncbi.nlm.nih.gov/pubmed/37176310
http://dx.doi.org/10.3390/ma16093429
work_keys_str_mv AT zhaoyihong expandingthemagictriangleofreinforcedrubberusingasupramolecularfillerstrategy
AT renmingwei expandingthemagictriangleofreinforcedrubberusingasupramolecularfillerstrategy
AT zhuxiangdong expandingthemagictriangleofreinforcedrubberusingasupramolecularfillerstrategy
AT renzhangyu expandingthemagictriangleofreinforcedrubberusingasupramolecularfillerstrategy
AT huyaofang expandingthemagictriangleofreinforcedrubberusingasupramolecularfillerstrategy
AT zhaohuhu expandingthemagictriangleofreinforcedrubberusingasupramolecularfillerstrategy
AT wangweiheng expandingthemagictriangleofreinforcedrubberusingasupramolecularfillerstrategy
AT chenyunbo expandingthemagictriangleofreinforcedrubberusingasupramolecularfillerstrategy
AT gaokewei expandingthemagictriangleofreinforcedrubberusingasupramolecularfillerstrategy
AT zhouyujing expandingthemagictriangleofreinforcedrubberusingasupramolecularfillerstrategy