The Experts below are selected from a list of 315 Experts worldwide ranked by ideXlab platform
S Aggarwal - One of the best experts on this subject based on the ideXlab platform.
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Studies on rubber–filler interaction in carboxylated nitrile rubber through microhardness measurement
Polymer Testing, 2001Co-Authors: U.k Mandal, S AggarwalAbstract:Abstract The influence of carbon black filler loading on the microhardness characteristics of two types of carboxylated acrylonitrile butadiene rubber (XNBR) vulcanizates having different (ionic or covalent) Crosslinking reaction systems has been studied. The microhardness measurement predicts that the rubber–filler interaction in the ionic Crosslinking system is higher than that in the covalent Crosslinking system. The high hardness values and strong rubber–filler interaction in the ionic Crosslinking system has been explained on the basis of ionic cluster formation for the carboxylate salt in XNBR. The microhardness measurement result helps to evaluate the rubber–filler interaction and shows good correlation with the dynamic mechanical result. The theoretical predicted data deviate highly in the ionic Crosslinking system, although there is a good correlation in the covalent Crosslinking system.
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studies on rubber filler interaction in carboxylated nitrile rubber through microhardness measurement
Polymer Testing, 2001Co-Authors: U.k Mandal, S AggarwalAbstract:Abstract The influence of carbon black filler loading on the microhardness characteristics of two types of carboxylated acrylonitrile butadiene rubber (XNBR) vulcanizates having different (ionic or covalent) Crosslinking reaction systems has been studied. The microhardness measurement predicts that the rubber–filler interaction in the ionic Crosslinking system is higher than that in the covalent Crosslinking system. The high hardness values and strong rubber–filler interaction in the ionic Crosslinking system has been explained on the basis of ionic cluster formation for the carboxylate salt in XNBR. The microhardness measurement result helps to evaluate the rubber–filler interaction and shows good correlation with the dynamic mechanical result. The theoretical predicted data deviate highly in the ionic Crosslinking system, although there is a good correlation in the covalent Crosslinking system.
U.k Mandal - One of the best experts on this subject based on the ideXlab platform.
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Studies on rubber–filler interaction in carboxylated nitrile rubber through microhardness measurement
Polymer Testing, 2001Co-Authors: U.k Mandal, S AggarwalAbstract:Abstract The influence of carbon black filler loading on the microhardness characteristics of two types of carboxylated acrylonitrile butadiene rubber (XNBR) vulcanizates having different (ionic or covalent) Crosslinking reaction systems has been studied. The microhardness measurement predicts that the rubber–filler interaction in the ionic Crosslinking system is higher than that in the covalent Crosslinking system. The high hardness values and strong rubber–filler interaction in the ionic Crosslinking system has been explained on the basis of ionic cluster formation for the carboxylate salt in XNBR. The microhardness measurement result helps to evaluate the rubber–filler interaction and shows good correlation with the dynamic mechanical result. The theoretical predicted data deviate highly in the ionic Crosslinking system, although there is a good correlation in the covalent Crosslinking system.
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studies on rubber filler interaction in carboxylated nitrile rubber through microhardness measurement
Polymer Testing, 2001Co-Authors: U.k Mandal, S AggarwalAbstract:Abstract The influence of carbon black filler loading on the microhardness characteristics of two types of carboxylated acrylonitrile butadiene rubber (XNBR) vulcanizates having different (ionic or covalent) Crosslinking reaction systems has been studied. The microhardness measurement predicts that the rubber–filler interaction in the ionic Crosslinking system is higher than that in the covalent Crosslinking system. The high hardness values and strong rubber–filler interaction in the ionic Crosslinking system has been explained on the basis of ionic cluster formation for the carboxylate salt in XNBR. The microhardness measurement result helps to evaluate the rubber–filler interaction and shows good correlation with the dynamic mechanical result. The theoretical predicted data deviate highly in the ionic Crosslinking system, although there is a good correlation in the covalent Crosslinking system.
Bernard Boutevin - One of the best experts on this subject based on the ideXlab platform.
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Chemical reactions of polymer Crosslinking and post-Crosslinking at room and medium temperature
Progress in Polymer Science, 2011Co-Authors: Guillaume Tillet, Bruno Ameduri, Bernard BoutevinAbstract:This review focuses on various strategies that enable the Crosslinking and post-Crosslinking of polymers, excluding Crosslinking obtained by radiation (e.g., X-ray, UV, etc.) and that at high temperature. The review is divided into two main parts: systems enabling Crosslinking at room temperature and those for which Crosslinking occurs at intermediate temperatures (
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Chemical reactions of polymer Crosslinking and post-Crosslinking at room and medium temperature
Progress in Polymer Science, 2011Co-Authors: Guillaume Tillet, Bernard Boutevin, Bruno AmeduriAbstract:Abstract This review focuses on various strategies that enable the Crosslinking and post-Crosslinking of polymers, excluding Crosslinking obtained by radiation (e.g., X-ray, UV, etc.) and that at high temperature. The review is divided into two main parts: systems enabling Crosslinking at room temperature and those for which Crosslinking occurs at intermediate temperatures ( Various examples are presented, along with a discussion of their properties and applications.
Bruno Ameduri - One of the best experts on this subject based on the ideXlab platform.
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Chemical reactions of polymer Crosslinking and post-Crosslinking at room and medium temperature
Progress in Polymer Science, 2011Co-Authors: Guillaume Tillet, Bruno Ameduri, Bernard BoutevinAbstract:This review focuses on various strategies that enable the Crosslinking and post-Crosslinking of polymers, excluding Crosslinking obtained by radiation (e.g., X-ray, UV, etc.) and that at high temperature. The review is divided into two main parts: systems enabling Crosslinking at room temperature and those for which Crosslinking occurs at intermediate temperatures (
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Chemical reactions of polymer Crosslinking and post-Crosslinking at room and medium temperature
Progress in Polymer Science, 2011Co-Authors: Guillaume Tillet, Bernard Boutevin, Bruno AmeduriAbstract:Abstract This review focuses on various strategies that enable the Crosslinking and post-Crosslinking of polymers, excluding Crosslinking obtained by radiation (e.g., X-ray, UV, etc.) and that at high temperature. The review is divided into two main parts: systems enabling Crosslinking at room temperature and those for which Crosslinking occurs at intermediate temperatures ( Various examples are presented, along with a discussion of their properties and applications.
Guillaume Tillet - One of the best experts on this subject based on the ideXlab platform.
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Chemical reactions of polymer Crosslinking and post-Crosslinking at room and medium temperature
Progress in Polymer Science, 2011Co-Authors: Guillaume Tillet, Bruno Ameduri, Bernard BoutevinAbstract:This review focuses on various strategies that enable the Crosslinking and post-Crosslinking of polymers, excluding Crosslinking obtained by radiation (e.g., X-ray, UV, etc.) and that at high temperature. The review is divided into two main parts: systems enabling Crosslinking at room temperature and those for which Crosslinking occurs at intermediate temperatures (
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Chemical reactions of polymer Crosslinking and post-Crosslinking at room and medium temperature
Progress in Polymer Science, 2011Co-Authors: Guillaume Tillet, Bernard Boutevin, Bruno AmeduriAbstract:Abstract This review focuses on various strategies that enable the Crosslinking and post-Crosslinking of polymers, excluding Crosslinking obtained by radiation (e.g., X-ray, UV, etc.) and that at high temperature. The review is divided into two main parts: systems enabling Crosslinking at room temperature and those for which Crosslinking occurs at intermediate temperatures ( Various examples are presented, along with a discussion of their properties and applications.