Tailoring an engineered cementitious composite with enhanced mechanical performance at ambient and elevated temperatures using graphene oxide and crumb rubber
With the increased use of engineered cementitious composite (ECC) in closed environments and as a structural material, it is necessary to fully understand its performance under elevated temperatures. This research investigates the response of ECC to ambient and elevated temperatures and addresses th...
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my.uniten.dspace-371572025-03-03T15:48:05Z Tailoring an engineered cementitious composite with enhanced mechanical performance at ambient and elevated temperatures using graphene oxide and crumb rubber Abdulkadir I. Mohammed B.S. Al-Yacouby A.M. Woen E.L. Tafsirojjaman T. 57218298049 57203590522 55320554000 57215507629 57205292826 Graphene Multiobjective optimization Rubber Surface properties Ambients Closed environment Crumb rubber Elevated temperature Engineered cementitious composites Graphene oxides Mechanical performance Performance Response surface methodology Response-surface methodology Aggregates With the increased use of engineered cementitious composite (ECC) in closed environments and as a structural material, it is necessary to fully understand its performance under elevated temperatures. This research investigates the response of ECC to ambient and elevated temperatures and addresses the issue of explosive spalling by incorporating graphene oxide (GO) and crumb rubber (CR). Twenty GO-modified rubberized ECC mixes were designed using Response surface methodology (RSM), considering GO content, GO concentration for CR pretreatment, CR replacement of fine aggregate, and elevated temperature as the input variables. Results show that mixes with GO and GO-treated CR outperform those without GO or untreated CR at ambient and elevated temperatures. Response predictive models exhibited high coefficient of determination (R2) values ranging from 84 % to 96 %. Multi-objective optimization yielded optimum input factors, resulting in improved mechanical properties that were experimentally validated to confirm the accuracy of the developed models. ? 2024 The Authors Final 2025-03-03T07:48:05Z 2025-03-03T07:48:05Z 2024 Article 10.1016/j.jmrt.2024.01.059 2-s2.0-85182503738 https://www.scopus.com/inward/record.uri?eid=2-s2.0-85182503738&doi=10.1016%2fj.jmrt.2024.01.059&partnerID=40&md5=79bea49039b809ce57db0dc44118a05f https://irepository.uniten.edu.my/handle/123456789/37157 28 4508 4530 All Open Access; Gold Open Access Elsevier Editora Ltda Scopus |
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Graphene Multiobjective optimization Rubber Surface properties Ambients Closed environment Crumb rubber Elevated temperature Engineered cementitious composites Graphene oxides Mechanical performance Performance Response surface methodology Response-surface methodology Aggregates |
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Graphene Multiobjective optimization Rubber Surface properties Ambients Closed environment Crumb rubber Elevated temperature Engineered cementitious composites Graphene oxides Mechanical performance Performance Response surface methodology Response-surface methodology Aggregates Abdulkadir I. Mohammed B.S. Al-Yacouby A.M. Woen E.L. Tafsirojjaman T. Tailoring an engineered cementitious composite with enhanced mechanical performance at ambient and elevated temperatures using graphene oxide and crumb rubber |
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With the increased use of engineered cementitious composite (ECC) in closed environments and as a structural material, it is necessary to fully understand its performance under elevated temperatures. This research investigates the response of ECC to ambient and elevated temperatures and addresses the issue of explosive spalling by incorporating graphene oxide (GO) and crumb rubber (CR). Twenty GO-modified rubberized ECC mixes were designed using Response surface methodology (RSM), considering GO content, GO concentration for CR pretreatment, CR replacement of fine aggregate, and elevated temperature as the input variables. Results show that mixes with GO and GO-treated CR outperform those without GO or untreated CR at ambient and elevated temperatures. Response predictive models exhibited high coefficient of determination (R2) values ranging from 84 % to 96 %. Multi-objective optimization yielded optimum input factors, resulting in improved mechanical properties that were experimentally validated to confirm the accuracy of the developed models. ? 2024 The Authors |
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57218298049 |
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57218298049 Abdulkadir I. Mohammed B.S. Al-Yacouby A.M. Woen E.L. Tafsirojjaman T. |
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Article |
author |
Abdulkadir I. Mohammed B.S. Al-Yacouby A.M. Woen E.L. Tafsirojjaman T. |
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Abdulkadir I. |
title |
Tailoring an engineered cementitious composite with enhanced mechanical performance at ambient and elevated temperatures using graphene oxide and crumb rubber |
title_short |
Tailoring an engineered cementitious composite with enhanced mechanical performance at ambient and elevated temperatures using graphene oxide and crumb rubber |
title_full |
Tailoring an engineered cementitious composite with enhanced mechanical performance at ambient and elevated temperatures using graphene oxide and crumb rubber |
title_fullStr |
Tailoring an engineered cementitious composite with enhanced mechanical performance at ambient and elevated temperatures using graphene oxide and crumb rubber |
title_full_unstemmed |
Tailoring an engineered cementitious composite with enhanced mechanical performance at ambient and elevated temperatures using graphene oxide and crumb rubber |
title_sort |
tailoring an engineered cementitious composite with enhanced mechanical performance at ambient and elevated temperatures using graphene oxide and crumb rubber |
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Elsevier Editora Ltda |
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2025 |
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1826077368423284736 |
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13.244413 |