S.M. Iqbal S. Zainal, Chun Wei Wong, Ahmad Nurfaidhi Rizalman, Nelly Majain, Chung Han Lim, Rosalam Sarbatly
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Firstly, characterizing E-glass and AR-glass fibers to enable a practical replication of performance using these specific variants. Secondly, assessing the impact of five different mixing methods on water absorption, flowability, setting time, compressive, and flexural strength in cement mixtures embedded with these glass fibers. Lastly, evaluating the fiber-matrix interaction within the hardened samples for each mixing method. The results revealed that various mixing methods yielded distinct advantages in the fresh and hardened properties. This highlights the variability in mixing approaches, indicating that the choice of method should be tailored to meet the specific construction requirements of engineers. 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引用次数: 0
摘要
建筑工地经常采用一种直接的混合方法,即在水泥基材料中加入玻璃纤维。这种做法会对水泥混合物的新鲜和硬化性能产生不利影响。由于缺乏质量控制措施,生产出的纤维增强水泥混合物往往达不到预期效果。此外,市售同类玻璃纤维的内在差异也增加了混合的复杂性,使原位浇注难以始终如一地再现预期效果。因此,本研究旨在实现三个主要目标。首先,确定 E 玻璃纤维和 AR 玻璃纤维的特性,以便能够使用这些特定变体实际复制其性能。其次,评估五种不同的混合方法对嵌入这些玻璃纤维的水泥混合物的吸水性、流动性、凝结时间、抗压和抗折强度的影响。最后,评估每种混合方法下硬化样品中纤维与基质之间的相互作用。结果表明,各种混合方法在新拌和硬化性能方面都有明显优势。这凸显了混合方法的可变性,表明应根据工程师的具体施工要求来选择混合方法。从本质上讲,这项研究强调了根据水泥混合物新鲜和硬化状态的预期结果选择适当混合技术的重要性。
Characterization and mixing sequence to enhance glass fiber performance in cement mixture
A straightforward mixing approach that involves incorporating glass fiber into cement-based materials is frequently carried out at construction sites. This practice can have adverse effects on both the fresh and hardened properties of cement mixtures. The lack of quality control measures often leads to the production of fiber-reinforced cement mixtures that do not perform as intended. Additionally, the inherent variations in commercially available glass fibers of the same type add complexity to mixing, making it difficult to consistently reproduce desired effects for in situ casting. Therefore, this research aims to accomplish three main objectives. Firstly, characterizing E-glass and AR-glass fibers to enable a practical replication of performance using these specific variants. Secondly, assessing the impact of five different mixing methods on water absorption, flowability, setting time, compressive, and flexural strength in cement mixtures embedded with these glass fibers. Lastly, evaluating the fiber-matrix interaction within the hardened samples for each mixing method. The results revealed that various mixing methods yielded distinct advantages in the fresh and hardened properties. This highlights the variability in mixing approaches, indicating that the choice of method should be tailored to meet the specific construction requirements of engineers. In essence, the study underscores the importance of selecting an appropriate mixing technique based on the desired outcomes for both the fresh and hardened states of cement mixtures.
期刊介绍:
Materials and Structures, the flagship publication of the International Union of Laboratories and Experts in Construction Materials, Systems and Structures (RILEM), provides a unique international and interdisciplinary forum for new research findings on the performance of construction materials. A leader in cutting-edge research, the journal is dedicated to the publication of high quality papers examining the fundamental properties of building materials, their characterization and processing techniques, modeling, standardization of test methods, and the application of research results in building and civil engineering. Materials and Structures also publishes comprehensive reports prepared by the RILEM’s technical committees.