Comparative Study between Multiwall Carbon Nano Tube and Carbon Waste from Aluminium Production in the Preparation of Thermally Stable Cementitious Mortar

Hisham M. Khater, Mahmoud Gharieb
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Abstract

Objective: The objective of this study is to conduct a comparative investigation into the performance of multiwall carbon nanotube (MWCNT) and carbon wastes (C-waste) derived from the aluminum industry in the creation of thermally stable cementitious mortar. Specifically, the research aims to assess their impact on compressive strength and thermal stability, with a focus on identifying the superior additive for enhancing the properties of cement mortar. Methods: Cement mortar is produced using a blend of CEMIII cement and sand passing through a 1 mm sieve. Various ratios of MWCNT and C-waste, ranging from 0.1% to 0.7%, are incorporated into the mixture. Compressive strength tests are conducted at different intervals, up to 90 days, to evaluate the effects of additives on strength enhancement. Additionally, the resistance to high temperatures is examined by subjecting the mortar samples to firing temperatures up to 700 degrees Celsius. Results: The inclusion of both MWCNT and C-waste leads to improvements in compressive strength values, with the most significant enhancement observed at 0.1% concentration, resulting in approximately 70MPa and 75MPa at 90 days, respectively. Notably, C-waste demonstrates superior physical and mechanical properties compared to MWCNT, along with a lower production cost. Moreover, both additives exceed the specified limits for thermal resistance in mortar, achieving measurements of about 60MPa for MWCNT and 63MPa for C-waste when exposed to firing temperatures of 700 degrees Celsius. These results highlight the higher thermal stability of C-waste relative to MWCNT. Conclusion: In conclusion, this study confirms the efficacy of utilizing C-waste as an additive in cementitious mortar production, showcasing its superior performance over MWCNT in terms of compressive strength enhancement and thermal stability. The findings underscore the potential of repurposing industrial by-products such as C-waste to improve material properties while also addressing environmental concerns and reducing production costs in construction applications.
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多壁纳米碳管与铝生产过程中产生的碳废料在制备热稳定性水泥基砂浆中的比较研究
研究目的本研究的目的是对多壁碳纳米管(MWCNT)和铝工业产生的碳废物(C-waste)在创建热稳定性水泥砂浆中的性能进行比较调查。具体而言,研究旨在评估它们对抗压强度和热稳定性的影响,重点是找出可提高水泥砂浆性能的优质添加剂。方法:使用 CEMIII 水泥和过 1 毫米筛子的沙子混合制成水泥砂浆。在混合物中掺入不同比例的 MWCNT 和 C 废料,比例从 0.1% 到 0.7% 不等。在最长 90 天的不同时间间隔内进行抗压强度测试,以评估添加剂对强度增强的影响。此外,通过将砂浆样品置于高达 700 摄氏度的焙烧温度下,还对其耐高温性能进行了检测。结果显示添加 MWCNT 和 C 废料可提高抗压强度值,其中浓度为 0.1%时抗压强度的提高最为显著,90 天时的抗压强度值分别约为 70MPa 和 75MPa。值得注意的是,与 MWCNT 相比,C-废弃物具有更优越的物理和机械性能,同时生产成本也更低。此外,这两种添加剂都超过了砂浆中热阻的规定限制,当暴露在 700 摄氏度的焙烧温度下时,MWCNT 的测量值约为 60 兆帕,C-废弃物的测量值约为 63 兆帕。这些结果突出表明,相对于 MWCNT,C-废弃物具有更高的热稳定性。结论总之,本研究证实了利用 C 废料作为水泥基砂浆生产添加剂的功效,并展示了其在抗压强度增强和热稳定性方面优于 MWCNT 的性能。研究结果强调了将 C 废料等工业副产品重新用于改善材料性能的潜力,同时还解决了建筑应用中的环境问题并降低了生产成本。
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