利用废弃煤生产的新型陶瓷复合材料在建筑和建筑行业具有潜在应用前景

IF 0.9 4区 材料科学 Q3 Materials Science Journal of The South African Institute of Mining and Metallurgy Pub Date : 2022-09-20 DOI:10.17159/2411-9717/2001/2022
O. Eterigho-Ikelegbe, R. Trammell, S. Bada
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引用次数: 1

摘要

针对煤炭开采和制备过程中产生的大量废煤,必须制定有效和可持续的战略利用这一资源。此外,未来几十年不断增长的城市人口将面临建筑构件优质原材料的枯竭。为此,本研究报告了由三种不同的废煤和聚硅氧烷预陶瓷聚合物(PCP)树脂制备的陶瓷复合材料的形态、吸水率和抗弯强度性能的新信息。此外,还给出了复合材料的连续工作温度、耐化学性和荧光电位的测试结果。结果表明:煤基复合材料的吸水率和抗折强度分别达到1.94%和36.46 MPa,超过了陶瓷屋面瓦和粘土屋面瓦的要求;复合材料的连续工作温度在环境温度到600°C之间比传统屋面瓦(混凝土和陶瓷)更热稳定。此外,与传统屋面瓦(67.82%-99.97%)相比,复合材料具有优异的耐化学性(94.43%-99.98%),无需额外的外部涂层。迄今为止记录的有趣结果表明,该技术可用于生产低温应用建筑产品,如砖、面板、屋面瓦等。这种新的回收技术提供了一个极好的机会,可以消除大量的煤炭废料,并推动煤炭行业的循环经济。
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Novel ceramic composites produced from coal discards with potential application in the building and construction sectors
In response to the enormous amounts of coal discard generated during coal mining and preparation, the development of an efficient and sustainable strategic use of this resource is essential. Furthermore, the rising urban population over the next decades is confronted with the depletion of quality raw materials for building components. To this end, this study reports new information on the morphology, water absorption, and flexural strength properties of ceramic composites produced from three different coal discards and polysiloxane pre-ceramic polymer (PCP) resin. In addition, test results relating to the continuous operating temperature, chemical resistance, and efflorescence potential of the composites are presented. The results show that the water absorption and flexural strength of the coal composites, up to 1.94% and 36.46 MPa respectively, exceed the requirements for ceramic and clay roof tiles. The continuous operating temperature of composites is found to be more thermally stable than conventional roofing tiles (concrete and ceramic) between ambient temperature and 600°C. In addition, the excellent chemical resistance of the composites (94.43%-99.98%) compared to conventional roofing tiles (67.82%-99.97%) eliminates the need for additional external coatings. The interesting results documented so far suggest that this technique could be used to produce low-temperature application building products such as bricks, panels, roofing tiles, etc. This new recycling technique offers an excellent opportunity to eliminate enormous volumes of coal discard and to advance the circular economy in the coal industry.
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来源期刊
CiteScore
1.50
自引率
11.10%
发文量
61
审稿时长
4-8 weeks
期刊介绍: The Journal serves as a medium for the publication of high quality scientific papers. This requires that the papers that are submitted for publication are properly and fairly refereed and edited. This process will maintain the high quality of the presentation of the paper and ensure that the technical content is in line with the accepted norms of scientific integrity.
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