PG & Research Department of Physics, Holy Cross College (Autonomous), Nagercoil, Manonmaniam Sundaranar University, Tirunelveli, 627012, India.
Departamento de Ciencias de la Construccion, Facultad de Ciencias de la Construccion y Ordenamiento Territorial, Universidad Tecnologica Metropolitana, Dieciocho 161, Santiago, Chile.
Sci Rep. 2024 Jun 4;14(1):12754. doi: 10.1038/s41598-024-58913-y.
Humans are the only species who generate waste materials that cannot be broken down by natural processes. The ideal solution to this waste problem would be to employ only compostable materials. Biodegradable materials play a key role in creating a safer and greener world. Biodegradability is the gift that keeps on giving, in the sense of creating an Earth worth living. The future is thus best served by green energy, sustainability, and renewable resources. To realize such goals, waste should be considered as a valuable resource. In this context, Zea mays (Zm) root fibres, which are normally considered as agricultural waste, can be used as reinforcing substances in polymer matrices to produce structural composite materials. Before being used in composites, such fibres must be analysed for their physical properties. Chemical treatments can be employed to improve the structural quality of fibres, and the changes due to such modification can be analysed. Therefore, the current work examines the effect of permanganate treatment on the surface properties of Zm fibres. The raw and potassium permanganate-treated samples were assayed for various properties. Physical analysis of the fibre samples yielded details concerning the physical aspects of the fibres. The thermal conductivity and moisture absorption behaviour of the samples were analysed. Chemical analysis was employed to characterize the composition of both treated and untreated samples. p-XRD was employed to examine the crystalline nature of the Zm fibres. Numerous functional groups present in each sample were analysed by FTIR. Thermogravimetric analysis was used to determine the thermal stability of Zm fibres. Elemental analysis (CHNS and EDS) was used to determine the elemental concentrations of both raw and treated samples. The surface alterations of Zm fibres brought on by treatment were described using SEM analysis. The characteristics of Zm roots and the changes in quality due to treatment were reviewed, and there were noticeable effects due to the treatment. Both samples would have applications in various fields, and each could be used as a potential reinforcing material in the production of efficient bio-composites.
人类是唯一产生无法通过自然过程分解的废物的物种。解决这个废物问题的理想方法是只使用可堆肥材料。生物降解材料在创造更安全、更环保的世界方面发挥着关键作用。生物降解性是一种不断给予的礼物,它创造了一个值得居住的地球。因此,绿色能源、可持续性和可再生资源是未来的最佳选择。为了实现这些目标,应该将废物视为一种有价值的资源。在这种情况下,通常被视为农业废物的玉米根纤维可以用作聚合物基质中的增强物质,以生产结构复合材料。在用于复合材料之前,必须对这些纤维进行物理性能分析。可以采用化学处理来提高纤维的结构质量,并分析这种改性所带来的变化。因此,目前的工作研究了高锰酸盐处理对玉米纤维表面性能的影响。对原始和高锰酸钾处理的样品进行了各种性能的测定。纤维样品的物理分析提供了有关纤维物理方面的详细信息。分析了样品的热导率和吸湿行为。采用化学分析来表征处理和未处理样品的组成。p-XRD 用于研究玉米纤维的结晶性质。对每个样品中存在的许多官能团进行了 FTIR 分析。热重分析用于确定玉米纤维的热稳定性。元素分析(CHNS 和 EDS)用于确定原始和处理样品的元素浓度。使用 SEM 分析描述了处理对玉米纤维表面的改变。综述了玉米根的特性以及处理带来的质量变化,并发现了处理带来的明显影响。这两种样品都将在各个领域得到应用,每种样品都可以作为生产高效生物复合材料的潜在增强材料。