新型香蕉皮/氧化石墨烯衍生的水净化生物吸附剂

R. Wu, Muhammad Zubair, A. Ullah
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引用次数: 0

摘要

每年生产的香蕉皮超过1亿吨,其中约有4000万香蕉皮(占总重量的40%)未被使用。因此,探索香蕉皮清洁受污染水的能力将为目前的“废物”产品带来额外的价值。目前水污染最常见的一个方面是重金属污染,由于其高毒性,对人类特别危险。香蕉皮含有高浓度的碳水化合物,其中最丰富的两种是纤维素和淀粉,它们有多个羟基和羧基官能团。香蕉皮是一种容易获得且经济实惠的吸附剂,可以吸附多种重金属离子。本研究主要侧重于通过开发香蕉皮/氧化石墨烯混合吸附剂来提高该技术的当前效率。交联氧化石墨烯具有许多羟基、羰基、羧基和环氧化物官能团,可用于诱导与香蕉皮碳水化合物的化学反应,为氧化石墨烯提供额外的官能团。这种改性可以潜在地提高香蕉皮衍生吸附剂的吸附能力。通过FTIR分析可以看出,香蕉皮粉和氧化石墨烯具有许多相似类型的官能团。因此,这两种物质很容易发生化合反应。然而,两种化合物的热重分析显示出不同的热分解模式。需要对混合吸附剂进行进一步的热分析。在这种混合吸附剂的开发和表征之后,下一步是完成水净化分析。在未来,香蕉皮/氧化石墨烯衍生吸附剂可能成为一种可持续和高效的水净化解决方案。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Novel banana peel/graphene oxide derived biosorbent for water purification
More than 100 million tons of banana peels are produced annually, and about 40 million banana peels (40% of total weight) remain greatly unused. Hence, exploring banana peels’ ability to clean contaminated water would bring an additional value to the current “waste” product. One of the most common aspects of water pollution currently is heavy metal contamination, which is particularly dangerous for humans due to its high toxicity. Banana peels contain a high concentration of carbohydrates, the two most abundant being cellulose and starch, which has multiple hydroxyl and carboxyl functional groups. Banana peels are an easily available and cost-effective adsorbent that can adsorb different kinds of heavy metal ions. This research primarily focuses on improving the current efficiency of this technique through the development of a banana peel/graphene oxide hybrid adsorbent. The cross-linking graphene oxide possess numerous hydroxyl, carbonyl, carboxyl, and epoxide functional groups that can be used to induce chemical reactions with banana peel carbohydrates, providing the graphene oxide with additional functional groups. This modification can potentially increase the adsorption capacity of banana peel derived adsorbents. It is evident through FTIR analysis that banana peel powder and graphene oxide have many functional groups of similar types. Thus, reactions can readily occur to combine the two substances. The TGA analysis of both compounds, however, indicates different patterns of thermal decomposition. Further thermal analysis is required for the hybrid adsorbent. After the development and characterization of this hybrid adsorbent, the next step is to complete a water purification analysis. In the future, banana peel/graphene oxide derived adsorbent may serve as a sustainable and efficient solution for water purification.
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