生物油与聚苯胺之间的交叉聚合:对随后活化和吸附苯酚过程中孔隙发育的协同效应

Baihong Li, Chao Li, Dianqiang Li, Lijun Zhang, Shu Zhang, Yi Wang, Song Hu, Jun Xiang, Mortaza Gholizadeh, Xun Hu
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引用次数: 0

摘要

生物油是生物质热解的主要产物,由于其本身具有高聚合反应活性或与其他有机原料发生交叉聚合反应,因此可作为生产碳材料的碳源。本研究在 800 °C 下对混合了小麦秸秆生物油和 K2C2O4 的聚苯胺(PANI)进行了活化,旨在了解生物油与 PANI 的潜在相互作用对生成的活性炭(AC)孔隙发育的影响。结果表明,在直接活化过程中,PANI 和生物油之间发生了交叉聚合反应,使活性炭的产率从 13.0%(计算平均值)提高到 15.0%,比表面积从 1677.9 m2 g-1(计算平均值)提高到 1771.3 m2 g-1,微孔百分比从 94.3% 提高到 97.1%。此外,还在活化前对 PANI 和生物油进行了 200 °C 的预聚合。这种预处理可将交流电收率从 13.0% 提高到 23.3%,但比表面积降至 1381.8 m2 g-1。预聚合形成的有机物更耐开裂/气化,但引入了富氧官能团。这使得 AC 具有很强的亲水性,尽管比表面积较小,但吸附苯酚的能力却大大提高。此外,具有发达孔隙结构的 AC 还有利于镍在 Ni/AC 中的分散,并提高了邻氯硝基苯和香兰素氢化的催化活性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

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Cross-polymerization between bio-oil and polyaniline: synergistic effects on pore development in subsequent activation and adsorption of phenol
Bio-oil is a major product from pyrolysis of biomass which serves as a carbon source to produce carbon material due to its high reactivity towards polymerization itself or cross-polymerization with other organic feedstocks. In this study, activation of polyaniline (PANI) mixed with wheat straw-derived bio-oil and K2C2O4 at 800 °C was conducted, aiming to understand the effect of potential interactions of bio-oil with PANI on pore development of resulting activated carbon (AC). The results revealed cross-polymerization reactions between PANI and bio-oil during direct activation, which increased the yield of AC from 13.0% (calculated average) to 15.0%, the specific surface area from 1677.9 m2 g−1 (calculated average) to 1771.3 m2 g−1, and the percentage of micropores from 94.3% to 97.1%. In addition, pre-polymerization of PANI and bio-oil at 200 °C before activation was also conducted. Such pretreatment could increase the AC yield from 13.0% to 23.3%, but the specific surface area decreased to 1381.8 m2 g−1. The pre-polymerization formed the organics that were more resistant towards cracking/gasification, but introduced oxygen-rich functionalities. This made AC highly hydrophilic, rendering a much higher capability for adsorption of phenol despite the smaller specific surface area. Additionally, the AC with developed pore structures facilitated dispersion of nickel in Ni/AC and enhanced the catalytic activity for hydrogenation of o-chloronitrobenzene and vanillin.
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Industrial Chemistry & Materials
Industrial Chemistry & Materials chemistry, chemical engineering, functional materials, energy, etc.-
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期刊介绍: Industrial Chemistry & Materials (ICM) publishes significant innovative research and major technological breakthroughs in all aspects of industrial chemistry and materials, with a particular focus on the important innovation of low-carbon chemical industry, energy and functional materials. By bringing researchers, engineers, and policymakers into one place, research is inspired, challenges are solved and the applications of science and technology are accelerated. The global editorial and advisory board members are valued experts in the community. With their support, the rigorous editorial practices and dissemination ensures your research is accessible and discoverable on a global scale. Industrial Chemistry & Materials publishes: ● Communications ● Full papers ● Minireviews ● Reviews ● Perspectives ● Comments
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