Carbon materials derived from chitosan/cellulose cryogel-supported zeolite imidazole frameworks for potential supercapacitor application

超级电容器 碳化 材料科学 纤维素 壳聚糖 化学工程 可再生能源 储能 细菌纤维素 碳纤维 化学 复合材料 电容 复合数 电极 工程类 物理 物理化学 电气工程 功率(物理) 量子力学 扫描电子显微镜
作者
Zehui Li,Lan Yang,Hongbin Cao,Yu Chang,Kexin Tang,Zhiqin Cao,Junjun Chang,Youpeng Cao,Wenbo Wang,Meng Gao,Chenming Liu,Dagang Liu,He Zhao,Yi Zhang,Mingjie Li
出处
期刊:Carbohydrate Polymers [Elsevier BV]
卷期号:175: 223-230 被引量:54
标识
DOI:10.1016/j.carbpol.2017.07.089
摘要

In order to promote sustainable development, green and renewable clean energy technologies continue to be developed to meet the growing demand for energy, such as supercapacitor, fuel cells and lithium-ion battery. It is urgent to develop appropriate nanomaterials for these energy technologies to reduce the volume of the device, improve the efficiency of energy conversion and enlarge the energy storage capacity. Here, chitosan/cellulose carbon cryogel (CCS/CCL) were designed and synthesized. Through the introduction of zeolite imidazole frameworks (ZIFs) into the chitosan/cellulose cryogels, the obtained materials showed a microstructure of ZIF-7 (a kind of ZIFs) coated chitosan/cellulose fibers (CS/CL). After carbonizing, the as-prepared carbonized [email protected] cryogel ([email protected], NC is carbonized ZIF-7) and carbonized [email protected] cryogel ([email protected]) exhibited suitable microspore contents of 34.37% and 30%, respectively, and they both showed an internal resistance lower than 2 Ω. Thereby, [email protected] and [email protected] exhibited a high specific capacitance of 150.4 F g−1 and 173.1 F g−1, respectively, which were much higher than those of the original materials. This approach offers a facile method for improving the strength and electronic conductivity of carbon cryogel derived from nature polymers, and also efficiently inhibits the agglomeration of cryogel during carbonization in high temperature, which opens a novel avenue for the development of carbon cryogel materials for application in energy conversion systems.
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