Huirong Kou (20393472)Tingting Shao (6438350)Juntang Dong (20393475)Fuchun Zhang (129371)Shuwei Tian (20393478)Xiaoyang Wang (137806)
Ethylene glycol, as a colorless and\ntasteless organic\ncompound,\nis an important industrial raw material but can be hazardous to the\nenvironment and human health. Thus, the development of high-performance\nsensing materials is required for the monitoring of ethylene glycol.\nIn this paper, a method to synthesize In<sub>2</sub>O<sub>3</sub>@ZnO\nusing MIL-68(In)@ZIF-8 to serve as a sacrificial template is proposed\nfor testing ethylene glycol sensing capabilities. For verifying an\neffective improvement in gas-sensitive performance by bimetallic organic\nskeleton (MOF) synthesized heterojunctions, we performed gas-sensitive\ntests on In<sub>2</sub>O<sub>3</sub>, ZnO, and In<sub>2</sub>O<sub>3</sub>@ZnO. In<sub>2</sub>O<sub>3</sub>@ZnO has the best sensitivity\nto ethylene glycol, including ultrahigh response value (20 ppm-200.12),\nmoderate response/recovery time (53/50 s), and excellent selectivity.\nThe construction of heterojunction is the main reason for enhancing\nthe ethylene glycol response of the sensor. On this basis, the gas-sensitive\nenhancement mechanism of composites is analyzed. The results show\nthat the design method of synthesizing heterojunctions using bis-MOFs\nproposes a new approach that enhances the properties of ethylene glycol.
Huirong KouTingting ShaoJuntang DongFuchun ZhangShuwei TianXiaoyang Wang
Sumin WangRui GaoMing ZhengXian‐Fa ZhangXiaoli ChengYingming XuShan GaoXin ZhouLihua Huo
Liangliang ChengWanlu ZhengYanan ZhangXuegang LiYong Zhao
Rujun ZhouQiang LingZhangwei YuDaru Chen
Y X ZhouXiaohua JiaLe QiaoHaojie Song