Design and Development of Paper/ZnO–SnO2 Heterostructured Ultra-Fast TENG Based LPG Sensor

P. Yadav, Ajeet Singh, Shakti Singh, Dheeraj Kumar
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引用次数: 5

Abstract

This work establishes a very simple and economical preparation of paper-based triboelectric nanogenerators for self-powered LPG sensing. Magnification in the output of TENG was achieved by ZnO/SnO2 synthesized by hydrothermal. This material has been thoroughly characterized through XRD, UV, FESEM, FTIR, and Nanozetasizer. The average crystallite size of the heterostructure was obtained as 17.59 nm. Bandgap of ZnO/SnO2 material was found as 3.49 eV. FESEM exhibits that present heterostructure material exhibits spherical nature with lots of voids on the film surface. From Nanozetasizer, the diameter of particles resides between the range 50–80 nm with an average particle size as 63.23 nm. The fabricated TENG generates a maximum output voltage of ∼75 volts which is more than the output of paper-based TENG. This TENG was used as a power source to operate a resistive LPG sensing film. The maximum response of 24 and minimum response-recovery times of 120–135 ms were observed, which makes this LPG sensing device ultra-fast.
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基于纸张/ ZnO-SnO2异质结构超快速TENG的LPG传感器设计与研制
这项工作建立了一种非常简单和经济的制备纸基摩擦电纳米发电机,用于自供电液化石油气传感。水热法合成ZnO/SnO2可使TENG的输出放大。通过XRD、UV、FESEM、FTIR和纳米化剂对该材料进行了表征。异质结构的平均晶粒尺寸为17.59 nm。ZnO/SnO2材料的带隙为3.49 eV。FESEM显示,所呈现的异质结构材料呈现球形性质,薄膜表面存在大量空隙。从纳米zetasizer上看,颗粒直径在50 ~ 80 nm之间,平均粒径为63.23 nm。制造的TENG产生的最大输出电压为~ 75伏,比纸质TENG的输出电压要高。该TENG被用作操作电阻式液化石油气传感膜的电源。最大响应时间为24毫秒,最小响应恢复时间为120-135毫秒,这使得该液化气传感装置具有超快的速度。
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