碳纳米管修饰碳布阴极电极用于自抽运酶生物燃料电池

Ngoc Bich Duong, Shengquan You, L. Huang, Hsiharng Yang
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引用次数: 3

摘要

采用新型阴极催化剂将碳纳米管/咖啡酸(CNTs/CA)的混合物包覆在碳布(CC)上,形成CNTs/CA/CC阴极电极,制备了一种自泵酶生物燃料电池(self-pumping EBC)。通过紫外分光光度计,观察了CA、CNTs和CNTs/CA复合材料的吸光度。为了评估CNTs/CA/CC阴极电极如何改善自泵送EBC的电化学性能,采用循环伏安法(CV)测量氧化还原反应电流峰值。CV测量表明,在饱和氧条件下,改性后的CNTs/CA/CC阴极电极的氧还原电流峰值在319.1μA处。阳极流速为0.416μl−1,阴极流速为0.844 μl−1,毛细管驱动液效率分别为30%和59%。此外,自抽运EBC性能测试表明,改性阴极电极的自抽运EBC的最大功率密度(MPD)达到0.592 mWcm−2,比裸CC电极的0.534 mWcm−2提高了10%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Carbon Nanotubes Modified Carbon Cloth Cathode Electrode for Self-Pumping Enzymatic Biofuel Cell
A self-pumping enzymatic biofuel cell (self-pumping EBC) with a new cathodic catalyst which was modified by coating the mixture of carbon nanotubes/caffeic acid (CNTs/CA) on a carbon cloth (CC) to form a CNTs/CA/CC cathode electrode was fabricated. By using UV spectrophotometer, the absorbance of CA, CNTs, and the CNTs/CA composite was observed. To evaluate how the CNTs/CA/CC cathodic electrode improves the electrochemical performance of the self-pumping EBC, the measurement of the redox reaction current peak by cyclic voltammetry (CV) was implemented. In accordance with CV measurement, the utilization of the modified CNTs/CA/CC cathodic electrode exhibited a higher oxygen reduction current peak at 319.1μA under the saturated oxygen. The anode and cathode flow rates were 0.416μls−1 and 0.844 μls−1 which contribute to obtaining the capillary driven liquid efficiency as 30% for the former and 59% for the latter. Moreover, the self-pumping EBC performance tests showed that the maximum power density (MPD) of the self-pumping EBC with the modified cathodic electrode achieved 0.592 mWcm−2 which improved 10% in the performance compared with the bare CC electrode, 0.534 mWcm−2.
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