CuAg electrode for creatinine microfluidic fuel cell based self-powered electrochemical sensor.

M. García-Barajas, A. M. Trejo-Dominguez, J. Ledesma-García, L. Arriaga, L. Á. Contreras, J. Galindo-de-la-Rosa, N. Arjona, M. Guerra‒Balcázar
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Abstract

Fuel cell-based self-powered electrochemical sensors have attracted considerable attention because contrary to conventional electrochemical sensors, they do not need external power supplies and complex devices due to they operate through the use of electrical output as sensing signal provided by redox reactions in fuel cells. Creatinine has been considered as an indicator of renal function specifically after dialysis, thyroid malfunction and muscle damage. The development of a suitable catalytic material for creatinine sensing able to generate electrical energy from its oxidation is still a challenge. Creatinine can form complexes with different transition metals due to the number of binding sites that coordinate with the metal donor groups such as copper. However, Cu suffers fast oxidation under environmental conditions and thus, the development of Cu alloys is needed. In this work, we developed an electrode with a catalytic ink containing a CuAg bimetallic material as an electrocatalyst for creatinine oxidation. The electrode was evaluated in a fuel cell and creatinine sensing.
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CuAg电极用于肌酐微流体燃料电池自供电电化学传感器。
基于燃料电池的自供电电化学传感器与传统的电化学传感器不同,不需要外部电源和复杂的器件,其工作原理是利用燃料电池中氧化还原反应提供的电输出作为传感信号。肌酐被认为是透析、甲状腺功能障碍和肌肉损伤后肾功能的指标。开发一种适合肌酐感应的催化材料,使其能够从其氧化中产生电能,仍然是一个挑战。肌酐可以与不同的过渡金属形成配合物,这是由于与铜等金属供体基配合的结合位点的数量。然而,铜在环境条件下氧化快,因此需要开发铜合金。在这项工作中,我们开发了一种含有CuAg双金属材料的催化油墨电极,作为肌酸酐氧化的电催化剂。该电极在燃料电池和肌酐传感中进行了评估。
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