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Air-cathode preparation with activated carbon as catalyst, PTFE as binder and nickel foam as current collector for microbial fuel cells

机译:使用活性炭作为催化剂,PTFE作为粘合剂和泡沫镍作为微生物燃料电池的集电器的空气阴极制备

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摘要

A cathode is a critical factor that limits the practical application of microbial fuel cells (MFCs) in terms of cost and power generation. To develop a cost-effective cathode, we investigate a cathode preparation technique using nickel foam as a current collector, activated carbon as a catalyst and PTFE as a binder. The effects of the type and loading of conductive carbon, the type and loading of activated carbon, and PTFE loading on cathode performance are systematically studied by linear sweep voltammetry (LSV). The nickel foam cathode MFC produces a power density of 1190±50mWm~(-2), comparable with 1320mWm~(-2) from a typical carbon cloth Pt cathode MFC. However, the cost of a nickel foam activated carbon cathode is 1/30 of that of carbon cloth Pt cathode. The results indicate that a nickel foam cathode could be used in scaling up the MFC system.
机译:阴极是在成本和发电方面限制微生物燃料电池(MFC)的实际应用的关键因素。为了开发具有成本效益的阴极,我们研究了一种阴极制备技术,该技术使用泡沫镍作为集电器,活性炭作为催化剂,聚四氟乙烯作为粘合剂。通过线性扫描伏安法(LSV)系统地研究了导电碳的类型和负载,活性炭的类型和负载以及PTFE负载对阴极性能的影响。镍泡沫阴极MFC产生的功率密度为1190±50mWm〜(-2),与典型碳布Pt阴极MFC的1320mWm〜(-2)相当。然而,泡沫镍活性炭阴极的成本是碳布Pt阴极的成本的1/30。结果表明,镍泡沫阴极可用于按比例放大MFC系统。

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