Zifan Wu, Runbin Duan, Jiali Cui, Cuiping Ye, Shichao Zhang, Shaohui Yan
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引用次数: 0
Abstract
It is well known that direct alcohol fuel cells (DAFCs) are ideal power sources for portable equipment and electric vehicles, due to the advantages of alcohol, such as renewability, safety, high energy density and ease of storage and transportation. However, their applications are limited by the scarce resources and poor operational durability of commercial Pt-based catalysts. Consequently, numerous alternative catalysts have been reported over the past decades, including MOF (Metal–Organic Framework) materials, M–N-C (M = transition metal atom) single-atom catalysts, Pd-based catalysts and others. Among these, Pd-based catalysts exhibit high electro-activity for both alcohol electro-oxidations and oxygen reduction reactions, particularly for ethanol electro-oxidation. Significant efforts have been made to enhance the activity and durability of Pd-based catalysts for use in DAFCs. Despite these efforts, commercialization is progressing slowly. Therefore, advancing the commercial application of DAFCs has become a pressing issue for both enterprises and researchers. Exploring novel Pd-based catalysts with exceptionally high activity and stability is likely to address this challenge. This review summarizes the classifications, synthesis methods, current research status and prospects of Pd-based catalysts to provide effective research directions and methods for improving their investigation.
众所周知,直接酒精燃料电池(DAFCs)是便携式设备和电动汽车的理想电源,因为酒精具有可再生、安全、高能量密度和易于储存和运输等优点。然而,它们的应用受到资源稀缺和商业pt基催化剂的使用耐久性差的限制。因此,在过去的几十年中,已经报道了许多替代催化剂,包括MOF(金属有机框架)材料,M - n - c (M =过渡金属原子)单原子催化剂,pd基催化剂等。其中,钯基催化剂在醇电氧化和氧还原反应中均表现出较高的电活性,特别是在乙醇电氧化反应中。为了提高钯基催化剂在DAFCs中的活性和耐久性,人们做了大量的工作。尽管做出了这些努力,但商业化进展缓慢。因此,推进DAFCs的商业应用已成为企业和研究人员迫切需要解决的问题。探索具有极高活性和稳定性的新型钯基催化剂可能会解决这一挑战。本文综述了钯基催化剂的分类、合成方法、研究现状及展望,以期为进一步完善钯基催化剂的研究提供有效的研究方向和方法。图形抽象
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