Investigation of Emission Reduction and Power Generation on Electrochemical Catalytic Membranes With the Addition of Perovskite Nanocrystals

Aliza M. Willsey, Kassidy Fields, T. Welles, Hanjie Lin, Weiwei Zheng, J. Ahn
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Abstract

With the depletion of fossil fuel resources, as well as increasing global temperatures, the interest in sustainable energy is on the rise. Currently, cars are a significant source of harmful emissions due to the use of internal combustion engines. Incomplete combustion byproducts are extremely harmful to the environment and the population, with links to acid rain, smog, and respiratory issues. While green energy solutions, such as electric vehicles, are being developed, the treatment of exhaust can also be an effective way to reduce the release of emissions into the atmosphere. It has been shown that a solid oxide fuel cell (SOFC) is able to break down emissions, even exceeding the capability of typical exhaust treatment methods. An investigation into the usage of an SOFC as an exhaust treatment material has found that the amplification of a signal generated across the cell has an even greater effect on emission reduction. Here, the addition of cesium lead bromide (CsPbBr3) nanocrystals to the fuel cell is being investigated. The SOFC is tested as an exhaust treatment solution and as a power generation device in comparison to a typical SOFC without added CsPbBr3 nanocrystals. CsPbBr3 is a perovskite semiconductor, so it is expected to have an effect on the reactivity of the fuel cell. Investigating the effects of adding nanocrystals into a SOFC will lead to advancements in exhaust treatment systems as well as power generation systems. The work here will show a direct relationship between the quantity of nanocrystals contained in the SOFC to the emission reduction and power generation abilities of the SOFC.
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钙钛矿纳米晶在电化学催化膜上的减排和发电研究
随着化石燃料资源的枯竭,以及全球气温的升高,人们对可持续能源的兴趣正在上升。目前,由于使用内燃机,汽车是有害排放物的重要来源。不完全燃烧的副产品对环境和人口极其有害,与酸雨、烟雾和呼吸问题有关。虽然正在开发绿色能源解决方案,例如电动汽车,但废气处理也可以成为减少向大气中排放排放物的有效方法。研究表明,固体氧化物燃料电池(SOFC)能够分解废气,甚至超过典型的废气处理方法的能力。一项关于使用SOFC作为废气处理材料的调查发现,通过电池产生的信号的放大对减排有更大的影响。在这里,研究人员正在研究将铯溴化铅(CsPbBr3)纳米晶体添加到燃料电池中。与未添加CsPbBr3纳米晶体的典型SOFC相比,SOFC作为废气处理溶液和发电装置进行了测试。CsPbBr3是一种钙钛矿半导体,因此它有望对燃料电池的反应性产生影响。研究在SOFC中添加纳米晶体的效果将导致废气处理系统和发电系统的进步。这里的工作将显示SOFC中所含纳米晶体的数量与SOFC的减排和发电能力之间的直接关系。
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