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Hierarchical Faceted Cesium Tin Iodide Superparticles for Solar based CO2 Reduction

机译:用于太阳基的二氧化碳碘化铯碘化铯碘化物超级粒子

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The current global scenario demands more focused mitigation activities and the implementation of stern policies with regards to ever-increasing atmospheric carbon dioxide (CO2) emissions. Over the past few decades, it has caused much concern, thus dramatically driving the ongoing carbon capture, utilization, and sequestration (CCUS) research. Alluring it sounds, but a far easier CO2 utilization alternative is its catalytic conversion to value-added fuels, for which, the use of solar irradiation represents an eventual and economical solution. Hierarchical lead-free all-inorganic halide perovskites are greatly documented for optoelectronics and photovoltaic applications but have rarely been used for CO2 photoreduction. Herein, we report on the synthesis of cesium tin iodide (CsSnI3) and its employability as photocatalysts to convert CO2 gas into value-added hydrocarbon fuels. Under the natural sunlight, artificial solar, and ultraviolet (UV) illumination, the hierarchical CsSnI3 superparticles progressively produced and infused electrons under ambient conditions, thereby catalyzing CO2 reduction to carbon monoxide (CO) at a rate of ~89,~75, and 8 μmol/g with selectivity over 90, 85 and 32%, respectively. The study presented here is foreseen to open many new opportunities towards the utilization of lead-free all-inorganic halide perovskite materials for energy generation through carbon emission utilization.
机译:目前的全球情景要求更加集中的缓解活动和关于不断增加的大气二氧化碳的船尾政策的实施(CO 2 )排放。在过去的几十年中,它引起了很大的关注,从而显着地推动了正在进行的碳捕获,利用率和封存(CCU)的研究。诱人的声音,但远远容易的公司 2 利用替代方案是其催化转化为增值燃料,其中,使用太阳照射代表了最终和经济的解决方案。分层无铅全无机卤化物佩罗夫斯基特用于光电子和光伏应用,但很少用于CO 2 拍照。在此,我们报告了铯碘化铯(CSSNI3)的合成及其作为转换CO的光催化剂的可用性 2 气体成增值的烃燃料。在天然阳光下,人造太阳能和紫外线(UV)照明,分层CSSNI3超级颗粒在环境条件下逐渐产生和注入电子,从而催化CO 2 以〜89,〜75和8μmol/ g的速率降低到一氧化碳(CO),选择性分别超过90,85和32%。此处提出的研究是通过碳排放利用率开辟利用无铅全无机卤化物钙钛矿材料的许多新机会。

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