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The CO2 Reduction Reaction Mechanism on Silicene Nanoflakes. A Theoretical Perspective

机译:The CO2 Reduction Reaction Mechanism on Silicene Nanoflakes. A Theoretical Perspective

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From density functional theory calculations, we elucidated the reaction mechanism of CO2 reduction on silicene nanoflakes. According to the results, silicene monoflakes present a notable catalytic activity for the hydrogenation of CO2. The most probable energetically favorable reaction pathway is formic acid and formaldehyde production, with energy barriers ranging between 16 and 24.1 kcal/mol. At the same time, transforming carbon dioxide to methanol, carbon monoxide, and methane requires higher activation energies. This theoretical perspective provides significant insights into silicene-based materials and their potential applications as CO2 conversion to fuel and value-added chemicals.
机译:从密度泛函理论计算,我们阐明二氧化碳的反应机理减少silicene nanoflakes。结果,silicene monoflakes礼物著名的加氢催化活性的二氧化碳。甲酸和甲醛反应途径生产,能源障碍之间不等16 - 24.1千卡每摩尔。将二氧化碳转换为甲醇,碳一氧化碳,甲烷需要更高的激活的能量。重要的见解silicene-based材料和二氧化碳的潜在应用转换为燃料和增值的化学物质。

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