催化作用
可再生能源
生物量(生态学)
Atom(片上系统)
生化工程
工艺工程
原子经济
材料科学
纳米技术
环境科学
化学
计算机科学
有机化学
工程类
海洋学
电气工程
嵌入式系统
地质学
作者
Yubing Lu,Zihao Zhang,Huamin Wang,Yong Wang
标识
DOI:10.1016/j.apcatb.2021.120162
摘要
• The recent advances in converting biomass and CO 2 to renewable fuels and chemicals using single-atom catalysts are summarized and highlighted. • The design principles of single-atom catalysts and their potential applications to biomass and CO 2 upgrading as well as the origins of catalytic activity are discussed. • We compare the catalytic efficiency of various catalysts reported thus to provide a fair assessment of these catalysts. • Perspectives are given on the interesting fields that may guide future studies. Transformation of biomass and CO 2 into renewable value-added chemicals and fuels has been identified as a promising strategy to fulfill high energy demands, lower greenhouse gas emissions, and exploit under-utilized resources. Cost-effective and performance-efficient catalysts are of great importance to lowering the conversion cost of biomass and CO 2 . Significant progress has been made to advance the catalyst design for these processes, with metal catalysts playing a critical role in many involved catalytic reactions. Traditional nanoparticle-based metal catalysts still require improvement in metal utilization rates, stability, and selectivity tunability. Single-atom catalysts, which have maximum atomic efficiency and a uniform and tunable metal center, as well as an adjustable metal-support interaction, provide potential opportunities to boost catalyst efficiency and thermal stability. Their well-defined and uniform structure also provides advantages to fundamental studies for understanding of the intrinsic reaction mechanism and site requirement in biomass and CO 2 conversion. Here, we summarize and highlight the recent advances in converting biomass and CO 2 to renewable fuels and chemicals using single-atom catalysts. We discuss the design principles of single-atom catalysts and their potential applications to biomass and CO 2 upgrading as well as the origins of catalytic activity. Moreover, we compare the catalytic efficiency of various catalysts reported thus to provide a fair assessment of these catalysts. Finally, perspectives are given on the interesting fields that may guide future studies.
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