The gradual increase in atmospheric carbon dioxide concentration has led to a series of environmental problems such as global warming;therefore,the large-scale conversion of carbon dioxide is urgent.In this regard,the...The gradual increase in atmospheric carbon dioxide concentration has led to a series of environmental problems such as global warming;therefore,the large-scale conversion of carbon dioxide is urgent.In this regard,the electrochemical CO_(2) reduction(ECR)technology can reduce the greenhouse gas CO_(2) to low-carbon fuels and economically valuable chemicals,which is a promising method to achieve carbon cycle termination.Catalysts are critical for ECR due to high activation energy requirements and the endothermic nature of the reaction.This review describes the recent advances in the design of nanostructured inorganic catalysts for ECR,strategies to improve the catalytic performance of these catalysts,and particularly the structure–performance relationship of catalysts.After a brief introduction to the background and basic principles of ECR,we have summarized the crucial factors(size,morphology,crystal facets,defects,interface,surface,and oxide derivation)determining the performance of CO_(2) electroreduction.Finally,we have discussed the methods to improve the reaction efficiency and selectivity of catalysts and introduced the prospects for their future developments.展开更多
CO_(2)electroreduction is a promising technique for the management of the global carbon balance by lowgrade renewable electricity.However,the lack of highly efficient and selective catalysts has hampered the developme...CO_(2)electroreduction is a promising technique for the management of the global carbon balance by lowgrade renewable electricity.However,the lack of highly efficient and selective catalysts has hampered the development of this area.Herein,we report a poly-phenylenediamine-derived atomically dispersed Ni catalyst as a highly efficient and selective electrocatalyst for the conversion of CO_(2)to CO.展开更多
基金the financial support received from the National Natural Science Foundation of China(51772957,Y.G.,51772024,X.Q.Y.).
文摘The gradual increase in atmospheric carbon dioxide concentration has led to a series of environmental problems such as global warming;therefore,the large-scale conversion of carbon dioxide is urgent.In this regard,the electrochemical CO_(2) reduction(ECR)technology can reduce the greenhouse gas CO_(2) to low-carbon fuels and economically valuable chemicals,which is a promising method to achieve carbon cycle termination.Catalysts are critical for ECR due to high activation energy requirements and the endothermic nature of the reaction.This review describes the recent advances in the design of nanostructured inorganic catalysts for ECR,strategies to improve the catalytic performance of these catalysts,and particularly the structure–performance relationship of catalysts.After a brief introduction to the background and basic principles of ECR,we have summarized the crucial factors(size,morphology,crystal facets,defects,interface,surface,and oxide derivation)determining the performance of CO_(2) electroreduction.Finally,we have discussed the methods to improve the reaction efficiency and selectivity of catalysts and introduced the prospects for their future developments.
基金support from National Key Basic Research Program of China(2014CB931801 and 2016YFA0200700,Z.Y.T.)National Natural Science Foundation of China(21890381,21721002,21475029 Z.Y.T.and 51772957,Y.G.)+1 种基金Frontier Science Key Project of Chinese Academy of Sciences(QYZDJ-SSW-SLH038,Z.Y.T.)K.C.Wong Education Foundation(Z.Y.T.).
文摘CO_(2)electroreduction is a promising technique for the management of the global carbon balance by lowgrade renewable electricity.However,the lack of highly efficient and selective catalysts has hampered the development of this area.Herein,we report a poly-phenylenediamine-derived atomically dispersed Ni catalyst as a highly efficient and selective electrocatalyst for the conversion of CO_(2)to CO.