Synthesis of N-Arylpyrrolidines Using CO2 as C1 Source DOI
Yujia Zhou,

Qiao Kong,

Dao-Yong Zhu

и другие.

Chinese Journal of Organic Chemistry, Год журнала: 2024, Номер 44(10), С. 3185 - 3185

Опубликована: Янв. 1, 2024

Язык: Английский

Advances and challenges in the electrochemical reduction of carbon dioxide DOI Creative Commons

Jingyi Han,

Xue Bai,

Xiaoqin Xu

и другие.

Chemical Science, Год журнала: 2024, Номер 15(21), С. 7870 - 7907

Опубликована: Янв. 1, 2024

This review highlights the structure–activity relationship of ECO 2 RR, provides a detailed summary advanced materials by analyzing electrocatalytic applications and reaction mechanisms, discusses challenges in both devices.

Язык: Английский

Процитировано

49

MOF-based materials for electrochemical reduction of carbon dioxide DOI

Jian-Mei Huang,

Xiang‐Da Zhang,

Jiayi Huang

и другие.

Coordination Chemistry Reviews, Год журнала: 2023, Номер 494, С. 215333 - 215333

Опубликована: Июль 28, 2023

Язык: Английский

Процитировано

45

Rare earth nanomaterials in electrochemical reduction of carbon dioxide DOI

Yingshan Xue,

Ping Wang,

Miao He

и другие.

Coordination Chemistry Reviews, Год журнала: 2024, Номер 516, С. 215983 - 215983

Опубликована: Май 28, 2024

Язык: Английский

Процитировано

14

Advances in rare earth catalysts for small molecule electrosynthesis☆ DOI

Junfeng Du,

Jing Yu,

Chaohui Guan

и другие.

Journal of Rare Earths, Год журнала: 2025, Номер unknown

Опубликована: Фев. 1, 2025

Язык: Английский

Процитировано

1

Promoting Electrocatalytic CO2 Reduction to CO via Sulfur‐Doped Co‐N‐C Single‐Atom Catalyst DOI Open Access
Zhiming Wei, Yuhang Liu, Jie Ding

и другие.

Chinese Journal of Chemistry, Год журнала: 2023, Номер 41(24), С. 3553 - 3559

Опубликована: Авг. 16, 2023

Comprehensive Summary Electrocatalytic reduction of CO 2 to fuels and chemicals possesses huge potential alleviate current environmental crisis. Heteroatom doping in metal‐nitrogen‐carbon (M‐N‐C) single‐atom catalysts (SACs) has been found be capable promote the electrocatalytic reaction (CO RR). However, origin enhanced activity is still elusive. Here, we report that sulfur‐doped cobalt‐nitrogen‐carbon catalyst (Co 1 ‐SNC) exhibits superior RR performance compared sulfur‐free counterpart ‐NC). On basis situ attenuated total reflectance surface‐enhanced infrared absorption spectroscopy (ATR‐SEIRAS), kinetic isotope effect (KIE) theoretical calculation, it demonstrated sulfur can water activation, elevate d‐band center Co active site, reduce free energy *COOH intermediate formation. This work deepens understanding chemistry over heteroatom‐doped SACs for designing efficient processes.

Язык: Английский

Процитировано

17

Long‐Range Confinement‐Driven Enrichment of Surface Oxygen‐Relevant Species Promotes C−C Electrocoupling in CO2 Reduction DOI
Fuping Pan, Xinyi Duan, Lingzhe Fang

и другие.

Advanced Energy Materials, Год журнала: 2023, Номер 14(7)

Опубликована: Дек. 24, 2023

Abstract CO 2 reduction is a highly attractive route to transform into useful feedstocks, of which C products are more desired than 1 , yet face high kinetic barriers C−C electrocoupling. Here, the engineering pore‐enabled local confinement reaction environments reported for tuning enrichment surface‐adsorbed oxygen‐relevant species and establishment their pronounced benefits in promoting coupling over oxide‐derived Cu‐based catalysts. A new approach utilizing microphase separation block copolymer developed fabricate bicontinuous mesoporous CuO nanofibers (CuO‐BPNF). The enhanced from long‐range mesochannels enables adsorption OH ad /O on Cu surface at wide negative potential range −0.7 – −1.3 V reduction, cannot be achieved conventional deficient short‐range pores. Constant‐potential DFT calculations reveal that surface‐bound oxygen weakens *CO affinity with (111) lowers both *CO−CO dimerization hydrogenation enable *CO−CHO coupling. Accordingly, ‐to‐C Faradaic efficiency 74.7% CuO‐BPNF shown, significantly larger counterparts This work offers general design principle manage reactive steering pathways interfacial catalysis.

Язык: Английский

Процитировано

14

Active hydrogen-controlled CO<sub>2</sub>/N<sub>2</sub>/NO<sub>x</sub> electroreduction:From mechanism understanding to catalyst design DOI Creative Commons

Hanle Liu,

Shunhan Jia, Limin Wu

и другие.

The Innovation Materials, Год журнала: 2024, Номер 2(1), С. 100058 - 100058

Опубликована: Янв. 1, 2024

<p>The development of renewable-energy-powered electrocatalysis meets the need for sustainable society. With water as proton source, it enables efficient production chemicals and fuels from renewable resources like CO<sub>2</sub>, N<sub>2</sub>, NO<sub>x</sub> under ambient conditions. Hydrogen generated via dissociation is a crucial participant in transforming reactants into desired products, but also serves direct source undesired reactions when excess. In this review, we first present an overview functional mechanisms active hydrogen electroreduction CO<sub>2</sub>/N<sub>2</sub>/NO<sub>x</sub>. We then introduce range methods to enhance our understanding these mechanisms. Furthermore, detailed discussion design strategies aimed at regulating reduction CO<sub>2</sub>/N<sub>2</sub>/NO<sub>x</sub> provided. Finally, outlook on critical challenges remaining research area promising opportunities future considered.</p>

Язык: Английский

Процитировано

5

Engineering Coordination Environment of Cobalt Center in Molecular Catalysts for Improved Photocatalytic CO2 Reduction DOI Open Access
Yuchen Wang, Jihong Zhang, Wei Yang

и другие.

Chinese Journal of Chemistry, Год журнала: 2023, Номер 41(23), С. 3305 - 3310

Опубликована: Авг. 16, 2023

Comprehensive Summary The creation of effective and inexpensive catalysts is essential for photocatalytic CO 2 reduction. Homogeneous molecular catalysts, possessing definite crystal structures, are desirable to study the relationship between catalytic performance coordination microenvironment around center. In this report, we elaborately developed three Co(II)‐based with different microenvironments reduction, named [CoN 3 O]ClO 4 , ]ClO S]ClO respectively. optimal photocatalyst has a maximum TON 5652 in reduced which 1.28 1.65 times greater than that high electronegativity oxygen L 1 ( N ‐bis(2‐pyridylmethyl)‐ ‐(2‐hydroxybenzyl)amine) provides Co(II) centers low reduction potentials more stable *COOH intermediate, facilitates ‐to‐CO conversion accounts activity . This work researchers new insights development

Язык: Английский

Процитировано

11

Rare‐earth Element‐based Electrocatalysts Designed for CO2 Electro‐reduction DOI

Hengan Wang,

Xinchen Kang, Buxing Han

и другие.

ChemSusChem, Год журнала: 2023, Номер 17(7)

Опубликована: Дек. 18, 2023

Electrochemical CO

Язык: Английский

Процитировано

11

Asymmetrically coordinated main group atomic In-S1N3 interface sites for promoting electrochemical CO2 reduction DOI
Yan Gao,

Jinlong Ge,

Jingqiao Zhang

и другие.

Nano Research, Год журнала: 2024, Номер 17(6), С. 5011 - 5021

Опубликована: Март 7, 2024

Язык: Английский

Процитировано

3