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DALIAN UNIVERSITY OF TECHNOLOGY Login 中文
Yanhui Yi

Associate Professor
Supervisor of Doctorate Candidates
Supervisor of Master's Candidates


Gender:Male
Alma Mater:Dalian University of Technology
Degree:Doctoral Degree
School/Department:School of Chemical Engineering, Dalian University of Technology
Discipline:Industrial Catalysis. Physical Chemistry (including Chemical Physics). Chemical Engineering
Business Address:109 Room, Chemical Engineering Building B,West Campus, Dalian University of Technology, Dalian, Liaoing, Chian
Contact Information:86-15942876259,yiyanhui@dlut.edu.cn
E-Mail:yiyanhui@dlut.edu.cn
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Current position: Home >> Scientific Research >> Paper Publications

One-Step Reforming of CO2 and CH4 into High-Value Liquid Chemicals and Fuels at Room Temperature by Plasma-Driven Catalysis

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Indexed by:期刊论文

First Author:Wang, Li

Correspondence Author:Tu, X (reprint author), Univ Liverpool, Dept Elect Engn & Elect, Liverpool L69 3GJ, Merseyside, England.

Co-author:Yi, Yanhui,Wu, Chunfei,Guo, Hongchen,Tu, Xin

Date of Publication:2017-10-23

Journal:ANGEWANDTE CHEMIE-INTERNATIONAL EDITION

Included Journals:SCIE、EI、PubMed、Scopus

Volume:56

Issue:44

Page Number:13679-13683

ISSN No.:1433-7851

Key Words:carbon dioxide; heterogeneous catalysis; methane; plasma chemistry; reforming

Abstract:The conversion of CO2 with CH4 into liquid fuels and chemicals in a single-step catalytic process that bypasses the production of syngas remains a challenge. In this study, liquid fuels and chemicals (e.g., acetic acid, methanol, ethanol, and formaldehyde) were synthesized in a one-step process from CO2 and CH4 at room temperature (30 degrees C) and atmospheric pressure for the first time by using a novel plasma reactor with a water electrode. The total selectivity to oxygenates was approximately 50-60%, with acetic acid being the major component at 40.2% selectivity, the highest value reported for acetic acid thus far. Interestingly, the direct plasma synthesis of acetic acid from CH4 and CO2 is an ideal reaction with 100% atom economy, but it is almost impossible by thermal catalysis owing to the significant thermodynamic barrier. The combination of plasma and catalyst in this process shows great potential for manipulating the distribution of liquid chemical products in a given process.