Molecular Basket Sorbents for CO2 Capture and New Bimetallic Catalysts for CO2 Conversion towards Sustainable Development

  报告时间:2014916日(星期二)下午15:00 

  报告地点:能源基础楼一楼会议室 

  报告人:宋春山 教授     

  Pennsylvania State University, USA     

  报告人简介: 

  Dr. Chunshan Song is a Distinguished Professor of Fuel Science, Professor of Chemical Engineering, and the Director of the Energy Institute at the Pennsylvania State University. He received a BS in Chemical Engineering from Dalian University of Technology in 1982, a PhD in Applied Chemistry from Osaka University in 1989. He joined Fuel Science program at Penn State in Nov 1989 and has been working there ever since. His research interests focus on clean energy and catalysis, including novel approaches in catalytic fuel processing for ultra clean transportation fuels and for fuel cells, CO2 capture and conversion, nano-porous materials synthesis and application, and catalysis for chemicals and fuels synthesis. He has published over 240 refereed articles in research journals, 7 patents, 6 books and 28 book chapters. He is an internationally recognized leading scholar and has delivered over 290 invited lectures in 20 countries including 50 plenary or keynote lectures at international conferences. He has received many awards for original research achievements, such as Henry Story Award in Fuel Science from American Chemical Society (ACS), Fulbright Distinguished Scholar from US-UK, Fellow of ACS, Herman Pines Award in Catalysis from Chicago Catalysis Society, ACS Distinguished Researcher Award in Petroleum Chemistry, Catalysis Club of Philadelphia Award, and Top Cited Authors in Catalysis award from Elsevier, Distinguished Catalysis Researcher Lectureship from Pacific Northwest National Lab, and DR Robinson Lectureship from University of Alberta in Canada. Within Penn State, he has received Wilson Award for Outstanding Research, Faculty Mentoring Award, University Distinguished Professorship, and Faculty Scholar Medal. He is serving on advisory boards for 13 research journals such as Applied Catalysis B: Environmental, Catalysis Today, Energy & Fuels, RSC Catalysis, Chemical Engineering Technology, Greenhouse Gases: Science and Technology, Journal of CO2 Utilization, Chinese Journal of Catalysis, and Journal of Fuel Chemistry and Technology. He has held many leadership positions in American Chemical Society and a number of international conferences worldwide such as Chair of ACS Fuel Division, Chair of ACS Petroleum Division, Chair of 12th International Conference on Carbon Dioxide Utilization, and Co-chair of 24th North American Catalysis Society Meeting. 

  报告摘要: 

  Catalysis and adsorption research has an important role to play in addressing the global energy challenges. This seminar begins with an overview of global energy challenges.  Carbon capture and utilization are considered as key options for mitigating the emissions of CO2 from energy systems and for sustainable development. We have proposed and developed a new design concept of “molecular basket sorbent (MBS)” for CO2 capture and separation and new bimetallic catalysts for CO2 conversion to chemicals and fuels. We will discuss the new design concept and performance of CO2 “molecular basket” which is nano-porous, CO2-selective high-capacity sorbent consisting of polymers such as polyethylenimine and porous inorganic solid. The CO2-MBS possess high CO2 load capacities for sorption separation of CO2 from various gas mixtures with lower energy consumption and higher efficiency. It does not require pre-removal of moisture from flue gas. On the contrary, moisture in flue gas enhances CO2 capture on CO2-MBS.  

  Catalytic hydrogenation of CO2 using hydrogen produced with renewable energy has a potential to recycle CO2 as an energy carrier for sustainable energy development. New catalysts are being developed for selective CO2 conversion to C2+ higher hydrocarbons and to methanol for chemicals and fuels. Bimetallic catalysts such as Fe-Co with a specific and narrow range of Co loading into Fe catalyst selectively enhance C2+ higher hydrocarbons with higher CO2 conversion levels. Addition of alkali promoter further enhances the rate of formation for C2+ higher hydrocarbons that can be highly rich in olefins which are important industrial chemicals.. 

  报告联系人:505组 毛佳(9307

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