会议名称(中文)： 2015法拉第讨论：二氧化碳利用研讨会
会议名称(英文)： Carbon dioxide utilisation :Faraday Discussion
所属学科： 物理化学,高分子化学与物理,化学生物学
开始日期： 2015-09-07
结束日期： 2015-09-09
所在国家： 英国
所在城市： 英国
具体地点： Sheffield, United Kingdom
主办单位： Royal Society of Chemistry
会议背景介绍：
Carbon dioxide utilisation processes convert CO2 into commercially viable products such as chemicals, polymers, building materials and fuels. Carbon dioxide utilisation is an emerging technology which can contribute to the reduction of greenhouse gas emissions by the use of CO2 to manufacture useful products. While generally un-reactive, CO2 can be activated, particularly through catalysis, to yield a vast array of chemical feedstocks, intermediates and value-added products. For this to be effective, a synergistic approach is needed where multiple technologies and energy sources are integrated over a complete system.
征文范围及要求：
Themes
Capture Agents & Conversion Mechanisms
Novel materials that enhance the capture efficiency and selectivity of CO2 need to be developed. Molecular design through simulation and/or synthesis can be used to develop task specific materials. Furthermore, by tuning the capture chemistry, the CO2 molecule can be activated towards subsequent reaction. This session will discuss how capture agent design can be coupled to activation and the mechanisms of this interaction will be considered.
Atom Efficiency in Small Molecule & Macromolecule Synthesis
Reactions in which CO2is added to a co-reactant preserving at least one of the C=O bonds, such as cyclo-addition reactions. Such reactions will have no or limited by-product production. Macromolecules, including polymers, will be included in these discussions.
CO2 Reduction Reactions
The production of liquid synthetic fuels will play a major role is future energy storage strategies and major sources of hydrogen must be produced and utilised in an energy efficient manner.
Biotransformations and Biomimetics
Biotransformations will provide the lead for the development of biomimetic systems that outperform nature. This will include solar fuels which can be produced with a higher efficiency than in natural photosynthetic processes. |
