减缓全球变暖和气候变化的CO2捕集技术途径综述

H. Kumar, S. Ravikumar
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引用次数: 3

摘要

能源和环境是本世纪最重要的两个问题。我们80%以上的能源来自化石燃料的燃烧,在未来几年里,化石燃料仍将是主要的能源来源。人们一致认为,燃烧过程中产生的二氧化碳是导致全球变暖的最重要的人为温室气体。大气二氧化碳浓度确实比工业化前水平增加了近100 ppm,在2007年达到384 ppm,并且仍在增加,年总排放量超过35亿吨。因此,需要迅速采取全球行动来解决二氧化碳危机。为了实现这一目标,我们被敦促在不产生不必要的碳排放的情况下节约能源,并以更有效的方式利用能源,但必须考虑减少温室气体排放的其他方法。在使用胺类溶剂的化学吸收/剥离CO2的成熟技术中存在很大的能量损失。本研究的目的是开发以水为溶剂的低温快速催化吸收/解吸CO2。天然存在的锌金属酶碳酸酐酶(CA)可以在中性pH和环境温度下通过可逆的水合/脱水循环浓缩二氧化碳。锌(II)和其他金属的一些三脚架配合物模拟了CA催化过程,该过程首先将CO2水化成碳酸氢盐,然后将碳酸氢盐反脱水以再生CO2。本文重点介绍了最近在碳捕集与封存和二氧化碳化学固定等领域的一些有前景的研究活动及其在构建未来低碳全球经济方面的前景
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An approach of CO2 capture technology for mitigating global warming and climate change-an overview
Energy and the environment are two of the most important issues this century. More than 80 % of our energy comes from the combustion of fossil fuels, which will still remain the dominant energy source for years to come. It is agreed that carbon dioxide produced from the combustion process to be the most important anthropogenic greenhouse gas leading to global warming. Atmospheric CO2 concentrations have indeed increased by almost 100 ppm since their pre-industrial level, reaching 384 ppm in 2007 and still increasing with a total annual emission of over 35 Gt. Prompt global actions to resolve the CO2 crisis is therefore needed. To pursue such an action, we are urged to save energy without the unnecessary production of carbon emissions and to use energy in more efficient ways, but alternative methods to mitigate the greenhouse gas have to be considered. There is a large energy penalty in the proven technology of chemical absorption/stripping of CO2 using amine solvents. The aim in this study is to develop fast catalytic absorption/ desorption of CO2 at low temperatures using water as solvent. The naturally occurring zinc metallo-enzyme carbonic anhydrase (CA) can concentrate CO2 using a reversible Hydration /dehydration cycle at neutral pH and at ambient temperatures. Some tripodal complexes of zinc (II), and other metals mimic the CA catalytic process, which proceeds by hydration of CO2 to bicarbonate followed by the reverse dehydration of the bicarbonate to regenerate CO2. This Minireview highlights some recent promising research activities and their prospects in the areas of carbon capture and storage and chemical fixation of CO2 in constructing a future low-carbon global economy with reference to energy
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