期刊
INTERNATIONAL JOURNAL OF GREENHOUSE GAS CONTROL
卷 81, 期 -, 页码 66-82出版社
ELSEVIER SCI LTD
DOI: 10.1016/j.ijggc.2018.12.012
关键词
CO2-Water nexus; CO2-enhanced water recovery; Modern coal chemical industry; Techno-economic evaluation; Source-sink matching; Cost curve
类别
资金
- Energy Foundation-Beijing Office [G-1511-23965]
- Youth Innovation Promotion Association, Chinese Academy of Sciences [2,014,303]
- Chinese Academy of Science under US-China Clean Energy Research Center
- Pacific Northwest National Laboratory under US-China Clean Energy Research Center
- University of Wyoming under US-China Clean Energy Research Center
China has emerged as a world leader in the coal chemical industry, which requires large amount of water and results in considerable CO2 emissions. This situation has led to the challenge of the CO2-Water nexus for China and particularly for the sustainable development of its coal chemical industry. CO2-enhanced water recovery (CO2-EWR) technology can provide large-scale CO2 mitigation and additional water supply in an integrated manner, especially in arid areas. Meanwhile, CO2 streams from industrial separation processes in the coal chemical industries are amenable to separation and can dramatically simplify or even dispense with the capture process. This study presents the first systematic assessment of a cost curve for onshore CO2-EWR potential using CO2 streams from industrial separation processes by an evaluation framework encompassing CO2 emission inventory, site suitability evaluation, and source-sink matching with techno-economic models. Preliminary results focused on the full capacity of several coal chemical processes as of 2015 suggest that CO2-EWR technology can mitigate 269 million tons of CO2 from industrial separation processes at relatively low cost ranging from 12 to 30 USD/t CO2 in China. Furthermore, 404 million tons of underground water could be produced for further desalination and utilization. When additional capacity under development could become fully operational, the emissions of 878 million tons of CO2 could be mitigated and provide 1318 million tons of vital water resources. Therefore, CO2-EWR technology can be essential to clean and sustainable development of the coal chemical industry and may provide low-cost opportunities to accelerate the deployment of large-scale CCUS projects in China.
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