Bottlenecks and Technological Developments for Geologic Storage of CO2

被引:0
|
作者
Tang Ligen
Ding Guosheng
Song Shijie
Ding Yichen
Zheng Xirui
Chu Guangzhen
Wang Xiaolei
Zhong Rong
Bao Qingying
Pei Gen
Xie Zhengding
Tao Ye
Bai Wenhua
Sun Shasha
机构
[1] Research Institute of Petroleum Exploration and Production,
[2] CNPC,undefined
[3] Key Laboratory of Underground Oil and Gas Storage Engineering,undefined
[4] CNPC,undefined
[5] Petroleum Industry Press,undefined
[6] Beijing Branch,undefined
[7] China Global Engineering Co.,undefined
[8] LTD,undefined
[9] SHCCIG Yu Lin Chemical Co. Ltd,undefined
来源
Chemistry and Technology of Fuels and Oils | 2023年 / 59卷
关键词
CCS (mainly in aquifers); brackish aquifer storage; large-scale storage capacity prediction; high-speed injection; dual-carbon strategy;
D O I
暂无
中图分类号
学科分类号
摘要
There is global consensus that geologic storage is an underpinning technology for large-scale reduction of CO2 emissions. Although CO2 flooding and storage has been employed to promote crude oil recovery, storage of CO2 in aquifers has proven to be the main and fundamental technical route for large-scale geologic storage due to convenient site selection, easy source-sink matching, huge implementation scale, and low storage costs. In view of the deposition characteristics of terrestrial aquifers in China and the practices of underground storage of natural gas, this study identifies three bottlenecks hindering large-scale aquifer storage of CO2 in China (i.e., aquifer storage capacity, storage costs, and long-term safety), and proposes five key fields where technological breakthrough is needed (i.e., assessment of storage capacity, low-concentration CO2 injection, large-scale high-speed CO2 injection, low-cost engineering support, and long-term safety monitoring) to overcome key obstacles in meeting China’s “3060” goals – carbon peaking by 2030 and carbon neutrality by 2060.
引用
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页码:213 / 218
页数:5
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