CO2 storage by sorption on organic matter and clay in gas shale

Diana H. Bacon, Catherine M.R. Yonkofski, H. Todd Schaef, Mark D. White, B. Peter McGrail
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引用次数: 17

Abstract

In the work described in this paper, we developed simulations of methane production and supercritical carbon dioxide injection that consider competitive sorption of methane (CH4) and carbon dioxide (CO2) on both organic matter and the clay mineral montmorillonite. We used the results of these simulations to assess the potential for storage of CO2 in a hydraulically fractured shale gas reservoir and for enhanced recovery of CH4. Assuming equal volume fractions of organic matter and montmorillonite, amounts of CO2 adsorbed on both materials were comparable, while methane desorption from clays was greater than desorption from organic material. CO2 injection simultaneous to CH4 production in two separate wells enhanced the contribution of methane desorption from 3535 to 6401 metric tons, while storing 82 metric kilotons of CO2.

页岩中有机质和粘土对CO2的吸附
在本文中描述的工作中,我们开发了甲烷生产和超临界二氧化碳注入的模拟,考虑了甲烷(CH4)和二氧化碳(CO2)在有机物和粘土矿物蒙脱土上的竞争性吸附。我们利用这些模拟结果来评估水力压裂页岩气储层中CO2储存的潜力以及提高CH4采收率的潜力。假设有机质和蒙脱土的体积分数相等,两种材料吸附的CO2量相当,而粘土对甲烷的解吸大于有机材料对甲烷的解吸。两口独立井在生产CH4的同时注入二氧化碳,使甲烷解吸的贡献从3535公吨增加到6401公吨,同时储存了82公吨的二氧化碳。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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