journal article·2013-11

High-pressure adsorption of methane on montmorillonite, kaolinite and illite

Dong Liu, Peng Yuan, Hongmei Liu, Tian Li, Daoyong Tan, Weiwei Yuan, Hongping He

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Abstract

Methane (CH 4) adsorption of Ca 2 +-montmorillonite (Mt), kaolinite (Kaol) and illite (Il) at 60 °C and pressures up to 18.0 MPa was investigated, during which the adsorption capacity was evaluated by the Langmuir adsorption model. The influences of adsorbed water and the interlayer distance of the clay minerals on CH 4 adsorption were explored by using heated Mt products with different interlayer distances as the adsorbent. Mt, Kaol and Il showed high CH 4 adsorption capacities, and their maximum Langmuir adsorption capacities were Mt, 6.01 cm 3/g; Kaol, 3.88 cm 3/g; and Il, 2.22 cm 3/g, respectively. CH 4 was adsorbed only on the external surface of Kaol and Il; however, adsorption also occurred in the interlayer space of Mt, which had a larger interlayer distance than the size of a CH 4 molecule (0.38 nm). CH 4 adsorption in the interlayer space of Mt was supported by the lower CH 4 adsorption capacity of heated Mt products (with the interlayer distance < 0.38 nm) than that of Mt at high pressures despite the higher external surface areas of the heated Mt samples. The entrance of CH 4 into the interlayer space of Mt occurred at low pressures, and more CH 4 molecules entered the interlayer space at high pressures. Moreover, the adsorbed water occupied the adsorption sites of the clay minerals and decreased the CH 4 adsorption capacity. These results indicate that clay minerals play a significant role in CH 4 adsorption of shale and indicate that the structure and surface properties of clay minerals are the important parameters for estimating the gas storage capacity of shale.
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Research context

OpenAlex topics: Hydrocarbon exploration and reservoir analysis · Coal Properties and Utilization · Atmospheric and Environmental Gas Dynamics

SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.

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