多孔介质中甲烷和乙烷气体水合物形成及其混合物的预测

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摘要

本文的目的是研究多孔和无孔环境下甲烷和乙烷气体水合物及其混合物形成条件的热力学模型。本文采用Van der Waals- Platteeuw热力学模型对天然气水合物形成条件进行了预测。同时,利用SRK和PTV状态方程进行了驱动力的计算。在本研究中,将多孔环境下的热力学建模结果与文献中无孔环境和实验室数据进行了比较。研究表明,模拟结果与实验数据吻合较好,误差百分比较低。结果还表明,随着多孔介质和非多孔介质压力的增加,平衡温度也随之升高。此外,研究了甲烷、乙烷及其混合物在天然气水合物形成过程中孔隙介质孔径对模拟结果的影响。结果表明,对于任何孔径大小的多孔介质,随着压力的增加,水合物形成温度升高。另外,随着孔隙介质孔径的增大,甲烷、乙烷及其混合物在恒压下的水合物形成温度升高。无孔介质的平衡温度高于无孔介质的平衡温度。这表明多孔介质中水合物的形成具有威慑作用,导致天然气水合物形成的低温和高温条件。结果表明:增加甲烷在多孔或无孔介质中的含量,甲烷乙烷二元气体混合物的水合物形成温度均降低;
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Prediction of Methane and Ethane Gas Hydrate Formation and Their Mixture in a Porous Medium
The purpose of this paper is to study the thermodynamic modeling of the conditions for methane and ethane gas hydrate formation and their mixtures in a porous and non-porous environment. In this paper, the Van der Waals- Platteeuw thermodynamic model was used for prediction of gas hydrate formation conditions. Also, the SRK and PTV equations of state were used for calculations of driving force. In this research, the results of thermodynamic modeling in a porous were compared with the non-porous environment and laboratory data in the literature. Studies have shown that the results of the modeling are in good agreement with the laboratory data and the percentage of errors is low. The results also showed that with increasing pressure of porous and non-porous media, the equilibrium temperature increases. In addition, the effect of the pore diameter of porous media on the results of modeling was investigated for methane, ethane and their mixtures during gas hydrates formation. The results showed that by increasing the pressure for any size of the pore diameter of the porous medium, hydrate formation temperature increases. In addition, by increasing the pore diameter of the porous medium, hydrate formation temperature methane, ethane and their mixture increase at a constant pressure. The results also showed that the equilibrium temperature of the non-porous medium is higher than the equilibrium temperature of the non-porous medium. This shows that the hydrate formation in the porous medium has a deterrent effect and leads to lower temperatures and higher temperatures conditions for gas hydrate formation. The results showed that by increasing the percentage of methane in a porous or non-porous medium, the temperature of hydrate formation of the binary gas mixture of methane and ethane decreases.
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