煤对CH_4、CO_2、N_2及其二元混合气体吸附特性、预测和CO_2驱替CH_4的研究
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摘要
本文利用物理化学、界面化学、煤化学、煤质学、煤岩学等知识,在实验研究和文
    献资料数据的基础上借助计算机作为辅助工具对煤吸附CH_4、N_2、CO_2及CH_4/CO_2二元
    混合气体吸附特性、吸附量预测进行了系统研究,最后对CO_2驱替煤吸附CH_4特性及中
    国煤采用cO_2-ECBM技术可增收的煤层气采收率和CO_2的埋藏量进行了初步研究。
     本文在对晋城和潞安煤对纯CH_4、N_2、CO_2及CH_4/CO_2二元混合气体吸附/解吸特性
    研究的基础上,对二煤和所收集到的煤对纯气体吸附数据采用SPSS、线性回归法和迭代
    法对Langmuir、BET、DA、DR、Toth、Frendulich、扩展Langmuir、Langmuir-Freundlicht
    8种吸附模型和二次方程、三次方程和对数方程进行拟合;在平衡气游离相组分浓度已
    知和未知条件下采用扩展Langmuir、理想吸附溶液理论和实际吸附溶液理论对煤吸附
    CH_4/CO_2二元混合气体吸附量进行预测,采用的吸附等温方程有Langmuir、BET、DA、
    DR:通过材料收集、审查和整理,利用SPSS软件对煤吸附CH_4的Langmuir吸附常量
    与煤质指标、CO_2/CH_4和CH_4/N_2吸附比与煤质指标间的线性回归关系进行了研究;在
    CO_2-ECBM实验模拟装置建立的基础上,对注CO_2提高煤层气采收率进行了初步的实验
    室研究,并初步研究了注CO_2对煤中矿物质的影响。
     通过CH_4、N_2、CO_2及混合气体的吸附等温线和预测结果可大体上了解煤的微孔结
    构和煤的吸附特性。通过本文的研究,进一步丰富了煤吸附气体理论,为CO_2-ECBM技
    术预测提供了理论基础、预测方法,为注CO_2提高煤层气采收率和CO_2埋藏提供了资源
    评价技术和方法。
Adsorption characteristics and adsorbed amount prediction of CH_4,C0_2, N_2 single and binary gas on coals have been studied comprehensively on the basis of experiments and literature data with computer program from the point of view of Physical Chemistry, Interface Chemistry, Coal Chemistry, Coal Quality, Coal Petrology and so on in the paper. Finally, the properties of adsorbed methane displacement with carbon dioxide and enhanced coalbed methane recovery and C0_2 sequestration in China' s coal have been investigated primarily in the paper.First of all, adsorption/desorption characteristics of CH_4, C0_2, N_2 pure and binary gas adsorption on Jincheng coal and Luan coal has been studied, and then, the eight different models viz. Langmuir, BET, DA, DR, Toth, Freundlich, Expended-Langmuir, Langmuir-Freundlich and three curvilinear equations viz. quadratic equation, cubic equation and logarithmic equation were used to fit the experimental and literature data of CH_4, C0_2, N_2 adsorption on coals by SPSS software, linear regression and iterative method. Expended Langmuir, Ideal adsorption Solution Theory and Real adsorption Solution Theory combined with pure gas absorption isotherms equation viz. Langmuir, DA, DR, BET were employed to predict the adsorbed amount of C0_2/CH_4 adsorption on coals on the conditions of known and unknown compositions concentration in the free phase. The linear regression relation between the Langmuir adsorption constants and adsorption ratio of CO_2/CH_4 or CH4/N2 and coal quality indexes were studied with SPSS software. The primary experimental study about enhanced coalbed methane recovery with C0_2 injection with the founded experimental equipment simulating C0_2-ECBM technology, and the interaction between C0_2 injected into coal and mineral matter in coal was studied primarily in the paper.In the light of the adsorption isotherms and predicted results of CH_4, C0_2, N_2 and their mixtures, the coal micropore structure and gases adsorption characteristics on coal can be known on the whole. The studied results in the paper improve gases adsorption theory on coal, and provide the theoretical basis and prediction method for CO_2-ECBM, and supply the technique or method for ECBM and C0_2 sequestration with C0_2-ECBM.
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