从水天然气水合物地层中提取甲烷气体的方法与技术

S. Goshovskyi, O. Zurian
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引用次数: 4

摘要

在地球的深处和世界海洋的海洋中,以固体水合物的形式存在着几乎取之不尽的天然气资源,可供国际社会的大多数国家使用。天然气水合物矿床的开发是基于解离(分离)过程,在这个过程中,天然气水合物分解成气体和水。在这些技术中,提出了三种开发天然气水合物矿床的方法:减压、加热和抑制剂投入。在系统化数据的基础上,认为上述方法属于传统方法,是研究最多、最经典的方法。建议确定一些暗示相同结果的方法,但使用其他物理方法并将其指定为非常规方法。1. 纳米颗粒分解甲烷水合物。在这种方法中,使用与气体水合物电池相匹配的纳米颗粒(作为水动力射流的一部分提供)来有效和安全地破坏气体水合物。纳米技术的应用为天然气水合物水生沉积物的整个表面提供了有效和一致的研究,并提供了必要的破坏速率和计划的甲烷产量。2. 微生物(细菌)分解甲烷水合物。在这个过程中,在细菌的生命过程中,必须释放一种气体,在包合物结构中,每一分子给定的气体替换一分子甲烷。此外,这一过程必须利用为细菌提供营养的外界因素来控制,同时光、化学物质、电磁辐射等可以随时停止,这在天然气水合物形成的自然条件中是不存在的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
METHODS AND TECHNOLOGIES OF METHANE GAS EXTRACTION FROM AQUA GAS HYDRATE FORMATIONS
In the bowels of the Earth and in the oceans of the World Ocean, there are practically unlimited resources of natural gas in the solid hydrate state, available to most countries of the world community. The development of gas hydrate deposits is based on the process of dissociation (separation), in which the gas hydrates break down into gas and water. In these technologies, three methods for the development of gas hydrate deposits are proposed: pressure reduction, heating and inhibitor input. Based on the systematized data, the above methods are suggested to be attributed to traditional methods, as the most studied and classical ones. It is proposed to identify a number of methods that imply the same results, but use other physical approaches and designate them as unconventional. 1. Decomposition of methane hydrates by nanoparticles. In this method, the use of nanoparticles commensurate with the gas hydrate cell (supplied as part of a hydrodynamic jet) is proposed for efficient and safe destruction of the gas hydrate. The application of nanotechnology provides effective and consistent study of the entire surface of the aquatic deposit of gas hydrates, with the necessary rate of their destruction and the production of planned volumes of methane. 2. Decomposition of methane hydrates by microorganisms (bacteria). In this process, in the process of the life of the bacteria, a gas must be released, replacing in the clathrate structure a molecule of methane per molecule of the given gas. In addition, the process must be controlled by the use of external factors that provide nutrition to the bacteria and at the same time, light, chemicals, electromagnetic radiation, etc. can be stopped at any time, which is absent in the natural conditions of formation of the gas hydrate.
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CiteScore
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