海底天然气生产中的水合物控制

Ismaila Ibrahim
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摘要

目前,该行业面临的最重大技术挑战之一是确保深水勘探的生产流程。高压和低温的强烈条件有利于水合物的形成,而水合物的形成可能会限制或阻塞通路,从而造成巨大的经济损失。 本研究利用储层、井口和陆上接收站条件下的水浓度估算结果,致力于水下天然气生产中的水合物控制。为说明起见,选择了尼日尔三角洲的天然气流,其运输介质为管道。作为水合物形成评估输入的一部分,对该管道沿线的温度和压力曲线进行了进一步实施。 目前正在考虑一种基于单乙二醇 (MEG) 的水合物抑制策略。结果表明,如果温度低于 20°C,压力高于 100 巴,那么就会在形成水合物的区域出现流动配置。因此,对水浓度的估算足以提供有用的信息,作为在管道中进行气体流动时防止水合物形成的可能方法。水合物形成所需的实际热力学条件也可以从温度和压力数据中推断出来。
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Hydrate Control in Subsea Natural Gas Production
One of the most significant technological challenges that this industry faces today is securing the production flow in deep water exploration. Intense conditions of high pressure and low temperatures will favor the formation of the hydrates which could restrict or block the pathway to the extent that there can be a humungous financial loss. This research was devoted to hydrate control in subsea natural gas production using results from water concentration estimation for reservoir, wellhead and onshore receiving terminal conditions. For illustration, a natural gas stream from the Niger Delta was selected where the transportation medium is a pipeline. Further implementation as part of the hydrate formation assessment input was done on the temperature and pressure profile along this pipeline. A hydrate inhibition strategy based on monoethylene glycol (MEG) is under consideration. It is revealed that in the case if a temperature falls below 20°C and pressure will increase above 100 bar, then it would be met with a flow configuration in a region where hydrates are formed. Estimation of water concentration thus suffices to give useful information as possible prevention methods to hydrate formation while the gas flow is going on in the pipeline. The actual thermodynamic conditions required for the hydrate formation can also be deduced from the temperature and pressure data.
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