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A novel approach for oil and gas separation by using gas hydrate technology

机译:利用天然气水合物技术进行油气分离的新方法

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It is known that gas hydrates remove the hight ends from reservoir fluids. Therefore, controlled hydrate formation in reservoir filuids could be an attractive option for separaton oil and gas; that is, to replace conventional production facilities. In this communication we present the results of an integrated experimental and modelling study on the feasibility of the process, and the impact of the various parameters on the rate of hydrate formation. The study investigated the impact of parameters, such as mixing, water history, temperature, pressure, volume of reactor, heat removal requirements, and the quality of separated liquid. The work identified the major parameters and some of the technological requirements. Based on the experimental data, a simplified mass transfer model was constructed to simulate the kinetics of the separation process and to calculate the reactor volume and heat requirements at a sopecificed degree of conversion. TShe results showed that it is possible to remove most of the lights from the liquid hydrocarbon phase by hydrate formation. The resulting liquid phase could be suitable for pipleline export or tanker loading after some treatment. Associated gas could be recovered locally from the hydrate phase,. Alternatively, in cases where there is no infrastructure for transportaing this gas, it might be exported as a hydrate slurry, as proposed by Gudmundsson and coworkers.
机译:已知气体水合物从储层流体中去除了高端。因此,对于分离油和天然气来说,控制储层流体中水合物的形成可能是一个有吸引力的选择。也就是取代传统的生产设备。在本次交流中,我们介绍了有关该工艺可行性以及各种参数对水合物形成速率的影响的综合实验和建模研究的结果。该研究调查了参数的影响,例如混合,水的历史,温度,压力,反应器的体积,除热要求以及分离出的液体的质量。这项工作确定了主要参数和一些技术要求。基于实验数据,构建了简化的传质模型,以模拟分离过程的动力学并计算转化率高的反应器体积和热量需求。结果表明,通过水合物的形成可以从液态烃相中除去大部分的光。经过某种处理后,所得液相可能适用于出油管线或油轮装载。伴生气可以从水合物相中局部回收。另外,在没有运输这种气体的基础设施的情况下,可以按照Gudmundsson和同事的建议将其作为水合物浆液出口。

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