醇聚氧乙烯醚硫酸钠和泡沫铜对甲烷水合物形成的协同效应

Hao Wang, Guiyang Ma, Zhongsheng Wang, Jinping Yu, Xiangchun Jiang
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引用次数: 0

摘要

天然气是最清洁的化石能源,其消费量正在快速增长,因此迫切需要一种高效的天然气储存和运输方式。固化天然气(SNG)技术因其较高的安全性、较低的成本以及灵活的储存和运输方式而受到越来越多的关注。为了提高 SNG 技术的甲烷吸收率,本研究对脂肪醇聚氧乙烯醚硫酸钠(AES)溶液中甲烷水合物的生长情况进行了研究,并添加了三种不同孔径(PPI)的泡沫铜(CF)。结果表明,加入 AES 后,水合物沿着壁向上生长,与纯水相比,300 ppm AES 溶液中的甲烷吸收量增加了 623%。CF 不仅为水合物提供了更多的成核点,还能传递水合过程中产生的热量。此外,AES 和 CF 之间存在协同效应,溶液可以沿着连续的金属骨架不断向上输送,从而增加气液接触面积。因此,甲烷水合物的形成率和诱导时间都得到了改善。在 20 PPI CF 系统中,水合物对甲烷的吸收率最高,压力越低,CF 促进水合物形成的能力越强。与 6 兆帕的纯 AES 系统相比,甲烷吸收率提高了 27.6%,诱导时间缩短了 59.7%。这项工作旨在推动合成天然气技术的发展(尤其是在低压条件下),并为理论基础提供依据。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Synergistic effect of alcohol polyoxyethylene ether sodium sulphate and copper foam on methane hydrate formation
Natural gas is the cleanest fossil energy source and its consumption is increasing rapidly, so an efficient natural gas way of storing and transporting is urgently needed. Solidified natural gas (SNG) technology is gaining traction because of its higher safety, lower cost, and flexible storage and transportation modes. To improve the methane uptake rate in SNG technology, this work investigated the growth of methane hydrate in fatty alcohol polyoxyethylene ether sodium sulphate (AES) solution with the addition of three different pores per inch (PPI) of copper foam (CF). The results showed that the addition of AES caused the hydrate to grow upwards along the wall, and the methane uptake in the 300 ppm AES solution was increased by 623% compared to pure water. CF not only provided more nucleation sites for hydrate but also transferred the heat generated during hydration. Moreover, there was a synergistic effect between AES and CF and the solution could continuously transport upward along the continuous metal skeleton to increase the gas–liquid contact area. Thus, the formation rate and induction time of methane hydrate improve. Hydrate had the highest methane uptake in the 20 PPI CF system and the lower the pressure, the greater the ability of CF to promote hydrate formation. The methane uptake improved by 27.6% and the induction time was reduced by 59.7% compared to the pure AES system at 6 MPa. This work is aimed at advancing SNG technology (especially at low pressure) and informs the theoretical foundation.
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