揭示气蚀重质原油改造潜力

IF 1.8 Q3 MECHANICS Fluids Pub Date : 2023-10-04 DOI:10.3390/fluids8100274
Gadel F. Baimukhametov, Aydar A. Kayumov, Aleksey V. Dengaev, Alexander F. Maksimenko, Denis A. Marakov, Vladimir A. Shishulin, Ilya M. Drozdov, Larisa V. Samuylova, Andrey A. Getalov, Firdavs A. Aliev, Alexey V. Vakhin
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引用次数: 0

摘要

超声波在碳氢化合物加工中的应用是近年来发展迅速的一项有前景的新技术。然而,声致空化侵蚀现象的研究却很少。本文采用工业频率为20 kHz的超声反应器,对阿沙茶和北共青团生产的不同粘度的水和油进行了空化侵蚀的对比研究。在超声处理流体过程中,水听器获得的声谱可以用主频率的次谐波和连续白噪声级来表征。此外,还研究了不同超声照射次数和功率水平下铝箔的空化侵蚀。研究发现,由于油中金属箔的高粘度,超声波空化过程对金属箔的侵蚀作用较小。此外,还阻碍了油相中微流的形成,这也加剧了侵蚀过程。与北共青团油样品相比,阿沙尔茶油样品的空化侵蚀强度更高。研究发现,在粘性油样中,随着超声强度的增加,空化稳定性被破坏。反过来,这导致了空化气泡的坍缩能量的降低。我们获得的结果能够评估原油中的空化侵蚀,并可用于改进监测和优化原油空化过程的方法。
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Unveiling the Potential of Cavitation Erosion-Induced Heavy Crude Oil Upgrading
The application of ultrasonic waves in the processing of hydrocarbons is a new promising technology that has developed rapidly in recent years. However, the acoustic-induced cavitation erosion phenomenon is poorly studied. In this paper, a comparison study of cavitation erosion was carried out in water and oils with different viscosities produced from Ashal’cha and North Komsomol using an ultrasonic reactor operating at an industrial frequency of 20 kHz. The acoustic spectra obtained from hydrophones during the ultrasonic treatment of fluids can be characterized by using subharmonics of the main frequency and a continuous white noise level. Moreover, the cavitation erosion of aluminum foil under various ultrasound irradiation times and power levels was thoroughly investigated. It has been found that the process of ultrasonic cavitation has a less erosive impact on metal foil in oil due to its high viscosity. In addition, the formation of microflows in the oil phase, which also intensify the erosion process, is hindered. Cavitation erosion in the Ashal’cha oil sample exhibited a higher intensity compared to that in the North Komsomol oil sample. It was found that upon increasing ultrasound intensity in the case of the viscous (Ashal’cha) oil sample, cavitation stability was disrupted. In turn, this led to a reduction in the collapse energy of the cavitation bubbles. The results we obtained enable the assessment of cavitation erosion in crude oil and could be used to improve methodologies for monitoring and optimizing cavitation processes in crude oil.
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来源期刊
Fluids
Fluids Engineering-Mechanical Engineering
CiteScore
3.40
自引率
10.50%
发文量
326
审稿时长
12 weeks
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