Commentary - (2021) Volume 0, Issue 0

Interfacial Tension of Hybrid ZnO/SiO2 Nanofluids Electromagnetically Modified
Khalid RAHMAN*
Department of Polydisciplinary, OuarzazateIbn Zohr University, Morocco
*Correspondence: Khalid RAHMAN, Department of Polydisciplinary, OuarzazateIbn Zohr University, Morocco, Email:

Received: 03-Dec-2021;Accepted Date: Dec 17, 2021; Published: 24-Dec-2021


The average Because of various factors influencing its versatility, raw petroleum extraction is causing serious problems all over the world; as a result, the oil production methodology needs to be improved. Various nanoparticles (NPs) have recently been discovered to support oil uprooting in order to further develop oil creation by altering some repository conditions, thereby reducing interfacial strain (IFT) and rock surface wettability. However, because of the high temperature and strain, the infused NPs in the repository become trapped inside the stone pores and rendered useless. Following that, using electromagnetic (EM) waves to acquaint energy with nanofluids can improve nanoparticle (NPs) portability in the repository, allowing for oil relocations.

ZnO/SiO2 NPs reduced the IFT (mN/m) from 17.39 to 2.91 and the wettability () from 141 to 61, according to the results. Furthermore, by acquainting the EM waves with the liquids, the IFT was reduced from 16.70 mN/m to 0.02 mN/m, and the strong surface wettability was reduced from 132 to 58. The progress observed when the liquids were exposed to EM waves was attributed to the energy emitted by the NPs, which spellbind the free charges of the NPs and thus actuate the liquids by creating unsettling influences at the liquid/oil interface, resulting in decreased IFT and wettability.’

Unrefined petroleum, also known as hydrocarbons, is a significant source of energy that has contributed to the global economy for more than a century . Nonetheless, unrefined petroleum extraction methodologies have degraded to the point where over 70% of the remaining unrefined petroleum cannot be extracted from the supply using traditional methods. The never-ending catching of unrefined petroleum inside the stone developments is the source of this problem. As a result, modifying oil extraction techniques is critical to achieving the goal of further developing raw petroleum extraction. Separating oil from the supply through the natural stream/portability of unrefined petroleum without the need for external hardware to improve oil portability is the key strategy.

The ability of NPs to adjust repository attributes, such as IFT and rock surface wettability, which can further develop oil efficiency, is one of their most important uses in the supply. The current study looked at the effect of half-breed ZnO/ SiO2 NPs on wettability and IFT induced by electromagnetic waves. Nanofluids were ready for IFT and wettability testing along these lines. When half breed NPs were used before uncovered individual NPs, a significant reduction in IFT and wettability was observed. In addition, when EM waves were activated, IFT improved dramatically (by 99 percent) when compared to readily available writing reports.

The EM waves’ energy improved the enactment of liquids by further developing the liquid and liquid strong contact relationship, resulting in a significant reduction in IFT and wettability change, which can improve the utility of unrefined petroleum. The current result is only speculatively achievable; however, if implemented in the oil field, this approach is expected to be noteworthy. By the by, an exact estimate of the expected recurrence and hotness that are reasonable for supply conditions is required, which can be accomplished through the proper planning of the scientific and hypothetical displaying to be carried out


The authors are grateful to the journal editor and the anonymous reviewers for their helpful comments and suggestions.

Conflict of Interest

The authors declared no potential conflicts of interest for the research, authorship, and/or publication of this article.

Copyright: This is an open access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.

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