Title of article
Improving the fluid loss and rheological characteristics of Oilbased drilling fluid by using Copper Oxide nanoparticles
Author/Authors
Naderi, Mohamad Esmaiel Department of Chemical Engineering - Ayatollah Amoli Branch - Islamic Azad University , Khavarpour, Maryam Department of Chemical Engineering - Ayatollah Amoli Branch - Islamic Azad University , Fazaeli, Reza Department of Chemical Engineering - Faculty of Engineering - Islamic Azad University - South Tehran Branch , Ghadi, Arezoo Department of Chemical Engineering - Ayatollah Amoli Branch - Islamic Azad University
Pages
9
From page
205
To page
213
Abstract
A successful drilling operation depends strongly on a useful drilling fluid system. Using nanoparticles (NP)s to formulate intelligent drilling fluids gives them a wide range of optimal properties under different operating conditions and resolves any operational problems. In this study, in order to provide an effective solution for improving the rheological and high pressure/high temperature (HPHT) filtration properties of the oil-based drilling fluid (OBDF), copper oxide (CuO) NPs were synthesized with dandelion morphology. CuO dandelions were characterized by using XRD, FTIR, SEM, and zeta potential measurements. A long time stabilized nanofluid (NF) was prepared and evaluated. The OBDF samples consisting of various amounts of NF ranging from 1 to 11% (V/V) were prepared. Then, the fluid loss and rheological properties of OBDF were examined. The results showed that the OBDF containing 7% (V/V) NF was appropriate to improve the rheological properties such as yield point (YP), apparent viscosity (AV), and gel strength (GS). In addition, the minimum HPHT filtration value of 2 ml was acquired for the drilling fluid containing 9% (V/V) NF. In conclusion, CuO NPs demonstrated a positive effect on the performance of the OBDF system.
Keywords
Dandelion Morphology , HPHT Filtration , Nanofluid , Viscosity , Yield Point
Journal title
International Journal of Nano Dimension (IJND)
Serial Year
2022
Record number
2704612
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