Analysis of a drilling mud-based system on the common problems related to coiled tubing application in slim-hole oil wells

Q4 Multidisciplinary
Muhammad Rafli Abdual Rahman, Bashir Busahmin, Ummul Hasanah Binti Hj Hasan
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Abstract

Coil tubing is slim and looks like a long, continuous length of pipe made from carbon steel metal that is a lesion on spool that is 1 to 3.25 inches in diameter of 26,000 feet long. The main benefit of coil tubing in drilling operations over wireline jobs is the ability to pump chemicals through the coil and the ability to push it into the hole rather than relying on gravity. Inappropriate selection of the drilling mud is one of the contributing factors to hole problems. Different experiments were conducted to determine the mud rheology of multiple mud samples. Certain parameters, like the critical velocity, are calculated using a numerical approach for the coiled tubing applications. In addition, it is crucial to determine the pump pressure required to maintain a specific flow rate. It is noted that drilling operations become more efficient at lower plastic viscosities; however, plastic viscosity is reduced through dilution; hence, the rate of penetration is improved. Moreover, a higher yield point is capable of transporting the cuttings more effectively than a lower yield point. The critical velocity indicated the boundaries between the laminar and turbulent flow regimes. As the mud flow rate inside the tubing increased, the velocity increased, causing the shear stress at the tubing wall to increase.
以钻井泥浆为基础的系统对细孔油井螺旋管应用常见问题的分析
盘管细长,看起来就像由碳钢金属制成的连续的长管,盘管直径为 1 到 3.25 英寸,长 26,000 英尺。在钻井作业中,与有线作业相比,螺旋管的主要优点是能够通过螺旋管泵送化学物质,并且能够将化学物质推入孔中,而不是依靠重力。钻井泥浆选择不当是造成钻孔问题的原因之一。为了确定多种泥浆样本的泥浆流变性,我们进行了不同的实验。某些参数,如临界速度,是通过数值方法计算出来的,用于盘管应用。此外,确定保持特定流速所需的泵压也至关重要。我们注意到,在塑性粘度较低的情况下,钻井作业会变得更加高效;然而,塑性粘度会通过稀释而降低;因此,渗透率也会提高。此外,与较低的屈服点相比,较高的屈服点能更有效地输送岩屑。临界速度表示层流和紊流状态之间的界限。随着油管内泥浆流速的增加,速度也随之增加,从而导致油管壁的剪应力增加。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Edelweiss Applied Science and Technology
Edelweiss Applied Science and Technology Multidisciplinary-Multidisciplinary
CiteScore
0.50
自引率
0.00%
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