倾斜环空钻井液中岩屑运移的研究

Sangmok Han, N. Woo, Young-Ju Kim
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摘要

本文研究了倾斜环形管内高混合流中固体颗粒的迁移。对环管内非牛顿流体进行了轴向流动和内筒旋转环管内层区非牛顿流体的实验研究。结果表明,重力作用在颗粒流上对定向钻井、岩屑颗粒运动和岩屑运移起着非常重要的作用。测量了钻井液(CMC和膨润土溶液)与钻杆倾角和旋转相对应的压降和颗粒速度。由于壁面与固体颗粒之间的摩擦,混合流动引起的水力压降增大。此外,由于流体流中固体颗粒之间的摩擦,高颗粒进料浓度增加了压降。本研究证实了旋转环空管和倾斜环空管对粒子输运现象的优越性。
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A STUDY ON CUTTINGS TRANSPORT IN DRILLING FLUIDS WITH INCLINED ANNULUS
This paper examines the migration of solid particles in a high-mixing flow inside an inclined annular pipe. An experimental study of non-Newtonian fluids in the layer region through annular tubes with axial flow and rotation of the inner cylinder was carried out. It was demonstrated that the gravitational force acting on the particle stream plays a very important role in directional drilling, cuttings particle movement, and cuttings transport. The pressure drop and the particle velocity of the drilling fluid (CMC and Bentonite solution) corresponding to the inclination and rotation of the drill pipe were measured. The hydraulic pressure drop owing to the mixture flow increased because of the friction between the wall and the solid particles. Further, a high particle feed concentration increased the pressure drop because of the friction between the solid particles in the fluid stream. The advantages of a rotating and an inclined annulus pipe, for the particle transport phenomena, were confirmed in this study.
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