行星破岩体和水平钻孔

V. Skripka, L. H. Minyazeva
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引用次数: 0

摘要

背景。本文考虑了原行星钻孔机构的一种变型,即利用多次撞击来破坏质量。这使得通过显著降低所需的进给力和降低井底破坏的能量强度来改进斜井和水平井的钻井方法成为可能。研究钻井方法和工具,在形成斜井和水平井时,可以使用这些方法和工具显著减小钻井方向的变化半径。材料和方法。专利信息分析及其在实验室条件下的实验验证。所分析的钻体的主要优势在于其破岩能力,由于多个冲击脉冲指向工作面有一定角度。这使得裂缝的能量强度和轴向所需的进给力显著降低,从而提供更大的井筒直径。钻体轴向长度的减小导致钻井方向变化半径的减小,从而有助于提高井筒钻井技术,特别是在水平井中。行星破岩体通过多个冲击脉冲和从自动形成的波浪形表面剥落岩石碎片实现准动态岩石破坏。在此基础上,可以对现代斜井和水平井钻井技术进行改进。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Planetary rock-breaking bodies and horizontal drilling
Background. The article considers one of the variants of the original planetary drilling organ, in which used multiple impacts on the mass to be destroyed. This makes it possible to improve the methods of sinking inclined and horizontal wells by significantly reducing the required feed force and reducing the energy intensity of bottom hole destructionAim. To investigate drilling methods and tools, which can be used to significantly reduce the radius of changes in drilling direction when creating inclined and horizontal wellbores.Materials and methods. An analysis of patent information and its experimental verification under laboratory conditions.Results. The main advantage of the analyzed drilling bodies is associated with their rock-breaking ability due to multiple shock pulses directed at an angle to the face surface. This allows the energy intensity of fracture and the required feed force in the axial direction to be significantly reduced, thus providing for larger wellbore diameters. A reduction in the axial length of the drilling body leads to a decrease in the radius of changes in drilling direction, thereby contributing to improved technologies of wellbore drilling, in particular, when creating horizontal wellbores.Conclusion. Planetary rock-breaking bodies implement quasi-dynamic rock destruction by multiple shock pulses and spalling off rock pieces from an automatically formed wavy face surface. On this basis, modern technologies of drilling inclined and horizontal wellbores can be improved.
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