高纵横比、小直径、偏远、密闭空间的自动钻孔

Michal K. Rittikaidachar, Clinton G. Hobart, Jonathon E. Slightam, Jiann-Cherng Su, S. Buerger
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引用次数: 0

摘要

我们描述了一种机电一体化系统的开发和台式原型性能表征,该系统可自动钻取任意深度的小直径井,从而实现对油气井完整性的现场监测。小直径、高纵横比井眼的精确钻进,特别是在尺寸受限的空间中,会带来一些挑战,包括钻头屈曲、有限的扭转刚度、切屑清理以及钻头和机构的有限空间。我们描述了一种紧凑的机制,通过在整个过程中最大限度地减少无支撑钻头的长度来克服这些问题,使钻头能够随着深度的增加而逐步从卡盘进给。当使用柔性钻头时,任意深度和纵横比的孔都可以与井眼正交。在深孔钻井作业中对其机理和常规钻井系统进行了试验。实验结果表明,该系统可以正常工作,与使用非常长的钻头的常规方法相比,可以获得更大的纵横比。该机构成功地钻出了1/16″直径的井眼,井深为9″,比例为144:1。功能障碍阻碍了使用常规方法钻进相同的孔。
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Automated Drilling of High Aspect Ratio, Small Diameter Holes in Remote, Confined Spaces
We describe the development and benchtop prototype performance characterization of a mechatronic system for automatically drilling small diameter holes of arbitrary depth, to enable monitoring the integrity of oil and gas wells in situ. The precise drilling of very small diameter, high aspect ratio holes, particularly in dimensionally constrained spaces, presents several challenges including bit buckling, limited torsional stiffness, chip clearing, and limited space for the bit and mechanism. We describe a compact mechanism that overcomes these issues by minimizing the unsupported drill bit length throughout the process, enabling the bit to be progressively fed from a chuck as depth increases. When used with flexible drill bits, holes of arbitrary depth and aspect ratio may be drilled orthogonal to the wellbore. The mechanism and a conventional drilling system are tested in deep hole drilling operation. The experimental results show that the system operates as intended and achieves holes with substantially greater aspect ratios than conventional methods with very long drill bits. The mechanism enabled successful drilling of a 1/16″ diameter hole to a depth of 9″, a ratio of 144:1. Dysfunctions prevented drilling of the same hole using conventional methods.
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