超硬地层激光钻井

S. Batarseh, A. M. Al-Harith, Wisam J. Assiri, D. S. R. Alerigi
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引用次数: 4

摘要

这项工作的目的是证明高功率激光束在极硬地层中钻探的成功和能力。结果表明,在这些地层中的钻进速度比常规钻井方法快得多。具有高抗压强度的地层可以阻止或减缓钻井和岩石穿透。为了克服传统钻井方法的局限性,建立了一个高功率激光项目,并提供了一种创新的非破坏性技术,作为现有方法的替代方案。该技术不仅能够在极其坚硬的地层中钻井,还能在不影响井筒完整性的情况下提高岩石的性质。在过去的二十年里,研究人员试图将高功率激光技术应用于多种井下应用,但由于穿透岩石所需的功率不足,没有成功。近年来,激光技术不断发展和进步,创造了紧凑、高效、高功率和经济可行的系统。设计了一个实验装置来评估高功率激光在不同岩石类型和不同抗压强度(从12,000到43,000 psi)下的性能。这些样品暴露在高功率激光下进行了几次应用。结果表明,高功率激光可以在几秒钟内穿透极端的岩层,例如,在实验室规模下,钻3英寸的玄武岩(43,000 psi抗压强度)需要3秒钟。无论岩石的抗压强度和硬度如何,其流动特性都得到了增强。激光技术以其独特的特性吸引了石油和天然气行业,例如精确控制和定向任何方向的能量。激光钻井与储层应力方向和大小无关。激光产生装置安装在地面上,激光束通过光纤电缆输送到井下。该系统占地面积最小,是一种环保技术,可以同时钻井和下套管。高功率激光有可能成为下一代智能钻完井技术,改变目前的作业方式。最先进的高功率激光技术提供了一种创新和安全的非爆炸性技术。精度、速度、占地面积小和可靠性是该技术在井下应用中具有吸引力的一些特性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Laser Drilling in Extremely Hard Formation
The objective of this work is to demonstrate the success and the ability of high power lasers beam to drill in extremely hard formations. The result showed that the rate of penetration in these formations is much faster than conventional drilling methods. Formations with high compressive strength can prevent or slow drilling and rock penetration. A High power laser program was established to overcome the limitations of conventional drilling methods and provide an innovative non-damaging technology as alternatives to current practices. The technology is not only able to drill in extremely hard formations but also enhances rock properties without compromising wellbore integrity. For the past two decades, researchers attempted to deploy high power laser technology for several downhole applications, with no success because the power needed to penetrate the rock was insufficient. Laser technology has evolved and advanced recently, creating compact efficient, higher power, and economically feasible systems. An experimental setup was designed to evaluate the performance of a high power laser in different rock types and with different compressive strengths, ranging from 12,000 to 43,000 psi. These samples were exposed to a high power laser for several applications. The results demonstrated that a high power laser could penetrate extreme rock formation in seconds, for example, at the lab scale, it took 3 seconds to drill 3 inches of basalt (43,000 psi compressive strength). The flow properties were also enhanced regardless of the compressive strength and hardness of the rock. Laser technology attracted the oil and gas industry due to its unique features, such as the precision in controlling and orienting the energy in any direction. Laser drilling is independent of the reservoir stress orientation and magnitude. The laser generation unit is mounted on the surface and the laser beam delivered downhole via fiber optics cable. The system has a minimal footprint, is an environmentally friendly technology, and can drill and case simultaneously. High power lasers have the potential to be the next intelligent drilling and completion generation that will change current practice. State-of-the-art high power laser technology provides an innovative and safe non-explosive based technology. Precision, speed, small footprint, and reliability are some of the properties of the technology that make it attractive for downhole applications.
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