Laser Technology for Downhole Applications; Past, Present and Future

S. Batarseh, S. Mutairi, D. P. San Roman Alerigi, Abdullah Al Harith
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Abstract

The objective of this work is to provide an overview of high power laser program since it is inception and to provide the strategy to make it reality. An overview of the past two decades, current and future plan to deploy the technology in the field. Laser attracted the oil and gas industry as an innovative non-damaging technology and alternatives to current practices. The lab success conducted over the past 20 years performing experiments on thousands of representative rock samples proved the key parameter for successful laser operation in the field. The technology is not only a non-damaging but also improves flow properties and communication between the wellbore and the hydrocarbon bearing formation. For the past two decades, researchers attempted to deploy high power laser technology for several downhole applications due to its unique properties such as accuracy, precision, and power. The power of the earlier laser generation was insufficient to penetrate subsurface formations. Recent advancement in the high power laser technology generates new and evolved systems that are more compact, efficient, and cost effective for downhole applications. Thousands of rocks have been exposed to high power lasers radiations for several downhole applications such as perforation, drilling and heating. The success of the technology demonstrated that in all rock types, the flow properties were enhanced regardless of their compressive strength and hardness. Laser also has unique futures such as the precision in controlling and orienting the energy in any direction regardless of the reservoir stress orientation and magnitude. The beam is generated at the surface and delivered downhole via fiber optics cable, it can be targeted directly to the pay zone to enable production from challenging zones that cannot and could not be achieved with current technology. The technology provides small footprint and environmentally friendly technology, it provides waterless technology as an alternative to water base fracturing technology.
激光井下应用技术过去,现在和未来
本工作的目的是提供高功率激光计划的概述,因为它是成立的,并提供战略,使其成为现实。概述了过去二十年,当前和未来在该领域部署该技术的计划。激光作为一种创新的非破坏性技术和现有技术的替代品,吸引了石油和天然气行业。在过去的20年里,实验室对数千个有代表性的岩石样品进行了成功的实验,证明了激光在现场成功操作的关键参数。该技术不仅不具有破坏性,而且还改善了井筒与含油气地层之间的流动特性和连通性。在过去的二十年中,由于高功率激光技术具有精度、精度和功率等独特特性,研究人员试图将其应用于多种井下应用。早期激光的功率不足以穿透地下地层。高功率激光技术的最新进展产生了新的和不断发展的系统,这些系统更紧凑,更高效,更符合井下应用的成本效益。成千上万的岩石暴露在高功率激光辐射下,用于射孔、钻井和加热等井下应用。该技术的成功表明,在所有岩石类型中,无论其抗压强度和硬度如何,流动特性都得到了改善。激光也有其独特的未来,如在任何方向上控制和定向能量的精度,而不考虑储层应力的方向和大小。光束在地面产生,并通过光纤电缆输送到井下,可以直接瞄准产层,从而在现有技术无法实现的具有挑战性的产层进行生产。该技术占地面积小,对环境友好,是水基压裂技术的替代技术。
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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