超深致密气藏地层损害控制技术面临的挑战:塔里木盆地案例研究

Dujie Zhang
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摘要

致密气藏的地层损害机理和相应的控制技术已有报道,但很少有研究讨论超深裂缝致密气藏。超深压裂致密气藏由于地质条件和工程状态的原因,很容易受到损害。以塔里木盆地的超深裂缝致密气藏为例,超致密、高压、高温(HPHT)、高盐度地层水、超低水饱和度和裂缝网络是其特殊的地质特征。高密度油基钻井液和严重的循环损失是特殊的工程状况。地层损害评估实验室实验面临的挑战包括严格的实验条件和不合适的实验方法。此外,提高工作液的地层保护能力和最大限度地减少因连续使用不同类型工作液而造成的地层损害也是使用工作液的主要挑战。失去循环控制方面的挑战包括失去循环材料降解导致的堵塞区失效,以及柴油浸泡堵塞区强度降低导致的重复失去循环。提出了改进针对性地层损害控制技术的关键技术建议。对这些问题的综合分析为地层损害控制技术的研究提供了路线图。
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Challenges of formation damage control technology for ultra-deep tight gas reservoirs: A case study from Tarim Basin

Formation damage mechanisms and the corresponding control technology for the tight gas reservoirs have been reported, whereas few studies have discussed ultra-deep fractured tight gas reservoirs. Ultra-deep fractured tight gas reservoirs were susceptible to be damaged owing to geological conditions and engineering status. Taking the ultra-deep fractured tight gas reservoirs located in the Tarim Basin as an example, ultra-tight, high-pressure, high temperature (HPHT), and high-salinity formation water, ultra-low water saturation and fracture networks were identified as special geological characteristics. High-density oil-based drill-in fluids and serious lost circulation were the special engineering status. Challenges in laboratory experiments to evaluate formation damage include rigorous experimental conditions and unsuitable experimental methods. In addition, improving the formation protection ability of working fluids and minimizing the formation damage induced by the sequential use of different types of working fluids were the main challenges associated with using working fluids. Challenges in lost circulation control include the failure of plugging zone due to the degradation of lost circulation materials and repeated lost circulation due to the strength reduction of the plugging zone soaked in diesel oil. Recommendations for key technologies to improve targeted formation damage control technology have been proposed. The comprehensive analysis of these issues provides a road-map for researching formation damage control technologies.

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