Evaluation of High-Temperature Recrosslinkable Preformed Particle Gel for Fluid Loss Control during Drilling

Baojun Bai, Mohamed Ahdaya, Ali Al Brahim, T. Song, Yugandhara Eriyagama
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Abstract

Lost circulation has become one of the biggest challenges that drilling engineering faces during drilling, especially at high-temperature reservoirs. The consequences of lost circulation can vary from an economic aspect as well as a safety aspect. In this paper, the capability of a novel high-temperature recrosslinkable preformed particle gel (HT-RPPG) is evaluated to see whether it can be better used to control severe and total losses. The HT-RPPG is injected in the form of dispersed swellable gel particles, but it can self-crosslink to form a strong bulk gel after being placed in target zones. The sealing pressure and plugging efficiency of the HT-RPPG were evaluated utilizing a core flooding test. Various impacting factors were investigated, including the swelling ratios, fracture widths, and bentonite concentrations. Results indicated that HT-RPPG is an excellent material that can be used to control the severe loss of drilling fluids in fractured reservoirs with temperatures up to 130°C. The recrosslinked RPPG could withstand pressure up to 1,077 psi/ft for fractures up to 2 mm, and permeability was reduced more than 107 times.
评估高温可再交联预成型颗粒凝胶在钻井过程中的液损控制作用
漏失已经成为钻井工程在钻井过程中面临的最大挑战之一,特别是在高温油藏中。漏失的后果既有经济方面的影响,也有安全方面的影响。本文对一种新型高温可再交联预成型颗粒凝胶(HT-RPPG)的性能进行了评估,看看它是否能更好地用于控制严重和完全的漏失。HT-RPPG以分散的可膨胀凝胶颗粒的形式注入,但在放置于目标区域后,它可以自交联形成强大的大块凝胶。通过岩心驱替试验,对HT-RPPG的密封压力和封堵效率进行了评价。研究了各种影响因素,包括膨胀比、裂缝宽度和膨润土浓度。结果表明,HT-RPPG是一种优异的材料,可用于控制温度高达130℃的裂缝性储层的严重钻井液漏失。再交联的RPPG可以承受高达1077 psi/ft的压力,裂缝深度为2mm,渗透率降低了107倍以上。
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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