Research Progress and Prospect of Key Treatment Agents for Intelligent Water-Based Drilling Fluids
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摘要: 相较于传统水基钻井液，智能水基钻井液具备“自识别、自调节、自适应”等智能化特征，有望从本质上破解当前钻井液领域面临的技术瓶颈，是未来更具发展潜力的方向. 在文献调研的基础上，围绕分子设计、响应机理与性能评价3个方面，系统综述了智能水基钻井液关键处理剂（包括流型调节剂、降滤失剂、页岩抑制剂、增粘剂和堵漏材料）的研究进展，进而针对各类智能处理剂存在的关键技术问题，进一步展望了其未来发展趋势，以期为智能钻井液体系构建提供理论参考.Abstract: Compared with traditional water-based drilling fluids, intelligent water-based drilling fluids possess intelligent features such as "self-recognition, self-regulation, and self-adaptation", and are expected to fundamentally break through the technical bottlenecks currently faced in the drilling fluid field. They represent a more promising direction for future development. Based on a literature review, this paper systematically summarizes research progress on key additives for intelligent water-based drilling fluids: including flow-type modifiers, loss reducers, shale inhibitors, viscosity enhancers, and leak-sealing materials: across three dimensions: molecular design, response mechanisms, and performance evaluation. Furthermore, addressing critical technical challenges associated with various intelligent additives, it outlines future development directions to provide theoretical guidance for constructing intelligent drilling fluid systems.
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图 1 双面结构复合材料的作用机制(据Tchameni et al., 2024)
Fig. 1. Mechanism of action of double-sided structural composites(after Tchameni et al., 2024)
图 2 温敏抑制剂SNAS作用机制(据Lai et al., 2023)
Fig. 2. Mechanism of action of the thermosensitive inhibitor SNAS(after Lai et al., 2023)
图 3 盐响应降滤失剂EHL-ASN作用机理(据Sun et al., 2021)
Fig. 3. Mechanism of action of salt-responsive fluid loss reducer EHL-ASN(after Sun et al., 2021)
图 4 盐响应降滤失剂DADC作用机理(据Li et al., 2024)
Fig. 4. Mechanism of action of salt-responsive fluid loss reducer DADC(after Li et al., 2024)
图 5 温敏变形材料对地层微裂缝定向封堵(据孔勇, 2021)
Fig. 5. Directional sealing of micro-fractures by temperature-sensitive deformation materials(after Kong, 2021)
图 6 CK-D自愈合机制(据桑宇彤, 2023)
Fig. 6. CK-D self-healing mechanism(after Sang, 2023)
图 7 温敏型流型调节剂CGBA作用机理(据Tchameni et al., 2021)
Fig. 7. Mechanism of action of temperature-sensitive flow pattern regulator CGBA(after Tchameni et al., 2021)
图 8 盐响应型增粘剂FPOD作用机理(据Wang et al., 2024c)
Fig. 8. Mechanism of action of salt-responsive tackifier FPOD(after Wang et al., 2024c)
图 9 分子模拟盐响应机理(据Sun et al., 2020)
Fig. 9. Molecular simulation of salt response mechanism(after Sun et al., 2020)
图 10 聚合物PAADS的盐响应增稠机理(据Wang et al., 2024b)
Fig. 10. Salt-response thickening mechanism of polymer PAADS(after Wang et al., 2024b)
表 1 智能水基钻井液关键处理剂综合对比
Table 1. Comprehensive comparison of key additives for intelligent water-based drilling fluids
智能处理剂 响应机制 核心优势 主要局限 适用工况 耐温上限 耐盐能力 抑制剂 温敏相变/多功能集成 热致疏水封堵，部分兼降滤失性 耐温普遍不超过150 ℃，不适用深部地层 中浅层页岩地层 150 ℃ / 降滤失剂 盐敏/pH响应 高盐下自动增稠降滤失，降滤失率可达90%以上 多价离子抗干扰弱 盐膏层高矿化度地层 150~200 ℃ 饱和NaCl 堵漏材料 形状记忆/自愈合/温敏膨胀 自适应孔裂缝形状，自愈合恢复完整性 长效封堵与可降解难兼顾 微孔隙/微裂缝地层（封堵剂）；毫米级以上裂缝/孔洞地层（堵漏剂） 180 ℃ 部分耐20%NaCl 恒流变调节剂 温敏亲疏水可逆转变 宽温域流变平稳，4~75 ℃波动 < 30% 高温(> 180 ℃)及高矿化度下长期稳定性不好 深水钻井 150~180 ℃ 部分耐20%NaCl 增粘剂 盐敏/温敏 高温高盐下黏度保持率 > 60% 盐敏型耐温 < 180 ℃，温敏型耐盐 < 20%NaCl 高温高盐复合工况 150~230 ℃ 5%~20%NaCl 
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