氦资源的地质条件、遗传机制和积累模式

IF 7 Q1 ENERGY & FUELS
Shizhen TAO, Yiqing YANG, Yue CHEN, Xiangbai LIU, Wei YANG, Jian LI, Yiping WU, Xiaowan TAO, Jianrong GAO, Yanyan CHEN, Xiaobo WANG, Xiaozhi WU, Xiuyan CHEN, Qian LI, Jinhua JIA
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引用次数: 0

摘要

以石油系统方法论为基础,通过对典型富氦气田的解剖和地球化学研究,探讨了天然气中氦资源的地质条件、成因机制和积聚模式。氦气在生成、迁移和积累方面与其他天然气资源有很大不同。氦气是由于基底富含 U/Th 元素的缓慢阿尔法衰变生成的,或者是从深部地壳和地幔中释放出来的,然后沿着复合运移系统迁移到天然气储层,与合适的载气一起积聚在储层中。氦的迁移和运移受岩石圈断层、基底层断层、沉积层断层和有效运移层组成的运移系统控制。基于对地下流体中氦-气-水相平衡和相位耦合的分析,提出了氦迁移和富集过程中的三种发生状态,即水溶相、气溶相和游离相,以及氦的三种迁移模式,即质量流、渗流和扩散。富氦气藏的形成和富集受优质氦源、高效运移和合适载体三大因素控制,并符合外溶汇聚、浮力驱动和压差位移三种富集机理。发现的富氦气藏遵循 "近氦源、邻断层、低势区、高位置 "的分布规律和富集模式。要勘探和评价富氦气区,必须同时/平行勘探天然气。综合评价和选择具有 "源阱相连、低流势高位、天然气量与氦气量适配 "特征的富氦盈利区,应重点关注氦气 "源、迁徙、积聚要素 "与天然气 "源、储层、盖层条件 "的耦合匹配,以及局部低流势高位的有利载气阱区。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Geological conditions, genetic mechanisms and accumulation patterns of helium resources

Based on the methodology for petroleum systems and through the anatomy and geochemical study of typical helium-rich gas fields, the geological conditions, genesis mechanisms, and accumulation patterns of helium resources in natural gas are investigated. Helium differs greatly from other natural gas resources in generation, migration, and accumulation. Helium is generated due to the slow alpha decay of basement U/Th-rich elements or released from the deep crust and mantle, and then migrates along the composite transport system to natural gas reservoirs, where it accumulates with a suitable carrier gas. Helium migration and transport are controlled by the transport system consisting of lithospheric faults, basement faults, sedimentary layer faults, and effective transport layers. Based on the analysis of the helium-gas-water phase equilibrium in underground fluids and the phase-potential coupling, three occurrence states, i.e. water-soluble phase, gas-soluble phase and free phase, in the process of helium migration and accumulation, and three migration modes of helium, i.e. mass flow, seepage, and diffusion, are proposed. The formation and enrichment of helium-rich gas reservoirs are controlled by three major factors, i.e. high-quality helium source, high-efficiency transport and suitable carrier, and conform to three accumulation mechanisms, i.e. exsolution and convergence, buoyancy-driven, and differential pressure displacement. The helium-rich gas reservoirs discovered follow the distribution rule and accumulation pattern of “near helium source, adjacent to fault, low potential area, and high position”. To explore and evaluate helium-rich areas, it is necessary to conduct concurrent/parallel exploration of natural gas. The comprehensive evaluation and selection of profitable helium-rich areas with the characteristics of “source-trap connected, low fluid potential and high position, and proper natural gas volume matched with helium’s” should focus on the coupling and matching of the helium “source, migration, and accumulation elements” with the natural gas “source, reservoir and caprock conditions”, and favorable carrier gas trap areas in local low fluid potential and high positions.

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CiteScore
11.50
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