氦在含油盆地中的分布和积累机制

IF 6 2区 地球科学 Q1 GEOSCIENCES, MULTIDISCIPLINARY Science China Earth Sciences Pub Date : 2024-09-05 DOI:10.1007/s11430-023-1365-4
Pengpeng Li, Quanyou Liu, Dongya Zhu, Di Zhu, Zheng Zhou, Xiaoqi Wu, Qingqiang Meng, Jiahao Lv, Yu Gao
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引用次数: 0

摘要

氦是一种不可替代的战略矿产资源,全球商业富氦气田(He>0.1%)通常是在油气勘探过程中偶然发现的。根据对全球 75 个富氦气田和 1048 个天然气样本的分析,天然气中的氦通常表现出 "稀缺"、"伴生 "和 "复杂 "的特性,富氦气田通常出现在 4500 米深处。然而,前两类气田的地质储量主要在 107-1011 立方米之间,而后者仅在 105-107 立方米之间。然而,氦气和气态碳氢化合物在成因和迁移模式上存在显著差异。氦气在积累和长距离迁移过程中都需要载体(如地层水、烃类流体、N2、地幔流体等),迁移通道不仅限于沉积地层,还可能延伸到盆地的基底、下地壳甚至岩石圈地幔。不过,一般认为氦气和气态碳氢化合物的积聚条件是相同的。气态碳氢化合物的存在既有利于氦在含氦流体中的快速溶解,也有利于氦随后在气态碳氢化合物中的有效聚集,同时两者都能减少氦的扩散,降低逃逸通量。就盖岩而言,作为密封层的石膏、盐和厚页岩有助于在地质时间尺度上长期保存氦。大型富氦气田,主要是壳源气田,主要集中在古板块盆地的隆起带及其周边地区。根据 He 浓度与 He/N2 比率关系图,地壳源氦气田可分为基底、基底-沉积岩组合和沉积岩供氦类型。综合考虑中国的氦气品位、氦气资源禀赋、天然气工业化进程和目前的氦气提纯工艺,氦气商业化生产的首要部署区应是位于中国中西部的鄂尔多斯盆地、塔里木盆地、四川盆地和柴达木盆地的富氦气田。此外,某些(特大)含氦气田也是重要的接替区。
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Distributions and accumulation mechanisms of helium in petroliferous basins

Helium is an irreplaceable strategic mineral resource, and commercial helium-rich gas fields (He>0.1%) worldwide are typically discovered serendipitously during hydrocarbon exploration efforts. According to an analysis of 75 helium-rich gas fields and 1048 natural gas samples worldwide, helium in natural gas generally exhibits “scarce”, “accompanying”, and “complex” properties, and helium-rich gas fields often occur at depths <4500 m. Helium concentrations in He-CH4 and He-CO2 gas fields are notably lower than those in He-N2 gas fields (He>1%). However, geological reserves in the former two types of gas fields are mainly in the range of 107–1011 m3, whereas in the latter, they are only in the range of 105–107 m3. There are nevertheless notable disparities in the genesis and migration patterns between helium and gaseous hydrocarbons. Helium necessitates carriers (such as formation water, hydrocarbon fluids, N2, mantle-derived fluids, etc.) during both accumulation and long-distance migration processes, where migration conduits are not confined to sedimentary strata, and may extend to the basin’s basement, lower crust, and even lithospheric mantle. However, the accumulation conditions of both helium and gaseous hydrocarbons are generally considered equivalent. The presence of gaseous hydrocarbons facilitates both the rapid exsolution of helium within helium-containing fluids and subsequent efficient aggregation in gaseous hydrocarbons, while both reduce helium diffusion and diminish escape flux. In terms of caprock, gypsum, salt, and thick shale as sealing layers contribute to the long-term preservation of helium over geological timescales. Large helium-rich gas fields, predominantly crust-derived gas fields, are primarily concentrated in uplifted zones of ancient cratonic basins and their peripheries. Based on a diagram of the He concentration versus He/N2 ratio, crust-derived helium fields can be categorized as basement, combined basement-sedimentary rock, and sedimentary rock helium supply types. Comprehensively given China’s helium grade, helium resource endowment, natural gas industrialization process, and current helium purification processes, the foremost deployment zones for the commercial production of helium should be the helium-rich gas fields located in the Ordos, Tarim, Sichuan, and Qaidam Basins in western and central China. In addition, certain (extra) large helium-containing gas fields serve as important replacement zones.

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来源期刊
Science China Earth Sciences
Science China Earth Sciences GEOSCIENCES, MULTIDISCIPLINARY-
CiteScore
9.60
自引率
5.30%
发文量
135
审稿时长
3-8 weeks
期刊介绍: Science China Earth Sciences, an academic journal cosponsored by the Chinese Academy of Sciences and the National Natural Science Foundation of China, and published by Science China Press, is committed to publishing high-quality, original results in both basic and applied research.
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