C. Potter, C. J. Schenk, T. Mercier, M. Tennyson, T. Finn, Cheryl A. Woodall, Heidi M. Leathers-Miller, K. Marra, P. Le, R. M. Drake, M. Brownfield, J. Pitman
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Although numerous oil and gas fields have been developed along its northern margin and in several uplifts in the basin’s interior, large parts of this remote basin remain unexplored. The USGS previously assessed the Tarim Basin’s conventional oil and gas resources (Charpentier and others, 2012). Paleozoic marine formations are currently preserved at depth and locally exposed around the basin’s periphery. They were deposited on the passive margin of the Tarim craton, a continental fragment proximal to the Gondwana margin. Since the late Paleozoic assembly of Central Asia, the Tarim Basin has been a vast nonmarine basin bounded on the south by the Tibetan Plateau and on the north by the Tien Shan. From the Carboniferous to the present, the basin’s margins have been strongly influenced by contractional deformation, including the ongoing Himalayan orogeny. This tectonic history has resulted in a relatively cool geothermal setting throughout the basin’s history; the current geothermal gradient is in the range of 20–23 degrees Celsius per km (Zhang, Huang, and others, 2015). Geologic Background","PeriodicalId":36286,"journal":{"name":"U.S. Geological Survey Fact Sheet","volume":"1 1","pages":""},"PeriodicalIF":0.0000,"publicationDate":"2019-01-01","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"1","resultStr":"{\"title\":\"Assessment of Paleozoic Shale-Oil and Shale-Gas Resources in the Tarim Basin of China, 2018\",\"authors\":\"C. Potter, C. J. Schenk, T. Mercier, M. Tennyson, T. Finn, Cheryl A. Woodall, Heidi M. Leathers-Miller, K. Marra, P. Le, R. M. Drake, M. Brownfield, J. 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引用次数: 1
摘要
美国地质调查局(USGS)定量评估了中国塔里木盆地两个古生代富有机质页岩中非常规(连续)油气资源的潜力(图2)。1和2):下寒武统玉尔图斯组和中奥陶统页岩。这些地层是塔里木盆地内部常规油气田的主要烃源岩(Li等2018;朱、陈等人,2018)。塔里木盆地是中国最大的含油气盆地,面积达56.3万平方公里,显生宙地层厚度达16公里(Qiu等,2012)。尽管沿其北部边缘和盆地内部的几个隆起已经开发了许多油气田,但这个偏远盆地的大部分地区仍未被勘探。美国地质调查局此前对塔里木盆地的常规油气资源进行了评估(Charpentier等,2012)。古生代海相地层目前保存在盆地的深处,局部暴露在盆地周边。它们沉积在塔里木克拉通的被动边缘,这是一个接近冈瓦纳边缘的大陆碎片。自中亚晚古生代组合以来,塔里木盆地一直是一个南接青藏高原、北接天山的巨大非海相盆地。从石炭纪到现在,盆地边缘一直受到收缩变形的强烈影响,包括正在进行的喜马拉雅造山运动。这种构造历史导致了整个盆地历史上相对凉爽的地热环境;当前地温梯度在20-23℃/ km (Zhang, Huang, and others, 2015)。地质背景
Assessment of Paleozoic Shale-Oil and Shale-Gas Resources in the Tarim Basin of China, 2018
The U.S. Geological Survey (USGS) quantitatively assessed the potential for unconventional (continuous) oil and gas resources within two Paleozoic organic-rich shales in the Tarim Basin of China (figs. 1 and 2): Lower Cambrian Yuertusi Formation and shales in the Middle Ordovician Series. These strata are the principal source rocks for conventional oil and gas fields in the interior of the Tarim Basin (Li and others 2018; Zhu, Chen, and others, 2018). The Tarim Basin, the largest petroleum basin in China, encompasses 563,000 square kilometers (km), and its Phanerozoic strata are as much as 16 km thick (Qiu and others, 2012). Although numerous oil and gas fields have been developed along its northern margin and in several uplifts in the basin’s interior, large parts of this remote basin remain unexplored. The USGS previously assessed the Tarim Basin’s conventional oil and gas resources (Charpentier and others, 2012). Paleozoic marine formations are currently preserved at depth and locally exposed around the basin’s periphery. They were deposited on the passive margin of the Tarim craton, a continental fragment proximal to the Gondwana margin. Since the late Paleozoic assembly of Central Asia, the Tarim Basin has been a vast nonmarine basin bounded on the south by the Tibetan Plateau and on the north by the Tien Shan. From the Carboniferous to the present, the basin’s margins have been strongly influenced by contractional deformation, including the ongoing Himalayan orogeny. This tectonic history has resulted in a relatively cool geothermal setting throughout the basin’s history; the current geothermal gradient is in the range of 20–23 degrees Celsius per km (Zhang, Huang, and others, 2015). Geologic Background