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    Volume 46 Issue 4
    Apr.  2021
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    Liu An, Chen Lin, Chen Xiaohong, Tian Wei, Li Hai, Qie Wenkun, Zhou Peng, 2021. Carbon and Oxygen Isotopic Characteristics of Devonian in Central Hunan Depression and Its Paleoenvironmental Significance. Earth Science, 46(4): 1269-1281. doi: 10.3799/dqkx.2020.362
    Citation: Liu An, Chen Lin, Chen Xiaohong, Tian Wei, Li Hai, Qie Wenkun, Zhou Peng, 2021. Carbon and Oxygen Isotopic Characteristics of Devonian in Central Hunan Depression and Its Paleoenvironmental Significance. Earth Science, 46(4): 1269-1281. doi: 10.3799/dqkx.2020.362

    Carbon and Oxygen Isotopic Characteristics of Devonian in Central Hunan Depression and Its Paleoenvironmental Significance

    doi: 10.3799/dqkx.2020.362
    • Received Date: 2020-05-06
    • Publish Date: 2021-04-15
    • Based on the systematic carbon and oxygen isotope and organic carbon testing, the carbon and oxygen isotope characteristics of the Devonian in the Central Hunan depression were analyzed by fully proving the validity of the testing data. Results show that the δ13C values of Devonian are less affected by later alteration in the Central Hunan area. The δ13C of Devonian gradually decreases from the bottom to the top and shows a significant negative shift at the bottom of the Oujiachong Formation, and then gradually increases upward. The δ18O curve shows a slowly increasing trend from Middle Devonian to Upper Devonian. The above curves are similar to the carbon and oxygen isotopic curves of the global Devonian strata, and have a relatively consistent trend of change. The shape and migration degree of δ13C curve of Devonian strata in the area are highly comparable with Longmenshan Section in Sichuan Province, Qilinzhai Section in Dushan, Lali Section in Guangxi, and Euramerican platform section, which can be used as the basis for stratigraphic division and correlation in the area and analysis of paleo-marine environment evolution. Results show that there are differences between the δ13C curve and the sea level change from the top of Qiziqiao Formation to the bottom part of Shetianqiao Formation, indicating that the regional paleowater depth change is comprehensively dominated by the regional tectonic activities and the global sea level changes. There is a significant correlation between the δ13C positive drift and the high TOC in the shale of this area, which indicates that the organic-rich shale intervals at the lower part of Shetianqiao Formation and the upper part of Menggongao Formation are the products of large-scale transgression. The intervals consist of the main shale gas exploration target strata of Devonian in the study area.

       

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