Citation: | Shu-yu Wu, Jun Liu, Jian-wen Chen, Hao-ran Wu, 2021. Characteristics of Milankovitch cycles recorded in Eocene strata in the eastern depression of North Yellow Sea Basin, North China, China Geology, 4, 274-287. doi: 10.31035/cg2021002 |
As cyclical orbital movements of Earth, Milankovitch cycles can be recorded in sedimentary strata. The time they reflect can be used to accurately divide and compare strata. Milankovitch cycles recorded in strata enrich the stratigraphic theory, especially the theories of cycle stratigraphy, and thus they are widely used in geological survey engineering nowadays. This study explored the characteristics of the Milankovitch cycles recorded in the eastern depression of the North Yellow Sea Basin, highlighting their control over high-frequency stratigraphic sequences. The Eocene Milankovitch cycles in the depression were calculated based on the method proposed by J. Laskar, and their parameters primarily include eccentricity cycles of 125 ka and 99 ka, obliquity cycles of 51 ka and 39 ka, and precession cycles of 23 ka and 19 ka. Spectral analysis of gamma-ray (GR) and spontaneous potential (SP) log curves of the Eocene strata was carried out to divide and compare stratigraphic sequences, revealing that the spectral peaks correspond well to astronomical cycles. This indicates that the strata in the depression fully record Milankovitch cycles. Furthermore, there are long-, medium-, and short-term stratigraphic cycles in the eastern depression, with a thickness of 13.03–15.89 m, 3.70–5.21 m, and 2.17–2.94 m, respectively. The sedimentation rates of the Eocene strata were calculated to be 121.2–127.12 m/Ma accordingly. From the uplift to the center of the lacustrine basin along the slope in the eastern depression, both the sedimentation duration and the sediment thickness increase, while the sedimentation rate remains relatively stable. The Eocene strata can be divided into six stages of high-frequency sequences by continuous wavelet transformation, namely E6–E1 from bottom to top. The sedimentation duration and sedimentation rates of the sequences were calculated using spectral analysis with each of the sequences as a separate window. Moreover, the impacts of climate change on the sedimentary environment in the eastern depression were analyzed. It can be concluded that E6 was a lowstand system tract, E5 and E4 were lacustrine expansion system tracts, E3 was a highstand system tract, and E2 and E1 were lacustrine contraction system tracts. All these verify that Milankovitch cycles serve as an effective approach for the analysis of sedimentary cycles.
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Tectonic map of the NYSB (a) and schematic map of the structural units in the NYSB (b) (modified from Liang J et al., 2013). NYSB‒North Yellow Sea Basin.
Comprehensive histogram and geological section of the eastern depression of the NYSB.
Spectrograms of insolation, eccentricity, obliquity, and precession during 36.5‒53 Ma. a‒spectrum of Eocene insolation; b‒spectrum of Eocene eccentricity; c‒spectrum of Eocene obliquity; d‒spectrum of Eocene precession.
Spectrograms of GR and SP log curves of Eocene strata at wells NYS3, NYS2, and NYS1. a‒spectrogram of GR log curve at Well NYS3; b‒spectrogram of SP log curve at Well NYS3; c‒spectrogram of GR log curve spectral analysis at Well NYS2; d‒spectrogram of SP log curve of Eocene strata at Well NYS2; e‒spectrogram of GR log curve at Well NYS1; f‒spectrogram of SP log curve at Well NYS1.
Stratigraphic correlation of Eocene strata in the eastern depression of NYSB revealed by wells.
Seismic reflection characteristics of Eocene strata in the eastern depression of NYSB. R2‒interface between Eocene and Oligocene strata; R4‒ interface between Mesozoic and Cenozoic strata; E6−E1‒Eocene sequences from bottom to top.