Sequence stratigraphic analysis of superimposed coal measure gas-bearing system in Daning-Jixian block, eastern margin of Ordos Basin, China

Shizhuang YANG, Song LI, Wenguang TIAN, Guanghao ZHONG, Junjian WANG

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Front. Earth Sci. ›› 2024, Vol. 18 ›› Issue (3) : 611-622. DOI: 10.1007/s11707-024-1098-x
RESEARCH ARTICLE

Sequence stratigraphic analysis of superimposed coal measure gas-bearing system in Daning-Jixian block, eastern margin of Ordos Basin, China

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Abstract

The identification of superimposed gas-bearing systems in coal measures is the basis for expediting the optimization of coal measure gas co-production. Through the analysis of drill cores and log data of Upper Carboniferous Benxi Formation to the member 8 of Middle Permian Lower Shihezi Formation in Daning-Jixian block, eastern margin of Ordos Basin, four distinct superimposed coal measure gas-bearing systems were identified, and their formation mechanism was discussed from the sequence stratigraphic perspective. Type I system mainly contains multiple coal seams, shales and sandstone layers. Type II system is dominated by multiple coal seams and shales. Type III is characterized by multiple sandstone layers, and type IV system is dominated by limestones and mudstones. In general, the gas-bearing systems deposited in barrier-lagoon are type II, those deposited in carbonate tidal flats are type IV, and those deposited in the delta front are types I and III. The marine mudstone, acting as a key layer near the maximum flooding surface, exhibits very low permeability, which is the main factor contributing to the formation of superimposed gas-bearing systems. The sedimentary environment plays a significant role in controlling the distribution of gas-bearing systems. Notably, the vertical gas-bearing systems in the south-western region, where delta front and lagoon facies overlap, are more complex than those in the north-eastern delta front facies.

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Keywords

coal measure gas / superimposed gas-bearing system / sequence stratigraphic / key layer

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Shizhuang YANG, Song LI, Wenguang TIAN, Guanghao ZHONG, Junjian WANG. Sequence stratigraphic analysis of superimposed coal measure gas-bearing system in Daning-Jixian block, eastern margin of Ordos Basin, China. Front. Earth Sci., 2024, 18(3): 611‒622 https://doi.org/10.1007/s11707-024-1098-x

References

[1]
Allen J P, Fielding C R (2007). Sedimentology and stratigraphic architecture of the Late Permian Betts Creek Beds, Queensland, Australia.Sediment Geol, 202(1): 5–34
[2]
Ayers W B (2002). Coalbed gas systems, resources, and production and a review of contrasting cases from the San Juan and Powder River basins.AAPG Bull, 86(11): 1853–1890
[3]
Chen S D, Tang D Z, Tao S, Chen Z L, Xu H, Li S (2018a). Coal reservoir heterogeneity in multicoal seams of the Panguan syncline, western Guizhou, China: implication for the development of superposed CBM-bearing systems.Energy Fuels, 32(8): 8241–8253
CrossRef Google scholar
[4]
Chen S D, Tang D Z, Tao S, Xu H, Zhao J L, Fu H J, Ren P F (2018b). In-situ stress, stress-dependent permeability, pore pressure and gas-bearing system in multiple coal seams in the Panguan area, western Guizhou, China.J Nat Gas Sci Eng, 49: 110–122
CrossRef Google scholar
[5]
Cooper J A G, Green A N, Loureiro C (2018). Geological constraints on mesoscale coastal barrier behaviour.Global Planet Change, 168: 15–34
CrossRef Google scholar
[6]
Diessel C, Boyd R, Wadsworth J, Leckie D, Chalmers G (2000). On balanced and unbalanced accommodation/peat accumulation ratios in the Cretaceous coals from Gates Formation, Western Canada, and their sequence-stratigraphic significance.Int J Coal Geol, 43(1–4): 143–186
CrossRef Google scholar
[7]
Eaton B A (1972). The effect of overburden stress on geopressure prediction from well logs.J Pet Technol, 24(8): 929–934
CrossRef Google scholar
[8]
Flores R M, Sykes R (1996). Depositional controls on coal distribution and quality in the Eocene Brunner Coal Measures, Buller Coalfield, South Island, New Zealand.Int J Coal Geol, 29(4): 291–336
CrossRef Google scholar
[9]
Fu C, Yu X H, Li S L, Peng Z X, Shi S (2021). Carboniferous-Permian transgression/regression mechanisms in the Eastern Ordos Basin and their sea-level spatiotemporal variability: insights from source-to-sink systems.Mar Pet Geol, 123: 104722
CrossRef Google scholar
[10]
Guo C, Qin Y, Wu C F, Lu L L (2020). Hydrogeological control and productivity modes of coalbed methane commingled production in multi-seam areas: a case study of the Bide-Santang Basin, western Guizhou, South China.J Petrol Sci Eng, 189: 107039
CrossRef Google scholar
[11]
Holz M, Kalkreuth W, Banerjee I (2002). Sequence stratigraphy of paralic coal-bearing strata: an overview.Int J Coal Geol, 48(3–4): 147–179
CrossRef Google scholar
[12]
Hou H H, Shao L Y, Tang Y, Li Y N, Liang G D, Xin Y L, Zhang J Q (2023a). Coal seam correlation in terrestrial basins by sequence stratigraphy and its implications for paleoclimate and paleoenvironment evolution.J Earth Sci, 34(2): 556–570
CrossRef Google scholar
[13]
Hou H H, Shao L Y, Tang Y, Li Z, Zhao S, Yao M L, Wang X T, Zhang J Q (2023b). Pore structure characterization of middle- and high-ranked coal reservoirs in northern China.AAPG Bull, 107(2): 213–241
CrossRef Google scholar
[14]
Hou H H, Shao L Y, Wang S, Xiao Z H, Wang X T, Li Z, Mu G Y (2019). Influence of depositional environment on coalbed methane accumulation in the Carboniferous-Permian coal of the Qinshui Basin, northern China.Front Earth Sci, 13(3): 535–550
CrossRef Google scholar
[15]
Jia L, Peng S J, Xu J, Yan F Z (2021). Interlayer interference during coalbed methane coproduction in multilayer superimposed gas-bearing system by 3D monitoring of reservoir pressure: an experimental study.Fuel, 304: 121472
CrossRef Google scholar
[16]
Law B E (2002). Basin-centered gas systems.AAPG Bull, 86(11): 1891–1919
[17]
Lei B, Qin Y, Gao D, Fu X H, Wang G G X, Zou M J, Shen J (2012). Vertical diversity of coalbed methane content and its geological controls in the Qingshan Syncline, western Guizhou Province, China.Energy Exploration & Exploitation, 30(1): 43–58
CrossRef Google scholar
[18]
Li Q X, Xu J, Shu L Y, Yan F Z, Pang B, Peng S J (2023a). Exploration of the induced fluid-disturbance effect in CBM co-production in a superimposed pressure system.Energy, 265: 126347
CrossRef Google scholar
[19]
Li S, Qin Y, Tang D Z, Shen J, Wang J J, Chen S D (2023b). A comprehensive review of deep coalbed methane and recent developments in China.Intern J Coal Geol, 279: 104369
CrossRef Google scholar
[20]
Lu J, Shao L Y, Yang M F, Zhou K, Wheeley J R, Wang H, Hilton J (2017). Depositional model for peat swamp and coal facies evolution using sedimentology, coal macerals, geochemistry and sequence stratigraphy.J Earth Sci, 28(6): 1163–1177
CrossRef Google scholar
[21]
Martin A J J, Solomon S T, Hartmann D J (1997). Characterization of petrophysical flow units in carbonate reservoirs.AAPG Bull, 81(5): 734–759
[22]
Nowacki D J, Ganju N K (2018). Storm impacts on hydrodynamics and suspended-sediment fluxes in a microtidal back-barrier estuary.Mar Geol, 404: 1–14
CrossRef Google scholar
[23]
Peters K E, Cassa M R (1994). Applied source rock geochemistry. In: Magoon L B, Dow W G, eds. The Petroleum System: From Source to Trap. Tulsa: AAPG Memoir, 93–120
[24]
Petersen H I, Andsbjerg J (1996). Organic facies development within Middle Jurassic coal seams, Danish Central Graben, and evidence for relative sea-level control on peat accumulation in a coastal plain environment.Sediment Geol, 106(3–4): 259–277
CrossRef Google scholar
[25]
Powley D E (1990). Pressure and hydrogeology in petroleum basins.Earth Sci Rev, 29(1): 215–226
[26]
Raff J L, Shawler J L, Ciarletta D J, Hein E A, Lorenzo-Trueba J, Hein C J (2018). Insights into barrier-island stability derived from transgressive/regressive state changes of Parramore Island, Virginia.Mar Geol, 403: 1–19
CrossRef Google scholar
[27]
Shanley K W, McCabe P J (1994). Perspectives on the sequence stratigraphy of continental strata.AAPG Bull, 78(4): 544–568
[28]
Shen Y L, Qin Y, Guo Y H, Yi T S, Yuan X X, Shao Y B (2016). Characteristics and sedimentary control of a coalbed methane-bearing system in Lopingian (Late Permian) coal-bearing strata of western Guizhou province.J Nat Gas Sci Eng, 33: 8–17
CrossRef Google scholar
[29]
Shen Y L, Qin Y, Wang G G X, Guo Y H, Shen J, Gu J Y, Xiao Q, Zhang T, Zhang C L, Tong G C (2017). Sedimentary control on the formation of a multi-superimposed gas system in the development of key layers in the sequence framework.Mar Pet Geol, 88: 268–281
CrossRef Google scholar
[30]
Shen Y L, Qin Y, Wang G G X, Xiao Q, Shen J, Jin J, Zhang T, Zong Y, Liu J B, Zhang Y J, Zheng J (2019). Sealing capacity of siderite-bearing strata: the effect of pore dimension on abundance and micromorphology type of siderite in the Lopingian (Late Permian) coal-bearing strata, western Guizhou Province.J Petrol Sci Eng, 178: 180–192
CrossRef Google scholar
[31]
Su X B, Li F, Su L N, Wang Q (2020). The experimental study on integrated hydraulic fracturing of coal measures gas reservoirs.Fuel, 270: 117527
CrossRef Google scholar
[32]
Su X B, Lin X Y, Zhao M J, Song Y, Liu S B (2005). The upper Paleozoic coalbed methane system in the Qinshui Basin, China.AAPG Bull, 89(1): 81–100
CrossRef Google scholar
[33]
Tang S L, Tang D Z, Tang J C, Tao S, Xu H, Geng Y G (2017). Controlling factors of coalbed methane well productivity of multiple superposed coalbed methane systems: a case study on the Songhe mine field, Guizhou, China.Energy Exploration & Exploitation, 35(6): 665–684
CrossRef Google scholar
[34]
Wang G, Qin Y, Xie Y W, Shen J, Han B B, Huang B, Zhao L (2015). The division and geologic controlling factors of a vertical superimposed coalbed methane system in the northern Gujiao blocks, China.J Nat Gas Sci Eng, 24: 379–389
CrossRef Google scholar
[35]
Wang G, Qin Y, Xie Y W, Wang Z W, Wang B Y, Wang Q, Zhang X Y (2020). Cyclic characteristics of the physical properties of key strata in CBM systems controlled by sequence stratigraphy - An example from the Gujiao Block.Acta Geol Sin, 94(2): 444–455
CrossRef Google scholar
[36]
Wang S, Shao L Y, Wang D D, Sun Q P, Sun B, Lu J (2019). Sequence stratigraphy and coal accumulation of Lower Cretaceous coal-bearing series in Erlian Basin, northeastern China.AAPG Bull, 103(7): 1653–1690
CrossRef Google scholar
[37]
Wang Y, Yang J H, Yuan D X, Liu J, Ma R (2022). Conodont biostratigraphic constraint on the Lower Taiyuan Formation in southern North China and its paleogeographic implications.J Earth Sci, 33(6): 1480–1493
CrossRef Google scholar
[38]
Yang M H, Liu C Y, Lan C L, Liu L, Li X, Zhang K S (2010). Late Carboniferous-Early Permian sequence stratigraphy and depositional evolution in the northeast Ordos Basin, north China.Acta Geol Sin, 84(5): 1220–1228
CrossRef Google scholar
[39]
Yang Y T, Li W, Ma L (2005). Tectonic and stratigraphic controls of hydrocarbon systems in the Ordos Basin: a multicycle cratonic basin in central China.AAPG Bull, 89(2): 255–269
CrossRef Google scholar
[40]
Yang Z B, Qin Y, Wang G X, An H (2015). Investigation on coal seam gas formation of multi-coalbed reservoir in Bide-Santang Basin southwest China.Arab J Geosci, 8(8): 5439–5448
CrossRef Google scholar
[41]
Zhang Y, Li S, Tang D Z, Liu J C, Lin W J, Feng X, Ye J C (2022). Geological and engineering controls on the differential productivity of CBM wells in the Linfen block, southeastern Ordos Basin, China: insights from geochemical analysis.J Petrol Sci Eng, 211: 110159
CrossRef Google scholar
[42]
Zhang Z, Qin Y, Fu X H, Yang Z B, Guo C (2015). Multi-layer superposed coalbed methane system in southern Qinshui Basin, Shanxi Province, China.J Earth Sci, 26(3): 391–398
CrossRef Google scholar
[43]
Zhong G H, Li S, Tang D Z, Tian W G, Lin W J, Feng P (2022). Study on Co-production compatibility evaluation method of multilayer tight gas reservoir.J Nat Gas Sci Eng, 108: 104840
CrossRef Google scholar
[44]
Zou C N, Yang Z, Huang S P, Ma F, Sun Q P, Li F H, Pan S Q, Tian W G (2019). Resource types, formation, distribution and prospects of coal-measure gas.Pet Explor Dev, 46(3): 451–462
CrossRef Google scholar
[45]
Zou Y S, Gao B D, Zhang S C, Ma X F, Sun Z Y, Wang F, Liu C Y (2022). Multi-fracture nonuniform initiation and vertical propagation behavior in thin interbedded tight sandstone: an experimental study.J Petrol Sci Eng, 213: 110417
CrossRef Google scholar

Acknowledgments

This work was supported by the National Natural Science Foundation of China (Grant Nos. 42072198 and 42130802), and the Fundamental Research Funds for the Central Universities (No. 265QZ2021011). The authors would like to thank CNPC for providing important data, experimental test facilities, and the editors and reviewers for their critical comments.

Competing interests

The authors declare that they have no competing interests.

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