高—过成熟陆相断陷盆地页岩与海相页岩储层特征对比——以徐家围子断陷沙河子组和四川盆地龙马溪组为例

doi:10.13809/j.cnki.cn32-1825/te.2023.01.006

摘要/Abstract

摘要：

我国陆相断陷盆地含气页岩发育广泛，以往主要作为气源岩研究，对其储集性及影响因素的研究较少，亟须开展相应研究来明确陆相断陷盆地页岩储层发育主控因素。选取松辽盆地徐家围子断陷沙河子组与四川盆地龙马溪组页岩，利用有机地化、全岩分析、扫描电镜、低温氮气吸附和核磁共振等实验，对比研究高—过熟陆相断陷盆地和海相含气页岩储层特征差异并探讨主控因素。研究表明：沙河子组页岩形成环境多样，有机质类型以Ⅲ型（腐殖型）为主，黏土矿物含量高，胶结石英发育，黏土相关孔和石英粒间孔为主要孔隙类型，比表面积小但孔径大，储层发育受压实作用、黏土矿物转化和煤层发育的控制；龙马溪组页岩形成于陆棚环境，有机质类型以I型（腐泥型）为主，有机质丰度高，生物成因石英含量高，有机孔和黏土相关孔为主要孔隙类型，有机质类型和成熟度主控孔隙发育。整体上，沙河子组页岩储层发育条件稍差于龙马溪组，但平原沼泽微相页岩紧邻煤层发育，自生胶结石英发育、伊蒙混层比例高，储层有机质丰度高、可压性好、孔体积和比表面积较大、孔隙发育较好，可作为潜在有利目标开展进一步评价研究。

关键词: 页岩气, 孔隙发育, 储层差异, 龙马溪组, 沙河子组, 陆相断陷盆地

Abstract:

Gas bearing shale is widely developed in continental faulted basins in China. In the past, it was mainly studied as the gas source rock, and there was little research on its reservoir and influencing factors. It is urgent to carry out corresponding researches to clarify the main controlling factors of shale reservoir development in continental faulted basins. For the researches, the shale of Shahezi Formation in Xujiaweizi fault depression of Songliao Basin and Longmaxi Formation in Sichuan Basin are selected, and the difference of reservoir characteristics between high over mature continental fault depression basin and marine gas shale is compared and studied by the experiments such as organic geochemistry, whole rock analysis, scanning electron microscope, low-temperature nitrogen adsorption and nuclear magnetic resonance. The research shows that the shale formation environment of Shahezi Formation is diverse, the organic matter type is mainly type Ⅲ, the clay mineral content is high, the cemented quartz is developed, the clay related pores and quartz intergranular pores are the main pore types, the specific surface area is small but the pore diameter is large, and the reservoir development is controlled by compaction, clay mineral transformation and coal seam development; Longmaxi Formation shale was formed in shelf environment. The type of organic matter is mainly type Ⅰ, with high abundance of organic matter and high content of biogenic quartz. Organic pores and clay related pores are the main pore types, and the type and maturity of organic matter mainly control the development of pores. On the whole, the shale reservoir development conditions of Shahezi Formation are slightly worse than those of Longmaxi Formation, but the plain swamp microfacies shale is developed close to the coal seam, the authigenic cemented quartz is developed, the proportion of Yimeng mixed layer is high, the reservoir has high organic matter abundance, good compressibility, large pore volume and specific surface area and good porosity development, which can be used as a potential favorable target for further evaluation and research.

Key words: shale gas, pore development, reservoir difference, Longmaxi Formation, Shahezi Formation, continental faulted basin

中图分类号:

TE122

赵仁文,肖佃师,卢双舫等. 高—过成熟陆相断陷盆地页岩与海相页岩储层特征对比——以徐家围子断陷沙河子组和四川盆地龙马溪组为例[J]. 油气藏评价与开发, 2023, 13(1): 52-63.

Renwen ZHAO,Dianshi XIAO,Shuangfang LU, et al. Comparison of reservoir characteristics between continental shale from faulted basin and marine shale under high-over mature stage: Taking Shahezi Formation in Xujiaweizi faulted basin and Longmaxi Formation in Sichuan Basin as an example[J]. Reservoir Evaluation and Development, 2023, 13(1): 52-63.

图/表 13

图1

表1

样品选样信息、矿物组成及孔隙特征参数"

样品编号	深度(m)	沉积环境	石英 (%)	长石 (%)	碳酸盐岩(%)	黄铁矿 (%)	黏土矿物(%)	比表面积（m²/g）	孔体积（cm³/g）	平均孔径（nm）	有机质丰度 (%)
XS25-1	4 217.64	平原沼泽	47.91	5.27	0.88	0	45.94	3.353	0.010	12.0	1.37
XS25-2	4 218.54	平原沼泽	58.88	0	0.91	0	40.21	5.106	0.013	10.2	0.42
XS25-4	4 219.84	平原沼泽	34.67	16.15	0.69	0	48.49	2.752	0.010	13.8	0.69
XS25-5	4 269.37	平原沼泽	31.50	10.67	0	0	57.83	4.028	0.013	12.6	1.93
XS25-6	4 270.27	平原沼泽	32.93	7.70	0.68	0	58.69	4.746	0.016	13.1	1.17
XS25-8	4 271.87	平原沼泽	35.28	15.98	0.77	0	47.97	3.361	0.012	14.5	5.24
XS25-9	4 273.17	平原沼泽	26.95	8.94	0.62	0	63.17	3.840	0.017	17.4	0.66
XS25-12	4 274.87	平原沼泽	34.58	11.29	0	0	54.13	2.796	0.009	12.6	3.48
DS28-2	3 018.88	平原沼泽	41.13	15.96	1.52	0	41.39	6.464	0.020	12.1	0.74
DS28-9	3 021.58	平原沼泽	39.16	10.89	0	0	49.95	5.824	0.020	13.7	1.45
DS28-11	3 022.63	平原沼泽	39.39	14.02	0	0	46.59	5.832	0.019	12.9	1.44
DS28-13	3 023.58	平原沼泽	36.56	19.03	0	0	44.41	6.260	0.020	12.6	1.53
DS28-15	3 024.78	平原沼泽	28.35	17.95	0.33	0	53.37	5.611	0.018	12.7	0.81
DS28-24	3 060.69	平原沼泽	41.89	8.01	1.72	0	48.38	7.301	0.019	10.4	5.33
DS6-6	3 543.04	前缘	39.16	9.20	0	0.50	51.14	7.225	0.017	9.5	2.89
DS6-10	3 839.26	前缘	36.22	21.29	1.16	0.63	40.70	2.849	0.008	11.1	2.07
DS6-13	3 840.36	前缘	33.21	20.07	0	0	46.72	5.704	0.012	8.5	0.97
DS6-15	3 841.56	前缘	25.86	15.18	0	0	58.96	8.030	0.016	8.2	2.39
DS6-17	3 842.46	前缘	34.59	19.29	1.25	0	44.87	7.193	0.015	8.2	0.33
ShS5-13	3 879.65	前缘	28.24	30.52	0.76	0	40.48	4.010	0.009	8.8	1.87
ShS5-16	3 880.15	前缘	31.27	20.07	0	0	48.66	4.756	0.012	9.9	1.09
ShS5-17	3 882.75	前缘	37.79	24.78	3.17	0	34.26	3.068	0.008	10.0	2.51
FS12-2	3 885.28	前缘	23.66	33.80	4.69	0	37.85	4.561	0.012	10.9	0.74
FS12-4	3 886.98	前缘	36.66	28.56	0	0	34.78	4.187	0.011	10.7	0.98
FS12-7	3 888.88	前缘	27.37	27.40	0	0	45.23	2.734	0.008	11.9	2.05
ZS14-1	4 028.85	浅湖	32.53	5.46	5.90	0	56.11	5.626	0.011	7.9	1.02
ZS14-2	4 030.10	浅湖	31.38	5.45	5.23	0	57.94	6.834	0.013	7.8	1.16
ZS14-4	4 031.30	浅湖	32.97	25.10	1.08	0.53	40.32	2.832	0.009	13.1	1.73
ZS14-5	4 032.40	浅湖	32.18	7.83	9.52	0.56	49.91	7.298	0.012	6.7	1.67
ZS14-6	4 033.50	浅湖	28.81	5.48	3.34	0.25	62.12	6.361	0.012	7.3	1.45
ZS14-7	4 035.00	浅湖	31.91	9.97	1.96	0	56.16	6.816	0.012	7.0	1.22
FS12-20	4 095.48	浅湖	36.01	26.53	0	0	37.46	2.743	0.009	12.9	0.80
FS12-24	4 103.94	浅湖	38.01	30.67	0	0	31.32	2.558	0.008	11.8	0.67
PY1-1	2 157.78	深水陆棚	40.30	12.60	3.70	0.70	42.70	18.193	0.008	3.6	2.22
PY1-4	2 155.68	深水陆棚	27.90	5.60	3.00	5.70	57.80	8.433	0.003	4.3	3.56
PY1-5	2 152.89	深水陆棚	46.10	9.80	10.30	4.70	29.10	17.888	0.010	3.8	3.48
PY1-6	2 151.20	深水陆棚	55.60	7.10	9.30	4.70	23.30	18.270	0.010	3.9	3.63
PY1-11	2 138.83	浅水陆棚	38.50	19.60	7.50	2.80	31.60	11.320	0.006	4.6	1.52
PY1-13	2 134.77	浅水陆棚	79.10	2.80	1.90	0.90	15.30	8.868	0.005	4.5	1.88
PY1-20	2 114.85	浅水陆棚	37.90	20.30	10.90	2.00	28.90	8.522	0.007	5.2	1.40
PY1-22	2 106.35	浅水陆棚	49.60	12.90	3.90	1.50	32.10	9.848	0.006	4.3	0.90
LY1-4	2 832.33	深水陆棚	70.90	4.40	5.40	3.60	15.70	25.074	0.023	4.6	5.63
LY1-5	2 830.93	深水陆棚	61.80	7.50	4.90	4.00	21.80	29.425	0.020	3.8	6.46
LY1-6	2 828.68	深水陆棚	55.80	8.70	8.00	4.40	23.10	24.564	0.015	4.1	4.87
LY1-9	2 824.42	深水陆棚	58.60	6.50	8.70	4.40	21.80	24.558	0.015	3.9	5.04
LY1-13	2 819.13	深水陆棚	56.00	7.70	9.90	4.00	22.40	21.290	0.012	4.0	4.60
LY1-14	2 817.70	深水陆棚	62.80	6.30	7.10	3.20	20.60	24.152	0.015	4.1	4.96
LY1-16	2 811.65	深水陆棚	46.60	12.80	5.80	4.70	30.10	21.671	0.013	3.9	3.93
LY1-19	2 794.40	浅水陆棚	33.80	7.20	6.40	3.80	48.80	12.172	0.007	4.4	1.38

表1

图2

图3

图4

图5

图6

图7

图8

图9

图10

图11

图12

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