使用流体压差法建立根缘油气藏动态平衡

张金川; 蔡忠贤; 张杰

Volume 29 Issue 4

Jul. 2004

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ZHANG Jin-chuan, CAI Zhong-xian, ZHANG Jie, 2004. Dynamic Equilibrium of Source-Contacting Oil and Gas by Using Pressure Difference of Formation Fluids. Earth Science, 29(4): 445-450.

Citation:

ZHANG Jin-chuan, CAI Zhong-xian, ZHANG Jie, 2004. Dynamic Equilibrium of Source-Contacting Oil and Gas by Using Pressure Difference of Formation Fluids. Earth Science, 29(4): 445-450.

ZHANG Jin-chuan, CAI Zhong-xian, ZHANG Jie, 2004. Dynamic Equilibrium of Source-Contacting Oil and Gas by Using Pressure Difference of Formation Fluids. Earth Science, 29(4): 445-450.

Citation:

ZHANG Jin-chuan, CAI Zhong-xian, ZHANG Jie, 2004. Dynamic Equilibrium of Source-Contacting Oil and Gas by Using Pressure Difference of Formation Fluids. Earth Science, 29(4): 445-450.

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Dynamic Equilibrium of Source-Contacting Oil and Gas by Using Pressure Difference of Formation Fluids

1.
Department of Energy Resources, China University of Geosciences, Beijing 100083, China
2.
Faculty of Earth Resources, China University of Geosciences, Wuhan 430074, China
3.
Exploration and Development Research Institute, SINOPEC, Beijing 100083, China

Received Date: 2004-03-19
Publish Date: 2004-07-25

Abstract

Abstract

The source-contacting oil and gas are discovered under high extent of geological exploration. Conventional balance equation used for the accumulation process of oil and gas cannot be suitable for the source-contacting oil and gas because of their special mechanism and occurence patterns. According to the geological characteristics and evolution process, the analysis method on the ascending forces of continuous hydrocarbon columns within complex formation water environments has been put forward. In this paper, the balance equations of source-contacting oil and gas are established respectively in typical, complex, and special situations on the basis of equilibrium related to pressure difference of fluids.

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References(12)

References

Berg, R. R., 1975. Capillary pressure in stratigraphic traps. AAPG Bulletin, (59): 939-956.

Gies, R. M., 1984. Case history for a major Alberta deep basin gas trap: The cadomin formation. AAPG Memoir, 38.

Kuuskraa, V. A., 1996. Tightsands gas as U.S. gas source. Oil & Gas Journal, 94 (12): 102-107.

Masters, J. A., 1979. Deep basin gas trap, western Canada. AAPG, 63 (2): 152-181.

Rose, P. R., 1984. Possible basin centered gas accumulation, Roton basin, southern Colorado. Oil & Gas Journal, 82 (10): 190-197.

Schmoker, J. W., 1996. Gas in the Uinta basin, Utah— Re- sources in continuous accumulations. Mountain Geology, 33 (4): 95-104.

Spencer, C. W., 1989. Review of characteristics of low-permeability gas reservoirs in western United States. AAPG, 73 (5): 613-629.

Surdam, R. C., 1997. A new paradigm for gas exploration in anomalously pressured" tight gas sands" in the Rocky Mountain Laramide basins. In: Surdam, R.C., ed., Seals, traps and the petroleum system. AAPG Memoir, 67: 283-298.

Zhang, J. C., 1999. Source-contacting gas accumulation mechanism and its application research. University of Petroleum Press, Beijing(in Chinese).

Zhang, J. C., 2001. Source-contacting gas accumulation and dis- tribution forecast. China University of Geosciences Press, Beijing(in Chinese).

张金川, 1999. 深盆气成藏机理及其应用研究. 北京: 石油大学出版社.

张金川, 2001. 深盆气成藏及分布预测. 北京: 中国地质大学出版社.

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