Effect of gravity on movement of water-oil interface for bottom water driving upwards to a horizontal well

被引:0
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作者
Butler, RM [1 ]
Jiang, Q [1 ]
机构
[1] UNIV CALGARY,DEPT CHEM & PETR ENGN,CALGARY,AB T2N 1N4,CANADA
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中图分类号
TE [石油、天然气工业]; TK [能源与动力工程];
学科分类号
0807 ; 0820 ;
摘要
In a previous paper from our laboratory, an equation was developed to predict the movement of the water-oil interface produced by bottom water driving upwards to a horizontal well; the oil and water were assumed to have the same viscosity and density. If the oil has a lower density than the water, as is usually the case, the interface will be flatter due to the effect of gravity. This will improve the performance. In the present study, the effect of gravity on the movement of the interface and on the oil recovery has been studied physically and theoretically. The new theory allows the effect of gravity to be included. Two sets of experiments were carried out in a Hele-Shaw cell to investigate the effect of gravity on the movement of the water-oil interface. The first set involved upward displacement of oil by bottom water to a horizontal well. It was found that the higher the flow rate, the lower the oil recovery at breakthrough even when the two fluids have the same viscosity. This effect is caused by gravity. In the other experiments, a water crest established previously in the Hele-Shaw cell was allowed to fall driven by gravity alone, with both the injection and production wells shut in. The interface fell at the centre and rose at the two ends and thus became progressively flatter. The interface was photographed periodically. Analytical and numerical studies were carried out to predict the movement of the fluids. The predictions from both techniques are in agreement with the experimental results. These equations can be used to predict the relaxation of water crests in the field and a numerical example is given.
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页码:47 / 56
页数:10
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