生产利润最大化:优化哈法亚油田的气举设计

Safwan Riyadh Ahmed, D. Sadeq
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引用次数: 0

摘要

气举是最常见的人工举升方法之一,在石油工业中被有效地用于提高产量。然而,由于注入气体短缺和经济因素等各种限制,向油井适当分配气体具有挑战性。因此,目前的研究旨在解决在哈法亚油田-米什里夫油层有效分配天然气以实现利润最大化的关键要求。连续气举是最常用的人工气举方法之一。为了提高生产率,需要在特定深度向生产油管注入足够的天然气,以降低液柱压力,因为每口油井在油藏中都有一个最佳生产点。另一方面,天然气供应的限制也制约了最佳生产状态的实现。这种限制加上经济上的限制,包括高昂的天然气价格和压缩成本,强调了采用最佳方法提高石油产量的必要性。除了哈勒法亚油田的重要性外,与本文所使用的气体提升方法相关的人工提升方法研究也很有限。因此,本次调查的目的是提出一种久经考验的气举设计,以提高石油产量。该方法将 MATLAB 中内置的 fmincon 函数作为优化器与 PIPESIM 网络模型相结合,创建了气举性能曲线。 结果,石油生产率达到 18860 STB/d,气举率达到 9.42 mmscf/d。建立这样一个系统化的优化流程可以应对哈法亚油田在天然气分配方面的挑战,从而最大限度地提高生产率,最终增加净利润。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Maximizing Production Profits: Optimizing Gas Lift Design in the Halfaya Oil Field
Gas lift is one of the most common artificial lift methods which is effectively utilized in the oil industry for enhancing production. However, proper gas allocation into wells can be challenging due to various limitations such as shortage in injected gas and economic considerations. Therefore, the current research is conducted to address the critical requirement to effectively distribute gas to maximize profits in the Halfaya Oil Field- Mishrif formation. Continuous gas lift is one of the most commonly used artificial lift methods. To enhance production rate, a sufficient amount of gas is injected into the production tubing at specific depths to reduce the liquid column pressure as each well has an optimal point for production in an oil reservoir. On the other hand, constraints of gas availability restrict achieving the optimal state of production. Such restrictions combined with economic limitations including high gas prices and compression costs, emphasized the necessity for optimal methodology to enhance oil production. Aside from the importance of the Halfaya oil field, there are limited relevant studies on artificial lifting methods specifically associated with the gas-lifting method used in this paper. Thus, the purpose of the current investigation is to propose a well-tested gas lifting design for oil production improvement. The approach combines the skill of the fmincon function built in MATLAB as an optimizer and the PIPESIM network model to create gas lift performance curves.  This resulted in an oil production rate of 18860 STB/d, with a gas lift rate of 9.42 mmscf/d. Establishing such a systematic optimization process can manage the challenges of gas allocation in the Halfaya Oil Field towards maximizing production rates and ultimately increasing net profits.
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