Implementation of a New Proprietary Vortex Fluid Sucker Rod Pump System to Improve Production by Enhancing Flow Dynamics

IF 1.4 4区 工程技术 Q2 ENGINEERING, PETROLEUM
Corbin Coyes, Benny Williams, Camille Jensen, Mike Conner, Bradley Link, Jeff Saponja, Jordy Quinn
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Abstract

Summary Conventional ball valve systems and insert-guided cages compromise performance due to gas interference, solids accumulation, and ball vibration that shortens the life and efficiency of conventional traveling and standing valve cages. The analysis of the flow profile around a common ball valve resulted in the design of a new proprietary pump system that maximizes fluid flow, creating a vortex profile that extends service life while increasing production. The proprietary vortex fluid pump system was compared against conventional inserts during in-house testing and in a laboratory flow loop. Minimum to maximum flow rates were digitally measured to calculate the pressure drop at each flow rate with and without injecting gas. The transparent flow loop tubing allowed a visual qualitative assessment of fluid flow. During laboratory testing, conventional inserts measured high ball vibration with excessive pressure drop. The proprietary vortex fluid pump system had no ball vibration, with a significant pressure drop decrease, and gas remained entrained as it cycled through a vortex flow. The results from laboratory testing showed an average 40–46% pressure drop decrease compared to conventional inserts. Laboratory data were confirmed in numerous field applications as well as four case studies from four different fields for four separate operators. The vortex fluid pump system showed greater pump efficiencies and pump longevity. After installation of the system, cumulative results were combined to show an average 46% production increase over 485 wells in North America in 1 year. The proprietary vortex fluid pump system decreases erratic velocity profile and reduces vibration in the valve system resulting in improved efficiency and reliability of sucker rod pumps. The design optimizes flow dynamics enabling the ball to remain stationary, allowing smaller and lighter balls and increasing the cross-sectional flow area in the most restrictive pump section. The design reduces solids accumulation, lessens cage wear, improves pump efficiency, and increases production. The vortex fluid pump system replaces all conventional valve systems.
采用一种新型旋涡流体抽油杆泵系统,通过增强流体动力学来提高产量
传统的球阀系统和插入式导向保持架由于气体干扰、固体积累和球振动而降低了性能,从而缩短了传统的移动和站立式阀保持架的使用寿命和效率。通过对普通球阀周围流动曲线的分析,设计出了一种新的专有泵系统,该系统可以最大限度地提高流体流量,形成涡流,延长使用寿命,同时提高产量。在内部测试和实验室流动回路中,将专有的旋涡流体泵系统与传统的刀片进行了比较。通过数字测量最小到最大流量,以计算在注入气体和不注入气体时每种流量下的压降。透明流动环管允许对流体流动进行视觉定性评估。在实验室测试中,常规镶齿测量到球的高振动和过大的压降。专有的涡旋流体泵系统没有球振动,压降显著降低,气体在涡旋流动中循环时仍被夹带。实验室测试结果显示,与传统镶齿相比,平均压降降低了40-46%。实验室数据在众多现场应用中得到了验证,并在4个不同油田进行了4个案例研究。旋涡流体泵系统显示出更高的泵效率和泵寿命。安装该系统后,累计结果表明,在北美的485口井中,1年内产量平均增加了46%。专有的旋涡流体泵系统减少了不稳定的速度分布,减少了阀系统的振动,从而提高了有杆泵的效率和可靠性。该设计优化了流体动力学,使球保持静止,使球更小、更轻,并增加了最受限制的泵段的横截面流面积。该设计减少了固体堆积,减少了保持架磨损,提高了泵效率,增加了产量。旋涡流体泵系统取代了所有传统的阀门系统。
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来源期刊
Spe Production & Operations
Spe Production & Operations 工程技术-工程:石油
CiteScore
3.70
自引率
8.30%
发文量
54
审稿时长
3 months
期刊介绍: SPE Production & Operations includes papers on production operations, artificial lift, downhole equipment, formation damage control, multiphase flow, workovers, stimulation, facility design and operations, water treatment, project management, construction methods and equipment, and related PFC systems and emerging technologies.
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