Subsea Wells Blowout Occurrence and Methods of Source Control

Q3 Engineering
A. D. Dzyublo, V. E. Perekrestov, A. Belozerov
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Abstract

The article will be useful to the scientists and specialists in the oil and gas industry involved in the construction of offshore wells and the blowout response. The article provides a brief list of the implemented oil and gas projects on the shelf of the Russian Federation. The principle of two barriers, which must be observed throughout the entire life cycle of the well, is considered. The main reasons for the transition of kick into blowout are considered, and the most well-known cases of blowout of the offshore wells in the industry are given. According to the SINTEF Offshore Blowout database, the worldwide statistics of loss of well control from 2000 to 2015 are given. The reasons for the development of offshore fields with large-diameter wells are described, and the risk of increased complexity in controlling such wells in the event of blowout is noted. The peculiarities of subsea wells blowout are described. As is known, the blowout of a gas well is associated with the creation of a gas-water plume, which makes it difficult or completely deprives vertical access to the wellhead in shallow water during emergency rescue operations. The paper shows a model of gas-water plume in shallow water conditions, and describes the processes occurring when the gas plume floats up and its impact on ships (drilling rigs, supply vessels and etc.). An example is given related to the modeling a rising gas-water plume using computational fluid dynamics (CFD) at various sea depths and flow rates of a blowing well. The methods of well source control are considered, the current schemes for installing an capping stack at the wellhead of a subsea blowing well are described. The advantages and limitations of each well source control method are presented.
海底油井井喷发生及源头控制方法
这篇文章将对参与海上油井建设和井喷响应的石油和天然气行业的科学家和专家有用。本文提供了俄罗斯联邦大陆架上实施的石油和天然气项目的简要清单。考虑了在井的整个生命周期中必须遵守的两个屏障原则。分析了井涌向井喷过渡的主要原因,并列举了业内最著名的海上油井井喷事故。根据SINTEF Offshore Blowout数据库,给出了2000年至2015年全球井控损失的统计数据。阐述了采用大直径井开发海上油田的原因,并指出了在井喷事件中控制大直径井的复杂性增加的风险。介绍了海底井喷的特点。众所周知,气井的井喷与气水羽流的产生有关,这使得在紧急救援行动中很难或完全无法垂直进入浅水井口。本文建立了浅水条件下的气水羽流模型,描述了气水羽流上浮的过程及其对船舶(钻井平台、补给船等)的影响。本文给出了用计算流体力学(CFD)方法在不同海洋深度和不同吹井流量下对气水上升羽流进行建模的实例。考虑了井源控制的方法,介绍了目前在海底吹井井口安装封井装置的方案。介绍了各种井源控制方法的优点和局限性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Bezopasnost'' Truda v Promyshlennosti
Bezopasnost'' Truda v Promyshlennosti Environmental Science-Environmental Science (miscellaneous)
CiteScore
1.00
自引率
0.00%
发文量
110
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