海上偏远气田脱碳与最大价值回收途径

Lee J. Thomas, L. Liebana, T. Wood, A. Mansour, Ashley Coaker, Roy Hunt, Graeme Rogerson
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摘要

为了促进能源从碳密集型能源向绿色和蓝色能源的可持续平衡过渡,需要开发天然气。未来十年将重点开发全球天然气田,以支持这一目标。这些油田中有相当一部分位于深水和/或距离现有的天然气处理/液化天然气工厂很远。将大量天然气从遥远的天然气田输送到更远的距离和更深的水域,在技术和经济上仍然具有挑战性。常规的和近期的开发方案包括海底压缩、带有上部压缩和管道回接到岸上的浮式船,或者浮式液化天然气船。本文和研究得到了石油和天然气技术中心(OGTC)和英国石油和天然气管理局的支持。该报告使用与电力需求相关的集成生产模型,以及安装的钢吨位,研究了200公里长1700米水深回接的开发方案。范围1和范围2每单位气体的排放量通过生命周期评估进行分析,使用ISO 14044作为长距离气体连接到销售点的指导(包括处理到销售规范)。将介绍用于开发这些油田的主要电力密集型设备,显示其耗电量占总耗电量的比例;这包括陆上、海上或海底的压缩,以及这些环境下发电设备的效率。本文将强调每种选择的经济性,以及碳价格的变化如何改变每种选择的商业地位。该论文将表明,通过了解驱动排放的因素,以及排放与天然气产量的关系,概念选择可以在提高项目经济绩效的同时,将生命周期的碳排放量减少50%以上。本文考察了多种创新技术,提供了基于经济和碳排放方面的基准研究的新概念的技术准备情况。最后,该论文将表明,天然气收集系统脱碳在技术上是可行的,并且可以部署在海底,以帮助满足能源转型,并允许开发偏远和更深的天然气田。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Pathway to Decarbonisation and Maximum Value Recovery for Remote Offshore Gas Fields
Gas developments are required to facilitate energy transition from carbon intensive energy to a sustainable balance of green and blue energy. The next decade will focus on exploiting gas fields globally to support this. A significant number of these fields are located in deepwater and /or are long distances from existing gas processing / LNG plants. Transporting large volumes of gas from remote gas fields over longer distances and in deeper waters remains technologically and economically challenging. Conventional and near-term development options include subsea compression, floating vessels with topside compression and pipeline tie-back to shore, or floating liquefied natural gas vessels. This paper and study are supported by The Oil & Gas Technology Centre (OGTC) and UK Oil and Gas Authority. It examines development options for a 200 km long 1700 m water depth tie back using integrated production modeling linked to power demands, along with installed steel tonnages. The Scope 1 and 2 emissions per unit of gas produced are analysed via a life cycle assessment using ISO 14044 as guidance for a long-distance gas tieback to the point of sale (inclusive of processing to sales specification). The major power intensive equipment used to develop these fields will be presented showing their proportion of the power consumption compared with the total; these include compression either onshore, offshore or subsea as well as the efficiency of the power generation devices in these environments. The paper will highlight the economics of each option and how varying the carbon price changes the commercial position of each option. The paper will show that by understanding what drives emissions, and how emissions relate to the amount of gas produced, that concept selection can drive upwards of 50% reduction in life cycle carbon emissions whilst improving project economic performance. This paper examines multiple innovative technologies, providing technology readiness of new concepts based on the benchmarked study focusing both economic and carbon emission aspects. Finally, the paper will show that better economic outcomes with the decarbonisation of gas gathering systems is technically possible and can be deployed subsea to help meet the energy transition and allow the development of remote and deeper gas fields.
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