云中大参数流保障分析的自动化

R. S. Hubbard, Leon Geoffrey Staaden, Derek John Scales, Andrew Tran
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引用次数: 0

摘要

该研究的目的是在不超过0.25 g/m2.s临界值的前提下,确定客户现有管线的最高流量。与传统的流程保证分析过程相比,自动化工作流程允许在更短的时间内分析大量的操作条件组合。开发了一个多参数案例矩阵来分析整个过程和环境变量。在云中使用专有的多相流保证软件来开发参考案例模型。然后开发了一个软件脚本来读取参考案例模型的代码并生成1080个案例的输入文件。所有案例都在30分钟内在云端运行。然后,另一个软件脚本将1080个输出文件中的关键数据提取到一个Excel电子表格中,以实现数据可视化,并确定一个简单有效的流量标准,以限制冷凝率。与传统的流量保证分析过程相比,工作流程的自动化允许在更短的时间内分析所有变量的组合,传统的流量保证分析过程通常分析基于工程判断选择的有限数量的可疑最坏情况。自动化工作流程产生的大量数据使单一的完整性限制标准得到了高水平的应用,即海底腐蚀探头测量的流体温度。这种简化的完整性限制使操作人员能够轻松地在任何工艺和环境条件的组合下最大限度地提高产量,同时保持对不超过临界冷凝速率的信心。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Automation of Large Parametric Flow Assurance Analyses in the Cloud
The objective of this study was to determine the highest flowrate through a client's existing flowline without top-of-line condensation rates exceeding a critical value of 0.25 g/m2.s. Automation of the workflow allowed a large combination of operating conditions to be analysed within a shorter timeframe than a traditional flow assurance analysis process. A multiparameter case matrix was developed to analyse the full range of process and environmental variables. A proprietary multiphase flow assurance software in the cloud was used to develop a reference case model. Then a software script was developed to read in the reference case model's code and produce input files for 1,080 cases. All cases were run within 30 minutes in the cloud. Another software script then extracted key data from the 1,080 output files into a single Excel spreadsheet to enable data visualisation and identification of a simple and effective flow rate criterion to limit condensation rates. Automation of the workflow allowed all combinations of variables to be analysed within a shorter timeframe compared to the traditional flow assurance analysis process, which usually analyses a somewhat limited number of suspected worst-case scenarios selected based on engineering judgement. The bulk data resulting from the automated workflow enabled a single integrity limit criterion to be applied with a high level of confidence, namely the fluid temperature measured at a subsea corrosion probe. This simplified integrity limit allows the operators to easily maximise production for any combination of process and environmental conditions, whilst maintaining confidence that they are not exceeding the critical condensation rate.
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