Combining Expert Knowledge and Automation to Maximize Pipeline Route Optionality and Defensibility: A Case Study of the Aurora Pipeline

Kevin Seel, Adam Phillips
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引用次数: 0

Abstract

It has become increasingly difficult to successfully develop pipeline projects in North America. This stems from complex matters including environmental opposition, Indigenous rights, regulatory uncertainty, investor indecision and evolving policy. To manage these challenges, developers are advised to consider a route development methodology that provides both optionality and defensibility. This can be achieved through a process that characterizes the landscape based on level of constraint related to environmental and social factors, construction and operational limitations, strategic drivers and cost. Such a process must be analytically robust and able to adapt to new information and priorities emerging throughout the development phase. Particularly in the case of large-scale pipeline projects, traditional routing methods may prove too costly and time-consuming to undertake this analysis in a practical manner. Consequently, proponents may be left with fewer and less defensible route options. Recently, the Aurora Pipeline Team sought to advance preliminary corridor routing under a paradigm of maximum optionality and defensibility in evaluating pipeline routes across northern British Columbia, inclusive of strategic interconnections. Implementing Golder Associates Ltd. automated routing decision support system called “GoldSET” the team was able to rapidly perform a robust corridor options analysis covering over 400,000 km2. This systematic, data-driven process involved subject matter expert assessment of the level of constraint or opportunity associated with individual data layers in consideration of multiple, thematic scenarios. Having consolidated and mapped the aggregated level of constraint across northern BC, routes were generated along paths of least constraint with segments tested for agreement across multiple scenarios. In total, 72 routes comprising more than 50,000 km in total length were developed and evaluated for feasibility. This refinement process ultimately resulted in an interconnected network of approximately 180 pre-screened route segments totaling nearly 12,237 km of potential routes. The advantage provided in subsequent stages of the project was the ability to recognize, quantify and evaluate the tradeoffs between segments, and adapt the route as fatal flaws were encountered. During ensuing, constructability-focused phases of the routing process, optionality had been pre-established, and route changes were able to be made quickly where required. The automated process, in companion to subject matter expert participation, also provided a clear and defensible rationale as to why routes were considered optimal, and how potential impacts to sensitive features were addressed. The evaluation was completed in far less time and more cost-effectively than otherwise possible with traditional methods.
将专业知识与自动化相结合,最大限度地提高管道路线的可选性和可防御性:奥罗拉管道的案例研究
在北美成功开发管道项目变得越来越困难。这源于复杂的问题,包括环境反对、土著权利、监管的不确定性、投资者的优柔寡断和不断变化的政策。为了应对这些挑战,建议开发人员考虑一种既提供可选性又提供防御性的路由开发方法。这可以通过一个过程来实现,该过程基于与环境和社会因素、建设和运营限制、战略驱动因素和成本相关的约束水平来描述景观。这种过程在分析上必须是健壮的,并且能够适应整个开发阶段出现的新信息和优先事项。特别是在大型管道项目的情况下,传统的布线方法可能被证明过于昂贵和耗时,无法以实际的方式进行这种分析。因此,支持者可能会留下越来越少的防御路线选择。最近,Aurora管道团队在评估不列颠哥伦比亚省北部的管道路线(包括战略互联)时,试图在最大可选性和可防御性的范式下推进初步走廊路线。采用goldder Associates Ltd.的自动路线决策支持系统“GoldSET”,该团队能够快速执行覆盖超过40万平方公里的走廊选项分析。这个系统的、数据驱动的过程涉及主题专家在考虑多个主题场景的情况下,对与单个数据层相关的约束或机会水平进行评估。在整合和映射了BC北部的总体约束水平后,沿着约束最少的路径生成路线,并在多个场景中测试了路段的一致性。总共开发了72条路线,总长度超过5万公里,并对其可行性进行了评估。这一改进过程最终形成了一个由大约180个预先筛选的路线段组成的互联网络,总计近12237公里的潜在路线。在项目的后续阶段提供的优势是能够识别、量化和评估分段之间的权衡,并在遇到致命缺陷时调整路线。在后续的路由过程中,以可构造性为重点的阶段,可选性已经预先建立,并且可以在需要的地方快速进行路由更改。在主题专家参与的情况下,自动化过程也提供了一个清晰和可辩护的理由,说明为什么路线被认为是最佳的,以及如何处理对敏感特征的潜在影响。与使用传统方法相比,评估在更短的时间内完成,成本效益更高。
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