Digitalization Goes Subsea

Karstein Kristiansen
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引用次数: 2

Abstract

This paper discusses the requirements for a "next-generation" subsea control system and provides a description of the proposed setup/architecture. Requirements for "next-generation" subsea control focuses on requirements for "digitalization" and Industry 4.0 capabilities. Existing subsea control systems today are intended for and used to control hydraulic valves in subsea production setups. The proposed "next-generation" subsea control system is specified, designed and built for an all-electric process control setup, with requirements for extensive usage of digitalization toolboxes. Primary requirements for the "next-generation" subsea control system would be deterministic behavior and latency in the millisecond range for the control of operations part/signals/objects, while at the same time generating large amounts of high quality and highly accurate time-stamped condition monitoring data to be used in the digitalization setup. The proposed concept integrates subsea control and historian systems directly into the existing topsides control and historian systems. Implementation of an anti-surge control system will be used as an example to illustrate the concept for control of operations, and the use of artificial intelligence (AI) and historical stored data would be used as examples for topside digitalization techniques used on subsea installed equipment. Removing boundaries between topsides and subsea automation as suggested in this paper provides options to use already available toolboxes for digitalization of topsides assets on similar subsea components. The proposed open architecture control system would also easily interface directly to any cloud-based solution with standard interfaces or well-defined application program interfaces (APIs). Economic benefits of implementing an open-architecture control system would include CAPEX and OPEX reductions, while at the same time creating a "future-proof" system that allows for the addition of digitalization options. Subsea data would be delivered and stored with higher quality, providing operators with the option to look retrospectively and evaluate historian data based on knowledge to be obtained in the future. Moreover, having one integrated control system provides better protection against cyberthreats, as it eliminates the requirement for several systems, which need to be updated and maintained during the lifetime of the installation. Various predictions and thoughts about the future of subsea controls beyond the proposed "next-generation" subsea control system will also be included in this paper.
海底数字化
本文讨论了“下一代”海底控制系统的要求,并提供了拟议设置/架构的描述。“下一代”海底控制的需求主要集中在“数字化”和工业4.0能力的需求上。目前,现有的海底控制系统主要用于控制海底生产装置中的液压阀。拟议的“下一代”海底控制系统是为全电动过程控制设置而设计和制造的,需要广泛使用数字化工具箱。“下一代”海底控制系统的主要要求是对操作部分/信号/对象的控制的确定性行为和毫秒范围内的延迟,同时生成大量高质量和高精度的时间戳状态监测数据,用于数字化设置。提出的概念将水下控制和历史系统直接集成到现有的上层控制和历史系统中。将以防浪涌控制系统的实施为例,说明操作控制的概念,并以人工智能(AI)和历史存储数据的使用为例,说明在海底安装设备上使用的上层数字化技术。正如本文所建议的那样,消除上层设备和海底自动化之间的界限,为使用现有工具箱对类似海底组件的上层设备进行数字化提供了选择。所提议的开放体系结构控制系统还可以通过标准接口或定义良好的应用程序编程接口(api)轻松地直接连接到任何基于云的解决方案。实施开放式体系结构控制系统的经济效益包括降低资本支出和运营成本,同时创建一个“面向未来”的系统,允许增加数字化选项。海底数据将以更高的质量交付和存储,为运营商提供了回顾和评估历史数据的选择,这些数据是基于未来获得的知识。此外,拥有一个集成控制系统可以更好地防范网络威胁,因为它消除了对多个系统的需求,这些系统需要在安装的整个生命周期内进行更新和维护。除了提出的“下一代”海底控制系统之外,本文还将对海底控制的未来进行各种预测和思考。
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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