海上油田设备防火测试设备-系统工程实践的成功

Matthew Johnson
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摘要

先进技术实验室开发了一个防火测试设备,于2015年春季投入使用。本文描述了在开发过程中所采用的系统工程过程路径的一种新方法,以获取这样一个系统的新能力和机会。与被替换的原始系统相比,讨论了新的功能和安全特性。最近发生在海上钻井平台上的火灾事件增加了人们对满足严格的消防安全标准的兴趣。作为需求评估的结果,开发了一个替代的防火测试设备(FTF),以测试海上设备。根据美国石油协会(API)标准6FA/B/C,钻井平台上的海上阀门和连接器必须经过持续防火条件认证。这些要求包括在高达1800华氏度的高温下存活30分钟,同时保持内部压力,甚至承受弯曲载荷。该公司更新了安全法规,对原有的火灾测试设施进行了审查,并确定需要一个新的系统,以结合爆炸保护、控制自动化和态势感知。在建立了来自内部客户的需求和目标之后,衍生的需求就产生了。利用公司的系统工程“引擎”,这导致了满足客户要求和提高安全性的设计。在原有系统的基础上进行了改进,包括六面掩体结构、被动通风、气体安全净化、远程操作以使工作人员远离热区,以及实时图表以评估测试性能。在设施整合后,使用验证矩阵来评估系统功能和性能。与使用外部测试设备相比,改进后的系统可以更快地进行测试周转,并以更低的成本进行更精细的燃烧测试。在设备实际测试之前,可以进行模拟射击测试,以评估“假设”条件。根据API标准成功执行了几项测试。提供了整个系统工程过程的结果和观察结果,包括系统集成和防火测试设施的检查。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Fire Test Facility for Offshore Field Equipment - Success Achieved with Systems Engineering Practice
The Advanced Technology Lab has developed a Fire Test Facility that became operational in spring 2015. This paper describes a fresh approach to the systems engineering process path taken during development to capture new capabilities and opportunities for such a system. New functions and safety features are discussed, as compared to the original system that was replaced. Recent fire incidents on offshore rigs have increased interest in meeting rigorous standards for fire safety. As a result of a needs assessment, a replacement Fire Test Facility (FTF) was developed in order to test offshore equipment. Offshore valves and connectors on rigs must be certified to withstand sustained fire conditions per American Petroleum Institute (API) standards 6FA/B/C. The requirements include surviving fire temperatures up to 1800 F for a period of 30 minutes, while holding internal pressure and even withstanding bending loads. Updated safety regulations at the company led to a review of the original Fire Test Facility, and it was determined that a new system was necessary to incorporate blast protection, controls automation, and situational awareness. After establishing needs and goals from our internal customer, derived requirements were generated. Using the company’s system engineering "engine", this led to a design that met customer requirements and enhanced safety. Improvements over the original system include a 6-sided bunker structure, passive ventilation, gas safety purges, remote operation to keep workers outside the hot zone, and real-time charting to assess test performance. After integration of the facility, a verification matrix was used to assess system functionality and performance. The improved system allows for quicker test turnaround, and more refined burn tests at reduced costs compared to using external test facilities. Mock fire tests can be performed to assess "what-if" conditions prior to actual testing of equipment. Several tests were successfully performed to API standards. Results and observations throughout the systems engineering process, including systems integration and checkout of the Fire Test Facility are provided.
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