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首页> 外文期刊>Transactions of The Institution of Chemical Engineers. Process Safety and Environmental Protection, Part B >A Resilience-based Integrated Process Systems Hazard Analysis (RIPSHA) approach: Part I plant system layer
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A Resilience-based Integrated Process Systems Hazard Analysis (RIPSHA) approach: Part I plant system layer

机译:基于弹性的综合过程系统危害分析(RIPSHA)方法:第一部分植物系统层

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摘要

In recent years, the chemical process industry has witnessed increased process safety management challenges. One of the initial steps in process safety and risk management of any facility is hazard identification and analysis. Two types of factors: 1) technical (e.g., equipment malfunction), and 2) social (e.g., human and organizational factors) are important in analyzing hazards of a socio-technical process system as a whole. With the conventional process hazard analysis (PHA) methods, there is a tendency to overlook the potential impact of socio-technical systems on the health and sustainment of safeguards. This disregard leads to ignoring social factors, such as shift handover communication, downtime, operating and maintenance procedures, and more. This need calls for the development of a holistic and integrated systems framework for hazard analysis. This paper presents a novel hazards analysis approach that incorporates both technical and social factors within a single analysis method called Resilience-based Integrated Process Systems Hazard Analysis (RIPSHA). This approach is based on the following resilience aspects- 'early detection', 'error tolerant design', 'plasticity', and 'recoverability'. This work establishes and presents a worksheet for analysis of hazards within process systems. The paper concludes with an example of a liquefied natural gas (LNG) process system to illustrate the key concepts of this integrated approach. (C) 2018 Institution of Chemical Engineers. Published by Elsevier B.V. All rights reserved.
机译:近年来,化学工艺行业目睹了加工安全管理挑战的增加。任何设施的过程安全性和风险管理的最初步骤之一是危险识别和分析。两种类型的因素:1)技术(例如,设备故障)和2)社会(例如,人类和组织因素)对于分析整个社会技术过程系统的危害很重要。通过常规过程危害分析(PHA)方法,存在倾向于忽视社会技术系统对保障保障和维持的潜在影响。这种忽视导致忽略社会因素,例如转移交换通信,停机,操作和维护程序等。这需要呼吁开发整体和集成系统框架进行危害分析。本文提出了一种新颖的危险性分析方法,其在一个分析方法中包含了技术和社会因素,称为基于弹性的综合处理系统危险分析(RIPSHA)。这种方法是基于以下弹性方面 - '早期检测','误差耐受设计',“可塑性”和“可恢复性”。这项工作建立并提出了一个工作表,用于分析过程系统内的危险。本文结论了液化天然气(LNG)工艺系统的一个例子,以说明这种综合方法的关键概念。 (c)2018化学工程师机构。 elsevier b.v出版。保留所有权利。

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