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研究生:陳昆賢
研究生(外文):Chen, Kun-Hsien
論文名稱:比較 HAZOP 與 LOPA 評估方法於石化廠氫氣壓縮機風險的差異
論文名稱(外文):The differences in risk assessment between HAZOP and LOPA methods: Loss prevention for the hydrogen compressor operated in a petrochemical plant
指導教授:徐啟銘徐啟銘引用關係
指導教授(外文):Shu, Chi-Min
口試委員:江昇修陳建榮
口試委員(外文):Giang, Shen-ShiuChen, Jeng-Rung
口試日期:2018-07-11
學位類別:碩士
校院名稱:國立雲林科技大學
系所名稱:環境與安全衛生工程系
學門:工程學門
學類:環境工程學類
論文種類:學術論文
論文出版年:2018
畢業學年度:106
語文別:中文
論文頁數:62
中文關鍵詞:石化產業風險評估氫氣壓縮機
外文關鍵詞:Petrochemical IndustryRisk AssessmentHydrogen CompressorsHAZOPLOPA
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生活中充斥著大量石化產品,在現在社會中,石化產業佔有相關重要的地位,然而石化工廠一但發生災害,除了會造成設備損壞、人員傷亡,嚴重者將進一步波及周邊地區生態與居民,造成的影響甚巨,故對一個工廠的預防與控制是十分重要的環節,而透過各種風險評估工具來評估工廠運轉中潛在的危害,可瞭解風險發生機率、嚴重度,進而提出相對應的改善及預防控制,降低災害發生程度。
目前國內較高影響力的評估工具–HAZOP ,是各大公司企業主要的風險評估方法,透過使用 HAZOP 評估工具內的節點取決、偏離引導字、參數、偏離矩陣等分析,經由風險評估矩陣、可能性、嚴重性來得到風險等級,但風險評估結果只有風險等級,無法有效的定量危險。
另一分析工具–LOPA–保護層分析,依 IEC61511 來得到半定量的最大容許風險、可忽視風險。LOPA 評估方法可以更詳細的以風險時間比、人員暴露率、點火機率等進行頻率修正係數進行計算,透過獨立保護層及中間事件發生率得到風險降低量,來獲得安全儀錶功能完整性等級 (SIL) 作為最重要依據。
本研究選擇氫氣壓縮機進行評估,分別透過 HAZOP 與 LOPA 兩種評估方法的結果,來比較對氫氣壓縮機評估後之差異性,進而探討 HAZOP 與 LOPA 兩種評估方法之優缺點。
In the present society, the petrochemical industry occupies an important position. However, once a disaster occurs in a petrochemical plant, apart from causing equipment damage and casualties, serious cases will further affect the ecology and residents in the surrounding areas, Therefore, it is a very important link in the prevention and control of a factory. Through various risk assessment tools to evaluate the potential hazards in the operation of the plant, we can understand the probability and severity of the risks and propose corresponding improvements. And Prevention and control, reduce the degree of disaster.
HAZOP is currently a high–impact assessment tool, is a major risk assessment method for major corporations. By using the HAZOP evaluation tool, the nodes in the assessment tool are deviated from the guide word, parameters, deviation matrix analysis, risk assessment matrix, Sex, seriousness to get the risk level, but the risk assessment results only risk level, can not effectively quantify the danger.
Another analytical tool, the LOPA–Protection Layer Analysis, is based on the IEC61511–3 LOPA Form to get the maximum allowable semi–quantitative risk and the risk to be neglected. LOPA assessment direction can be more detailed risk–time ratio, the rate of personnel exposure, the probability of ignition frequency correction coefficient calculation, through the independent protective layer and the incidence of intermediate events were reduced risk, which in turn safety instrumented functional integrity level (SIL) for the most important basis.
In this study, hydrogen compressor was chosen for risk assessment, mainly due to hydrogen compressor accidents in many petrochemical plants in recent years. Most of the factories only conducted import–export HAZOP evaluations on compressors. The study, by combining HAZOP with LOPA, explains why a hydrogen compressor accident can occur in a petrochemical plant that has already undergone risk assessment, and then discusses the pros and cons of HAZOP and LOPA.
摘要...i
Abstract...ii
目錄...iv
表目錄...vi
圖目錄...vii
第一章 緒論...1
1.1 研究背景...2
1.2 研究目的...11
1.3 研究架構...13
第二章 文獻回顧...14
2.1 HAZOP 簡介...15
2.1.1 HAZOP 危害與操作性分析法...15
2.2 LOPA 簡介...17
2.2.1 LOPA 保護層分析法...18
2.2.2 IEC 61511 功能安全...19
第三章 研究方法...22
3.1 研究流程...22
3.2 製程流程...24
3.2.1 流程圖繪製...24
3.2.2 製程設備與流體說明...25
3.2.3 製程流程說明 25
3.3 HAZOP 危害與操作性分析法設定 27
3.3.1引導字/參數/偏離設定 27
3.3.2可能性設定...27
3.3.3嚴重度設定...28
3.3.4風險等級設定...29
3.3.5分析表格設定...30
3.4 LOPA 保護層分析法設定...31
3.4.1嚴重度設定...31
3.4.2起始事件發生率設定...34
3.4.3頻率修正係數設定...35
3.4.4獨立保護層設定...36
3.4.5風險降低量設定...36
3.4.6分析表格設定...37

第四章 結果與討論...40
4.1 HAZOP 分析結果...40
4.1.1 HAZOP 氫氣壓縮機–節點1 ( V1閥)...40
4.1.2 HAZOP 氫氣壓縮機––節點2 (渦輪機調速器)...43
4.1.3 HAZOP 氫氣壓縮機––節點3 (人員操作)...46
4.2 LOPA 分析結果...49
4.2.1 LOPA 氫氣壓縮機–節點1 ( V1閥)...49
4.2.2 LOPA 氫氣壓縮機–節點2 (渦輪機調速器)...52
4.2.3 LOPA 氫氣壓縮機–節點2 (人員操作)...54
第五章 結論與建議...56
5.1 結論...56
5.2 建議...57
5.3 未來與展望...58
參考文獻...59
1.C.D. Swann and M.L. Preston. Twenty–five years of HAZOPs, J. Loss/‘rev. Process Ind. Vol.8.No.6.349–353, 1995 pp.
2.許錦明、葉忠益,應用HAZOP及Hazard Tree Analysis (HTA)風險分析技術於蒸汽鍋爐工場之適用性研析,勞工安全衛生研究季刊民國102年3月第21卷第1期第122–134頁。
3.陳俊瑜、王世煌、張國基,產業製程安全管理與技術實務,五南圖書,2015年,ISBN 978–957–11–8313–8
4.Layer of Protection Analysis: Simplified Process Risk Assessment , ALChE.
5.Paul Baybutt. Overcoming challenges in using layers of protection analysis (LOPA) to determine safety integrity levels (SILs). Journal of Loss Prevention in the Process Industries 48 (2017) 32 e 40.
6.Angela Summers, William Vogtmann, Steven Smolen. Improving PHA/LOPA by consistent consequence severity estimation. Journal of Loss Prevention in the Process Industries 24 (2011) 879–885.
7.BS IEC 61511–3:2003: Functional safety: Safety instrumented systems for the process ndustry sector.
8.Mirek Generowicz. Functional safety: the next edition of IEC 61511, 6th Safety Control Systems Conference – Melbourne 2016.
9.A G Foord, W G Gulland, C R Howard, T Kellacher, W H Smith. APPLYING THE LATEST STANDARD FOR FUNCTIONAL SAFETY — IEC 61511. SYMPOSIUM SERIES No. 150, 2004 IChemE.
10.黃清賢:危害分析與風險評估。ISBN13:9789571423128;三民書局股份有限公司;2008。

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