LAPSE:2024.1085
Published Article

LAPSE:2024.1085
An Integrated Risk Assessment Methodology of In-Service Hydrogen Storage Tanks Based on Connection Coefficient Algorithms and Quintuple Subtraction Set Pair Potential
June 10, 2024
Abstract
At present, there have been a number of hydrogen storage tank explosions in hydrogen filling stations, causing casualties and property losses, and having a bad social impact. This has made people realize that the risk assessment and preventive maintenance of hydrogen storage tanks are crucial. Therefore, this paper innovatively proposes a comprehensive risk assessment model based on connection coefficient algorithms and quintuple subtractive set pair potential. First of all, the constructed index system contains five aspects of corrosion factors, material factors, environmental factors, institutional factors and human factors. Secondly, a combined weighting analysis method based on FAHP and CRITIC is proposed to determine the weight of each indicator. The basic indicators influencing hydrogen storage tanks are analyzed via the quintuple subtraction set pair potential and full partial connection coefficient. Finally, the risk level and development trend of hydrogen storage tanks in hydrogen filling stations are determined by a combination of the three-category connection coefficient algorithms and the risk level eigenvalue method. The results of our case analysis show that the proposed risk assessment model can identify the main weak indicators affecting the safety of hydrogen storage tanks, including installation quality, misoperation and material quality. At the same time, it is found that the risk of high-pressure hydrogen storage tanks is at the basic safety level, and the development trend of safety conditions holds a critical value. The evaluation results can help establish targeted countermeasures for the prevention and maintenance of hydrogen storage tanks.
At present, there have been a number of hydrogen storage tank explosions in hydrogen filling stations, causing casualties and property losses, and having a bad social impact. This has made people realize that the risk assessment and preventive maintenance of hydrogen storage tanks are crucial. Therefore, this paper innovatively proposes a comprehensive risk assessment model based on connection coefficient algorithms and quintuple subtractive set pair potential. First of all, the constructed index system contains five aspects of corrosion factors, material factors, environmental factors, institutional factors and human factors. Secondly, a combined weighting analysis method based on FAHP and CRITIC is proposed to determine the weight of each indicator. The basic indicators influencing hydrogen storage tanks are analyzed via the quintuple subtraction set pair potential and full partial connection coefficient. Finally, the risk level and development trend of hydrogen storage tanks in hydrogen filling stations are determined by a combination of the three-category connection coefficient algorithms and the risk level eigenvalue method. The results of our case analysis show that the proposed risk assessment model can identify the main weak indicators affecting the safety of hydrogen storage tanks, including installation quality, misoperation and material quality. At the same time, it is found that the risk of high-pressure hydrogen storage tanks is at the basic safety level, and the development trend of safety conditions holds a critical value. The evaluation results can help establish targeted countermeasures for the prevention and maintenance of hydrogen storage tanks.
Record ID
Keywords
connection coefficient, hydrogen storage tank, quintuple subtraction set pair potential, risk assessment, risk level eigenvalue
Subject
Suggested Citation
Liang X, Fei F, Wang L, Mou D, Ma W, Yao J. An Integrated Risk Assessment Methodology of In-Service Hydrogen Storage Tanks Based on Connection Coefficient Algorithms and Quintuple Subtraction Set Pair Potential. (2024). LAPSE:2024.1085
Author Affiliations
Liang X: Institute of Safety Assessment and Integrity, State Key Laboratory of Oil and Gas Equipment, CNPC Tubular Goods Research Institute, Xi’an 710077, China
Fei F: State Pipeline Network Group Beijing Pipeline Co., Ltd., Beijing 100101, China
Wang L: The 12th Oil Extraction Plant of the Changqing Oil Field Branch, Qingyang 745400, China
Mou D: The 12th Oil Extraction Plant of the Changqing Oil Field Branch, Qingyang 745400, China
Ma W: Institute of Safety Assessment and Integrity, State Key Laboratory of Oil and Gas Equipment, CNPC Tubular Goods Research Institute, Xi’an 710077, China
Yao J: Key Laboratory of Oil and Gas Safety and Emergency Technology, College of Safety and Ocean Engineering, China University of Petroleum, Beijing 102249, China
Fei F: State Pipeline Network Group Beijing Pipeline Co., Ltd., Beijing 100101, China
Wang L: The 12th Oil Extraction Plant of the Changqing Oil Field Branch, Qingyang 745400, China
Mou D: The 12th Oil Extraction Plant of the Changqing Oil Field Branch, Qingyang 745400, China
Ma W: Institute of Safety Assessment and Integrity, State Key Laboratory of Oil and Gas Equipment, CNPC Tubular Goods Research Institute, Xi’an 710077, China
Yao J: Key Laboratory of Oil and Gas Safety and Emergency Technology, College of Safety and Ocean Engineering, China University of Petroleum, Beijing 102249, China
Journal Name
Processes
Volume
12
Issue
2
First Page
420
Year
2024
Publication Date
2024-02-19
ISSN
2227-9717
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Original Submission
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PII: pr12020420, Publication Type: Journal Article
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LAPSE:2024.1085
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https://doi.org/10.3390/pr12020420
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Jun 10, 2024
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