Development of a Korean offshore wind power HSE risk assessment module based on systems engineering approach
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초록
This study provides an in-depth comparison of various risk assessment models widely used in modern industry and proposes the most suitable models for offshore wind power risk assessment, focusing on the characteristics and requirements of the offshore wind power industry. The selection of the assessment models is based on various factors, such as the purpose of risk assessment, the stakeholder requirements, and the characteristics of offshore wind power. This study emphasizes the importance of using a combination of different risk assessment models in situations of high uncertainty. Using model-based systems engineering, risk assessment module is designed and implemented with traceability from requirements to detailed functionality. The risk assessment module supports organic conversion between risk assessment models to assess the risks of offshore wind power generation. The functionality and usability of the offshore wind risk assessment module were verified through the evaluation and the field test.
Abstract
This study provides an in-depth comparison of various risk assessment models widely used in modern industry and proposes the most suitable models for offshore wind power risk assessment, focusing on the characteristics and requirements of the offshore wind power industry. The selection of the assessment models is based on various factors, such as the purpose of risk assessment, the stakeholder requirements, and the characteristics of offshore wind power. This study emphasizes the importance of using a combination of different risk assessment models in situations of high uncertainty. Using model-based systems engineering, risk assessment module is designed and implemented with traceability from requirements to detailed functionality. The risk assessment module supports organic conversion between risk assessment models to assess the risks of offshore wind power generation. The functionality and usability of the offshore wind risk assessment module were verified through the evaluation and the field test.
참고문헌 (52)
- Abdelghany, M., "Cause-consequence diagram reliability analysis using formal techniques with application to electrical power networks", IEEE Access, 9, pp.23929~23943 (2021)
- Adem, A., "An integrated model using SWOT analysis and Hesitant fuzzy linguistic term set for evaluation occupational safety risks in life cycle of wind turbine", Saf. Sci, 106, pp.184~190 (2018)
- Ahsan, D., "Why does the offshore wind industry need standardized HSE management systems? An evidence from Denmark", Renew. Energy, 136, pp.691~700 (2019)
- Albrechtsen, E., "Occupational safety management in the offshore windindustry–status and challenges", Energy Proc, 24, pp.313~321 (2012)
- Aust, J., "Bowtie methodology for risk analysis of visual borescope inspection during aircraft engine maintenance", Aerospace, 6, pp.110~ (2019)
- Beim, G. K., "Event tree analysis of lock closure risks", J. Water Resour. Plann. Manag, 123, pp.169~178 (1997)
- Bepary, B., "Occupational risk assessment of wind turbines in Bangladesh", Applied System Innovation, 5(2), pp.34~ (2022)
- Brady, R. L., "Offshore Wind Industry Interorganizational Collaboration Strategies in Emergency Management", pp.2022
- Carpitella, S., "A combined multi-criteria approach to support FMECA analyses : a real-world case", Reliab. Eng. Syst. Saf, 169, pp.394~402 (2018)
- Catelani, M., "Risk assessment of a wind turbine : a new FMECA-based tool with RPN threshold estimation", IEEE Access, 8, pp.20181~20190 (2020)
- Choi, J. Y., "Hazop methodology based on the health, safety, and environment engineering", Int. J. Environ. Res. Publ. Health, 17(9), pp.3236~ (2020)
- Droste, R., "Model-based risk assessment supporting development of HSE plans for safe offshore operations", International Workshop on Formal Methods for Industrial Critical Systems, pp.146~161 (2012)
- Garrido, V., "Listeriosis risk assessment : simulation modelling and"what if"scenarios applied to consumption of ready-to-eat products in a Spanish population", Food Control, 21(3), pp.231~239 (2010)
- Ghasemi, F., "Applications, shortcomings, and new advances of Job Safety Analysis (JSA): findings from a systematic review", Safety and Health at Work, 14(2), pp.153~162 (2023)
- Grasu, G., "Risk assessment of floating offshore wind turbine", Energy Rep, 9, pp.1~18 (2023)
- "Offshore oil and gas"[URL]
- Heydari, Z., "Risk assessment and risk management of kermanshah province gas company using HAZOP method", Iranian Journal of Oil and Gas Science and Technology, 11(1), pp.28~37 (2022)
- "IEC 31010, Risk Management. Risk Assessment Techniques", British Standards Institution, ~ (2019)
- Ikwan, F., "Safety evaluation of leak in a storage tank using fault tree analysis and risk matrix analysis", J. Loss Prev. Process. Ind, 73, pp.104597~ (2021)
- INCOSE, T., "Systems Engineering Vision 2020", INCOSE, 26, pp.2~ (2007)
- "ISO 31000, Risk Management", Greg Hutchins, ~ (2018)
- "ISO 45001, Occupational Health and Safety Management Systems-Requirements with Guidance for Use", BSI Standards Limited, ~ (2018)
- Kapurch, S. J., "NASA Systems Engineering Handbook" (2010), Diane Publishing
- Korea Register, "Development of HSE Operational Manual for Offshore Wind Farm", Korea South-East Power Co, ~ (2019)
- Korea Wind Energy Industry Association, "Installation Status of Wind Power Generators in Korea", ~ (2020)
- Kwon, J. -J., "A collision analysis technique for prevention actions of accident in safety critical system", KIPS Transactions on Software and Data Engineering, 2, pp.661~668 (2013)
- Leschine, T. M., "What-if scenario modeling to support oil spill preparedness and response decision-making", Hum. Ecol. Risk Assess, 21(3), pp.646~666 (2015)
- Lin, M. S. M., "Risk assessment and management in the offshore wind power industry : a focus on component handling operations in ports", Saf. Sci, 167, pp.106286~ (2023)
- Lipol, L. S., "Risk analysis method : FMEA", FMECA in the organizations, 2011, pp.11(5), 74~82
- Lyon, B. K., "The power of what if : assessing and understanding risk", Prof. Saf, 65(6), pp.36~43 (2020)
- Ministry of Employment and Labor(MoEL), "Article 36 of Hazard Prevention Measures (Implementation of Risk Assessment) in Occupational Safety and Health Act", Republic of Korea, ~ (2023)
- Ministry of Employment and Labor(MoEL), "Guidelines for Risk Assessment at Workplaces", Republic of Korea, ~ (2023)
- Ministry of Employment and Labor(MoEL), "Occupational Safety and Health Act Enforcement Rules", Republic of Korea, ~ (2024)
- 9Th Basic Plan for Electricity Supply, "Ministry of Trade, I. and E.", ~ (2020)
- Mou, J., "Research on operation safety of offshore wind farms", J. Mar. Sci. Eng, 9, pp.881~ (2021)
- Object Management Group(OMG), "OMG Systems Modeling Language (OMG SysML) Version 2.0 Beta", ~ (2023)
- Ong, N. A. F. M. N., "Fault tree analysis of fires on rooftops with photovoltaic systems", J. Build. Eng, 46, pp.103752~ (2022)
- Park, J. -Y., "Development of unmanned remote monitoring system for MW class wind turbines", Journal of institute of Control. Robotics and Systems, 17, pp.412~418 (2011)
- Purba, J. H., "Fuzzy probability based event tree analysis for calculating core damage frequency in nuclear power plant probabilistic safety assessment", Prog. Nucl. Energy, 125, pp.103376~ (2020)
- Rajkumar, I., "Job safety hazard identification and risk analysis in the foundry division of a gear manufacturing industry", Mater. Today : Proc, 46, pp.7783~7788 (2021)
- Rotinsulu, F. N., "Risk potential analysis using hazard identication, risk assessment and determine Control (HIRADC) and Job safety analysis (JSA) methods", Asian Journal of Engineering, Social and Health, 2(10), pp.1133~1141 (2023)
- SEBoK, "Guide to the Systems Engineering Body of Knowledge (SEBoK) - SEBoK", ~ (2023)
- Stefek, J., "US Offshore Wind Workforce Assessment", ~ (2022)
- Szab´o, G., "Development an office ergonomic risk checklist: composite office ergonomic risk assessment (CERA Office)", Proceedings of the 20th Congress of the International Ergonomics Association (IEA 2018) Volume II: Safety and Health, Slips, Trips and Falls, 20, pp.590~597 (2019), Springer International Publishing
- Challenges Related to Offshore Renewable Energy, "Tveiten, C. K.", ~, pp.Report A 18107 (2011)
- Wang, Z., "An integrated approach-based FMECA for risk assessment : application to offshore wind turbine pitch system", Energies, 15(5), pp.1858~ (2022)
- Xiaoliang, Z., "Risk assessment on chemical plants by the method of safety checklist analysis", Process Saf. Prog, 36(1), pp.95~101 (2017)
- Xie, S., "A novel risk evaluation method for fire and explosion accidents in oil depots using bow-tie analysis and risk matrix analysis method based on cloud model theory", Reliab. Eng. Syst. Saf, 215, pp.107791~ (2021)
- Xin, B., "Basic event probability determination and risk assessment based on cause-consequence analysis method", J. Phys. Conf, 1549(5), pp.052094~ (2020), IOP Publishing
- Yazdi, M., "Fault tree analysis improvements: a bibliometric analysis and literature review", Qual. Reliab. Eng. Int, 39(5), pp.1639~1659 (2023)
- Yousofnejad, Y., "Dynamic risk assessment of hospital oxygen supply system by HAZOP and intuitionistic fuzzy", PLoS One, 18(2), pp.e0280918~ (2023)
