Journal of the Korean Institute of Gas (한국가스학회지)

The Korean Institute of GAS (한국가스학회)
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Quantitative Analysis of Damage Impacts in case of Bunkering NH3 from Tank Lorry to Fishing Vessel

어선-탱크로리 간의 NH3 이적 시 누출에 따른 정량적 피해영향분석

  • Lim, Sang-Jin (Department of Marine System Engineering, Graduate School of Mokpo National Maritime University) ;
  • Choi, Bu-Hong (Division of Coast Guard, Mokpo National Maritime University) ;
  • Lee, Yoon-Ho (Division of Coast Guard, Mokpo National Maritime University)
  • 임상진 (목포해양대학교 대학원 기관시스템공학과) ;
  • 최부홍 (목포해양대학교 해양경찰학부) ;
  • 이윤호 (목포해양대학교 해양경찰학부)
  • Received : 2022.03.17
  • Accepted : 2022.05.11
  • Published : 2022.06.30
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Abstract

About 21% of domestic chemical accidents are caused by transport vehicles for the past 10 years in Korea. Also, ammonia is a chemical substance with the largest number of accidents, 82 out of 672. In this study, supposed seasonal alternative scenario and worst scenario in case of releasing ammonia during bunkering it from tank lorry to fishing vessel and interpreted seasonal impact and range through Python, ALOHA, Probit analysis. Radiation impact range of possibility for 2nd burn and for maximum radiation in winter scenario, which is one of the alternative scenarios, was the highest(range: 41m, radiation: 5.01kW/m2) while overpressure impact was less than minimum standard of impact. And toxicity impact range(EPRG-2) of the summer scenario was the widest(5.0km) and took a very high death rate near accident area(port area, tourist area) according to Probit analysis. the wort scenario had a similar impact and range of summer scenario.

지난 10년간 국내 화학물질 사고의 약 21%가 운송 차량에 의해 발생하였으며 그중 암모니아는 국내 화학물질 관련 사고 672건 중 82건으로 가장 많은 사고가 발생한 화학물질이다. 따라서 본 연구에서는 어선과 운송 차량 간 암모니아 이적 작업 중 누출사고가 발생할 경우의 계절별 대안 시나리오와 최악의 시나리오를 가정하였고 인구밀도 자료와 기상 특성을 토대로 ALOHA와 프로빗 분석, Python의 Folium 모듈을 통해 피해 범위와 그 영향을 해석하였다. 대안 시나리오에서 복사열의 경우 겨울철 2도 화상이 우려되는 범위가 41m, 최고 복사열이 5.01kW/m2로 가장 높았으며 과압의 경우 피해 최저기준보다 낮은 6.56kPa를 보여 압력에 의한 영향이 적은 것을 파악하였다. 그리고 독성 피해의 경우 여름철 EPPG-2 끝점이 5.0km로 복사열과 과압의 피해 영향보다 넓은 범위를 보였고, 독성 사망률에 대한 프로빗 분석 결과 인구밀도가 높은 항만과 관광지역에서 95~100%의 사망률을 확인하였다.

Keywords

References

  1. Jeong, Y.S., Woo, I.S., Lim, J.W., "Risk Management for Ammonia Unloading and Storage Tank Facility", Journal of the Korean Institute of Gas, 21(5), 95-103, (2017) https://doi.org/10.7842/KIGAS.2017.21.5.95
  2. National Institute of Chemical Safety, https://icis.me.go.kr/main.do;jsessionid=rzyfQmkJq4ccC3fcH9+jqvw.icis_ipotal21
  3. KBS news, https://news.kbs.co.kr/news/view.do?ncd=2364113, (2011)
  4. KBS news, https://news.kbs.co.kr/news/view.do?ncd=2929202, (2014)
  5. Ryu, Y.J., Lee, M.K., Lee, S.K., "Measures to Prevent Recurrence through the Analysis of an Explosion Case at Ammonia Refrigeration Facilities", Journal of the Korean Institute of Gas, 20(3), 38-45, (2016) https://doi.org/10.7842/KIGAS.2016.20.3.38
  6. Kang, S.J., Lee, J. M., Moon, J. Y., Chon, Y. W., "Risk Analysis of Ammonia Leak in the Refrigeration Manufacturing", Journal of the Korean Institute of Gas, 21(1), 43-51, (2017) https://doi.org/10.7842/KIGAS.2017.21.1.43
  7. Nikita, Haryono Budi Santosa, Fadli Kasim, Enggar Tudha Prasetyo, Muhammad Yahya Ayash, "Mitigating accidental ammonia (NH3) release from storage tank based on risk distribution using ALOHA and fault tree analysis in PT. Sarihusada Generasi Mahardhika 2 Klaten", International Energy Conference ASTECHNOVA, (2019)
  8. Statistics Korea, http://kostat.go.kr/portal/korea/index.action, (2019-2020)
  9. "KOSHA GUIDE P-107-2020", Korea Occupational Safety and Health Agency, (2020)
  10. Korea Meteorological Administration, https://www.weather.go.kr/, (2020)
  11. Xuemei Wang, Yufei Tan, Tiantian Zhang*, Jindong Zhang, Kecheng Yu, "Diffusion process simulation and ventilation strategy for small-hole natural gas leakage in utility tunnels", Tunnelling and Underground Space Technology, (2020)
  12. Jeon, B.H., Kim H.S., Lim S.M., Lee. C.J., Lee, G.S., "A Study on the Development of Calculation Tables and Formulas for Determining Separation Distance in Case of Cl2.HF Tank-lorry Leakage", Journal of the Korea Academia-Industrial, 22(4), 212-219, (2021)
  13. Lee., Y.H., "A Study on the Damage Range According to Leakage Scenarios in Natural Gas Pipeline of LNG Fueled Ship", Journal of the Korean Society of Marine Environment & Safety, 26(4), 317-326, (2020) https://doi.org/10.7837/kosomes.2020.26.4.317
  14. Park, S.W., Jung, S.H., "Recommended Evacuation Distance for Offsite Risk Assessment of Ammonia Release Scenarios", The Korean Society of Safety, 31(3), 156-161, (2016) https://doi.org/10.14346/JKOSOS.2016.31.3.156
  15. Hwang, W.Y., "A Study on the impact of Damage Caused by an Explosion Accident at a Downtown Gas Station: Focusing on Radiant Heat", Journal of the Korean Society of Hazard Mitigation, 20(4), 103-111, (2020) https://doi.org/10.9798/kosham.2020.20.4.103
  16. Kim, S.S., Park, J.H., Shin, Y.S.,"The Risk Assessment of a T-beam Girder Bridge on Fire", Korean Society of Civil Engineers, 1434-1437, (2012)
  17. "KOSHA GUIDE P-102-2013", Korea Occupational Safety and Health Agency, (2012)
  18. Jeong, G. S., "Liquid chlorine leak damage modeling of Petrochemical Complex", Department of Fire Service Administration Graduate School of Dongshin University, (2015)