4.7 Article

The mitigation performance of ventilation on the accident consequences of H2S-containing natural gas release

期刊

PROCESS SAFETY AND ENVIRONMENTAL PROTECTION
卷 148, 期 -, 页码 1327-1336

出版社

ELSEVIER
DOI: 10.1016/j.psep.2021.02.034

关键词

Ventilation; Mitigation performance; Effectiveness; Diluted H2S; Emergency evacuation; Offshore platforms

资金

  1. National Key R&D Program of China [2017YFC0804500]
  2. Ministry of Industry and Information Technology of China [D719-708-550]
  3. Taishan Scholars Program ofShandong Province [tsqn201909067]
  4. Graduate Student Innovation Projects of China University of Petroleum [YCX2020058]

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Ventilation is an available measure to dilute toxic gas in offshore facilities, but its effectiveness needs further study, especially in emergency evacuation scenarios; Grid-based approach can identify the initial position with the worst toxic impact and estimate the effectiveness of ventilation; The research results can guide the improvement of safety in design and emergency plans for H2S release accidents.
Ventilation is an available measure to dilute the released toxic gas and has been widely applied in offshore facilities to mitigate the adverse impact. However, available is never the same as effective. Up to now, the mitigation performance of ventilation remains a challenging topic that needs to be further studied. To identify the effectiveness of the mitigation, a systematic approach is proposed concerning the toxic impact caused by the diluted toxic gas, during which the emergency evacuation is considered. The grid-based concept is adopted to identify the initial position with the worst toxic impact. Then the effectiveness of ventilation is estimated according to its ability on mitigating the worst toxic impact. Taking an offshore platform as a case, the toxic impact under different H2S leakage scenarios are predicted. The dependencies among the wind speed, leakage rate, concentration of H2S, and toxic impact are discussed. Some safety-related results can be obtained, such as accident scenarios where ventilation can effectively mitigate the toxic impact. The present work could provide guidance to improve the safety of design and emergence plans in H2S release accidents. (C) 2021 Published by Elsevier B.V. on behalf of Institution of Chemical Engineers.

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