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Modelling the impacts of fire in a typical FLNG processing facility


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Baalisampang, T ORCID: 0000-0002-6429-7814, Abbassi, R ORCID: 0000-0002-9230-6175, Garaniya, V ORCID: 0000-0002-0090-147X, Khan, F ORCID: 0000-0002-5638-4299 and Dadashzadeh, M 2017 , 'Modelling the impacts of fire in a typical FLNG processing facility', in VR Renjith (ed.), Proceedings of the International Conference on Safety and Fire Engineering (SAFE'17) , Cochin University of Science and Technology, India, C1.1-C1.10 .

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In the past oil and gas industry had experienced numerous major accidents with catastrophic consequences. Among oil and gas processing technologies, floating liquefied natural gas (FLNG) is an emerging technology which has no operational experiences or lesson learnt to date. In any processing facilities, fire is considered as one of the major hazards. A risk due to fire is considered as the most critical among all other potential risk in FLNG processing facilities due to inherent flammable hazards of hydrocarbons, hydrodynamic interactions, high pressures and their synergistic effects. There is a need of an adequate fire risk assessment and consequence analysis of FLNG processing facilities. Therefore, this study proposes a novel risk-based methodology for modelling the impacts of fire event in a typical FLNG processing facility. The impacts of fire event on adjacent assets and personnel are assessed considering a credible leakage of LNG with an immediate ignition. The scenario is computationally simulated using Fire Dynamic Simulator (FDS). The results of the simulation are used for impact assessment based on predefined criteria and safety measured design is considered to mitigate or avoid the impacts. As part of the safety measured design, a generic water deluge system is installed adjacent to fire location. After the activation of the water deluge system, it is found that the impacts and corresponding risk are significantly reduced. It is evident that the proposed methodology can assess fire impact and manage the associated risks. Additionally, the methodology can be used further for assessing primary propagation of domino effects in a complex processing facility.

Item Type: Conference Publication
Authors/Creators:Baalisampang, T and Abbassi, R and Garaniya, V and Khan, F and Dadashzadeh, M
Keywords: FLNG, LNG, fire modelling, suppression system, CFD
Journal or Publication Title: Proceedings of the International Conference on Safety and Fire Engineering (SAFE'17)
Publisher: Cochin University of Science and Technology
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