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    전기차 화재 실험 및 대응방안에 관한 연구 = An Experiment Study on Electric Vehicle Fire and Fire Response Procedures

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    https://www.riss.kr/link?id=A108967817

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    다국어 초록 (Multilingual Abstract) kakao i 다국어 번역

    Lithium-ion batteries (LIB) are widely used in various sectors, such as transportation (e.g., electric vehicles (EV)) and energy (e.g., energy storage facilities) due to their high energy density, broad operating temperature (-20 ℃ ~ 60 ℃), and high capacities. LIBs are powerful but fragile on external factors, including pressure, physical damage, overheating, and overcharging, that cause thermal runaway causing fires and explosions.
    During a LIB fire, a large amount of oxygen is generated from the decomposition of ionogenic materials. A water fire extinguisher that helps with cooling and suffocating must be essentially required at the same time. In fact, however, it is difficult to suppress LIB fires in the case of EVs because a LIB is installed with a battery pack housing that interrupts direct extinguishing by water. Thus, this study aims to investigate effective fire extinguishing measurements for LIB fires by using an EV.
    Relevant documents, including research articles and reports, were reviewed to identify effective ways of LIBs fire extinguishing. A real-scale fire experiment generating thermal runaway was carried out to figure out the combustion characteristics of EVs. This study revealed that the most effective fire extinguishing measurements for LIB fires are applying fire blankets and water tanks. However, there is still a lack of adequate regulation and guidelines for LIB fire extinguishment. Taking this into account, developing functional fire extinguishment measurements and available regulatory instruments is an urgent issue to secure the safety of firefighters and citizens.
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    Lithium-ion batteries (LIB) are widely used in various sectors, such as transportation (e.g., electric vehicles (EV)) and energy (e.g., energy storage facilities) due to their high energy density, broad operating temperature (-20...

    Lithium-ion batteries (LIB) are widely used in various sectors, such as transportation (e.g., electric vehicles (EV)) and energy (e.g., energy storage facilities) due to their high energy density, broad operating temperature (-20 ℃ ~ 60 ℃), and high capacities. LIBs are powerful but fragile on external factors, including pressure, physical damage, overheating, and overcharging, that cause thermal runaway causing fires and explosions.
    During a LIB fire, a large amount of oxygen is generated from the decomposition of ionogenic materials. A water fire extinguisher that helps with cooling and suffocating must be essentially required at the same time. In fact, however, it is difficult to suppress LIB fires in the case of EVs because a LIB is installed with a battery pack housing that interrupts direct extinguishing by water. Thus, this study aims to investigate effective fire extinguishing measurements for LIB fires by using an EV.
    Relevant documents, including research articles and reports, were reviewed to identify effective ways of LIBs fire extinguishing. A real-scale fire experiment generating thermal runaway was carried out to figure out the combustion characteristics of EVs. This study revealed that the most effective fire extinguishing measurements for LIB fires are applying fire blankets and water tanks. However, there is still a lack of adequate regulation and guidelines for LIB fire extinguishment. Taking this into account, developing functional fire extinguishment measurements and available regulatory instruments is an urgent issue to secure the safety of firefighters and citizens.

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    참고문헌 (Reference)

    1 X. Feng, "Thermal runaway mechanism of lithium ion battery for electric vehicles : a review" 10 : 246-267, 2018

    2 Q. Wanga, "Thermal runaway caused fire and explosion of lithium ion battery" 208 : 210-224, 2012

    3 L. B. Diaz, "Review—Meta-Review of Fire Safety of Lithium-Ion Batteries : Industry Challenges and Research Contributions" 167 : 2020

    4 A. Wang, "Review on modeling of the anode solid electrolyte interphase (SEI) for lithium-ion batteries" 4 (4): 2018

    5 L. Kong, "Li-ion battery fire hazards and safety strategies" 11 (11): 2018

    6 Y. Zhou, "Inhibition of thermal runaway in lithium-ion batteries by fine water mist containing a low-conductivity compound additive" 340 : 2020

    7 P. Kritzer, "Improved Safety for Automotive Lithium Batteries : An Innovative Approach to include an Emergency Cooling Element" 4 (4): 192-207, 2014

    8 S. W. Kang, "Full-scale fire testing of battery electric vehicles" 332 : 2023

    9 P. Sturm, "Fire tests with lithium-ion battery electric vehicles in road tunnels" 134 : 2022

    10 P. Lou, "Fabrication of fire-response functional separators with microcapsule fire extinguishing agent for lithium-ion battery safety" 3 (3): 947-955, 2022

    1 X. Feng, "Thermal runaway mechanism of lithium ion battery for electric vehicles : a review" 10 : 246-267, 2018

    2 Q. Wanga, "Thermal runaway caused fire and explosion of lithium ion battery" 208 : 210-224, 2012

    3 L. B. Diaz, "Review—Meta-Review of Fire Safety of Lithium-Ion Batteries : Industry Challenges and Research Contributions" 167 : 2020

    4 A. Wang, "Review on modeling of the anode solid electrolyte interphase (SEI) for lithium-ion batteries" 4 (4): 2018

    5 L. Kong, "Li-ion battery fire hazards and safety strategies" 11 (11): 2018

    6 Y. Zhou, "Inhibition of thermal runaway in lithium-ion batteries by fine water mist containing a low-conductivity compound additive" 340 : 2020

    7 P. Kritzer, "Improved Safety for Automotive Lithium Batteries : An Innovative Approach to include an Emergency Cooling Element" 4 (4): 192-207, 2014

    8 S. W. Kang, "Full-scale fire testing of battery electric vehicles" 332 : 2023

    9 P. Sturm, "Fire tests with lithium-ion battery electric vehicles in road tunnels" 134 : 2022

    10 P. Lou, "Fabrication of fire-response functional separators with microcapsule fire extinguishing agent for lithium-ion battery safety" 3 (3): 947-955, 2022

    11 J. Xua, "Experimental study of the effectiveness of three kinds of extinguishing agents on suppressing lithium-ion battery fires" 171 : 2020

    12 M. Chen, "Experimental Study on the Combustion Characteristics of Primary Lithium Batteries Fire" 52 (52): 365-385, 2016

    13 National Fire Research Institute, "Electrical Vehicle Fire Response Guide"

    14 W. K. Chow, "Electric vehicle fire hazards associated with batteries, combustibles and smoke" 6 (6): 165-171, 2022

    15 T. Liua, "Cooling control effect of water mist on thermal runaway propagation in lithium ion battery modules" 267 : 2020

    16 DET NORSKE VERITAS(U. S. A. )INC, "Considerations for ESS Fire Safety" DET NORSKE VERITAS (U.S.A.) INC 2017

    17 A. Dorsz, "Analysis of fire hazards associated with the operation of electric vehicles in enclosed structures" 15 (15): 2022

    18 A. O. Said, "Analysis of effectiveness of suppression of lithium ion battery fires with a clean agent" 121 : 2021

    19 S. Yuan, "A review of fire-extinguishing agent on suppressing lithium-ion batteries fire" 62 : 262-280, 2021

    20 X. L i, "A novel dry powder extinguishant with high cooling performance for suppressing lithium ion battery fires" 42 : 2023

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