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Tytuł artykułu

Review of fire brigade extinguishment models as part of a building fire risk assessment

Treść / Zawartość
Identyfikatory
Warianty tytułu
PL
Przegląd modeli interwencji straży pożarnej jako element oceny ryzyka pożarowego budynku
Języki publikacji
EN
Abstrakty
EN
This paper presents models of firefighting operations of fire brigades from the point of view of assessing the fire risk of buildings. The following seven related standards can be distinguished worldwide: International Fire Code (IFC), NFPA 5000: Building construction and safety code, International Fire Engineering Guidelines (IFEG), Fire Risk Evaluation and Cost Assessment Model (FireCAM), Fire Evaluation and Risk Assessment system (FIERA), PD 7974-5:2014 Application of Fire Safety Engineering Principles to the Design of Building; Part 5 Fire and Rescue Service Intervention as well as a Fire Brigade Intervention Model (FBIM). Given the editorial limitation as to the amount of text only the last one of them, which was used to the greatest extent in the construction of own model, was discussed in detail. The others have been discussed only in a general way. In the final part of the work, the existing models were evaluated as part of the discussion. On the basis of a critical review of literature and own research of the authors, a stochastic model of firefighting activities of fire brigades in Poland was developed, which will be one of vital elements of the Aamks software developed at the Fire University for assessing the fire risk of buildings. The description of this model along with the results of its operation and their discussion will be presented in the successive parts of the same series.
PL
W artykule przedstawiono modele działań gaśniczych jednostek straży pożarnej z punktu widzenia oceny zagrożenia pożarowego budynków. Na świecie można wyróżnić siedem powiązanych ze sobą norm: Międzynarodowy Kodeks Przeciwpożarowy (IFC), NFPA 5000: Kodeks konstrukcji budynków i bezpieczeństwa, Międzynarodowe Wytyczne Inżynierii Pożarowej (IFEG), Model oceny ryzyka pożarowego i kosztów (FireCAM), Ocena pożaru i System oceny ryzyka (FIERA), PD 7974-5:2014 Zastosowanie zasad inżynierii bezpieczeństwa pożarowego w projektowaniu budynków; Część 5 Interwencja Straży Pożarnej i Ratownictwa oraz Model Interwencji Straży Pożarnej (FBIM). Ze względu na redakcyjne ograniczenie objętości tekstu szczegółowo omówiono jedynie ostatni z nich, który w największym stopniu wykorzystano przy budowie własnego modelu. Pozostałe zostały omówione w sposób ogólny. W końcowej części pracy w ramach dyskusji dokonano oceny istniejących modeli. Na podstawie krytycznej analizy literatury oraz badań własnych opracowano stochastyczny model działalności straży pożarnej w Polsce, który będzie jednym z ważnych elementów tworzonego w Akademii Pożarniczej oprogramowania Aamks przeznaczonego do oceny ryzyka pożarowego budynków. Opis tego modelu wraz z wynikami jego działania i ich omówieniem zostanie przedstawiony w kolejnym artykule.
Rocznik
Strony
113--133
Opis fizyczny
Bibliogr. 34 poz., rys., tab.
Bibliografia
  • 1. Australian Fire and Emergency Service Authorities Council Ltd., (2020). Fire Brigade Intervention Model Manual, Australia, https://www.afac.com.au/docs/defaultsource/doctrine/afac_fbim-manual_v3-0123ea391b1e86477b58fff00006709da.pdf?sfvrsn=2&download=true.
  • 2. Barnett, C.R., (2004). Calculation methods for water flows used for firefighting purposes. SFPE Technical Publication TP 2004/1, New Zealand.
  • 3. Benichou, N., Kashef, A., Hadjisophocleous, G., (2002). Fire Department Response Model (FDRM) and Fire Department Effectiveness Model (FDEM) Theory Report. Ottawa, Ontario, Canada: Institute for Research in Construction, National Research Council of Canada, https://nrc-publications.canada.ca/eng/view/ft/?id=608a39d6-30ee-4845-b482-d2e97a50feae.
  • 4. Benichou, N., Kashef, A., Torvi, D.A., Hadjisophocleus, G.V., Reid, I., (2002). FIERAsystem: a fire risk assessment model for light industrial building fire safety evaluation. Canada: National Research Council of Canada.
  • 5. Benjamin, L., (2006). Risk analysis in building fire safety engineering. Abingdon, United Kingdom: Taylor & Francis Ltd.
  • 6. BS 9999:2008 Code of practice for fire safety in the design, management and use of buildings, UK: British Standards Institute.
  • 7. Fire Protection Act (Journal of Laws 2021, item 869).
  • 8. Grimwood, P., Sanderson, I., (2014). Research into fire-fighting water flow-rates at 5401 UK building fires 2009-2012. Glasgow: Glasgow Caledonian University (GCU), International Fire Professional (IFP).
  • 9. https://nrc-publications.canada.ca/eng/view/accepted/?id=003793b9-c5fd-4b69-80fd-18bae309c0b3.
  • 10. International Fire Code, (2018), https://codes.iccsafe.org/content/IFC2018.
  • 11. International Fire Engineering Guidelines, (2005), Canberra, Australia: Australian Building Codes Board, https://www.abcb.gov.au/resource/guidel.ine/internationalfire-engineering-guidelines-2005-ifeg.
  • 12. Kling, T., Hostikka, S., Rinne, T., Vaari, J., Hakkarainen, T., (2013). Stochastic operation time modelling of rescue situation. INTERFLAM 2013, Finland: VTT Technical Research Centre of Finland.
  • 13. Krasuski, A., (2019). Multisimulation: Stochastic simulation for the assessment of building fire safety. Warsaw: SGSP Publishing House.
  • 14. Main Headquarters, (2012). Framework Guidelines of the Commander-in-Chief of the State Fire Service for developing the rules for distributing the forces of fire protection units and the rules for ad hoc operational security of the district area after the dispatch of rescue resources.
  • 15. NFPA 5000: 2021. Building Construction and Safety Code, https://www.nfpa.org/codes-and-standards/all-codes-and-standards/list-of-codes-and-standards/detail?code=5000.
  • 16. Meacham, B.J., Charters, D., Johnson, P., Salisbury, M., (2016). Building fire risk analysis. New York: SFPE Handbook of Fire Protection Engineering, Springer.
  • 17. PD 7974-0:2002 Application of fire safety engineering principles to the design of buildings. Guide to design framework and fire safety engineering procedures, UK: British Standards Institute.
  • 18. PD 7974-5:2014 Application of Fire Safety Engineering Principles to the Design of Building part 5 fire and rescue service intervention, UK: British Standards Institute.
  • 19. PD 7974-7:2019 Application of fire safety engineering principles to the design of buildings. Probabilistic risk assessment, UK: British Standards Institute.
  • 20. Prońko, J., Zboina, J., Kielin, J., Wojtasiak, D., Iwańska, M., (2019). Modelowanie statystyczne reakcji służb ratowniczych, Safety & Fire Technology, vol. 53(1), pp. 8–31.
  • 21. Regulation of the Minister of Infrastructure of 12 April 2002 on the technical conditions to be met by buildings and their location (Polish Journal of Laws/Dz.U. 2019, item 1065, Journal of Laws 2020, item 2351).
  • 22. Regulation of the Minister of Interior and Administration of June 7, 2010 on fire protection of buildings, other structures and areas (Polish Journal of Laws/Dz.U. 2010 No. 109, item 719).
  • 23. Regulation of the Minister of Interior and Administration of 24 July 2009 on fire water supply and fire roads (Polish Journal of Laws/Dz.U. 2009 No. 124, item 1030).
  • 24. Regulation of the Minister of Interior and Administration of July 3, 2017 on the detailed organization of the national rescue and fire-fighting system (Polish Journal of Laws/Dz.U. of 2017, item 1319).
  • 25. SWD-ST computer program manual (2009), Bielsko-Biała, Poland, Abakus IT Systems, https://silo.tips/download/instrukcja-administratora-systemu-swd-st-dla-wersji-systemu-124xy.
  • 26. Tillander, K., (2004). Utilisation of statistics to assess fire risks in buildings. Helsinki, Finland, VTT Building and Transport, Dissertation for the degree of Doctor of science in Technology, https://www.vttresearch.com/sites/default/files/pdf/publications/2004/P537.pdf.
  • 27. Tutaj, W., (2019). Probabilistyczny model interwencji straży pożarnej podczas pożarów obiektów budowlanych. Master’s thesis. The Main School of Fire Service, Warsaw.
  • 28. Vaari, J., Kling, S., Hostikka, S., Rinne, T., Ketola, J., (2013). Simulating the rescue service response in a railway tanker fire. INTERFLAM 2013, Finland: VTT Technical Research Centre of Finland.
  • 29. Yung, D., (2008). Principles of fire risk assessment in buildings. Chichester, United Kingdom: John Wiley & Sons, Ltd. Publication.
  • 30. Yung, D.T., Benichou, N., Dutcher, C., Su, W., Soeharjono, G., (2002). FIRECAM Version 1.6.1 – User’s Manual. Canada: National Research Council of Canada.
  • 31. https://nrc-publications.canada.ca/eng/view/ft/?id=52857fa6-fdd5-4fc6-b74e-0b73a18cee30.
  • 32. Yung, D., Hadjisophocleus, G.V., Proulx, G., (2001). Modelling Concepts for the Riskcost Assessment Model FIRECAM and its Application to a Canadian Government Office Building. Ottawa, Ontario, Canada: National Fire Laboratory, Institute for Research in Construction, National Research Council, https://publications.iafss.org/publications/fss/5/619/view/fss_5-619.pdf.
  • 33. Zhao, L., Beck, V., Kurban, N., (1998). Fire Brigade Intervention Model for Residential Builders in Australia. Fire Safety Science, 3, pp. 604–615.
  • 34. 81-72:2005 PN-EN. Safety regulations for the construction and installation of lifts – Specific applications of passenger lifts and goods – Part 72: Fire brigade lifts.
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-af0e3fc5-efe0-48aa-adaf-6f67671614f5
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