Analyzing the influence of the fire resistance of building structures on human safety in case of a fire
https://doi.org/10.22227/0869-7493.2022.31.03.84-95
Abstract
Introduction. Methodological provisions must be developed to evaluate the impact of the fire resistance factor of building structures on human safety during evacuation and rescue with account taken of the composition andfunctional characteristics of other fire safety systems to formulate modern regulatory requirements for the fire resistance of building structures under fire conditions, develop science-based solutions for the fire safety of buildings and structures in case of forced deviations from the fire resistance requirements set in regulatory documents, and justify the construction of buildings and structures, based on modern structural systems, having non-standard fire resistance limits, etc.
The purpose of the article is to develop general methodological provisions and mathematical relationships that allow evaluating the impact of the fire resistance limits of building structures both on safe evacuation and safe rescue from buildings.
Methods. Analytical and mathematical methods are used to evaluate the combined effect of changes in the fire hazard arising along the evacuation routes, in a room with a person waiting to be rescued by fire departments, as well as along the routes taken by fire departments carrying this person out, in combination with the evaluated time span needed for the structure to lose its fire resistance. The value of this time span is used to identify the time available for the safe evacuation and rescue of people.
Results. Theoretical provisions have been developed to take into account the influence of the fire resistance factor of building constructions on the safety of people in a building in case of a fire.
Conclusions. The research findings were contributed to the general methodological provisions and mathematical relationships needed to determine the quantitative relationships between the extent of fire resistance of a building, fire resistance limits of building structures, the time of arrival of fire departments, types of fire alarm and evacuation control systems, and the possibility of safe evacuation and rescue of people from a building.
About the Authors
A. V. PekhotikovRussian Federation
Andrey V. Pekhotikov, Cand. Sci. (Eng.), Head of Department of Fire Resistance of Building Structures and Engineering Equipment
ID RISC: 760878
VNIIPO, 12, Balashikha, Moscow Region, 143903
R. A. Ivashchuk
Russian Federation
Roman A. Ivashchuk, Chief Fire Safety Specialist
ID RISC: 544455
Semenovskaya Square, 1А, Moscow, 107023
A. V. Gomozov
Russian Federation
Alexander V. Gomozov, Cand. Sci. (Eng.), Senior Researcher, Department of Fire Resistance of Building Structures and Engineering Equipment
ID RISC: 760879
VNIIPO, 12, Balashikha, Moscow Region, 143903
S. A. Luchkin
Russian Federation
Sergey Alekseevich Luchkin, Junior Researcher, Department of Fire Resistance of Building Structures and Engineering Equipment
ID RISC: 760855
VNIIPO, 12, Balashikha, Moscow Region, 143903
References
1. Technical Regulations on Fire safety requirements: Federal Law of the Russian Federation No. 123-FZ of Jule 22, 2008 (as amended. Federal Law No. 117-FZ of April 30, 2021). URL: http://www.consultant.ru/document/cons_doc_LAW_78699/ (rus).
2. Methodology for determining the calculated values of fire risk in buildings, structures and fire compartments of various classes of functional fire hazard. 2nd ed., rev. and add. Moscow, VNIIPO, 2016; 79. (rus).
3. SP 1.13130.2020. Fire protection systems. Evacuation routes and exits. URL: https://www.standards.ru/document/6528504.aspx (rus).
4. Bedrina E.A., Rekin A.S., Khrapsky S.F., Bokarev A.I., Denisova E.S. Heat-mass exchange processes dynamics forecasting in fires in typical multistorey apartment buildings. Dynamics of Systems, Mechanisms and Machines (Dynamics). 2019; 7(3):10-15. DOI: 10.25206/2310-97937-3-10-15
5. Drozdov D.S., Drozdova T.I. Graphic modeling for assessing fire hazards. Tekhnogennaya i prirodnaya bezopasnost: collection of scientific papers of the V International Scientific and practical conference. Saratov, April 24-26, 2019. C.M. Rogacheva, A.S. Zhutova, I.M. Uchaeva (ed.). Saratov, Amirit Publ., 2019; 69-73. (rus).
6. Yarosh A.S., Chalatashvili M.N., Krol A.N., Popova E.A., Romanova V.V., Sachkov A.V. The system of buildings and structures dangerous fire factors development mathematical models alysis. Bulletin of the scientific center for the safety of work in the coal industry. 2019; 1:50-56. (rus).
7. Nuclear Safety NEA/CSNI/R (2017) 14. Investigating heat and smoke propagation mechanisms in multicompartment fire scenarios final report of the PRISME project. January 2018. URL: www.oecd-nea.org
8. McGrattan K., Miles S. Modeling fires using Computational Fluid Dynamics (CFD). SFPE Handbook of Fire Protection Engineering. Chapter 32. 5th ed. Society of Fire Protection Engineers, 2016; 1034-1065. DOI: 10.1007/978-1-4939-2565-0
9. McGrattan K., McDermott R., Hostikka S., Floyd J. Fire dynamics simulator user’s guide. National Institute of Standards and Technology, 2019; 288.
10. Leventon I., Bonny J. Influence of dispositional and situational factors on human perceptions of fire risk. London, Interflam, 2019.
11. Gwynne S., Kuligowski E., Kinsey M., Hulse L. Modelling and influencing human behaviour in fire. Fire and Materials. 2017; 41(5):412-430. DOI: 10.1002/fam.2391 URL: https://www.nist.gov/publications/modelling-and-influencing-human-behaviour-fire (Accessed February 15, 2022).
12. ISO 13571:2012. Life-threatening components of fire — Guidelines for the estimation of time to compromised tenability in fires.
13. Matyushin A.V., Gomozov A.V., Ivashchuk R.A. Simulation of dynamics of dangerous fire factors in premises with people in need of rescue, taking into account the frame ledge of doors. Fire safety. 2013; 4:63-68. URL: https://www.elibrary.ru/item.asp?id=20929304 (rus).
14. Matyushin A.V., Gomozov A.V., Ivashchuk R.A. Design procedure of dynamics of dangerous factors of fire in rooms in the presence of loose-fitting doors (narrow slots). Fire safety. 2015; 4:92-100. (rus).
15. Pekhotikov A.V., Gomozov A.V., Usolkin S.V., Ivashchuk R.A. Assessment of the possibility of human rescuing during fire in residential building. Fire safety. 2021; 3:86-96. DOI: 10.37657/vniipo.pb.2021.30.18.010 (rus).
16. Saarinen P.E., Kalliomäki P., Tang J.W., Koskela H. Large eddy simulation of air escape through a hospital isolation room single hinged doorway — validation by using tracer gases and simulated smoke videos. PLOS ONE. 2015; 10(7):e0130667. DOI: 10.1371/journal.pone.0130667
17. Martin D., McLaughlin B.P.E. Influence of gap sizes around swinging doors with builders hardware on fire and smoke development. Arup North America Ltd. San Francisco, CA, USA. March, 2018. URL: https://www.nfpa.org/-/media/Files/News-and-Research/Fire-statistics-and-reports/Building-and-life-safety/RFInfluenceGapSizeAroundSwingingDoors.pdf
18. Zhang C., Asif U. Heat transfer principles in thermal calculation of structures in fire. Fire Safety Journal. 2015. URL: https://www.nist.gov/publications/heattransfer-principles-thermal-calculation-structures-fire
19. Shebeko Yu.N., Shebeko A.Yu., Gordienko D.M. Assessment of equivalent fire duration for building structures based on compartment fire modeling. Fire safety. 2015; 1:31-39. URL: https://www.elibrary.ru/item.asp?id=23092671 (rus).
20. Methods for calculating the temperature regime of a fire in the premises of buildings for various purposes: Recommendations. Moscow, VNIIPO Ministry of Internal Affairs of the USSR. 1988; 56 (rus).
21. Estimated determination of the main parameters of smoke ventilation in buildings: guidelines for SP 7.13130.2013. Moscow, VNIIPO, 2013; 58. (rus).
22. SP 2.13130.2020. Fire protection systems. Ensuring fire resistance of objects of protection. URL: https://www.standards.ru/document/6528503.aspx (rus).
23. SP 4.13130.2013. Fire protection systems. Limiting the spread of fire at the objects of protection. Requirements for space-planning and structural solutions (Amendment No. 1). URL: https://www.standards.ru/document/5315802.aspx (rus).
24. Kholshchevnikov V.V., Samoshin D.A., Parfenenko A.P., Kudrin I.S., Istratov R.N., Belosokhov I.R. Evacuation and behavior of people in case of fires : textbook. Moscow, Academy of GPS EMERCOM of Russia, 2015; 262. (rus).
Review
For citations:
Pekhotikov A.V., Ivashchuk R.A., Gomozov A.V., Luchkin S.A. Analyzing the influence of the fire resistance of building structures on human safety in case of a fire. Pozharovzryvobezopasnost/Fire and Explosion Safety. 2022;31(3):84-95. (In Russ.) https://doi.org/10.22227/0869-7493.2022.31.03.84-95