Estimation of the maximum time spent by fire intervention teams: room temperature
DOI:
https://doi.org/10.20868/ade.2024.5485Keywords:
radiant temperatura, intervention distance, maximum dwell time, vulnerability analysis, fire eventAbstract
In order to improve the procedures of action of the intervention teams during an incident caused by a fire, a model is presented by estimating the dwell times based on the ambient temperature. Currently, almost all intervention teams have thermographic cameras, which show in real time an image of the heat radiation that a body is emitting, through its radiation intensity. From this temperature and through the application of an equation or graphic resolution, the maximum dwell times in the affected area are obtained, so that fatal accidents are avoided during the intervention. In the end, it is obtained that the maximum permissible temperature in the intervention area is 263 °C, with the maximum time spent in these conditions being 26 seconds.
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1. AENOR, 1994 Spanish Association for Standardization and Certification (1994). Protective clothing. Protection against heat and fire. Determination of heat transmission during flame exposure. UNE 367:1994
2. AENOR, 2020 Spanish Association for Standardization and Certification (2020). Protective clothing for firefighters. Performance requirements for protective clothing in firefighting. UNE 469:2000
3. Joaquin Casal/Helena Montiel/Eulàlia Planas - Juan A. Vílchez. Risk analysis in industrial facilities. Edicions de la Universitat Politècnica de Catalunya, SL.1999. pp 93-153, 173-207, 299-321
4. Center for Chemical Process Safety (CCPS). Guidelines for Chemical Process Quantitative Risk Analysis New York, American Institute of Chemical Engineers, 2000, pp 153-244, 267-274.
5. BOE 32, 1991, Ministry of the Interior (1991), Royal Decree, of 30 January 1991, approving the basic guideline for the preparation and approval of Special Plans for the Chemical Sector.
6. BOE 242, 2003, Ministry of the Interior (2003) Royal Decree 1196/2003, of 19 September, approving the Basic Civil Protection Directive for the control and planning of the risk of serious accidents involving dangerous substances.
7. C.J.H. Van den Bosch, Methods for the Calculations of the Physical Effects of the Escape of Dangerous Materials: Liquids and Gases Vol. 2 Chapter 8. Interfacing models. Voorburg, The Netherlands, Bureau for Industrial Safety TNO, 1979. pp 775 – 814
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