Information Services banner Edinburgh Research Archive The University of Edinburgh crest

Edinburgh Research Archive >
Engineering, School of >
BRE Centre for Fire Safety Engineering >
BRE Research Publications >

Please use this identifier to cite or link to this item: http://hdl.handle.net/1842/2650

This item has been viewed 597 times in the last year. View Statistics

Files in This Item:

File Description SizeFormat
Calculation Methods for the Heat Release Rate of Materials of Unknown Composition.pdf337.76 kBAdobe PDFView/Open
Title: Calculation Methods for the Heat Release Rate of Materials of Unknown Composition
Authors: Biteau, Hubert
Steinhaus, Thomas
Simeoni, Albert
Schemel, Christopher
Marlair, Guy
Bal, Nicolas
Torero, Jose L
Issue Date: Sep-2008
Citation: Biteau, H., Steinhaus, T., Schemel, C., Simeoni, A., Marlair, G., Bal, N. and Torero, J.L., “Calculation Methods for the Heat Release Rate of Materials of Unknown Composition”, Fire Safety Science 9, pp. 1165-1176. doi:10.3801/IAFSS.FSS.9-1165
Publisher: International Association for Fire Safety Science
Abstract: The Heat Release Rate (HRR) is a critical parameter to characterise a fire. Different methods have been developed to estimate it. The most widespread techniques are based on mass balance. If the heat of combustion of the fuel is known, the measure of the mass loss allows its evaluation. If the burning material can not be identified, calorimetric principles can be used. They rely on oxygen consumption (OC) or carbon dioxide and carbon monoxide generation (CDG) measurements. Their asset comes from the observation that the amount of energy release per unit mass of O2 consumed or per unit mass of CO2 produced is relatively constant for a large number of materials. Thus, an accurate HRR can be obtained without knowing the composition of the burning fuel. The aim of this work is to assess this last statement and define how essential the knowledge of the chemistry to calculate HRR for complex materials such as polymers including fire retardants and/or nanocomposites, energetic materials or pine needles is. This assessment ends in an OC and CDG calorimetry comparison of several materials in order to investigate the propensity to determine whether converging or diverging HRR results when average energy constants are used.
Keywords: Fire safety engineering
calorimetry
fire chemistry
polymers
energetic materials
wildfires
release rate
URI: http://hdl.handle.net/1842/2650
Appears in Collections:BRE Research Publications

This item is licensed under a Creative Commons License
Creative Commons

Items in ERA are protected by copyright, with all rights reserved, unless otherwise indicated.

 

Valid XHTML 1.0! DSpace Software Copyright © 2002-2010  Duraspace - Feedback