V. Babrauskas, Performance-Based Fire Safety Engineering Design: The Role of Fire Models and Fire Tests, Interflam 1999 (June1999), pp. 799–807.
International Organization for Standardization, ISO/TR 13387-2:1999(E): Fire Safety Engineering—Part 2: Design Fire Scenarios and Design Fires, Geneva, Switzerland, 1999.
International Organization for Standardization, ISO/TR 13387-1:1999(E): Fire Safety Engineering—Part 1: Application of Fire Performance Concepts to Design Objectives, Geneva, Switzerland, 1999.
International Organization for Standardization, ISO/TR 13387-4:1999(E): Fire Safety Engineering—Part 4: Initiation and Development of Fire and Generation of Fire Effluents, Geneva, Switzerland, 1999.
International Organization for Standardization, ISO/TR 13387-2:1999(E): Fire Safety Engineering—Part 3: Assessment and Verification of Mathematical Fire Models, Geneva, Switzerland, 1999.
Society of Fire Protection Engineers (2000) The SFPE Engineering Guide to Performance-Based Fire Protection Analysis and Design of Buildings. National Fire Protection Association, Quincy, MAGoogle Scholar
Buchanan AH (2001) Structural Design for Fire Safety. Wiley, New YorkGoogle Scholar
Karlsson B., Quintiere J.G. (2000) Enclosure Fire Dynamics. CRC Press, USAGoogle Scholar
G. Cox (ed.), Combustion Fundamentals of Fire, Academic Press, London, UK, 1995.
D. Drysdale, An Introduction to Fire Dynamics, 2nd edn., Wiley, Wiley, 1998.
B.J. Meacham, Assessment of the Technological Requirements for the Realization of Performance-Based Fire Safety Design in the United States - Phase I: Fundamental Requirements, Second International Conference on Fire Research and Engineering (ICFRE2), Gaithersburg, USA, (August 1997), pp. 212–225.
Society of Fire Protection Engineers, The SFPE Handbook of Fire Protection Engineering, NFPA International, 3rd edn., 2002.
Zdanowski M., Teodorczyk A., Wojcicki S. (1986) A Simple Mathematical Model of Flashover in Compartment Fires. Fire and Materials 10:145–150CrossRefGoogle Scholar
T.Z. Harmathy, “A New Look at Compartment Fires, Parts I and II”, National Research Council of Canada, Research Report 566, 1972.
Kim H., Lilley D.G. (2002) Heat Release Rates of Burning Items in Fires.Journal of Propulsion and Power 18(4):866–870CrossRefGoogle Scholar
National Fire Protection Association (2000) NFPA 92B: Smoke Management Systems in Malls, Atria, and Large Areas. Quincy, MA, USAGoogle Scholar
Barnett C.R. (2002) BFD Curve; a New Empirical Model for Fire Compartment Temperatures. Fire Safety Journal 37:437–463CrossRefGoogle Scholar
Babrauskas V. (1996) Fire Modeling Tools for Fire Safety Engineering - Are They Good Enough? Journal of Fire Protection Engineering 8(2):87–96CrossRefGoogle Scholar
T. Hertzberg, B. Sundström, and P. van Hees, “Design Fires for Enclosures: A First Attempt to Create Design Fires Based on Euroclasses for Linings”, SP Report 2003:02, SP Swedish National Testing and Research Institute, Sweden, 2003.
R.P. Schifiliti, “Use of Fire Plume Theory in the Design and Analysis of Fire Detector and Sprinkler Response," Masters Thesis, Worcester Polytechnic Institute, USA, 1986.
K. Höglander and B. Sundström, “Design Fires for Pre-Flashover Fires”, SP Report 1997:36, SP Swedish National Testing and Research Institute, Sweden, 1997.
National Institute of Standards and Technology, http://www.bfrl.nist.go
. [Accessed April 20, 2004].
Eurocode, Eurocode 1: Basis of Design and Actions on Structures. Part 2-2: Actions on Structures Exposed to Fire, ENV 1991-2-2: 1995E, 1995.
S.E. Magnusson and S. Thelandersson, Temperature-Time Curves for the Complete Process of Fire Development—A Theoretical Study of Wood Fuels in Enclosed Spaces, Acta Polytechnica Scandinavica, Stockholm, Sweden, 1970.
J.R. Mehaffey, Performance-Based Design for Fire Resistance in Wood-Frame Buildings, InterFlam 1999, pp. 293–304.
Ma Z., Makelainen P. (2000) Parametric Temperature-Time Curves of Medium Compartment Fires for Structural Design. Fire Safety Journal 34:361–375CrossRefGoogle Scholar
Feasey R., Buchanan A. (2002) Post-Flashover Fires for Structural Design. Fire Safety Journal 37:83–105CrossRefGoogle Scholar
Babrauskas V., Peakcock R.D. (1992) Heat Release Rate: The Single Most Important Variable in Fire Hazard. Fire Safety Journal 18:255–272CrossRefGoogle Scholar
V. Babrauskas, R.J. Lawson, W.D. Walton, and W.H. Twilley, Upholstered Furniture Heat Release Rates Measured With a Furniture Calorimeter, NBSIR 82–2604, US Dept of Commerce, National Bureau of Standards, USA, 1982.
International Organization for Standardization, ISO 5660-1:1993: Fire Test - Reaction to Fire-Rate of Heat Release From Building Products (Cone Calorimeter Method), Geneva, Switzerland, 1993.
D. Yung and G. Lougheed, Fatal Fire Scenarios in Canadian Houses, National Research Council of Canada, Institute for Research in Construction, Internal Report No. 830 (October 2001).
R.J. Lawson, W.D. Walton and W.H. Twilley, Fire Performance of Furnishings as Measured in the NBS Furniture Calorimeter. Part 1, US Dept of Commerce, National Bureau of Standards, USA, 1983.
S. Sardqvist, Initial Fires: RHR, Smoke Production and CO Generation From Single Items and Room Fire Tests, Department of Fire Safety Engineering, Lund University, ISRN LUTVDG/TVBB-3070-SE, Lund, Sweden, 1993.
H. Denzie, “The Combustion Behaviour of Upholstered Furniture Materials in New Zealand”, Research Report 2000/4, University of Canterbury, New Zealand, 2000.
National Association of State Fire Marshals, http://www.firemarshals.org/issues/home/research_contribution.html
. [Accessed April 20, 2004].
Building Research Establishment, http://www.projects.bre.co.uk/frsdiv/designfire
. [Accessed April 20, 2004].
V. Babrauskas and S. J. Grayson (eds.), Heat Release in Fires, Elsevier Applied Science, 1992.
D.L. Chamberlain, Heat Release Rate Properties of Wood-Based Materials, US Department of Commerce, National Bureau of Standards, Washington, DC, USA, July 1983.
D. Sundström (ed.), “Fire Safety of Upholstered Furniture—The Final Report of the CBUF Research Programme”, Interscience, EUR 16477 EN, 1995.
Babrauskas V. (1985) Pillow Burning Rates. Fire Safety Journal 8:199–200CrossRefGoogle Scholar
L.D. Moore, Full Scale Burning Behaviour of Curtains and Drapes, US Department of Commerce, National Bureau of Standards, NBSIR78-1448, Washington, DC, USA, 1978.
Simonson M., Andersson P., Bliss D. (2004) Fire Performance of Selected IT-Equipment. Fire Technology 40(1):27–37CrossRefGoogle Scholar
Blomqvist P., Rosell L., Simonson M. (2004) Emissions From Fires Part I: Fire Retarded and Non-Fire Retarded TV-Sets. Fire Technology 40:39–58CrossRefGoogle Scholar
Blomqvist P., Rosell L., Simonson M. (2004) Emissions Form Fires Part II: Simulated Room Fires. Fire Technology 40(1):59–73CrossRefGoogle Scholar
Gemeny D.F., Wittasek N.B. (1999) Fire Test Data for Design Fires: A Perspective from One Practitioner," ASTM’s Role in Performance-Based Fire Codes and Standards. ASTM STP 1377:47–57Google Scholar
V. Babrauskas and J.F. Krasny, “Prediction of Upholstered Chair Heat Release Rates from Bench-Scale Measurements”, in Fire Safety: Science and Engineering Symposium, T.Z. Harmathy (ed.), ASTM STP 882, June 1985, pp. 268–284.
Babrauskas V., Walton W.D. (1986) A Simplified Characterization of Upholstered Furniture Heat Release Rates. Fire Safety Journal 11:181–192CrossRefGoogle Scholar
Babrauskas V., Baroudi D., Myllymaki J., Kokkala M. (1997) The Cone Calorimeter Used for Predictions of the Full-Scale Burning Behaviour of Upholstered Furniture. Fire and Materials 21:95–105CrossRefGoogle Scholar
P.A. Enright, Heat Release and the Combustion Behaviour of Upholstered Furniture, Ph.D. Thesis, University of Canterbury, New Zealand, 1999.
Purser D.A. (2000) Toxic Product Yields and Hazard Assessment for Fully Enclosed Design Fires. Polymer International 49:1232–1255CrossRefGoogle Scholar
Tuovinen H., Blomqvist P., Saric F. (2004) Modelling of Hydrogen Cyanide Formation in Room Fires. Fire Safety Journal 39(8):737–755CrossRefGoogle Scholar
H. Tuovinen and P. Blomqvist, “Modelling of Hydrogen Cyanide Formation in Room Fires”, SP Swedish National Testing and Research Institute, Report 2003:10, Sweden.
D.A. Purser, P.J. Rowley, and M. Bensilum, Fully Enclosed Design Fires for Hazard Assessment in Relation to Yields of Carbon Monoxide and Hydrogen Cynanide, Interflam ’99, Fire Science and Engineering Conference, Edinburgh, Scotland, 1999, pp. 1163–1170.
J.H. Klote, Design Fires: What You Need to Know, HPAC Engineering, September 2002, pp. 43–51.
A.C. Bwalya, N. Bénichou, and M.A. Sultan, “Literature Review on Design Fires”, Research Report 137, National Research Council Canada, Institute for Research in Construction, Ottawa, Ontario, Canada, June 2003.
A.H. Buchanan (ed.), Fire Engineering Design Guide, University of Canterbury, New Zealand, 2001.
D. Yung and N. Bénichou, How Design Fires Can Be Used in Fire Hazard Analysis, National Research Council Canada, Institute for Research in Construction, NRCC-44511, Ottawa, Ontario, Canada, 2002.
D. Yung and N. Bénichou, Design Fires for Fire Risk Assessment and Fire Safety Designs, Fire Risk and Hazard Assessment Research Application Symposium, San Diego, California, USA, 1999, pp. 101–112.