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ASTM Selected Technical Papers
Obtaining Data for Fire Growth Models
Editor
Morgan C. Bruns
Morgan C. Bruns
Symposium Chair and STP Editor
1
St. Mary's University
,
San Antonio, TX,
US
Search for other works by this author on:
Marc L. Janssens
Marc L. Janssens
Symposium Chair and STP Editor
2
Southwest Research Institute
,
San Antonio, TX,
US
Search for other works by this author on:
ISBN:
978-0-8031-7731-4
No. of Pages:
180
Publisher:
ASTM International
Publication date:
2023

The International Association for Fire Safety Science (IAFSS) Working Group on Measurement and Computation of Fire Phenomena (i.e., the MaCFP Working Group) has been established as a global collaborative effort between experimentalists and modelers in the fire safety science field to make significant and systematic progress in fire modeling, based on a fundamental understanding of fire phenomena. In 2016, the Condensed Phase Phenomena MaCFP Subgroup was formed to maintain an effort focused on improving the predictive capabilities of numerical simulations of thermal decomposition and pyrolysis. Two MaCFP workshops have since been organized as pre-events to recent IAFSS Symposia: the first in summer 2017, in Lund, Sweden, and the second, in spring 2021, which was hosted virtually by the University of Waterloo, Canada. This paper details the planning and coordination needed to organize the Condensed Phase Subgroup's contribution to these two events, with a special emphasis on the efforts enabling the 2021 Workshop, including the following: identification, procurement, and distribution of a reference material; development of guidelines for reporting experimental measurements; and development and maintenance of an online repository for experimental measurements and related analysis scripts. Preliminary analysis of the experimental and modeling results submitted to the 2021 MaCFP Condensed-Phase Workshop are also briefly discussed.

1.
Ezekoye
O. A.
,
Hurley
M. J.
,
Torero
J. L.
, and
McGrattan
K. B.
, “
Applications of Heat Transfer Fundamentals to Fire Modeling
,”
Journal of Thermal Science and Engineering Applications
5
, no.
2
(
2013
): 021009.
2.
Alvarez
A.
,
Meacham
B. J.
,
Dembsey
N. A.
, and
Thomas
J. R.
, “
Twenty Years of Performance Based Fire Protection Design: Challenges Faced and a Look Ahead
,”
Journal of Fire Protection Engineering
23
, no.
4
(
2013
): 249–276.
3.
Emmons
H. W.
, “
The Needed Fire Science
,”
Fire Safety Science
1
(
1986
): 33–53.
4.
Vermina Lundstrom
F.
,
van Hees
P.
, and
Guillaume
E.
, “
A Review on Prediction Models for Full-Scale Fire Behaviour of Building Products
,”
Fire and Materials
41
, no.
3
(
2017
): 225–244.
5.
Wang
Y.
,
Chatterjee
P.
, and
DeRis
J. L.
, “
Large Eddy Simulation of Fire Plumes
,”
Proceedings of the Combustion Institute
33
, no.
2
(
2011
): 2473–2480.
6.
McGrattan
K.
,
Hostikka
R.
,
McDermott
S.
,
Floyd
J.
,
Weinschenk
C.
, and
Overholt
K.
,
Fire Dynamics Simulator User's Guide
, NIST Special Publication 1019, 6th ed. (
Gaithersburg, MD
:
National Institute of Standards and Technology, U.S. Department of Commerce
,
2013
).
7.
Lautenberger
C.
and
Fernandez-Pello
C.
, “
Generalized Pyrolysis Model for Combustible Solids
,”
Fire Safety Journal
44
, no.
6
(
2009
): 819–839.
8.
Lautenberger
C.
, “
Gpyro3d: A Three Dimensional Generalized Pyrolysis Model
,”
Fire Safety Science
11
(
2014
): 193–207.
9.
Suard
S.
,
Lapuerta
C.
,
Babik
F.
, and
Rigollet
L.
, “
Verification and Validation of a CFD Model for Simulations of Large-Scale Compartment Fires
,”
Nuclear Engineering and Design
241
, no.
9
(
2011
): 3645–3657.
10.
Domino
S.
,
Moen
C.
,
Burns
S.
, and
Evans
G.
, “
SIERRA/Fuego: A Multi-Mechanics Fire Environment Simulation Tool
,” in
41st Aerospace Sciences Meeting and Exhibit
(
Reston, VA
: American Institute of Aeronautics and Astronautics,
2003
),
11.
Stoliarov
S. I.
and
Lyon
R. E.
, “
Thermo-Kinetic Model of Burning for Pyrolyzing Materials
,”
Fire Safety Science
9
(
2008
): 1141–1152.
12.
Stoliarov
S. I.
,
Leventon
I. T.
, and
Lyon
R. E.
, “
Two-Dimensional Model of Burning for Pyrolyzable Solids
,”
Fire and Materials
38
, no.
3
(
2014
): 391–408.
13.
Nyazika
T.
,
Jimenez
M.
,
Samyn
F.
, and
Bourbigot
S.
, “
Pyrolysis Modeling, Sensitivity Analysis, and Optimization Techniques for Combustible Materials: A Review
,”
Journal of Fire Sciences
37
, nos.
4–6
(
2019
): 377–433.
14.
Novozhilov
V.
, “
Computational Fluid Dynamics Modeling of Compartment Fires
,”
Progress in Energy and Combustion Science
27
, no.
6
(
2001
): 611–666.
15.
McGrattan
K.
and
Miles
S.
, “
Modeling Fires Using Computational Fluid Dynamics (CFD)
,” in
SFPE Handbook of Fire Protection Engineering
, 5th ed. (
New York, NY
:
Springer
,
2016
), 1034–1065.
16.
McGrattan
K.
, “
Fire Modeling: Where Are We? Where Are We Going?
,”
Fire Safety Science
8
(
2005
): 53–68.
17.
McGrattan
K.
,
McDermott
R.
,
Floyd
J.
,
Hostikka
S.
,
Forney
G.
, and
Baum
H.
, “
Computational Fluid Dynamics Modelling of Fire
,”
International Journal of Computational Fluid Dynamics
26
, nos.
6–8
(
2012
): 349–361.
18.
Emmons
H. W.
,
Hirano
T.
,
Thomas
P. H.
,
Quintiere
J. Q.
,
Pettersson
O.
,
Weicheng
F.
,
Becker
W.
, and
DeRis
J.
, “
Letter to the Editor
,”
Fire Safety Journal
23
(
1994
): 327.
19.
Brown
A.
,
Bruns
M.
,
Gollner
M.
,
Hewson
J.
,
Maragkos
G.
,
Marshall
A.
,
McDermott
R.
, et al
, “
Proceedings of the First Workshop Organized by the IAFSS Working Group on Measurement and Computation of Fire Phenomena (MaCFP)
,”
Fire Safety Journal
101
(
2018
): 1–17.
20.
McNamee
M.
,
Meacham
B.
,
van Hees
P.
,
Bisby
L.
,
Chow
W. K.
,
Coppalle
A.
,
Dobashi
R.
, et al
, “
IAFSS Agenda 2030 for a Fire Safe World
,”
Fire Safety Journal
110
(
2019
): 102889.
21.
Merci
B.
and
Trouve
A.
, “
A Proposal to Create a New Workshop Series Called the IAFSS International Workshop on Measurement and Computation of Fire Phenomena
,” https://perma.cc/B2AD-6LHF
22.
Merci
B.
,
Torero
J. L.
, and
Trouve
A.
, “
Call for Participation in the First Workshop Organized by the IAFSS Working Group on Measurement and Computation of Fire Phenomena
,”
Fire Safety Journal
82
(
2016
): 146–147.
23.
Merci
B.
,
Torero
J. L.
, and
Trouve
A.
, “
IAFSS Working Group on Measurement and Computation of Fire Phenomena
,”
Fire Technology
52
, no.
3
(
2016
): 607–610.
24.
Ito
A.
and
Kashiwagi
T.
, “
Characterization of Flame Spread over PMMA Using Holographic Interferometry Sample Orientation Effects
,”
Combustion and Flame
71
, no.
2
(
1988
): 189–204.
25.
Fiola
G. J.
,
Chaudhari
D. M.
, and
Stoliarov
S. I.
, “
Comparison of Pyrolysis Properties of Extruded and Cast Poly(Methyl Methacrylate)
,”
Fire Safety Journal
120
(
2021
): 103083.
26.
Kashiwagi
T.
and
Ohlemiller
T. J.
, “
A Study of Oxygen Effects on Nonflaming Transient Gasification of PMMA and PE during Thermal Irradiation
,” in
Symposium (International) on Combustion
(
New York, NY
:
Elsevier
,
1982
), 815–823.
27.
Hirata
T.
,
Kashiwagi
T.
, and
Brown
J. E.
, “
Thermal and Oxidative Degradation of Poly (Methyl Methacrylate): Weight Loss
,”
Macromolecules
18
, no.
7
(
1985
): 1410–1418.
28.
Tewarson
A.
and
Ogden
S. D.
, “
Fire Behavior of Polymethylmethacrylate
,”
Combustion and Flame
89
, nos.
3-4
(
1992
): 237–259.
29.
Rhodes
B. T.
and
Quintiere
J. G.
, “
Burning Rate and Flame Heat Flux for PMMA in a Cone Calorimeter
,”
Fire Safety Journal
26
, no.
3
(
1996
): 221–240.
30.
Consalvi
J.-L.
,
Pizzo
Y.
, and
Porterie
B.
, “
Numerical Analysis of the Heating Process in Upward Flame Spread over Thick PMMA Slabs
,”
Fire Safety Journal
43
, no.
5
(
2008
): 351–362.
31.
Leventon
I. T.
,
Li
J.
, and
Stoliarov
S. I.
, “
A Flame Spread Simulation Based on a Comprehensive Solid Pyrolysis Model Coupled with a Detailed Empirical Flame Structure Representation
,”
Combustion and Flame
162
, no.
10
(
2015
): 3884–3895.
32.
Fukumoto
K.
,
Wang
C.
, and
Wen
J.
, “
Large Eddy Simulation of Upward Flame Spread on PMMA Walls with a Fully Coupled Fluid-Solid Approach
,”
Combustion and Flame
190
(
2018
): 365–387.
33.
Batiot
B.
,
Bruns
M.
,
Hostikka
S.
,
Leventon
I.
,
Nakamura
Y.
,
Reszka
P.
,
Rogaume
T.
, and
Stoliarov
S.
, “
Preliminary Summary of Experimental Measurements: Predecisional Draft Report
,”
2020
, https://perma.cc/T6LR-95A2
34.
Batiot
B.
,
Rogaume
T.
,
Collin
A.
,
Richard
F.
, and
Luche
J.
, “
Sensitivity and Uncertainty Analysis of Arrhenius Parameters in Order to Describe the Kinetics of Solid Thermal Degradation during Fire Phenomena
,”
Fire Safety Journal
82
(
2016
): 76–90.
35.
Bruns
M. C.
, “
Inferring and Propagating Kinetic Parameter Uncertainty for Condensed Phase Burning Models
,”
Fire Technology
52
, no.
1
(
2016
): 93–120.
36.
Stoliarov
S. I.
,
Safronava
N.
, and
Lyon
R. E.
, “
The Effect of Variation in Polymer Properties on the Rate of Burning
,”
Fire and Materials: An International Journal
33
, no.
6
(
2009
): 257–271.
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