Examination of Firearms Review: 2007 to 2010 - Interpol

102.Coulson S, Morgan-Smith R, Mitchell S, McBriar T. An investigation into the
presence of petrol on the clothing and shoes of members of the public, Forensic
Science International, 2008, 175, (1):44-54.
103.Sajwan M, Aggrawal S, Singh RB. Forensic characterization of HDPE pipes by
DSC, Forensic Science International, 2008, 175, (2-3):130-3.
104.TWGFEX Substrate database, http://ilrc.ucf.edu/substrate/, accessed 29 th June
2010
105.Delémont O, Martin J-C. Application of computational fluid dynamics modelling in
the process of forensic fire investigation: Problems and solutions, Forensic
Science International, 2007, 167, (2-3):127-35.
106.Gorbett GE. Computer Fire Models for Fire Investigation and Reconstruction,
International Symposium on Fire Investigation and Technology, 2008, 23-34
107. Shen TS, Huang Y-H, Chien S-W. Using fire dynamic simulation (FDS)
to reconstruct an arson fire scene, Building and Environment, 2008, 43, (6):1036-
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108.Franck D, Franck H. Fire Dynamics Simulation for Courtroom Presentation,
Proceedings American Academy of Forensic Sciences, Conference publication,
2008, 166-(C56).
109.D'Angelo C, La Mendola S, Cristini B. Numerical-Experimental Simulation of the
Combustion of a Thermoplastic Cabinet for the Fire Investigation on a Super
Store Arson, European Academy of Forensic Science, The 5 th Conference
publication, 89-(FI01)
110.Cheong MK, Spearpoint MJ, Fleischmann CM. Calibrating an FDS simulation of
goods-vehicle fire growth in a tunnel using the runehamar experiment, Journal of
Fire Protection Engineering, 2009, 19, (3):177-96.
111.Colella A, Rein G, Carvel R, Torero JL. Tunnel ventilation effectiveness in fire
scenarios, FS-World Magazine, Special Edition on Tunnel Safety, (Spring 2010),
URL:http://hdl.handle.net/1842/3314.
112.Hu LH, Fong NK, Yang LZ, Chow WK, Li YZ, Huo R. Modeling fire-induced
smoke spread and carbon monoxide transportation in a long channel: Fire
dynamics simulator comparisons with measured data, Journal of Hazardous
Materials, 2007, 140, (1-2):293-8.
113.Chow WK, Zou GW. Numerical simulation of pressure changes in closed
chamber fires, Building and Environment, 2009, 44, (6):1261-75.
114.Okamoto K, Watanabe N, Hagimoto Y, Miwa K, Ohtani H. Evaporation
characteristics of multi-component liquid, Journal of Loss Prevention in the
Process Industries, 2010, 23, (1):89-97.
115.Yang L, Zaifu G, Yupeng Z, Weicheng F. The influence of different external
heating ways on pyrolysis and spontaneous ignition of some woods, Journal of
Analytical and Applied Pyrolysis, 2007, 78, (1):40-5.
116.Niu B, Qiu R, Jiang Y, Jiang P. Numerical reconstruction of a building fire and
smoke hazard evaluation, Xiaofang Kexue Yu Jishu/Fire Science and
Technology, 2009, 28, (5):308-11 (abstract in English)
117.Tavares RM, Tavares J, Parry-Jones S. The use of a mathematical multicriteria
decision-making model for selecting the fire origin room, Building and
Environment, 2008, 43, (12):2090-100.
118.Lai CM, HO MC, Lin TH. Experimental investigations of fire spread and flashover
time in office fires, Journal of Fire Sciences, 2010, 28, (3):279-302.
119.Cheng H, Hadjisophocleous GV. The modeling of fire spread in buildings by
bayesian network, Fire Safety Journal, 2009, 44, (6):901-8.
449