2Jones D A, Parker R P. Heat flow calculations for the small-scale cookoff bomb test[ R]. AD-A236829 : 1991.
3Howard W M, McClclland M A, Knap J,et al. ALE3D simulation of gap closure and surface ignition for cook-off modeling[ C]. CA 94551, 2006.
4Yoh J J,McClelland M A, Maienschein J L,et al. Simulating thermal explosion of RDX-based explosives: Model comparison with experiment [ J ]. Journal of Applied Physics,2005,97 ( 8 ) : 1 - 11.
5Yoh J J. High-end modeling and simulation of eookoff of HMX-based energetic materials[ R]. LNCS 3984: 2006.
6Yoh J J,McClelland M A, Maienschein J L, et al. Test-based thermal explosion model for HMX[ J]. Proceeding of the Combustion Institute, 2007(31 ) : 2353 -2359.
7WANG Pei,CHEN Lang,WANG Yan, et al. Numerical simulation of explosive cook-off at different heating rate [ C ] //2007 International Autumn Seminar on Propellants, Explosives and Pyrotechnics (2007IASPEP).
8Fluent Inc. FLUENT User's Guide. Fluent Inc. ,2006.
9Erikson W W, Schmjtt R G, Atwood A I, et al. Coupled thermalchemical-mechanical modeling of validation cookoff experiments[ C ]// JANNAF 37th Combustion and 19th Propulsion Systems Hazards Subcommittees Joint Meeting, Monterey, CA ,2000.
10MeClelland M A,Tran T D, Cunningham B J, et al. Cookoff response of PBXN-109: Material characterization and ALE3D thermal predictions[C]//50th Joint Army-Navy NASA Air Force (JANNAF) Propulsion Meeting, Salt Lake City, Utah,2001.
