Research on Irreversible Growth Mechanism of PBX due to Thermal Cycling

Siyang Lei; Shuo Wang; Fangyun Lu; Rong Chen

doi:10.1051/e3sconf/202125701051

All issues

Volume 257 (2021)

E3S Web Conf., 257 (2021) 01051

References

Open Access

Issue		E3S Web Conf. Volume 257, 2021 5^th International Workshop on Advances in Energy Science and Environment Engineering (AESEE 2021)


Article Number		01051
Number of page(s)		5
Section		Energy Chemistry and Energy Storage and Save Technology
DOI		https://doi.org/10.1051/e3sconf/202125701051
Published online		12 May 2021

S. Ye, K. Tonokura, M. Koshi. Energy transfer rates and impact sensitivities of crystalline explosives[J]. Combust. Energy transfer rates and impact sensitivities of crystalline explosives[J]. Combustlame(2003), 132(1–2):240-246. [Google Scholar]
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X TU, B Zhang, W Wang, et al. Study on the Properties of TATB Based PBX Under Mechanical Stress Undergoing High Temperature Accelerated Aging Test[C]. 6th Symposium on Energetic Materials and Insensitive Munitions (2014). [Google Scholar]
T.M. Willey, T.V. Buuren, J.R.I. Lee, et al. Changes in pore size distribution upon thermal cycling of TATB-based explosives measured by ultra-small angle X-ray scattering[J]. Propellants, Explos., Pyrotech (2010), 31(6):466-471. [Google Scholar]
W.L. Perry, A.M. Duque, J.T. Mang, E. Roemer, New insights to the irreversible thermal expansion of PBX 9502[C], 15th International Detonation Symposium, San Francisco, CA, July (2014). [Google Scholar]
R.B. Schwarz, Cheng Liu and Darla G. Thompson. Anisotropy in the Ratchet Growth of PBX 9502[R]. LA-UR-15-21827 [Google Scholar]
D.G Thompson, R.B Schwarz, G.W Brown, et al. Time-Evolution of TATB-Based Irreversible Thermal Expansion (Ratchet Growth)[J]. Propellants, Explos., Pyrotech (2015), 40(4):558-565. [Google Scholar]
D.G. Thompson, R. DeLuca, C.S. Woznick. FY19 Summary Report: Thermal and Mechanical Characterization of DAAF and LAX-133, LA-UR19-29255. [Google Scholar]
P LI, Z.M Hao, Y. P Liu, et al. Application of Peridynamic Method on Prediction of Creep Behavior of Polymer Bonded Explosives[J]. Chin J Energ Mater (2017), 25(02):118-124. [Google Scholar]

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[1] S. Ye, K. Tonokura, M. Koshi. Energy transfer rates and impact sensitivities of crystalline explosives[J]. Combust. Energy transfer rates and impact sensitivities of crystalline explosives[J]. Combustlame(2003), 132(1–2):240-246. [Google Scholar]

[2] Y.B. LI, F.D. Nie, J. Sun, et al, Influence of Irreversible Growth of PBX on Interface of TATB/binder[J]. Chin.J.Explos.Propellants (2001).24 (4). [Google Scholar]

[3] R.N. Mulford and D.C. Swift. Sensitivity of PBX9502 after ratchet growth[C].AIP Conf. Proc (2012). [Google Scholar]

[4] J Neubauer, R Sieber, H Kuzel, M Ecker, W.C. Tao. Effect of confinement and thermal cycling on the shock initiation of LX-17[J], Combust. Effect of confinement and thermal cycling on the shock initiation of LX-17[J], Combustlame (1996), 105, 43. [Google Scholar]

[5] W LI, X Wang, G Zhao, et al. The research of the effect of base gap on the stress of explosives and the lunching safety[J]. J. The research of the effect of base gap on the stress of explosives and the lunching safety[J]. Jallist. (2001), 13 (3). [Google Scholar]

[6] X TU, B Zhang, W Wang, et al. Study on the Properties of TATB Based PBX Under Mechanical Stress Undergoing High Temperature Accelerated Aging Test[C]. 6th Symposium on Energetic Materials and Insensitive Munitions (2014). [Google Scholar]

[7] T.M. Willey, T.V. Buuren, J.R.I. Lee, et al. Changes in pore size distribution upon thermal cycling of TATB-based explosives measured by ultra-small angle X-ray scattering[J]. Propellants, Explos., Pyrotech (2010), 31(6):466-471. [Google Scholar]

[8] W.L. Perry, A.M. Duque, J.T. Mang, E. Roemer, New insights to the irreversible thermal expansion of PBX 9502[C], 15th International Detonation Symposium, San Francisco, CA, July (2014). [Google Scholar]

[9] R.B. Schwarz, Cheng Liu and Darla G. Thompson. Anisotropy in the Ratchet Growth of PBX 9502[R]. LA-UR-15-21827 [Google Scholar]

[10] D.G Thompson, R.B Schwarz, G.W Brown, et al. Time-Evolution of TATB-Based Irreversible Thermal Expansion (Ratchet Growth)[J]. Propellants, Explos., Pyrotech (2015), 40(4):558-565. [Google Scholar]

[11] D.G. Thompson, R. DeLuca, C.S. Woznick. FY19 Summary Report: Thermal and Mechanical Characterization of DAAF and LAX-133, LA-UR19-29255. [Google Scholar]

[12] P LI, Z.M Hao, Y. P Liu, et al. Application of Peridynamic Method on Prediction of Creep Behavior of Polymer Bonded Explosives[J]. Chin J Energ Mater (2017), 25(02):118-124. [Google Scholar]