Modeling prestressed ceramic and its effect on ballistic performance

International Journal of Impact Engineering

Volumn 31, Issue 2, 2005, Pages 113-127

  Holmquist, Timothy J ^a   Johnson, Gordon R ^a  

^a Network Computing Services Inc   (United States)

Author keywords

Ceramic; Damage; Penetration; Prestress

Indexed keywords

CERAMIC MATERIALS; COMPACTION; NEUTRON DIFFRACTION; PRESTRESSED MATERIALS; PROJECTILES; STRESS ANALYSIS; TENSILE STRENGTH;

DAMAGE; PENETRATION; PLASTIC STRAIN; PRESTRESS;

BALLISTICS;

EID: 4644352894     PISSN: 0734743X     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.ijimpeng.2003.11.002     Document Type: Article

References (18)

1. Wilkins M, Honodel C, Sawle D. An approach to the study of light armor. UCRL-50284, Lawrence Livermore National Laboratory, June 1967.
2. Weber K, El-Raheb M, Hohler V. Experimental investigation on the ballistic performance of layered AlN ceramic stacks. In: Reinecke WG, editor. Proceedings of the 18th International Symposium on Ballistics. San Antonio, TX: Technomic, 1999. p. 1247-54.
3. Meyer Jr HW, Abeln T, Bingert S, Bruchey WJ, Brannon RM, Chhabildas LC, Dienes JK, Middleditch J. Crack behavior of ballistically impacted ceramic. In: Furnish MD, Chhabildas LC, Hixon RS, editors. Shock compression of condensed matter - 1999, New York: AIP Press; 2000. p. 1109-12.
4. Han C., Sun C.T. A study of pre-stress effect on static and dynamic contact failure of brittle materials. Int J Impact Eng. 24(6-7):2000;597-611.
5. Holmquist T.J., Johnson G.R. Modeling projectile impact onto prestressed ceramic targets. J Phys IV. 110:2003;597-602.
6. Johnson G.R., Beissel S.R. Damping algorithms and effects for explicit dynamics computations. Int J Impact Eng. 25(9):2001;911-925.
7. Holmquist T.J., Johnson G.R. A detailed computational analysis of interface defeat, dwell and penetration for a variety of ceramic targets. Carleone J., Orphal D. Proceedings of the 20th International Symposium on Ballistics. 2002;746-753 DEStech, Orlando, FL.
8. 3 ceramic tiles. In: Mayseless M, Bodner SR, editors. Proceedings of the 15th International Symposium on Ballistics, vol. 2, Jerusalem, Israel; 1995. p. 65-72.
9. Johnson GR, Cook WH. A constitutive model and data for metals subjected to large strains, high strain rates and high temperatures. Proceedings of the Seventh International Symposium on Ballistics. Netherlands: The Hague; 1983. p. 541-7.
10. Meyer H.W. Jr., Kleponis D.S. Modeling the high strain rate behavior of titanium undergoing ballistic impact and penetration. Int J Impact Eng. 26(1-10):2001;509-521.
11. Lundberg P., Renstrom R., Lundberg B. Impact of metallic projectiles on ceramic targets: transition between interface defeat and penetration Int J Impact Eng. 24(3):2000;259-275.
12. Johnson GR, Stryk RA, Holmquist TJ, Beissel SR. Numerical algorithms in a Lagrangian hydrocode. Report No. WL-TR-1997-7039, Wright Laboratory, June, 1997.
13. Johnson G.R., Beissel S.R., Stryk R.A. An improved generalized particle algorithm that includes boundaries and interfaces. Int J Numer Meth Eng. 53:2002;875-904.
14. Johnson G.R., Cook W.H. Fracture characteristics of three metals subjected to various strains, strain rates, temperatures and pressures. Eng Fracture Mech. 21(1):1985;31-48.
15. Johnson GR, Holmquist TJ. A computational constitutive model for brittle materials subjected to large strains, high strain rates and high pressures. Proceedings of EXPLOMET Conference. San Diego, CA, 1990.
16. Johnson G.R., Stryk R.A., Beissel S.R., Holmquist T.J. An algorithm to automatically convert distorted finite elements into meshless particles during dynamic deformation. Int J Impact Eng. 27(10):2002;997-1013.
17. Holmquist T.J., Johnson G.R. Response of silicon carbide to high velocity impact. J Appl Phys. 91(9):2002;5858-5866.
18. Holmquist T.J., Templeton D.W., Bishnoi K.D. Constitutive modeling of aluminum nitride for large strain, high-strain rate, and high-pressure applications. Int J Impact Eng. 25:2001;211-231.