Of underwater explosion experiments on plane plates

Experimental Techniques

Volumn 31, Issue 1, 2007, Pages 18-24

  Rajendran, R ^a   Paik, J K ^b   Lee, J M ^b  

^a BHABHA ATOMIC RESEARCH CENTRE   (India)

^b Pusan National University   (South Korea)

Author keywords

[No Author keywords available]

Indexed keywords

ACOUSTIC WAVE DIFFRACTION; DATA RECORDING; ESTIMATION; OCEANOGRAPHY; SHOCK WAVES; UNDERWATER ACOUSTICS;

HIGH-FREQUENCY COMPONENTS; PLANE PLATES;

UNDERWATER EXPLOSIONS;

EID: 33846682718     PISSN: 07328818     EISSN: 17471567     Source Type: Journal    
DOI: 10.1111/j.1747-1567.2006.00130.x     Document Type: Article

References (70)

1. Cole, R.H., Underwater Explosions, Princeton University Press, Princeton, NJ (1948).
2. Keil, A.H., Introduction to Underwater Explosion Research, UERD, Norfolk Naval Ship Yard, Portsmouth, VA (1956).
3. Keil, A.H., "The Response of Ships to Underwater Explosions," Transactions of Society of Naval Architects and Marine Engineers 69:366-410 (1961).
4. Taylor, G.I., "The Pressure and Impulse of Submarine Explosion Waves on Plates," Compendium of Underwater Explosion Research, ONR 1: 1155-1174 (1941).
5. Temperley, H.N.V., "Theoretical Investigation of Cavitation Phenomena Occurring when an Underwater Pressure Pulse is Incident on a Yielding Surface," Underwater Explosion Research, ONR 3:260-268 (1950).
6. Kennard, A.H., "The Effect of Pressure Wave on a Plate or Diaphragm," Compendium of Underwater Explosion Research, ONR 3:11-64 (1944).
7. Haung, H., "Numerical Analysis of Interaction of Interaction of Pressure Pulses with Submerged Structures," Smith, C.S., and Clarke, J.D. (eds), Advances in Marine Structures, Elsevier Publishers, London (1986).
8. Ezra, A.A., Principles and Practice of Explosive Metal Working, Vol. 1, Industrial News Papers Ltd., John Adams House, Adelphi, London (1973).
9. Rajendran, R., and Satyanarayana, K.H.B.S., "Interaction of Finite Amplitude Acoustic Waves with a Plane Plate,"Journal of Acoustic Society of India XXV: V5.1-V5.7 (1997).
10. Hung, C.F., Hsu, P.Y., and Fuu, J.J.H., "Elastic Shock Response of an Air-Backed Plate to Underwater Explosion," International Journal of Impact Engineering 31:151-168 (2005).
11. Rajendran, R., and Narasimhan, K., "Underwater Shock Response of Circular HSLA Steel Plates," Shock and Vibration 7(4): 251-262 (2000).
12. Rajendran, R., and Narasimhan, K., "Linear Elastic Shock Response of Plane Plates Subjected to Underwater Explosion," International Journal of Impact Engineering 25(5): 493-506 (2001).
13. Rajendran, R. "Response of Thin HSLA Steel Plates to Underwater Explosive Shock Loading,"PhD Thesis, IIT Bombay, Mumbai, India (2001).
14. Johnson, W., Kormi, K., and Travis, F.W., "An Investigation into the Explosive Deep Drawing of Circular Blanks Using Plug Cushion Technique," International Journal of Mechanical Sciences 6:287-301 (1966).
15. Minshall, S., "Properties of Elastic and Plastic Waves Determined by Pin Contactors and Crystals," Journal of Applied Physics 26:463-469 (1955).
16. Williams, T., "Some Metallurgical Aspects of Metal Forming," Sheet Metal Industries 29:391-398 (1962).
17. Bednarsky, T., "The Dynamic Deformation of a Circular Membrane," International Journal of Mechanical Sciences 11:949-959 (1969).
18. Hudson, G.E., and Johnson, C.T., "Time Displacement Studies on Diaphragm by Explosive Loading," Compendium of Underwater Explosion Research 3:445-460 (1951).
19. Nurick, G.N., "A New Technique to Measure the Deflection-Time History of a Structure Subjected to High Strain Rates," International Journal of Impact Engineering 3(1):17-26 (1985).
20. Nurick, G.N., "Using Photo Voltaic Diodes to Measure the Deformation Response of a Structure Subjected to an Explosive Load," SPIE Vol. 674, High Speed Photography 215-225 (1986).
21. Nurick, G.N., "The Measurement of Deformation Response of a Structure Subjected to an Explosive Load Using Light Interference Technique," Proceedings of 1986 SEM Spring conference on experimental mechanics. The Society of Experimental Mechanics Inc., 105-114 (1986).
22. Remmerswaal, J.R., "The Peaceful Use of Explosives," Sheet Metal Industries 475-486 (1962).
23. Finnie, T.M., "Explosive Forming of Circular Diaphragms," Sheet Metal Industries 391-398 (1962).
24. Hudson, G.E., "Theory of Dynamic Plastic Deformation of a Thin Diaphragm," Compendium of Underwater Explosion Research, ONR 3:164-200 (1951).
25. Fye, P.M., and Eldridge, F.E., "Diaphragm Gauge Studies of Underwater Explosion," Compendium of Underwater Explosion Research 3:517-594 (1951).
26. Jiang, J., and Olson, M.D., "Non-Linear Transient Analysis of Submerged Circular Plates Subjected to Underwater Explosions," Computer Methods in Applied Mechanics and Engineering 134(1-2):163-179 (1995).
27. Rajendran, R., and Narasimhan, K., "Performance Evaluation of HSLA Steel Subjected to Underwater Explosion," Journal of Materials Engineering and Performance, ASM 10(1):66-74 (2001).
28. Rajendran, R., Paik, J.K., and Lee, S.M., "Design of Warship Plates Against Underwater Explosion," Ships and Offshore Structures 1(4):347-356 (2006).
29. Rajendran, R., Paik, J.K., and Lee, J.M., "Application of Shock Factors for the Inelastic Damage Prediction of Plane Plates Subjected to Non-Contact Underwater Explosion," International Journal of Impact Engineering, under review.
30. Rajendran, R., and Narasimhan, K., "Deformation and Fracture Behaviour of Plate Specimens Subjected to Underwater Explosion-A Review," International Journal of Impact Engineering 32(12):1945-1963 (2006).
31. Rajendran, R., and Narasimhan, K., "A Shock Factor Based Approach for the Damage Assessment of Plane Pates Subjected to Underwater Explosion," Journal of Strain Analysis for Engineering Design 41(6):417-425 (2006).
32. Nurick, G.N., Pearce, H.T., and Martin, J.B., "Predictions of Transverse Deflections and In-Plane Strains in Impulsively Loaded Thin Plates," International Journal of Mechanical Sciences 29(6):435-442 (1987).
33. Nurick, G.N., and Martin, J.B., "Deformation of Thin Plates Subjected to Impulsive Loading-A Review. Part-I: Theoretical Considerations," International Journal of Impact Engineering 8(2):159-169 (1989).
34. Nurick, G.N., and Martin, J.B., "Deformation of Thin Plates Subjected to Impulsive Loading-A Review. Part-II: Experimental Studies," International Journal of Impact Engineering 8(2): 171-186 (1989).
35. Teeling-Smith, R.G., and Nurick, G.N., "The Deformation and Tearing of Thin Circular Plates Subjected to Impulsive Loads," International Journal of Impact Engineering 11(1):77-91 (1991).
36. Olson, M.D., Nurick, G.N., and Fagnan, J.R., "Deformation and Rupture of Blast Loaded Square Plates-Predictions and Experiments," International Journal of Impact Engineering 13(2):279-291 (1993).
37. Nurick, G.N., Olson, M.D., Fagnan, J.R., and Levin, A. "Deformation and Tearing of Blast-Loaded Stiffened Square Plates," International Journal of Impact Engineering 16(2):273-291 (1995).
38. Wierzbicki, T., and Nurick, G.N., "Large Deformation of Thin Plates Under Localised Impulsive Loading," International Journal of Impact Engineering 18(7-8):899-918 (1996).
39. Langdon, G.S., Cantwell, W.J., and Nurick, G.N., "The Blast Response of Novel Thermoplastic-Based Fibre-Metal Laminates-Some Preliminary Results and Observations," Composites Science and Technology 65(6):861-872 (2005).
40. Lemanski, S.L., Nurick, G.N., Langdon, G.S., Simmons, M.S., Cantwell, W.J., and Schleyer, G.K., "Understanding the Behaviour of Fibre Metal Laminates Subjected to Localised Blast Loading," Composite Structures 76 (1-2): 82-87 (2006).
41. Veldman, R.L., Ari-Gur, J., Clum, C., DeYong, A., and Folkert, J., "Effect of Pre-Pressurization on the Blast Response of Clamped Aluminium Plates," International Journal of Impact Engineering 32(10):1678-1695 (2006).
42. Langdon, G.S., and Schleyer, G.K., "Inelastic Deformation and Failure of Clamped Aluminium Plates Under Pulse Pressure Loading," International Journal of Impact Engineering 28(10):1107-1127 (2003).
43. Jones, N., Structural Impact, Cambridge University Press, Cambridge (1989).
44. Stoffel, M., Schmidt, R., and Weichert, D., "Shock Wave-Loaded Plates," International Journal of Solids and Structures 38(42):7658-7680 (2001).
45. Stoffel, M., "Sensitivity of Simulations Depending Upon Material Parameter Variations," Mechanics Research Communications 32(3):332-336 (2005).
46. Stoffel, M., "An Experimental Method to Validate Viscoplastic Constitutive Equations in the Dynamic Response of Plates," Mechanics of Materials 37(12):1210-1222 (2005).
47. Stoffel, M., "An Experimental Method for Measuring the Buckling Shapes of Thin-Walled Structures," Thin-Walled Structures 44(1):69-73 (2006).
48. Stoffel, M., "Shape Forming of Shock Wave Loaded Viscoplastic Plates, 2006," Mechanics Research Communications 33(1):35-41 (2005).
49. Stoffel, M., "Limit States of Elastic-Viscoplastic Plate Deformations Caused by Repeated Shock Wave-Loadings, Part 1: Experimental Investigations," Mechanics Research Communications 33(6):771-774 (2006).
50. Stoffel, M., "Limit States of Elastic-Viscoplastic Plate Deformations Caused by Repeated Shock Wave-Loadings, Part 2: Theoretical Modeling," Mechanics Research Communications 33(6):775-779 (2006).
51. Mouritz, A.P., "The Effect of Underwater Shock Loading on the Fatigue Bahaviour of GRP Laminates," Composites 26(1):3-9 (1995).
52. Mouritz, A.P., "The Damage to Stitched GRP Laminates by Underwater Explosion Shock Loading," Composites Science And Technology 55(4):365-374 (1995).
53. Mouritz, A.P., "The Effect of Underwater Explosion Shock Loading on the Flexural Properties of GRP Laminates," International Journal of Impact Engineering 18(2):129-139 (1996).
54. Deshpande, V.S., and Fleck, N.A., "One-Dimensional Response of Sandwich Plates to Underwater Shock Loading," Journal of the Mechanics and Physics of Solids 53(11):2347-2383 (2005).
55. Radford, D.D., Deshpande, V.S., and Fleck, N.A., "The Use of Metal Foam Projectiles to Simulate Shock Loading on a Structure," International Journal of Impact Engineering 31(9):1152-1171 (2005).
56. Radford, D.D., McShane, G.J., Deshpande, V.S., and Fleck, N.A., "The Response of Clamped Sandwich Plates with Metallic Foam Cores to Simulated Blast Loading," International Journal of Solids and Structures 43(7-8):2243-2259 (2006).
57. Hutchinson, J.W., Xue, Z., "Metal Sandwiched Plates Optimized for Pressure Pulses," International Journal of Mechanical Sciences, 47(4-5):545-569 (2005).
58. Xue, Z., and Hutchinson, J.W., "Preliminary Assessment of Sandwich Plates Subject to Blast Loads," International Journal of Mechanical Sciences 45(4):687-705 (2003).
59. Xue, Z., and Hutchinson, J.W., "A Comparative Study of Impulse-Resistant Metal Sandwich Plates," International Journal of Impact Engineering 30(10):1283-1305 (2003).
60. Rabczuk, T., Samaniego, E., and Belytschko, T., "Simplified Model for Predicting Impulsive Loads on Submerged Structures to Account for Fluid-Structure Interaction," International Journal of Impact Engineering 34(2):163-177 (2007).
61. Fox, E.N., "A Review of Underwater Explosions," Compendium of Underwater Explosion Research, ONR 1:1-83 (1947).
62. Bjorno, L., and Levin, P., "Underwater Explosion Research Using Small Amount of Explosives," Ultrasonics 14(6):263-267 (1976).
63. Biggs, J.M., Introduction to Structural Dynamics, McGraw-Hill Publishers, New York (1964).
64. Brett, J., Yiannakopoulus, G., and Schaaf, P.J., "Time-Resolved Measurement of Deformation of Submerged Cylinders Subjected to Loading from a nearby Explosion," International Journal of Impact Engineering 24(9):875-890 (2000).
65. Walter, P.L., Shock and Blast Measurement - Rise Time Capacity of Measurement System, Technical Report, TN-11, PCB, Piezotronics, DepewM, New York (2005).
66. Porter, J.F., and Ahmad, J., "An Experimental and Numerical Investigation of Explosively Loaded Submarine Hull Panels," 61st Shock and Vibration Bulletin 4:101-111 (1992).
67. Ramajeyathilagam, K., and Vendhan, C.P., "Deformation and Rupture of Thin Rectangular Plates Subjected to Underwater Shock," International Journal of Impact Engineering 30(6):699-719 (2004).
68. Yuen, S.C.H., and Nurick, G.N., "Experimental and Numerical Studies on the Response of Quadrangular Stiffened Plates. Part I: Subjected to Uniform Blast Load," International Journal of Impact Engineering 31(1):55-83 (2005)
69. Nurick, G.N., Gelman, M.E., and Marshall, N.S., "Tearing of Blast Loaded Plates with Clamped Boundary Conditions," International Journal of Impact Engineering 7-8:803-827 (1996).
70. U.S. Navy, Standard Procedure for Explosion Bulge Testing of Ferrous and Non-Ferrous Metallic Materials and Weldments, MIL-STD-2149A (SH), Department of Defense, Washington, DC (1990).