Fundamental Issues and Applications of Shock-Wave and High-Strain-Rate Phenomena

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Table of contents
  • Contentsxxiii
  • Foreword: John S. Rinehart Awards: 2000v
  • Our Careers in Dynamic Material Failurevii
  • Prefacexxi
  • SECTION I: MATERIALS ISSUES IN SHOCK AND HIGH STRAIN RATES1
  • Chapter 1. Elastic-plastic impact (some persistent misperceptions)3
  • Chapter 2. Dynamic material behavior under biaxial loading11
  • Chapter 3. A systematic study of the role of stacking fault energy (SFE) on shock-hardening in Cu an25
  • Chapter 4. High strain-rate behavior of two Ti6A1-4V alloys with different microstructures33
  • Chapter 5. Experimental study of structural magnesium alloys with high absorption energy under dynam37
  • Chapter 6. High strain rate behavior of explosives containing polymeric binders43
  • Chapter 7. Dynamic behavior of high polymers with focus on macrolon47
  • Chapter 8. Study on the formation of horizontal cracks in saturated sand55
  • Chapter 9. Dynamic mechanical properties of microstructurally- biased two-phase TiB2+AI2O3 ceramics63
  • Chapter 10. Spall strengths of silicon carbides under shock loading71
  • Chapter 11. Shear testing of Ti-6Al-4V alloy at high strain rates, up to 6*10E4 1/s79
  • Chapter 12. Evolution of microstructure and strength during high- strain, high-strain-rate deformati87
  • Chapter 13. Fracture model for spalling of hard metallic materials based on the mesocale approach99
  • Chapter 14. Effect of temperature and high strain rates on deformation induced phase transformation107
  • Chapter 15. Dislocation aspects of shock-wave and high-strain-rate phenomena115
  • Chapter 16. Dynamic ductile evolution and tensile fracture: new experimental insights for models eva125
  • Chapter 17. Experimental and numerical study of the response of a woven glass/epoxy 7781 composite o135
  • Chapter 18. Dependence of the titanium structure formed at high- strain-rate on its initial state143
  • Chapter 19. Measurement of lateral stress and spall strength in ceramics151
  • Chapter 20. Influence of microstructural anisotropy on the quasi- static and dynamic fracture of 108157
  • Chapter 21. Shock-wave hardening and dynamic properties of a nitrogen alloyed austenitic steel of th165
  • Chapter 22. Sound speeds of post-failure wave glass173
  • Chapter 23. Shock properties of AION181
  • Chapter 24. Shock compression and sample recovery using cylindrical implosions189
  • Chapter 25. Positive and negative strain-rate effect for materials with damage and/or phase transfor193
  • Chapter 26. Appropriate material selection for surrogate leg models subjected to blast loading201
  • Chapter 27. Dynamic behavior of silicon carbide209
  • Chapter 28. The effect of high strain rate compression on closed-cell aluminum foams219
  • Chapter 29. Analysis of materials exposed to ultra-high shock pressure227
  • SECTION II: SHOCK CONSOLIDATION, REACTIONS, AND SYNTHESIS233
  • Chapter 30. State of the art of explosive compaction235
  • Chapter 31. Shock synthesis of spinel-type high-pressure phase of Si3N4245
  • Chapter 32. Explosive compaction of clad graphite powders and obtaining of coatings on their base249
  • Chapter 33. Processing effects on the high-strain-rate response of hot-explosively-consolidated W-Ti259
  • Chapter 34. Investigation of shock-induced chemical reactions in Mo-Si powder mixtures267
  • Chapter 35. Underwater-shock compaction of Mo/Cu functionally graded powders275
  • Chapter 36. Explosive compaction of nanocrystalline alumina powder283
  • Chapter 37. On the numerical simulation of shock compacted metal sheathed high-Tc superconducting bi289
  • Chapter 38. Synthesis and characterization of nanocrystalline NiTi shape-memory alloy by shock-compr297
  • Chapter 39. Synthesis of Ti-based metal-like ternary ceramic compounds by dynamic densification and305
  • Chapter 40. Fabrication of 2124Al-SiC metal matrix composites by one dimensional underwater shock co313
  • Chapter 41. Shock wave consolidation of B, B4C and powder mixtures containing B and B 4 C321
  • Chapter 42. Lung-pulse explosive compacting of diamond powder331
  • Chapter 43. Shock compaction of bioceramic composites337
  • Chapter 44. Bulk samples of intermetallics, obtained by explosive compaction345
  • SECTION III: MATERIAL ASPECTS OF BALLISTIC AND HYPERVELOCITY IMPACT351
  • Chapter 45. Energy deposition during rod penetration in multiple- layered targets of steel and titan353
  • Chapter 46. Impact energy absorption of metal foam with controlled microstructure under dynamic load361
  • Chapter 47. Comparison of deformation twinning in tungsten and iron ballistic projectiles367
  • Chapter 48. Anomalous flow phenomena in a high-oxygen-containing tantalum explosively formed project375
  • Chapter 49. Comparison of soda-lime glass, stainless steel, and tungsten carbide penetrator impact b383
  • Chapter 50. Effects of properties of materials on penetration391
  • Chapter 51. Shear-band enforcement on flow upon stopping of penetrating projectiles by metallic targ399
  • Chapter 52. Study of titanium and uranium in plane and reverse ballistic experiments407
  • Chapter 53. An examination of the taylor impact problem for experiments involving square and circula415
  • Chapter 54. Interface defeat of impacting rods against ceramic targets421
  • Chapter 55. Application of porous metal foams in hybrid armor systems429
  • Chapter 56. Microstructural and micromechanical aspects of ceramic/long-rod projectile interactionti437
  • Chapter 57. Comparison of tungsten carbide penetrator impact behavior in soft and hard copper target447
  • SECTION IV: MODELLING AND SIMULATION455
  • Chapter 58. Adiabatic shear bands: modeling and scaling laws457
  • Chapter 59. Constitutive modeling of spall-fracture on 1100 aluminum plates after hypervelocity impa467
  • Chapter 60. Introduction of material length scales through damage percolation modelling475
  • Chapter 61. A computational model for polyurethane foam485
  • Chapter 62. A comparison of residual microstructures in explosively formed projectiles of copper and493
  • Chapter 63. Tungsten-heavy alloy ballistic rod penetration into a copper target: microstructural ana501
  • Chapter 64. Material model for high-hard steel and ballistic penetration simulations509
  • Chapter 65. Modeling incipient spallation in commercially pure tantalum517
  • Chapter 66. Experimental study and modeling of dynamic fracture of copper525
  • Chapter 67. The proportion of plastic work converted to heat in Ti-6Al-4V: MTS model prediction and533
  • Chapter 68. Modeling solid-particle erosion in high temperature superalloys539
  • SECTION V: NOVEL APPLICATIONS OF SHOCK AND HIGH- STRAIN-RATE PHENOMENA547
  • Chapter 69. Self-organization of shear bands in stainless steel: grain size effects549
  • Chapter 70. Comparison of calculated and experimental results of fragmenting cylinder experiments561
  • Chapter 71. Analysis of the shock interaction under the super deep penetration effect571
  • Chapter 72. Dynamic material property studies by laser-launched flyer plate impact and transient x-r575
  • Chapter 73. NITINOL®-stainless steel compound materials, made by explosive welding581
  • Chapter 74. Comparative behavior of Ti and 304 stainless steel in a magnetically-driven implosion at585
  • Chapter 75. Plug formation and fracture of hot isostatically pressed (HIPed) Ti-6Al-4V targets593
  • Chapter 76. Joining of thin metal plate onto various materials using regulated underwater shock wave601
  • Chapter 77. Non-die explosive forming of conjugated spherical pressure vessels609
  • Chapter 78. Non-die explosive forming of double-layered spherical metal vessels615
  • Chapter 79. Recent advances in high-pressure equation-of-state capabilities621
  • Chapter 80. Explosive forming of thin-wall semi-spherical parts633
  • Chapter 81. Determination of crash-relevant parameters by dynamic tensile tests639
  • Chapter 82. Examination of the mesoscopic scale response of shock compressed heterogeneous materials647
  • Chapter 83. A method to estimate explosion-induced stress field in various media based on point sour655
  • Chapter 84. Spall studies in copper foils using the laser-driven miniflyer661
  • Chapter 85. Non-die explosive forming of large extra-thin-wall spherical vessels669
  • Contributing Author Index673
  • Subject Index677
Book details
  • Vendor Elsevier S & T
  • SKU 9780080438962
  • ISBN-13 9780080550770

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This book contains the proceedings of EXPLOMET™ 2000, International Conference on Fundamental Issues and Applications of Shock-Wave and High-Strain-Rate Phenomena, held in Albuquerque, New Mexico, 2000; the fifth in the EXPLOMET™ quinquennial series which began in Albuquerque in 1980.

The book is divided into five major sections with a total of 85 chapters. Section I deals with materials issues in shock and high strain rates while Section II covers shock consolidation, reactions, and synthesis. Materials aspects of ballistic and hypervelocity impact are covered in Section III followed by modeling and simulation in Section IV and a range of novel applications of shock and high-strain-rate phenomena in Section V.

Like previous conference volumes published in 1980, 1985, and 1995, the current volume includes contributions from fourteen countries outside the United States. As a consequence, it is hoped that this book will serve as a global summary of current issues involving shock and high-strain-rate phenomena as well as a general reference and teaching componant for specializd curricula dealing with these features in a contemporary way.

Over the past twenty years, the EXPLOMET™ Conferences have created a family of participants who not only converse every five years but who have developed long-standing interactions and professional relationships which continue to stimulate new concepts and applications particularly rooted in basic materials behavior.