Volume is indexed by Thomson Reuters CPCI-S (WoS). The objective of this special-topic volume was to disseminate work on current trends in Explosion, Shock Wave and Hypervelocity Phenomena in Materials.

Recent years have witnessed an astonishing growth in research on materials science. Exotic new materials, innovative processing techniques and challenging computational methods make the pursuit of research in this field increasingly interesting and rewarding. Considering as it does, the significance of shock-wave phenomena in the rapidly changing materials science scene, this collection of papers will undoubtedly foster further advanced research into the allied research areas of explosive, shock-wave and hypervelocity phenomena in materials. Volume is indexed by Thomson Reuters CPCI-S (WoS).

Recent years have witnessed an astonishing growth in research on materials science. Exotic new materials, innovative processing techniques and challenging computational methods make the pursuit of research in this field increasingly interesting and rewarding. Considering as it does, the significance of shock-wave phenomena in the rapidly changing materials science scene, this collection of papers will undoubtedly foster further advanced research into the allied research areas of explosive, shock-wave and hypervelocity phenomena in materials. The collection comprises 76 papers, and the topics covered by the symposium include various high-velocity phenomena in materials; such as dynamic deformation and fracture, dynamic processing of materials, and detonation and shock waves.

Materials processing using explosion, shock-wave and high-strain-rate phenomena was developed after WWII, and these explosive forming and welding techniques have since been adopted as an accepted industrial technology. Such extremely high-rate phenomena historically used empirical experiences while the experimental conditions were not well documented due to the difficulties inherent in understanding the real response or behaviour of materials. Based upon the recent development of numerical techniques for analysis and the enriched data available on the behaviour of materials, it is now possible to predict such high-rate phenomena based upon numerical and experimental approaches including optical observation. Explosion, Shock-wave and High-strain-rate Phenomena of Advanced Materials demonstrates the deformation of various materials at high-rate based upon numerical analysis and supported by experimental evidence. The book is recommended for researchers and engineers who would like to learn more about the high-rate effect of materials and those who need to resolve multi-physics problems based on numerical approach. It is also ideal for researchers and engineers interested with explosive and other high-rate processing of materials. Presents numerical techniques on the analysis and enriched data on the behavior of materials based upon a numerical approach Provides case studies to illustrate the various methods discussed Includes mechanical response at high-rates of porous materials

The book presents the papers presented at the 6th international conference on Explosion, Shock Wave and High Strain-Rate Phenomena (ESHP). Topics covered include: Advanced Manufacturing under Impact/Shock Loading, Detonation of High Pressure Flammable Gas in Closed Spaces, High Strain-Rate Behaviour of Auxetic Cellular Structures, Underwater Shock Waves Generation, Magnetic Pressure Welding of Aluminum Sheets, Shock Synthesis of Zirconium Oxides, Impact Joining of Dissimilar Metals, High-Speed Oblique Collision of Metals, Dynamic Behavior of Dislocation Wall Structures, Tensile Strength of Rock at High Strain Rates, Fiber Reinforced Mortar, Impact Analysis of Carbon Fiber Reinforced Polymer, Explosive Welding , Underwater Explosive Welding , Making Ultrafine Explosives, Aluminum-Steel Explosive Cladding, Explosively Cladded Aluminum Hybrid Composites, Explosive Clads with Interlayers.

Volume is indexed by Thomson Reuters CPCI-S (WoS).The objective of this special-topic volume was to disseminate work on current trends in Explosion, Shock Wave and Hypervelocity Phenomena in Materials. Recent years have witnessed an astonishing growth in research on materials science. Exotic new materials, innovative processing techniques and challenging computational methods make the pursuit of research in this field increasingly interesting and rewarding. Considering as it does, the significance of shock-wave phenomena in the rapidly changing materials-science scene, this collection of papers will undoubtedly foster further advanced research into the allied research areas of explosive, shock-wave and hypervelocity phenomena in materials.The 66 peer-reviewed papers cover topics such as: shock waves, detonation and combustion, materials processing, numerical simulation and high strain-rate phenomena. This volume collects 60 papers from the March 2007 Second International Symposium on Explosion, Shock Wave and Hypervelocity Phenomena in Materials, organized by the Kumamoto University's (Japan) Shock Wave and Condensed Matter Research Center, 21st Century COE Program on Pulsed Power Science, and Faculty of Engineering in cooperation with Japan Explosive Society's Technical Section of Explosion and Impulsive Processing and the Japan Society for Technology of Plasticity's Committee of the High-Energy-Rate Forming. Some examples of topics addressed include development of a large diameter diaphragmless shock tube for gas-dynamic laser studies, behaviors of high explosive near the critical conditions for shock initiation of detonation, dynamic response of a steel pipe to internal blast loading, detonation behaviors of nitromethane with various initiating shock pressure, computational studies of the behavior of cellular structures under impact loading, numerical simulation of underwater explosive compaction process for compaction of tungsten powder, processing of advanced materials using conventional and shock techniques, dependence of blast attenuation on weight of barrier materials, sterilization of dry powdered foods by successive impacts, influence of inert copper and silicon carbide inserts on process of detonation transmission through water, and underwater explosive welding of thin magnesium plate onto metal plates.