Preface | |
Acknowledgments | |
Nonlinear Impulses in Particulate Materials | p. 1 |
Long-Wave Equation for a "Strongly Compressed" Chain | p. 3 |
Equation for a "Weakly Compressed" Chain | p. 7 |
Stationary Solutions for the "Sonic Vacuum" Equation | p. 13 |
Stability of Nonlinear Periodic Waves in "Sonic Vacuum" | p. 22 |
Wave Dynamics of Unstressed One-Dimensional Granular Materials - Numerical Calculations | p. 26 |
Phenomenological Description of Waves in Particulate Systems | p. 62 |
Experimental Observation of a New Type of Solitary Waves in a One-Dimensional Granular Medium | p. 65 |
Wave Dynamics in 2- and 3-D Granular Materials | p. 82 |
Nonlinear Waves in Discrete 1-D Power-Law Materials | p. 90 |
General Case of Nonlinear Discrete Systems | p. 104 |
Mesomechanics of Porous Materials Under Intense Dynamic Loading | p. 137 |
Dynamics of Pore Collapse: The Carroll-Holt Model | p. 138 |
Modified Carroll-Holt Model | p. 145 |
The Front Width of a Strong Shock | p. 156 |
Quasistatic and Dynamic Deformation of Powders Under Shock Loading | p. 161 |
Two-Dimensional Numerical Calculations of Shock Densification | p. 169 |
Metallization of Dielectric Powders Under Shock Loading | p. 205 |
Boundary Layers | p. 212 |
Separation of Components in Powder Mixtures | p. 222 |
Three-Dimensional Simulations | p. 223 |
Interaction of Plane Shock Waves with a Cavity on the Free Surface | p. 224 |
Interaction of a Long Rod Penetrator with a Porous Target | p. 230 |
Validation of Numerical Modeling Against Experiments | p. 232 |
Transformation of Shocks in Laminated and Porous Materials | p. 246 |
Experiments on Shock Transformation in Solid Laminar Materials (LMs) | p. 248 |
Numerical Calculations of Shock Attenuation, the Mechanism of the Anomalous Effect of Cell Size | p. 251 |
Experimental Comparison of Shocks in Laminar Material and in a Random Heterogeneous Medium | p. 262 |
Damping of Shock Waves by Porous Materials | p. 274 |
Blast Mitigation by Porous Materials, Criteria for Damping | p. 285 |
Shear Localization and Shear Bands Patterning in Heterogeneous Materials | p. 307 |
Thick-Walled Cylinder (TWC) Method | p. 308 |
Experimental Observation of Shear Bands Patterning in Polycrystals | p. 320 |
Grady-Kipp Model of the Collective Behavior of Shear Bands | p. 328 |
Wright-Ockendon Model for Shear Band Spacing | p. 329 |
Molinari Model for Shear Band Spacing | p. 332 |
Theoretical Predictions Versus Experiments | p. 333 |
Dependence of Shear Bands Patterning on Initial Structure in Inert (Fractured and Granular) Materials | p. 340 |
Behavior of Reactant Granular Materials Under Conditions of Controlled Localized Shear | p. 367 |
Nonequilibrium Heating of Powders Under Shock Loading | p. 385 |
Experimental Results | p. 386 |
Thermodynamic Models for Heterogeneous Heating Under Shock-Wave Loading | p. 398 |
"Skin" Model and Thermal Relaxation in Shocked Powders | p. 415 |
Nonequilibrium Thermodynamics of Powder Mixtures | p. 418 |
Shock and Chemical Reactions in Powders | p. 427 |
Advanced Materials Treatment by Shock Waves | p. 442 |
Powder Densification and Consolidation by Shock Waves | p. 443 |
Preservation of the Amorphous State Under Dynamic Loading | p. 455 |
Obtaining of Supercooled States Under Shock-Wave Loading | p. 464 |
Sintering, Hot Isostatic Pressing of Shocked Powders | p. 472 |
Hot Explosive Compaction | p. 483 |
Shock Densification of Composites | p. 487 |
Particle Comminution and Activation by Dynamic Loading | p. 488 |
Afterword | p. 504 |
Index | p. 507 |
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