Shock Waves and High-Strain-Rate Phenomena in Metals Concepts and Applications
The scientific understanding of high-velocity deformation has advanced substantially during the past decade. On the one hand, the framework for a theory explaining the metallurgical effects of shock waves is beginning to take shape; on the other hand, the technological applications of high strain-ra...
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| Format: | eBook |
| Language: | English |
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New York, NY
Springer US
1981, 1981
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| Edition: | 1st ed. 1981 |
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| Online Access: | |
| Collection: | Springer Book Archives -2004 - Collection details see MPG.ReNa |
Table of Contents:
- Section 1: Historical Perspective
- 1 Historical Perspective: Metallurgical Effects of High Strain Rate Deformation and Fabrication
- Section 2: High Strain-Rate Deformation
- 2 An Improved Technique for Determining Dynamic Material Properties Using the Expanding Ring
- 3 Comparison of Flow Curves of 6061 Aluminum Alloy at High and Low Strain Rates
- 4 Dynamic Behavior of High Strength Steels Under Tension
- 5 Plastic Deformation of Colliding Hemishells
- 6 Deformation Mechanisms of Impact-Loaded Tungsten Sinter Materials
- 7 Effects of Strain Rate on Deformation - Induced Martensite in 304 Stainless Steel
- 8 Some Metallurgical Aspects of the Dynamic Expansion of Shells
- Section 3: Dynamic Fracture
- 9 Linking Dynamic Fracture to Microstructural Processes
- 10 Internal Fractures in Solids of Revolution due to Stress Wave Focussing
- 11 Application of Survival Statistics to the Impulsive Fragmentation of Ductile Rings
- 12 The Effect of Strain History on Crack Initiation Under Dynamic Loading
- 13 A Study of the Material Failure Mechanisms in the Shear-Control Process
- Section 4: Adiabatic Shearing
- 14 Adiabatic Deformation and Strain Localization
- 15 Metallurgical Influences on Shear Band Activity
- 16 Formation of Adiabatic Shear Bands During Upsetting of 18-4-1 Alloy Steel at High Strain Rates
- 17 A Criterion for Thermo-Plastic Shear Instability
- 18 Material Factors in Adiabatic Shearing In Steels
- 19 Shear Strains, Strain Rates, and Temperature Changes in Adiabatic Shear Bands
- 20 Description of “Hot Spots” Associated with Localized Shear Zones in Impact Tests
- 21 Metallurgical Effects on Impact Loaded Materials
- Section 5: Shock Waves I: Experimental Techniques
- 22 Design of Uniaxial Strain Shock Recovery Experiments
- 23 Active Measurements ofDefect Processes in Shock-Compressed Metals and Other Solids
- Section 7: Shock Waves III: Microstructural and Mechanical Effects
- 37 Residual Microstructure - Mechanical Property Relationships in Shock-Loaded Metals and Alloys
- 38 Effects of Laser-Induced Shock Waves on Metals
- 39 Short Duration Shock Pulses as a Tool to Study the Time Dependence of Plastic Deformation
- 40 Shock-Induced Martensite Reversal in Fe-30%Ni
- 41 Repeated Shock Loading of Nickel and Stainless Steel
- 42 Effects of Peak Pressure, Pulse Duration, and Repeated Loading on the Residual Structure and Properties of Shock Deformed Metals and Alloys
- 43 Magnetic Properties and Microstructures Associated With the Shock-Induced Transformation of fcc Iron to bcc Iron
- 44 Investigation of Residual Change Stability in Structure and Properties of Internally Oxidized Cu-A?203Alloys After Loading by Plane Shock Waves
- 45 Thermomechanical Processing by Shock Waves: An Overview
- Section 8: Dynamic Compaction of Powders
- 24 Determination of Pressure in a Metal Plate at Propagation of Loading Over the Plate Surface
- 25 A Technique for the Generation of Pressure-Shear Loading Using Anisotropic Crystals
- 26 Determination of the Shear Strength of Shock Compressed 6061-T6 Aluminum
- 27 Attenuation of Shock Waves in Nickel
- 28 Generation of a Pressure Pulse for Dislocation Velocity Studies
- Section 6: Shock Waves II: Fundamentals
- 29 Moving Dislocations in the Shock Front
- 30 Defect Generation in Shock-Wave Deformation
- 31 Mechanisms of Deformation Under Shock Loading
- 32 Dislocation Generation in Pure Aluminum at Quasistatic and Shock Loading
- 33 Thomas - Fermi Approximation for Shock Wave Structure in Metals
- 34 Response of Polycrystalline Mar-M200 (A Nickel Base Superalloy) to Shock Loading
- 35 Investigation of Shock-Loaded Copper by Positron Annihilation
- 36 Dislocation Drag Mechanisms, High Velocity Dislocations, and Twinning
- 46 Fundamentals of Explosive Compaction of Powders
- 47 Formation Mechanism of Metallurgical Inhomogeneities Accompanying Shock Compaction of Porous Metals
- 48 Response of Metal Powders to High Transient Electrical Discharge
- 49 Metallurgical Effects Under Shock Compression of Powder Materials
- 50 Observation of Dislocations and Twins in Explosively Compacted Alumina
- 51 The Production of Strong Parts and Non-Equilibrium Alloys by Dynamic Compaction
- Section 9: Explosive Metal Working and Welding
- 52 Explosive Metal Working in the U.S.S.R.
- 53 Explosive Welding - A Review
- 54 Microstructure and Bonding Mechanism in Explosive Welding
- 55 Influence of Collision Parameters on the Morphology of Interface in Aluminum-Steel Explosion Welds
- 56 Recrystallization of Explosively Formed Sheet Metal Parts out of Brass and Aluminum
- 57 Interfacial Wave Generation in Explosive Welding of Multilaminates
- 58 Fracturing of Embrittled Steel Vessels Into Preformed Fragments by Impulsive Loading
- Appendixes
- Appendix A Summary of Properties and Characteristics of Explosives
- Appendix B Temperature Rises Due To Shock Waves
- Appendix C Essential Equations on Shock Waves and How To Obtain Rankine-Hugoniot Plots for Metals
- Appendix D How to Obtain Hugoniot Relationships for Alloys
- Appendix E Nomograph for Determination of Flyer-Plate Velocity
- Appendix F Tabulation of Shock Wave Parameters as a Function of Pressure
- Appendix G Calculation of Rarefaction and Attenuation Rates of Shock Waves
- Contributors