Explosive Welding, Forming and Compaction
The last two decades have seen a steady and impressive development, and eventual industrial acceptance, of the high energy-rate manufact turing techniques based on the utilisation of energy available in an explo sive charge. Not only has it become economically viable to fabricate complex shapes an...
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| Format: | eBook |
| Language: | English |
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Dordrecht
Springer Netherlands
1983, 1983
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| Edition: | 1st ed. 1983 |
| Subjects: | |
| Online Access: | |
| Collection: | Springer Book Archives -2004 - Collection details see MPG.ReNa |
Table of Contents:
- 9.10. Miscellaneous Forming Operations
- 9.11. Conclusion
- References
- 10. Powder Compaction
- 10.1 Introduction
- 10.2 Dynamic Compressibility of Powders
- 10.3. Type of Shock Wave and Density Distribution
- 10.4. Temperature and Strain Rate Effects
- 10.5. Phase Transitions in Shock Loading Mixtures
- 10.6. General Mechanical Properties of Compacted Powders
- 10.7. X-ray and Other Methods of Evaluating Residual Stress Distribution
- 10.8. Basic Problems in Fabricating Semi-finished Parts
- 10.9. Static and Dynamic Compaction: A Comparison of Material Properties
- References
- 4.4. Mechanical Equations of State at High Rates of Strain
- 4.5. Summary
- References
- 5. Basic Consideration for Commercial Processes
- 5.1. Explosive cladding
- 5.2. Design of Clad Assemblies
- 5.3. Assembly of Clads
- 5.4. Explosives
- 5.5. Double Sided Clads
- 5.6. Multilayer Clads
- 5.7. Post Cladding Operations
- 5.8. Destructive Testing
- 5.9. Tubular Components
- 5.10. Explosive Hardening
- 6. Mechanics of Explosive Welding
- 6.1. Introduction
- 6.2. The Mechanism of Explosive Welding
- 6.3. Parameters of the Explosive Welding Process
- 6.4. Interfacial Waves
- 6.5. Analysis of Flow in the Collision Region
- References
- 7. Explosive Welding in Planar Geometries
- 7.1. Introduction
- 7.2. Material Combinations and Flyer Thicknesses
- 7.3. Basic Welding Geometries
- 7.4. Selection of Bonding Parameters
- 7.5. Direct Measurement of Bonding Parameters
- 7.6. Miscellaneous Welding Geometries for Sheets and Plates
- 7.7. Welding of Foils
- 1. Introduction to High-energy-rate Metalworking
- 1.1. Background
- 1.2. High-energy-rate Processes
- 1.3. Development of the Field
- 1.4. Continued development of the field
- References
- 2. Propagation of Stress Waves in Metals
- 2.1. Dynamic Propagation of Deformation
- 2.2. Elastic Waves
- 2.3. Plastic Waves
- 2.4. Shock Waves
- 2.5. Defect Generation
- Acknowledgements
- References
- 3. Metallurgical Effects of Shock and Pressure Waves in Metals
- 3.1. Principal Features of High-strain-rate and Shock deformation in Metals
- 3.2. Permanent Changes: Residual Microstructure-Mechanical Property Relationships
- 3.3. Response of Metals to Thermomechanical Shock Treatment
- 3.4. Summary and Conclusions
- Acknowledgements
- References
- 4. High-rate straining and Mechanical Properties of Materials
- 4.1. Introduction
- 4.2. Testing Techniques at High Rates of Strain
- 4.3. Mechanical Properties of Materials at High Rates of Strain
- 7.8. Applications
- 7.9. Conclusions
- Acknowledgements
- References
- 8. Welding of Tubular, Rod and Special Assemblies
- 8.1. Introduction
- 8.2. Explosive and Implosive Welding Systems and Bonding Parameters
- 8.3. Welding of Duplex and Triplex Cylinders
- 8.4. Tube-to-tubeplate Welding
- 8.5. Explosive Plugging of Tubes in Tubeplates
- 8.6. Multilayer Foil Reinforced Cylinders
- 8.7. Interface Wire Mesh Reinforcement
- 8.8. Transition Joints
- 8.9. Solid and Hollow Axisymmetric Components
- References
- 9. Explosive Forming
- 9.1. Introduction
- 9.2. Formability of Engineering Alloys
- 9.3. Mechanical Properties of Explosively formed Components
- 9.4. Air and Underwater Forming Systems
- 9.5. Die and Dieless Forming
- 9.6. Analysis of Final Shapes in Free-Forming
- 9.7. Parameters and Analysis of Die Design
- 9.8. Forming of Domes and of Elements of Spherical Vessels
- 9.9. Forming and Punching of Tubular Components