
Dynamic Failure of Materials and Structures
By: Arun Shukla (Editor), Guruswami Ravichandran (Editor), Yapa D.S. Rajapakse (Editor)
Hardcover | 5 November 2009
At a Glance
424 Pages
23.39 x 15.6 x 2.39
Hardcover
$310.47
or 4 interest-free payments of $77.62 with
orAims to ship in 7 to 10 business days
When will this arrive by?
Enter delivery postcode to estimate
Dynamic Failure of Materials and Structures discusses the topic of dynamic loadings and their effect on material and structural failure. Since dynamic loading problems are very difficult as compared to their static counterpart, very little information is currently available about dynamic behavior of materials and structures. Topics covered include the response of both metallic as well as polymeric composite materials to blast loading and shock loadings, impact loadings and failure of novel materials under more controlled dynamic loads. These include response of soft materials that are important in practical use but have very limited information available on their dynamic response. Dynamic fragmentation, which has re-emerged in recent years has also been included. Both experimental as well as numerical aspects of material and structural response to dynamic loads are discussed.
Written by several key experts in the field, Dynamic Failure of Materials and Structures will appeal to graduate students and researchers studying dynamic loadings within mechanical and civil engineering, as well as in physics and materials science.
Industry Reviews
From the book reviews:
"This book is written for graduate students and researchers who are studying dynamic loading with applications in civil and defence structures. ... This book provides a detailed view of experimental techniques and results of composite structures under dynamic loadings. Overall, it is a good book on structural damage behaviour under dynamic loadings." (Ran Zhou, International Journal of Acoustics and Vibration, Vol. 19 (1), 2014)
Dynamic Characterization of Soft Materials | p. 1 |
Introduction | p. 1 |
Conventional Kolsky Bar | p. 2 |
Modified Kolsky Bar for Characterizing Soft Materials | p. 6 |
Weak Transmitted Signal Measurement | p. 6 |
Inertia Effects | p. 8 |
Pulse-Shaping Technique for Kolsky-Bar Experiments on Soft Specimens | p. 13 |
Upper Limit in Strain Rates | p. 19 |
Single-Loading Feature | p. 20 |
Experiments at Intermediate Strain Rates | p. 23 |
Summary | p. 24 |
References | p. 25 |
Dynamic Shear Failure of Materials | p. 29 |
Introduction | p. 29 |
Dynamic Shear Testing | p. 30 |
Experimental Considerations | p. 30 |
Selected Dynamic Shear Studies Using the SCS | p. 33 |
Dynamic Shear Failure | p. 37 |
Some Facts on Adiabatic Shear Failure | p. 37 |
Conclusions | p. 58 |
References | p. 59 |
Dynamic Response of Glass-Fiber Reinforced Polymer Composites Under Shock Wave Loading | p. 63 |
Introduction | p. 64 |
Analytical Analysis | p. 66 |
Wave Propagation in Elastic-Viscoelastic Bilaminates | p. 66 |
Solution at Wave Front: Elastic Precursor Decay | p. 68 |
Late-Time Asymptotic Solution | p. 69 |
Plate Impact Experiments on GRP Composites | p. 75 |
Material: GRP Composites | p. 75 |
Plate Impact Shock Compression Experiments: Experimental Configuration | p. 76 |
Plate Impact Spall Experiments: Experimental Configuration | p. 77 |
Shock-Reshock and Shock Release Experiments: Experimental Configuration | p. 79 |
Target Assembly | p. 81 |
Experimental Results and Discussion | p. 81 |
Plate Impact Shock Compression Experiments | p. 81 |
Plate Impact Spall Experiments | p. 89 |
Shock-Reshock and Shock Release Experiments on S2-Glass GRP | p. 93 |
Summary | p. 102 |
References | p. 104 |
Dynamic Compressive Strengths of Polymeric Composites: Testing and Modeling | p. 107 |
Introduction | p. 107 |
Models for Predicting Compressive Failure | p. 109 |
The Kink Band Model | p. 109 |
Microbuckling Model | p. 111 |
Dynamic Microbuckling Model | p. 112 |
Derivation of Rate-Dependent Tangent Shear Modulus | p. 112 |
Dynamic Microbuckling Model for Off-Axis Specimens | p. 114 |
Comparison of Microbuckling Model and Kink Band Model | p. 115 |
Effect of Shear Stress on Compressive Strength | p. 116 |
Compressive Failure Tests | p. 117 |
Compressive Test on 0° Composite Specimen | p. 117 |
Compressive Test on Off-Axis Specimens | p. 118 |
Experimental Results of Off-Axis Specimens | p. 123 |
Longitudinal Compressive Strength | p. 125 |
Conclusion | p. 127 |
References | p. 127 |
Transverse Response of Unidirectional Composites Under a Wide Range of Confinements and Strain Rates | p. 131 |
Introduction | p. 131 |
Experimental | p. 135 |
Materials | p. 135 |
Low Strain Rate Testing | p. 137 |
High Strain Rate Testing | p. 137 |
Confinement | p. 138 |
Confinement Method for Low Strain Rate Loading | p. 139 |
Varying Confinement with Polycarbonate Pads Inserts | p. 141 |
High Strain Rate Confinement Method | p. 143 |
Low Strain Rate Results | p. 145 |
High Strain Rate Results | p. 149 |
Summary | p. 150 |
References | p. 150 |
Shock Loading and Failure of Fluid-filled Tubular Structures | p. 153 |
Introduction | p. 153 |
Korteweg Model of Wave Propagation | p. 154 |
Limiting Cases of FSI | p. 160 |
Thick, Stiff Tube ? ½1 | p. 160 |
Coupled Fluid Motion and Tube Deformation, ? = 0(1) | p. 163 |
Thin, Flexible Tube ? ” 1 | p. 166 |
Experimental Results | p. 167 |
Small Coupling | p. 168 |
Elastic Motions | p. 169 |
Plastic Motions | p. 169 |
High Explosives | p. 171 |
Moderate Coupling | p. 171 |
Elastic Waves | p. 172 |
Plastic Deformation | p. 173 |
Composite and Polymer Tubes | p. 176 |
Summary | p. 180 |
Appendix | p. 181 |
References | p. 187 |
Impact Response and Damage Tolerance of Composite Sandwich Structures | p. 191 |
Introduction | p. 192 |
Sandwich Materials Investigated | p. 193 |
Facesheet Materials | p. 193 |
Core Materials | p. 196 |
Sandwich Beams under Low Velocity Impact | p. 201 |
Sandwich Beam Testing | p. 201 |
Load Histories | p. 202 |
Strain Histories | p. 204 |
Modeling | p. 207 |
Damage Mechanisms | p. 209 |
Sandwich Panels under Low Velocity Impact | p. 214 |
Introduction | p. 214 |
Experimental Procedures | p. 214 |
Quasi-Static Behavior | p. 217 |
Behavior under Low Velocity Impact | p. 218 |
Damage Evaluation | p. 222 |
Post-Impact Behavior of Composite Sandwich Panels | p. 224 |
Introduction | p. 224 |
Experimental Procedure | p. 225 |
Results and Discussion | p. 225 |
Conclusions | p. 229 |
References | p. 231 |
Failure of Polymer-Based Sandwich Composites Under Shock Loading | p. 235 |
Introduction | p. 235 |
Material Systems | p. 241 |
E-glass Vinyl Ester Composite | p. 242 |
Carbon Fiber Vinyl Ester Composite | p. 242 |
Polyurea Layered Materials | p. 243 |
Polyurea Sandwich Composites | p. 244 |
Sandwich Composites with 3D Woven Skin | p. 244 |
Core Reinforced Sandwich Composites | p. 245 |
Experimental Setup | p. 246 |
Shock Tube | p. 247 |
Loading and Boundary Conditions | p. 249 |
High-Speed Imaging | p. 249 |
Results and Discussion | p. 250 |
Blast Resistance of Laminated Composites | p. 250 |
Blast Resistance of Layered Composites | p. 255 |
PU/EVE Layered Material | p. 256 |
EVE/PU Layered Material | p. 256 |
Blast Resistance of Sandwich Composites | p. 257 |
Polyurea-based Sandwich Composites | p. 257 |
Sandwich Composites with 3D Skin and Polymer Foam Core | p. 260 |
Summary | p. 266 |
References | p. 267 |
Fiber-Metal Laminate Panels Subjected to Blast Loading | p. 269 |
Introduction | p. 269 |
Blast Loading Studies on FMLs: Defining the Structural Materials | p. 271 |
Materials | p. 271 |
Important Properties of FMLs | p. 272 |
Naming Convention | p. 273 |
Localized Blast Loading Response | p. 274 |
Overview of Test Programme | p. 274 |
Results | p. 274 |
Uniformly Distributed Blast Response | p. 279 |
Overview of Test Programme | p. 279 |
Results | p. 280 |
Combining the Results | p. 281 |
Modeling | p. 283 |
Modeling Challenges | p. 283 |
Comparison with Experiments | p. 285 |
Blast Response of FMLs Based on Other Composites | p. 286 |
Glass Fiber PolyAmide 6,6 (GFPA) | p. 286 |
Glass Fiber Epoxy (GLARE©) | p. 289 |
Comparing Different Types of FML Panels | p. 291 |
Research Opportunities | p. 293 |
Conclusions | p. 294 |
References | p. 294 |
Sandwich Panels Subjected to Blast Loading | p. 297 |
Introduction | p. 297 |
Sacrificial Cladding | p. 298 |
Sandwich Panels | p. 299 |
Blast Loading Conditions | p. 301 |
Air Blast Loading | p. 301 |
Underwater Blast Loading | p. 302 |
Simulated Blast Load | p. 304 |
Sandwich Panels with Cellular Cores | p. 304 |
Mechanical Properties of Cellular Materials | p. 304 |
Sandwich Panels with Honeycomb Cores | p. 306 |
Sandwich Panels with Foam Cores | p. 311 |
Sandwich Panels with Micro-Architectured Cores | p. 313 |
Cores Manufactured Using Tooling | p. 314 |
Cores Manufactured Using Selective Laser Melting | p. 315 |
Sandwich Panels with Macro-Architectured Cores | p. 316 |
Future Work | p. 319 |
Conclusions | p. 321 |
References | p. 322 |
Advanced Numerical Simulation of Failure in Solids Under Blast and Ballistic Loading: A Review | p. 327 |
Introduction | p. 327 |
Background | p. 330 |
Projectile Penetration | p. 330 |
Blast Response of Structures | p. 331 |
Experimental Validation | p. 335 |
Diagnostic Penetration Experiment | p. 336 |
Modeling Requirements | p. 338 |
Conclusions | p. 344 |
References | p. 345 |
Advances in Cohesive Zone Modeling of Dynamic Fracture | p. 349 |
Introduction | p. 349 |
Origins of the Cohesive Zone Approach | p. 352 |
Finite Element Implementation Using Interface Elements | p. 354 |
Intrinsic Approach | p. 359 |
The Polynomial Potential Law | p. 359 |
The Exponential Potential Law | p. 362 |
Intrinsic Laws for Ductile Fracture | p. 363 |
Application of the Intrinsic Approach to Brittle Fracture | p. 365 |
Issues with the Intrinsic Approach | p. 369 |
Extrinsic Approach | p. 376 |
Linear Irreversible Softening Law | p. 376 |
Applications of the Extrinsic Approach | p. 379 |
Issues with the Extrinsic Approach | p. 382 |
Discontinuous Galerkin Formulation of Cohesive Zone Models | p. 390 |
Motivation | p. 390 |
The Discontinuous Galerkin Framework | p. 391 |
Application: Ceramic Spall Test | p. 394 |
Conclusions and Recommendations for Future Work | p. 399 |
Computational Challenges | p. 399 |
Extrinsic vs. Intrinsic Cohesive Laws and Associated Open Problems | p. 400 |
References | p. 401 |
Index | p. 407 |
Table of Contents provided by Ingram. All Rights Reserved. |
ISBN: 9781441904454
ISBN-10: 144190445X
Published: 5th November 2009
Format: Hardcover
Language: English
Number of Pages: 424
Audience: Professional and Scholarly
Publisher: Springer Nature B.V.
Country of Publication: US
Dimensions (cm): 23.39 x 15.6 x 2.39
Weight (kg): 0.77
Shipping
Standard Shipping | Express Shipping | |
---|---|---|
Metro postcodes: | $9.99 | $14.95 |
Regional postcodes: | $9.99 | $14.95 |
Rural postcodes: | $9.99 | $14.95 |
How to return your order
At Booktopia, we offer hassle-free returns in accordance with our returns policy. If you wish to return an item, please get in touch with Booktopia Customer Care.
Additional postage charges may be applicable.
Defective items
If there is a problem with any of the items received for your order then the Booktopia Customer Care team is ready to assist you.
For more info please visit our Help Centre.
You Can Find This Book In
This product is categorised by
- Non-FictionEngineering & TechnologyMechanical Engineering & MaterialsMaterials ScienceTesting of Materials
- Non-FictionEngineering & TechnologyCivil Engineering
- Non-FictionEngineering & TechnologyMechanical Engineering & MaterialsMaterials ScienceMechanics of SolidsDynamics & Vibration
- Non-FictionSciencePhysicsClassical Mathematics
- Non-FictionEngineering & TechnologyMechanical Engineering & MaterialsMechanical Engineering