Stability and Ductility of Steel Structures

Usami, T.; Itoh, Y.

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Table of contents
  • Stability And Ductility of Steel Structuresiii
  • Copyright Pageiv
  • Contentsv
  • Forewordix
  • Prefacexi
  • Part 1: State-of-the-Art1
  • Chapter 1. History of Research and Practice of the Stability of Steel Structures in the Twentieth Ce3
  • Part 2: Beams and Beam-Columns11
  • Chapter 2. Multiple Design Curves for Beam Lateral Buckling13
  • Chapter 3. Restraint of Beams by Trapezoidally Sheeting Using Different Types of Connection27
  • Chapter 4. Elasto-Plastic Behavior of Laterally-Braced Compression Members37
  • Chapter 5. Inelastic Behavior of Steel Beam-Columns Subject to Varying Axial Force and Cyclic Bendin45
  • Part 3: Steel and Composite Frames55
  • Chapter 6. Inelastic Buckling Strength of Portal Frames Subjected to Beam Loads57
  • Chapter 7. Steady-State Limit Analysis of Framed Structures Using Incremental Perturbation Method67
  • Chapter 8. A Simplified Analysis of Steel Frames Fail by Local and Global Instability79
  • Chapter 9. Analysis of Nonlinear Behavior of Steel Frames under Local Fire Conditions91
  • Chapter 10. Effects of Viscous Damping Models, Hysteretic Models and Ground Motion Characteristics o103
  • Chapter 11. Quasi-Static Cyclic and Pseudo-Dynamic Tests on Composite Substructures with Softening B119
  • Chapter 12. Pseudo-Dynamic Tests and Analysis on Semi-Rigidly Jointed Steel Frames131
  • Chapter 13. Recent Achievements in Substructuring On-Line Pseudodynamic Tests at IIS141
  • Chapter 14. Design of Steel Structures with LRFD Using Advanced Analysis153
  • Chapter 15. Deformation and Ductility Demands in Steel Moment Frame Structures167
  • Chapter 16. Ductility Demand Associated with Seismic Input179
  • Chapter 17. Seismic Design by Plastic Analysis189
  • Chapter 18. Moment Redistribution and Joint Detailing Issues in the Design of Composite Frames197
  • Part 4: Plates and Plated Structures209
  • Chapter 19. Ultimate Strength of Biaxially Loaded Plates211
  • Chapter 20. Influence of Welding on the Stability of Aluminium Thin Plates225
  • Chapter 21. A Design Study of the Patch Load Instability Phenomenon233
  • Part 5: Shells247
  • Chapter 22. Evaluation of Collapse Loads of Reticulated Domes under Seismic Motions249
  • Chapter 23. Plastic Buckling of Transition Ringbeams in Steel Silos and Tanks265
  • Part 6: Connections277
  • Chapter 24. Behaviour of Steel Beam-to-Column Joints under Cyclic Reversal Loading: An Experimental279
  • Chapter 25. A Design Model for Bolted Composite Semi-Rigid Connections293
  • Part 7: Bridge and Bridge Piers307
  • Chapter 26. Failure Mechanism of Steel Box Piers under Cyclic Loading309
  • Chapter 27. Nonlinear Dynamic Response of Thin Circular Steel Tubes319
  • Chapter 28. Ductility Improvement of Steel Columns with Corner Plates Based on Large-Scale Cyclic Lo327
  • Chapter 29. Cyclic Instability of Columns with Variable Cross-Section Due to Combination of Collapse337
  • Chapter 30. Inelastic Buckling of Steel Pipe Piers in Severe Earthquakes347
  • Chapter 31. On the Dynamic Behavior of Composite Box Girder Embedded with Viscoelastic Layer357
  • Part 8: Evaluation and Retrofit of Damaged Structures369
  • Chapter 32. Post-Earthquake Analysis on Damage to Steel Beam-to-Column Connections Observed in the 1371
  • Chapter 33. Shear Strength of Damaged High Strength Steel Bridges379
  • Part 9: Low Cycle Fatigue and Fracture389
  • Chapter 34. Low Cycle Fatigue Fracture Limit as the Evaluation Base of Ductility391
  • Chapter 35. Column Cracking in Steel Moment Frames401
  • Chapter 36. Effects of Cyclic Plastic Strains on Fracture Toughness of Structural Steels415
  • Author Index427
  • Keyword Index431
Book details
  • Vendor Elsevier S & T
  • SKU 9780080433202
  • ISBN-13 9780080541624
  • Author Usami, T.; Itoh, Y.
  • Category Technology & Engineering
  • Subject Engineering (General)

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The near-field earthquake which struck the Hanshin-Awaji area of Japan before dawn on January 17, 1995, in addition to snatching away the lives of more than 6,000 people, inflicted horrendous damage on the region's infrastructure, including the transportation, communication and lifeline supply network and, of course, on buildings, too. A year earlier, the San Fernando Valley area of California had been hit by another near-field quake, the Northridge Earthquake, which dealt a similarly destructive blow to local infrastructures. Following these two disasters, structural engineers and researchers around the world have been working vigorously to develop methods of design for the kind of structure that is capable of withstanding not only the far-field tectonic earthquakes planned for hitherto, but also the full impact of near-field earthquake.
Of the observed types of earthquake damage to steel structures, there are some whose causes are well understood, but many others continue to present us with unresolved problems. To overcome these, it is now urgently necessary for specialists to come together and exchange information.
The contents of this volume are selected from the Nagoya Colloquium proceedings will become an important part of the world literature on structural stability and ductility, and will prove a driving force in the development of future stability and ductility related research and design.