Buckling and Ultimate Strength of Ship and Ship-like Floating Structures provides an integrated state-of-the-art evaluation of ship structure mechanics including buckling, plastic failure, ultimate strength, and ultimate bending moments. For the design of any industrial product, it is necessary to understand the fundamentals in the failure behavior of structures under extreme loads. Significant developments have been made in understanding the analysis method of plastic collapse and behavior and strength of structures accompanied by buckling.
Written by two of the foremost experts in international ship design and ocean engineering, this book introduces fundamental theories and methods as well as new content on the behavior of buckling/plastic collapse that help explain analysis like the initial imperfections produced by welding and the ultimate strength of plates, double bottom structures of bulk carriers, and ship and FPSO hull girders in longitudinal bending.
Rounding out with additional coverage on floating structures such as oil and gas platforms and LNG/FLNG structural characteristics, Buckling and Ultimate Strength of Ship and Ship-like Floating Structures is a must-have resource for naval architects and other marine engineering professionals seeking to gain an in-depth understanding of the technological developments in this area.
1. Chapter 1: Introduction - p. xvii 2. Chapter 2: Initial Imperfections due to Welding - p. 11 3. Chapter 3: Fundamental Theory and Methods of Analysis to Simulate Buckling/Plastic Collapse Behavior - p. 34 4. Abstract - p. 35 5. 3.1 Deflection Mode of Plates and Stiffened Plates in Buckling/Plastic Collapse Behavior - p. 35 6. 3.2 Buckling Strength Analysis - p. 42 7. 3.3 Elastic Large Deflection Analysis of Rectangular Plate Subjected to Combined Loads - p. 46 8. 3.4 Elastoplastic Large Deflection Analysis - p. 54 9. Exercises - p. 64 10. 3.5 Appendix: Fundamental Equations for Elastic Large Deflection Analysis Assuming General Deflection Mode - p. 65 11. 3.6 Appendix: Derivation of EQ. 3.83 for Strain-Displacement Relationship - p. 70 12. 3.7 Appendix: Derivation of Initial Stress Stiffness Matrix - p. 72 13. Chapter 4: Buckling/Plastic Collapse Behavior and Strength of Rectangular Plate Subjected to Uni-Axial Thrust - p. 74 14. Abstract - p. 75 15. 4.1 Possible Buckling Modes/Behavior - p. 75 16. 4.2 Buckling Strength - p. 82 17. 4.3 Local Buckling Strength of Stiffened Plate Considering Web-Plate Interactions - p. 86 18. 4.4 Secondary Buckling in Rectangular Plate Subjected to Uni-Axial Thrust - p. 94 19. 4.5 Postbuckling Behavior and Ultimate Strength - p. 104 20. 4.6 Postultimate Strength Behavior of Rectangular Plate Under Uni-Axial Thrust - p. 135 21. 4.7 Buckling/ Plastic Collapse Behavior of Rectangular Plates Under Uni-Axial Cyclic Loading - p. 143 22. Exercises - p. 149 23. 4.8 Appendix: Application of Method of Least Squares to Derive Deflection Components From FEM Results - p. 152 24. 4.9 Appendix: Applicability of FEM Code to Buckling/Plastic Collapse Analysis of Plates Subjected to Cyclic Loading - p. 153 25. Chapter 5: Buckling/Plastic Collapse Behavior and Strength of Rectangular Plates Subjected to Combined Loads - p. 155 26. Chapter 6: Buckling/Plastic Collapse Behavior and Strength of Stiffened Plates - p. 206 27. Abstract - p. 207 28. 6.1 Buckling Collapse Behavior and Strength of Stiffened Plates - p. 207 29. 6.2 Buckling/Plastic Collapse Behavior and Strength of Continuous Stiffened Plates - p. 208 30. 6.3 Simplified Method to Evaluate Compressive Ultimate Strength of Continuous Stiffened Plates Subjected to Combined Bi-Axial Thrust and Lateral Pressure - p. 245 31. Exercises - p. 265 32. 6.4 Appendix: Buckling Strength of Column With Attached Plating Under Axial Compression - p. 266 33. 6.5 Appendix: Parameters in Closed Form Formulas to Evaluate Ultimate Strength of Stiffened Plate Subjected to Combined Bi-Axial In-Plane Loads and Lateral Pressure - p. 266 34. Chapter 7: Buckling/Plastic Collapse Behavior and Strength of Plate Girders Subjected to Combined Bending and Shear Loads - p. 273 35. Chapter 8: Progressive Collapse Behavior and Ultimate Strength of Hull Girder of Ship and Ship-Like Floating Structures in Longitudinal Bending - p. 317 36. Abstract - p. 319 37. 8.1 Ultimate Longitudinal Strength - p. 319 38. 8.2 Research Works on Progressive Collapse Behavior and Strength of Hull Girder in Longitudinal Bending [3, 4] - p. 320 39. 8.3 Smith’s Method - p. 328 40. 8.4 Application of Nonlinear FEM - p. 354 41. 8.5 Application of the ISUM - p. 368 42. 8.6 Collapse Tests on Hull Girder Models - p. 369 43. 8.7 Total System for Progressive Collapse Analysis on Ship’s Hull Girder - p. 383 44. Exercises - p. 399 45. 8.8 Appendix: Derivation of Average Stress-Average Strain Relationships of Elements for Smith’s Method [29] - p. 399 46. 8.9 Appendix: A Simple Method to Evaluate Warping of Hull Girder Cross-Section [39] - p. 411 47. 8.11 Appendix: Fundamental Formulation in Explicit FEM [21] - p. 416 48. 8.12 Appendix: Relaxation of Welding Residual Stress by Preloading [3] - p. 417 49. 8.13 Appendix: Buckling Strength of Stiffener Element With Attached Plating - p. 418 50. Chapter 9: Theoretical Background and Assessment of Existing Design Formulas to Evaluate Ultimate Strength - p. 424 51. Chapter 10: Buckling/Plastic Collapse Behavior of Structural Members and Systems in Ship and Ship-Like Floating Structures - p. 446 52. Appendix A: Chronological Table of Study on Buckling/Ultimate Strength - p. 478 53. Appendix B: Fundamentals in Idealized Structural Unit Method (ISUM) - p. 479 54. Appendix C: Structural Characteristics of Representative Ship and Ship-Like Floating Structures - p. 494 55. Index - p. 511
Buckling and Ultimate Strength of Ship and Ship-like Floating Structures provides an integrated state-of-the-art evaluation of ship structure mechanics including buckling, plastic failure, ultimate strength, and ultimate bending moments. For the design of any industrial product, it is necessary to understand the fundamentals in the failure behavior of structures under extreme loads. Significant developments have been made in understanding the analysis method of plastic collapse and behavior and strength of structures accompanied by buckling.
Written by two of the foremost experts in international ship design and ocean engineering, this book introduces fundamental theories and methods as well as new content on the behavior of buckling/plastic collapse that help explain analysis like the initial imperfections produced by welding and the ultimate strength of plates, double bottom structures of bulk carriers, and ship and FPSO hull girders in longitudinal bending.
Rounding out with additional coverage on floating structures such as oil and gas platforms and LNG/FLNG structural characteristics, Buckling and Ultimate Strength of Ship and Ship-like Floating Structures is a must-have resource for naval architects and other marine engineering professionals seeking to gain an in-depth understanding of the technological developments in this area.
1. Chapter 1: Introduction - p. xvii 2. Chapter 2: Initial Imperfections due to Welding - p. 11 3. Chapter 3: Fundamental Theory and Methods of Analysis to Simulate Buckling/Plastic Collapse Behavior - p. 34 4. Abstract - p. 35 5. 3.1 Deflection Mode of Plates and Stiffened Plates in Buckling/Plastic Collapse Behavior - p. 35 6. 3.2 Buckling Strength Analysis - p. 42 7. 3.3 Elastic Large Deflection Analysis of Rectangular Plate Subjected to Combined Loads - p. 46 8. 3.4 Elastoplastic Large Deflection Analysis - p. 54 9. Exercises - p. 64 10. 3.5 Appendix: Fundamental Equations for Elastic Large Deflection Analysis Assuming General Deflection Mode - p. 65 11. 3.6 Appendix: Derivation of EQ. 3.83 for Strain-Displacement Relationship - p. 70 12. 3.7 Appendix: Derivation of Initial Stress Stiffness Matrix - p. 72 13. Chapter 4: Buckling/Plastic Collapse Behavior and Strength of Rectangular Plate Subjected to Uni-Axial Thrust - p. 74 14. Abstract - p. 75 15. 4.1 Possible Buckling Modes/Behavior - p. 75 16. 4.2 Buckling Strength - p. 82 17. 4.3 Local Buckling Strength of Stiffened Plate Considering Web-Plate Interactions - p. 86 18. 4.4 Secondary Buckling in Rectangular Plate Subjected to Uni-Axial Thrust - p. 94 19. 4.5 Postbuckling Behavior and Ultimate Strength - p. 104 20. 4.6 Postultimate Strength Behavior of Rectangular Plate Under Uni-Axial Thrust - p. 135 21. 4.7 Buckling/ Plastic Collapse Behavior of Rectangular Plates Under Uni-Axial Cyclic Loading - p. 143 22. Exercises - p. 149 23. 4.8 Appendix: Application of Method of Least Squares to Derive Deflection Components From FEM Results - p. 152 24. 4.9 Appendix: Applicability of FEM Code to Buckling/Plastic Collapse Analysis of Plates Subjected to Cyclic Loading - p. 153 25. Chapter 5: Buckling/Plastic Collapse Behavior and Strength of Rectangular Plates Subjected to Combined Loads - p. 155 26. Chapter 6: Buckling/Plastic Collapse Behavior and Strength of Stiffened Plates - p. 206 27. Abstract - p. 207 28. 6.1 Buckling Collapse Behavior and Strength of Stiffened Plates - p. 207 29. 6.2 Buckling/Plastic Collapse Behavior and Strength of Continuous Stiffened Plates - p. 208 30. 6.3 Simplified Method to Evaluate Compressive Ultimate Strength of Continuous Stiffened Plates Subjected to Combined Bi-Axial Thrust and Lateral Pressure - p. 245 31. Exercises - p. 265 32. 6.4 Appendix: Buckling Strength of Column With Attached Plating Under Axial Compression - p. 266 33. 6.5 Appendix: Parameters in Closed Form Formulas to Evaluate Ultimate Strength of Stiffened Plate Subjected to Combined Bi-Axial In-Plane Loads and Lateral Pressure - p. 266 34. Chapter 7: Buckling/Plastic Collapse Behavior and Strength of Plate Girders Subjected to Combined Bending and Shear Loads - p. 273 35. Chapter 8: Progressive Collapse Behavior and Ultimate Strength of Hull Girder of Ship and Ship-Like Floating Structures in Longitudinal Bending - p. 317 36. Abstract - p. 319 37. 8.1 Ultimate Longitudinal Strength - p. 319 38. 8.2 Research Works on Progressive Collapse Behavior and Strength of Hull Girder in Longitudinal Bending [3, 4] - p. 320 39. 8.3 Smith’s Method - p. 328 40. 8.4 Application of Nonlinear FEM - p. 354 41. 8.5 Application of the ISUM - p. 368 42. 8.6 Collapse Tests on Hull Girder Models - p. 369 43. 8.7 Total System for Progressive Collapse Analysis on Ship’s Hull Girder - p. 383 44. Exercises - p. 399 45. 8.8 Appendix: Derivation of Average Stress-Average Strain Relationships of Elements for Smith’s Method [29] - p. 399 46. 8.9 Appendix: A Simple Method to Evaluate Warping of Hull Girder Cross-Section [39] - p. 411 47. 8.11 Appendix: Fundamental Formulation in Explicit FEM [21] - p. 416 48. 8.12 Appendix: Relaxation of Welding Residual Stress by Preloading [3] - p. 417 49. 8.13 Appendix: Buckling Strength of Stiffener Element With Attached Plating - p. 418 50. Chapter 9: Theoretical Background and Assessment of Existing Design Formulas to Evaluate Ultimate Strength - p. 424 51. Chapter 10: Buckling/Plastic Collapse Behavior of Structural Members and Systems in Ship and Ship-Like Floating Structures - p. 446 52. Appendix A: Chronological Table of Study on Buckling/Ultimate Strength - p. 478 53. Appendix B: Fundamentals in Idealized Structural Unit Method (ISUM) - p. 479 54. Appendix C: Structural Characteristics of Representative Ship and Ship-Like Floating Structures - p. 494 55. Index - p. 511
