Innovative Bridge Design Handbook

<p>Part I: Fundamentals<br>1. The History, Aesthetic and Design of Bridges</p> <p>Part II: Loads on Bridges<br>2. Loads<br>3. Wind Loads<br>4. Fatigue and Fracture</p> <p>Part III: Structural Analysis<br>5. Bridge Structural Theory and Modeling<br>6. Structural Dynamics<br>7. Risk and Reliability in Bridges<br>8. Innovative Structural Typologies<br>9. Soil-Foundation Structure Interaction</p> <p>Part IV: Bridge Design Based on Construction Material Type<br>10. Reinforced and Pre-Stressed Concrete Bridges<br>11. Steel and Composite Bridges<br>12. Timber Bridges<br>13. Masonry Bridges</p> <p>Part V: Bridge Design Based on Geometry<br>14. Arch Bridges<br>15. Girder Bridges<br>16. Long Span Bridges</p> <p>Part VI: Special Topics<br>17. Integral Bridges<br>18. Moveable Bridges<br>19. Highway Bridges<br>20. Railway Bridges<br>21. Footbridges</p> <p>Part VII: Bridge Components<br>22. Seismic Component Devices<br>23. Cables<br>24. Orthotropic Deck<br>25. Bridge Foundations<br>26. Expansion Joints, Bearings, and Special Devices</p> <p>Part VIII: Bridge Construction<br>27. Case Study: The Polcevera Bridge<br>28. Case Study: The Russky Bridge<br>29. Case Study: The Akashi Kaikyo Bridge<br>30. Bridge Construction Equipment</p> <p>Part IX: Assessment, Monitoring, and Retrofit of Bridges<br>31. Bridge Diagnostics, Assessment, Retrofit and Management<br>32. Bridge Monitoring<br>33. Retrofit with Composite Materials<br>34. Bridge Collapse</p>