0
  • DE
  • EN
  • FR
  • International Database and Gallery of Structures

Advertisement

Design of Steel Cable-stayed Bridge with Low Height Towers

 Design of Steel Cable-stayed Bridge with Low Height Towers
Author(s): , , , ORCID,
Presented at IABSE Symposium: Long Span Bridges and Roofs - Development, Design and Implementation, Kolkata, India, 24-27 September 2013, published in , pp. 1-6
DOI: 10.2749/222137813808626812
Price: € 25.00 incl. VAT for PDF document  
ADD TO CART
Download preview file (PDF) 0.4 MB

A large cable-stayed bridge with low height towers is planned crossing a canal near one of the major airports in Japan. As a result of the low towers and since the angle between girder axis and cab...
Read more

Bibliographic Details

Author(s):


ORCID

Medium: conference paper
Language(s): English
Conference: IABSE Symposium: Long Span Bridges and Roofs - Development, Design and Implementation, Kolkata, India, 24-27 September 2013
Published in:
Page(s): 1-6 Total no. of pages: 6
Page(s): 1-6
Total no. of pages: 6
Year: 2013
DOI: 10.2749/222137813808626812
Abstract:

A large cable-stayed bridge with low height towers is planned crossing a canal near one of the major airports in Japan. As a result of the low towers and since the angle between girder axis and cable is small, the increase of deflection of stiffening girder becomes a design issue for earthquake and wind resistance performance. In addition, there is the issue of soil-liquefaction during earthquake because the bridge is located in a reclaimed soft ground area. In order to solve these issues, structural stability of the main structure was confirmed by FE analysis. For wind resistance performance, the behavior of the bridge was examined by wind tunnel experiment, and for earthquake-resistance performance of the basement, the movement of the tower foundations was checked by 2-D dynamic effective stress analysis of the ground.

Keywords:
cable-stayed bridge ultimate strength soil liquefaction Low height towers Earthquake resistance performance Wind resistance performance