‘Robinson’ Pedestrian Bridge in Budapest, Hungary

Abstract ‘Robinson’ Bridge was built as part of the National Athletic Centre project in Budapest, Hungary. The 168 m long cable‐stayed pedestrian bridge has a 65 m tall inclined pylon standing on a small island. The 12,72 m wide main girder is suspended to a monopylon with a two‐plane fan‐shaped FLC stay cable system. The landmark bridge's stunning appearance was achieved with hybrid structures. Both the pylon and parts of the slender stiffening girder were made of S460 steel tubes filled with concrete to enhance their load‐bearing and dynamic characteristics. Due to very limited construction area, a special erection process was used for the pylon involving a 200t floating crane. The stiffening girder was built with incremental launching. Cable tensioning with a curved deck proposed special design challenges. Large displacements had to be accurately predicted. To meet the strictest requirements for pedestrian comfort, TMDs were applied and dynamic load tests carried out to prove the results.

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Publication Details

Journal
ce/papers
Published
2024-09-01
DOI
https://doi.org/10.1002/cepa.3084
Primary Topic
Geotechnical Engineering and Underground Structures
Type
article
Field-Weighted Citation Impact
0.00
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article

‘Robinson’ Pedestrian Bridge in Budapest, Hungary

András Kemenczés, Laszlo Jozsef Hunyadi, Gábor Pál, Mihály Szabados
ce/papers
Geotechnical Engineering and Underground Structures
article

‘Robinson’ Pedestrian Bridge in Budapest, Hungary

András Kemenczés, Laszlo Jozsef Hunyadi, Gábor Pál, Mihály Szabados
article en

Abstract

Abstract ‘Robinson’ Bridge was built as part of the National Athletic Centre project in Budapest, Hungary. The 168 m long cable‐stayed pedestrian bridge has a 65 m tall inclined pylon standing on a small island. The 12,72 m wide main girder is suspended to a monopylon with a two‐plane fan‐shaped FLC stay cable system. The landmark bridge's stunning appearance was achieved with hybrid structures. Both the pylon and parts of the slender stiffening girder were made of S460 steel tubes filled with concrete to enhance their load‐bearing and dynamic characteristics. Due to very limited construction area, a special erection process was used for the pylon involving a 200t floating crane. The stiffening girder was built with incremental launching. Cable tensioning with a curved deck proposed special design challenges. Large displacements had to be accurately predicted. To meet the strictest requirements for pedestrian comfort, TMDs were applied and dynamic load tests carried out to prove the results.

ce/papersVol. 7(3-4)
Openalex Percentile: Top 83%
Geotechnical Engineering and Underground Structures
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