Minimum depth of soil cover above soil-steel bridges

被引:13
|
作者
Abdel-Sayed, G [1 ]
Salib, SR [1 ]
机构
[1] Univ Windsor, Windsor, ON N9B 3P4, Canada
关键词
soil-structure interaction; steel; bridges; finite elements; granular media;
D O I
10.1061/(ASCE)1090-0241(2002)128:8(672)
中图分类号
P5 [地质学];
学科分类号
0709 ; 081803 ;
摘要
Soil-steel bridges are built of flexible corrugated steel panels buried in well-compacted granular soil. Their design is based on the composite interaction between the soil pressures and the displacements of the conduit wall. The structure failure could be initiated by shear or tension failure in the soil cover above the steel conduit. The provisions for design given in different codes, such as the Canadian Highway Bridge Design Code, managed to avoid some of the problems associated with the failure of soil above soil-steel bridges by requiring a minimum depth of soil cover over the crown of the conduit taking into consideration the geometric shape of the conduit. However, the present code requirements for a minimum depth of cover were developed for a maximum span of 7.62 m and using nonstiffened panels of 51 min depth of corrugation, The effect of having larger spans or using more rigid corrugated panels has not been examined before and is the subject of this paper. The present study uses the finite-element analysis to re-examine the possible soil failures due to centric live loads (i.e.. loads acting symmetrically about the mid span of conduit) or eccentric live loads. The study deals with spans up to 15.24 m of circular conduits and 21.3 m of arches with deep corrugations. It has been found that, in addition to the conduit geometry, the actual dimension of the span should be considered to determine the required depth of soil cover.
引用
收藏
页码:672 / 681
页数:10
相关论文
共 50 条
  • [31] STIFFNESS OF LAYERED SHELLS IN SOIL-STEEL BRIDGE STRUCTURES
    Machelski, Czeslaw
    ROADS AND BRIDGES-DROGI I MOSTY, 2011, 10 (04): : 55 - 78
  • [32] Study on soil-steel bridge response during backfilling
    Maleska, T.
    Beben, D.
    MAINTENANCE, SAFETY, RISK, MANAGEMENT AND LIFE-CYCLE PERFORMANCE OF BRIDGES, 2018, : 547 - 554
  • [33] DYNAMIC TESTING OF SOIL-STEEL COMPOSITE RAILWAY BRIDGE
    Beben, Damian
    IMPLEMENTING INNOVATIVE IDEAS IN STRUCTURAL ENGINEERING AND PROJECT MANAGEMENT, 2015, : 99 - 104
  • [34] GPR investigation of flexible soil-steel bridge structure
    Kosno, Lukasz
    Slawski, Lukasz
    Swit, Grzegorz
    BRIDGES IN DANUBE BASIN 2016 - NEW TRENDS IN BRIDGE ENGINEERING AND EFFICIENT SOLUTION FOR LARGE AND MEDIUM SPAN BRIDGES, 2016, 156 : 172 - 179
  • [35] Investigation of soil-steel interface behavior of Iraqi soil by direct shear apparatus
    Al-Emami, Omar
    3RD INTERNATIONAL CONFERENCE ON BUILDINGS, CONSTRUCTION AND ENVIRONMENTAL ENGINEERING, BCEE3-2017, 2018, 162
  • [36] Climate-smarter design of soil-steel composite bridges using set-based design
    Lagerkvist, J.
    Berrocal, C. G.
    Rempling, R.
    CURRENT PERSPECTIVES AND NEW DIRECTIONS IN MECHANICS, MODELLING AND DESIGN OF STRUCTURAL SYSTEMS, 2022, : 697 - 698
  • [37] TESTING THE LOAD CAPACITY OF A SOIL-STEEL BOX STRUCTURE
    Machelski, Czeslaw
    Korusiewicz, Leszek
    ROADS AND BRIDGES-DROGI I MOSTY, 2018, 17 (03): : 181 - 191
  • [38] CONSTRUCTION CONSIDERATIONS AND CONTROLS FOR SOIL-STEEL BRIDGE STRUCTURES
    MIRZA, C
    PORTER, WA
    CANADIAN JOURNAL OF CIVIL ENGINEERING, 1981, 8 (04) : 519 - 534
  • [39] Numerical analysis of soil-steel bridge with RC slab
    Beben, D.
    Stryczek, A.
    BRIDGE MAINTENANCE, SAFETY, MANAGEMENT AND LIFE EXTENSION, 2014, : 2108 - 2115
  • [40] Monitoring of soil-steel structures during construction and exploitation
    Machelski, Cz
    Janusz, L.
    Wadi, A.
    Tomala, P.
    BRIDGE MAINTENANCE, SAFETY, MANAGEMENT, LIFE-CYCLE SUSTAINABILITY AND INNOVATIONS, 2021, : 1824 - 1828