Composite material pedestrian bridge for the Port of Bilbao

被引:0
作者
Gorrochategui, I. [1 ]
Manteca, C. [1 ]
Yedra, A. [1 ]
Miguel, R. [1 ]
del Valle, F. J. [1 ]
机构
[1] Fdn Ctr Tecnol Componentes CTC, Santander 39011, Spain
来源
INTERNATIONAL CONFERENCE ON STRUCTURAL NANO COMPOSITES (NANOSTRUC 2012) | 2012年 / 40卷
关键词
D O I
10.1088/1757-899X/40/1/012040
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Composite materials in comparison to traditional ones, steel and concrete, present advantages in civil works construction: lower weight, higher corrosion resistance (especially in the marine environment), and ease of installation. On the other hand, fabrication costs are generally higher. This is the reason why this technology is not widely used. This work illustrates the process followed for the design, fabrication and installation of a composite material pedestrian bridge in the Port of Bilbao (Northern Spain). In order to reduce the price of the bridge, the use of low cost materials was considered, therefore polyester resin was selected as the polymeric matrix, and glass fibres as reinforcement. Two material choices were studied. Currently in the market there is high availability of carbon nanoparticles: carbon nanotubes (CNT) and carbon nanofibres (CNF), so it was decided to add this kind of nanoparticles to the reference material with the objective of improving its mechanical properties. The main challenge was to transfer the CNT and CNF excellent properties to the polymeric matrix. This requires dispersing the nanoreinforcements as individual particles in the polymeric matrix to avoid agglomerates. For this reason, an advanced high shear forces dispersion technique (called "three roll mills") was studied and implemented. Also surface functionalization of the nanoreinforcements by chemical treatment was carried out. Herein, a comparison is performed between both materials studied, the explanation of the employment of the reference material (without nanoreinforcement) as the one used in the fabrication of the pedestrian bridge is justified and, finally, the main characteristics of the final design of the structural element are described.
引用
收藏
页数:6
相关论文
共 50 条
  • [21] Serviceability assessment of a pedestrian bridge: Concrete vs. GFRP composite deck
    Drygala, I. J.
    Dulinska, J. M.
    Ciura, R.
    ADVANCES IN ENGINEERING MATERIALS, STRUCTURES AND SYSTEMS: INNOVATIONS, MECHANICS AND APPLICATIONS, 2019, : 144 - 149
  • [22] Rotkreuz pedestrian bridge
    Luethi, Thomas
    Dubs, Rafael
    STAHLBAU, 2020, 89 (07) : 636 - 642
  • [23] Elimination of thermal bridge by thermal insulation composite material
    Pospisil, Tomas
    Pencik, Jan
    Matejka, Libor
    Matejka, Libor
    Kaluzova, Alena
    Dostalova, Darina
    ADVANCED COMPOSITE MATERIALS, PTS 1-3, 2012, 482-484 : 1654 - 1659
  • [24] A numerical tool for hydrocarbon pollution forecasting in the autonomous port of Bilbao
    González, M
    Espino, M
    Comerma, E
    Gyssels, P
    Hernáez, M
    Uriarte, A
    García, MA
    OIL AND HYDROCARBON SPILLS, MODELLING, ANALYSIS AND CONTROL II, 2000, 8 : 95 - 104
  • [25] Calatrava loses Bilbao bridge lawsuit (Santiago Calatrava)
    Cohn, David
    ARCHITECTURAL RECORD, 2008, 196 (01) : 32 - 32
  • [27] Soil-Structure Interaction Approach of a Timber-Concrete Composite Pedestrian Bridge
    Gamino, Andre Luis
    do Amaral, Marcel Almeida
    Santos, Ruan Richelly
    Menezes, Gabriela Vieira
    Bittencourt, Tulio Nogueira
    Futai, Marcos Massao
    PRACTICE PERIODICAL ON STRUCTURAL DESIGN AND CONSTRUCTION, 2023, 28 (03)
  • [28] The art of designing a pedestrian bridge
    2001, Palladian Publications (05):
  • [29] Laycock Park Pedestrian Bridge
    不详
    ITE JOURNAL-INSTITUTE OF TRANSPORTATION ENGINEERS, 2020, 90 (09): : 13 - 13
  • [30] Conceptual Design of the Pedestrian Bridge
    Lu, Pengzhen
    Zhou, Yutao
    Lu, Qun
    Wang, Jiahao
    Shi, Qingtian
    Li, Dengguo
    STRUCTURAL ENGINEERING INTERNATIONAL, 2022, 32 (04) : 470 - 483