LONG-TERM STATIC TESTING OF AN FRP PROTOTYPE HIGHWAY STRUCTURE

被引:8
|
作者
LEE, J [1 ]
HOLLAWAY, L [1 ]
THORNE, A [1 ]
HEAD, P [1 ]
机构
[1] MAUNSELL STRUCT PLAST, BECKENHAM, KENT, ENGLAND
关键词
Composite beams and girders - Connectors (structural) - Crack propagation - Creep - Deflection (structures) - Fiber reinforced plastics - Highway engineering - Loads (forces) - Mathematical models - Mechanical testing - Structural analysis - Structural design;
D O I
10.1016/0263-8223(94)90124-4
中图分类号
O3 [力学];
学科分类号
08 ; 0801 ;
摘要
In recent years it has become apparent that the labour and maintenance costs of highway structures fabricated from conventional constructional materials (i.e. steel and concrete) arc rising, and therefore the whole life cost of these structures is being significantly affected. Highway structures manufactured from advanced composite materials provide a viable solution to reduce substantially both the labour and the maintenance costs, whilst providing structures that behave in accordance with the present British code of practice for highway structures. The principle objectives of the investigations were to undertake experimentally and to verify, where applicable, numerically the suitability of advanced fibre-reinforced polymer (FRP) composite materials manufactured in the form of box beams for use as highway structures. It was also important to research into any unique behavior exhibited by the FRP structures while under test and to develop relevant theoretical models and formulae to characterize completely this behavior. The composite box beam showed no signs of global deterioration and generally behaved as predicted, the short term stiffness of the beam measured at specific times during the test did not decrease to any extent. There was some local flexural cracking in the connectors at the position of the applied loads, but this can be eliminated by design. The creep and deflections of the beam at the end of the test were well within acceptable limits.
引用
收藏
页码:441 / 448
页数:8
相关论文
共 50 条
  • [41] Short and long-term bond performance of prestressed FRP sheet anchorages
    Diab, Hesham
    Wu, Zhishen
    Iwashita, Kentaro
    ENGINEERING STRUCTURES, 2009, 31 (05) : 1241 - 1249
  • [42] DETERMINING LONG-TERM STATIC STRENGTH OF ADHESIVE JOINTS
    POPOV, GG
    RUBENCHI.SA
    RUSSIAN ENGINEERING JOURNAL-USSR, 1968, 48 (07): : 60 - &
  • [43] LONG-TERM RELATIONSHIPS: STATIC GAINS AND DYNAMIC INEFFICIENCIES
    Hemous, David
    Olsen, Morten
    JOURNAL OF THE EUROPEAN ECONOMIC ASSOCIATION, 2018, 16 (02) : 383 - 435
  • [44] Long-term issues related to structural health of FRP bridge decks
    Alampalli, Sreenivas
    Ettouney, Mohammed M.
    BRIDGE STRUCTURES, 2006, 2 (01) : 1 - 11
  • [45] Couplings and overload systems in long-term testing
    Kupplungen und überlastsysteme im Dauerversuch
    Wibbeling, Reinhard, 1600, Springer-VDI Verlag GmbH and Co. KG (69):
  • [46] A METHOD FOR TESTING TUBES FOR LONG-TERM STRENGTH
    ASVIYAN, MB
    AZIZOV, IA
    INDUSTRIAL LABORATORY, 1966, 32 (09): : 1380 - &
  • [47] DEVICE FOR TESTING BIMETALS FOR LONG-TERM STRENGTH
    SEMENOV, GS
    LENTS, RO
    US, LI
    INDUSTRIAL LABORATORY, 1967, 33 (01): : 113 - &
  • [48] LONG-TERM INVIVO TESTING OF AN AUXILIARY VENTRICLE
    KISO, I
    SCHRAUT, W
    WAJSZCZUK, W
    MOSKOWITZ, MS
    FREED, P
    KANTROWITZ, A
    TRANSACTIONS AMERICAN SOCIETY FOR ARTIFICIAL INTERNAL ORGANS, 1974, B 20 : 637 - 642
  • [49] Long-term testing of trenchless pipe liners
    Barbero, E
    Rangarajan, S
    JOURNAL OF TESTING AND EVALUATION, 2005, 33 (06) : 377 - 384
  • [50] Long-Term SOFCs Button Cell Testing
    DiGiuseppe, Gianfranco
    Sun, Li
    JOURNAL OF FUEL CELL SCIENCE AND TECHNOLOGY, 2014, 11 (02):