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      KCI등재 SCIE SCOPUS

      Dynamic assessment of a FRP suspension footbridge through field testing and finite element modelling

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      https://www.riss.kr/link?id=A103564736

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      다국어 초록 (Multilingual Abstract)

      The use of advanced fibre composite materials in bridge engineering offers alternative solutions to structural problems compared to traditional construction materials. Advanced composite or fibre reinforced polymer (FRP) materials have high strength t...

      The use of advanced fibre composite materials in bridge engineering offers alternative solutions to structural problems compared to traditional construction materials. Advanced composite or fibre reinforced polymer (FRP) materials have high strength to weight ratios, which can be especially beneficial where dead load or material handling considerations govern a design. However, the reduced weight and stiffness of FRP footbridges results in generally poorer dynamic performance, and vibration serviceability is likely to govern their design to avoid the footbridge being "too lively". This study investigates the dynamic behaviour of the 51.3 m span Wilcott FRP suspension footbridge. The assessment is performed through a combination of field testing and finite element analysis, and the measured performance of the bridge is being used to calibrate the model through an updating procedure. The resulting updated model allowed detailed interpretation of the results. It showed that non-structural members such as the parapets can influence the dynamic behaviour of slender, lightweight footbridges, and consequently their contribution must be included during the dynamic assessment of a structure. The test data showed that the FRP footbridge is prone to pedestrian induced vibrations, although the measured response levels were lower than limits specified in relevant standards.

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      참고문헌 (Reference)

      1 Pimentel, R. L., "Vibrational performance of pedestrian bridges due to human-induced loads" University of Sheffield 1997

      2 Živanovi , S., "Vibration serviceability of footbridges under human-induced excitation: a literature review" 279 (279): 1-74, 2005

      3 Brownjohn, J. M. W., "Vibration excitation and control of a pedestrian walkway by individuals and crowds" 12 (12): 333-347, 2005

      4 Brownjohn, J. M. W., "Vibration characteristics of a suspen-sion footbridge" 202 (202): 29-46, 1997

      5 Votsis, R. A., "Vibration assessment of FRP composite pedestrian bridges" University of Surrey 2007

      6 Pretlove, A. J., "Vibration Problems in Structures: practical guidelines - Chapter: Vibrations induced by people" 1995

      7 Keller, T., "Use of Fibre Reinforced Polymers in Bridge Construction" International Association for Bridge and Structural Engineering 2003

      8 Dallard, P., "The london millennium footbridge" 79 (79): 17-33, 2001

      9 Stratford, T., "The condition of the Aberfeldy footbridge after 20 years of service" 2012

      10 Cadei, J., "The Nesscliffe Bypass Wilcott Footbridge - A Triumph of FRP" 2003

      1 Pimentel, R. L., "Vibrational performance of pedestrian bridges due to human-induced loads" University of Sheffield 1997

      2 Živanovi , S., "Vibration serviceability of footbridges under human-induced excitation: a literature review" 279 (279): 1-74, 2005

      3 Brownjohn, J. M. W., "Vibration excitation and control of a pedestrian walkway by individuals and crowds" 12 (12): 333-347, 2005

      4 Brownjohn, J. M. W., "Vibration characteristics of a suspen-sion footbridge" 202 (202): 29-46, 1997

      5 Votsis, R. A., "Vibration assessment of FRP composite pedestrian bridges" University of Surrey 2007

      6 Pretlove, A. J., "Vibration Problems in Structures: practical guidelines - Chapter: Vibrations induced by people" 1995

      7 Keller, T., "Use of Fibre Reinforced Polymers in Bridge Construction" International Association for Bridge and Structural Engineering 2003

      8 Dallard, P., "The london millennium footbridge" 79 (79): 17-33, 2001

      9 Stratford, T., "The condition of the Aberfeldy footbridge after 20 years of service" 2012

      10 Cadei, J., "The Nesscliffe Bypass Wilcott Footbridge - A Triumph of FRP" 2003

      11 Alampalli, S., "The International Handbook of FRP Composites in Civil Engineering" CRC Press 2013

      12 Fujino, Y., "Synchronization of human walking observed during lateral vibration of a congested pedestrian bridge" 22 (22): 741-758, 1993

      13 Votsis, R. A., "Simulation of damage scenarios in an FRP composite suspension footbridge" 293 : 599-606, 2005

      14 Gudmundsson, G., "Serviceability assessment of three lively footbridges in Reykjavic" 2008

      15 SPICE, "SPICE v.2; K.U. Leuven – Structural Mechanics"

      16 Ren, W. X., "Roebling suspension bridge, Part I: Finite-element model and free vibration response" 9 (9): 110-118, 2004

      17 Cunha, A., "Recent perspectives in dynamic testing and monitoring of bridges" 20 (20): 853-877, 2012

      18 Peeters, B., "Output-only modal analysis: development of a GUI for Matlab" 1999

      19 Bai, Y., "Modal parameter identification for a GFRP pedestrian bridge" 82 (82): 90-100, 2008

      20 Ewins, D. J., "Modal Testing: Theory, Practice and Applications" Research Studies Press 2000

      21 Van den Broeck, P., "Measurements and simulation of the human-induced vibrations of a footbridge" 2001

      22 Bachmann, H., "Lively footbridges - A real challenge" 2002

      23 Sachse, R., "Human-structure dynamic interaction in civil engineering dynamics : A literature review" 35 (35): 3-18, 2003

      24 Griffin, M. J., "Handbook of Human Vibration" Academic Press 1990

      25 FIB, "Guidelines for the Design of Footbridges" FIB 2005

      26 Pachi, A., "Frequency and velocity of people walking" 83 (83): 36-40, 2005

      27 Barker, C., "Footbridge pedestrian vibration limits, Part 1: Pedestrian input" 2005

      28 Živanović, S., "Finite element modelling and updating of a lively footbridge: The Complete Process" 301 (301): 126-145, 2007

      29 Merce, R. N., "Finite element model updating of a suspension bridge using ANSYS software" 2007

      30 Bakis, C. E., "Fiber-reinforced polymer composites for construction-State-of-the-Art review" 6 (6): 73-87, 2002

      31 Farrar, C. R., "Excitation methods for bridge structures" 1999

      32 "EN1995, Design of timber structures–Part 2: Bridges, Eurocode 5"

      33 "EN1990, Basis of structural design; Eurocode 0"

      34 Chopra, A. K., "Dynamics of Structures-Theory and Applications to Earthquake Engineering" Pearson-Prentice Hall 2007

      35 Matsumoto, Y., "Dynamic design of footbridges" 1978

      36 Ivorra, S., "Dynamic behaviour of a pedestrian bridge in Alicante, Spain" 29 (29): 0401432-, 2015

      37 Willford, M., "Dynamic actions and reactions of pedestrians" 2002

      38 Zhang, K., "Dynamic Parameters identification and finite element model updating for continuous rigid frame bridge" 4 (4): 53-59, 2009

      39 Hivoss, "Design of footbridges-Background document; RFS2-CT-2007-00033"

      40 Georgakis, C. T., "Change in mass and damping on vertically vibrating footbridges due to pedestrians" 2013

      41 Strongwell Corporation, "COMPOSOLITE-Fiberglass Building Panel System"

      42 "BS5400, Steel, concrete and composite bridges - Part 2: Specification for loads"

      43 SETRA, "Assessment of vibrational behaviour of footbridges under pedestrian loading"

      44 Sousa, H. F., "Assessment and management of concrete bridges supported by monitoring data-based Finite Element modelling" 19 (19): 05014002-, 2014

      45 Kim, H. K., "Analysis model verification of a suspension bridge exploiting configuration survey and field-measured data" 17 (17): 794-803, 2012

      46 Hollaway, L. C., "Advanced Polymer Composites and Polymers in the Civil Infrastructure" Elsevier 2001

      47 SVibS, "ARTeMIS Extractor Pro"

      48 ANSYS, "ANSYS user’s manual v.8.0"

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      2007-04-09 학회명변경 한글명 : (사)국제구조공학회 -> 국제구조공학회 KCI등재후보
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      2005-09-22 학술지등록 한글명 : 강합성 구조물에 대한 국제저널
      외국어명 : Steel and Composite Structures, An International Journal
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      2005-06-16 학회명변경 영문명 : Ternational Association Of Structural Engineering And Mechanics -> International Association of Structural Engineering And Mechanics KCI등재후보
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      2.37 2.24 0.935 0.37
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