Applying force panels for wave impact measurements

被引:5
|
作者
van de Bunt, Edwin [1 ]
Dekker, Jocco [1 ]
Scharnke, Jule [1 ]
Jaouen, Frederick [1 ]
机构
[1] MARIN, POB 28, NL-6700 AA Wageningen, Netherlands
关键词
Wave impact; Dynamic characterisation; Force panel; Modal analysis; Impact hammer; Frequency response function; Coherence function;
D O I
10.1016/j.oceaneng.2021.108857
中图分类号
U6 [水路运输]; P75 [海洋工程];
学科分类号
0814 ; 081505 ; 0824 ; 082401 ;
摘要
Measurements of wave impacts are important in several fields. Wave impacts on a ship model can be measured using force panels that are mounted on the model. These force panels are a combination of a standard force transducer with a small impact plate on top of the force transducer. The static behaviour of the force panel can be easily determined by a static calibration. However, knowledge of the dynamic behaviour of the force panel is essential for the understanding of the measurement of highly dynamic wave impacts with these force panels. This paper presents a methodology to determine the dynamic behaviour of a force panel. This approach is not a dynamic calibration but a characterisation of the dynamic behaviour of the force panel. The characterisation is based on modal analysis using an instrumented impact hammer. Relevant theoretical background for the method is briefly discussed. All individual steps in the characterisation process such as set-up, measurement and analysis are clarified and discussed. The presented method is used for qualification of force panels in a calibration laboratory and for verification of the force panels that are installed on a model. Features of the application of force panels measuring actual wave impacts on model scale are discussed.
引用
收藏
页数:13
相关论文
共 50 条
  • [21] Effects of the transfer function evaluation on the impact force reconstruction with application to composite panels
    Thiene, M.
    Ghajari, M.
    Galvanetto, U.
    Aliabadi, M. H.
    COMPOSITE STRUCTURES, 2014, 114 : 1 - 9
  • [22] Magnetohydrodynamic drag force measurements in an expansion tunnel using a stress wave force balance
    Daniel R. Smith
    David E. Gildfind
    David J. Mee
    Christopher M. James
    Barry V. Allsop
    Experiments in Fluids, 2020, 61
  • [23] MEASUREMENTS OF SHOCK WAVE FORCE IN SHOCK TUBE WITH INDIRECT METHODS
    Dobrilovic, Mario
    Ester, Zvonimir
    Kujundzic, Trpimir
    RUDARSKO-GEOLOSKO-NAFTNI ZBORNIK, 2005, 17 (01): : 55 - 60
  • [24] DIRECT WAVE FORCE MEASUREMENTS ON A MODEL TENSION LEG PLATFORM
    VANDIVER, JK
    OCEAN SCIENCE AND ENGINEERING, 1982, 7 (04): : 499 - 517
  • [25] Variability of wave impact measurements on vertical breakwaters
    Marzeddu, Andrea
    Oliveira, Tiago C. A.
    Xavier Gironella, Francesc
    Sanchez-Arcilla, Agustin
    JOURNAL OF HYDRAULIC RESEARCH, 2017, 55 (06) : 772 - 786
  • [26] Design and validation of an instrumented projectile for impact force measurements
    Umiastowski, S
    Galpin, B
    Grolleau, V
    Rio, G
    Transport Means 2005, Proceedings, 2005, : 115 - 118
  • [27] IMPACT OF DRAG-FORCE APPROXIMATIONS ON SPECTRAL WAVE-FORCE PREDICTIONS
    NIEDZWECKI, JM
    LEDER, HV
    JOURNAL OF WATERWAY PORT COASTAL AND OCEAN ENGINEERING-ASCE, 1991, 117 (06): : 642 - 647
  • [28] IMPACT FORCE AS A PART OF THE TOTAL BREAKING WAVE FORCE ON A VERTICAL CYLINDER.
    Apelt, C.J.
    Piorewicz, J.
    Research Report Series - University of Queensland, Department of Civil Engineering, 1987, (CE78):
  • [29] Application of neural network on wave impact force prediction
    Zhang, HY
    Wang, YX
    Ren, B
    ADVANCES IN NEURAL NETWORKS - ISNN 2004, PT 2, 2004, 3174 : 854 - 859
  • [30] Impact force identification from wave propagation responses
    Martin, MT
    Doyle, JF
    INTERNATIONAL JOURNAL OF IMPACT ENGINEERING, 1996, 18 (01) : 65 - 77