Deriving spatial wave data from a network of buoys and ships

被引:8
|
作者
Mounet, Raphael E. G. [1 ,2 ]
Chen, Jiaxin [3 ]
Nielsen, Ulrik D. [1 ,2 ]
Brodtkorb, Astrid H. [2 ]
Pillai, Ajit C. [3 ]
Ashton, Ian G. C. [3 ]
Steele, Edward C. C. [4 ]
机构
[1] Tech Univ Denmark, DTU Construct, DK-2800 Lyngby, Denmark
[2] Norwegian Univ Sci & Technol, Ctr Autonomous Marine Operat & Syst NTNU AMOS, Dept Marine Technol, NO-7052 Trondheim, Norway
[3] Univ Exeter, Fac Environm Sci & Econ, Dept Engn, Renewable Energy Grp, Penryn TR10 9FE, England
[4] Met Off, FitzRoy Rd, Exeter EX1 3PB, Devon, England
基金
英国工程与自然科学研究理事会;
关键词
Sea state estimation; Spectral wave model; Ship motions; Wave-buoy analogy; Machine learning; Metocean conditions; COASTAL REGIONS; MODEL; SPECTRA;
D O I
10.1016/j.oceaneng.2023.114892
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
The real-time provision of high-quality estimates of the ocean wave parameters at appropriate spatial resolu-tions are essential for the sustainable operations of marine structures. Machine learning affords considerable opportunity for providing additional value from sensor networks, fusing metocean data collected by various platforms. Exploiting the ship-as-a-wave-buoy concept, this article proposes the integration of vessel-based observations into a wave-nowcasting framework. Surrogate models are trained using a high-fidelity physics-based nearshore wave model to learn the spatial correlations between grid points within a computational domain. The performance of these different models are evaluated in a case study to assess how well wave parameters estimated through the spectral analysis of ship motions can perform as inputs to the surrogate system, to replace or complement traditional wave buoy measurements. The benchmark study identifies the advantages and limitations inherent in the methodology incorporating ship-based wave estimates to improve the reliability and availability of regional sea state information.
引用
收藏
页数:19
相关论文
共 50 条
  • [1] Sea state estimation using multiple ships simultaneously as sailing wave buoys
    Nielsen, Ulrik D.
    Brodtkorb, Astrid H.
    Sorensen, Asgeir J.
    APPLIED OCEAN RESEARCH, 2019, 83 : 65 - 76
  • [2] On errors in low frequency wave measurements from wave buoys
    Ashton, I. G. C.
    Johanning, L.
    OCEAN ENGINEERING, 2015, 95 : 11 - 22
  • [3] Data Returns and Reliability Metrics From the Indian Deep Ocean Wave Measurement Buoys
    Venkatesan, Ramasamy
    Vedachalam, Narayanaswamy
    Joseph, Karakunnel Jossia
    Vengatesan, Gopalakrishnan
    MARINE TECHNOLOGY SOCIETY JOURNAL, 2019, 53 (06) : 6 - 20
  • [4] Improvement in Storm Surge Numerical Forecasting Based on Wave Buoys Data
    Fu, Cifu
    Guo, Honglin
    Cheng, Kaikai
    Li, Tao
    WATER, 2024, 16 (08)
  • [5] Estimation of directional spectra from wave buoys for model validation
    Gorman, Richard M.
    IUTAM SYMPOSIUM ON WIND WAVES, 2018, 26 : 81 - 91
  • [6] Estimating ocean wave directional spreading using wave following buoys: a comparison of experimental buoy and gauge data
    Lin, Zhaoxian
    Adcock, Thomas A. A.
    McAllister, Mark L.
    JOURNAL OF OCEAN ENGINEERING AND MARINE ENERGY, 2022, 8 (01) : 83 - 97
  • [7] Using machine learning to derive spatial wave data: A case study for a marine energy site
    Chen, Jiaxin
    Pillai, Ajit C.
    Johanning, Lars
    Ashton, Ian
    ENVIRONMENTAL MODELLING & SOFTWARE, 2021, 142
  • [8] Deriving the absolute wave spectrum from an encountered distribution of wave energy spectral densities
    Nielsen, Ulrik D.
    OCEAN ENGINEERING, 2018, 165 : 194 - 208
  • [9] The Australian Coastal Ocean Radar Network: Temporal and spatial scales of HF radar wave data
    Middleditch, Andrew
    Cosoli, Simone
    OCEANS 2016 - SHANGHAI, 2016,
  • [10] A new interpolation method for observation data obtained from ARGO buoys system
    Zakharova, N. B.
    Agoshkov, V. I.
    Parmuzin, E. I.
    RUSSIAN JOURNAL OF NUMERICAL ANALYSIS AND MATHEMATICAL MODELLING, 2013, 28 (01) : 67 - 84