Sparse seismic wavefield sampling

被引:12
|
作者
Campman X. [1 ]
Tang Z. [1 ]
Jamali-Rad H. [1 ]
Kuvshinov B. [1 ]
Danilouchkine M. [1 ]
Ji Y. [2 ]
Walk W. [1 ]
Smit D. [1 ]
机构
[1] Campman, Xander
[2] Tang, Zijian
[3] Jamali-Rad, Hadi
[4] Kuvshinov, Boris
[5] Danilouchkine, Mike
[6] Ji, Ying
[7] Walk, Wim
[8] Smit, Dirk
来源
Campman, Xander (xander.campman@shell.com) | 1600年 / Society of Exploration Geophysicists卷 / 36期
关键词
Image enhancement - Cost reduction - Economic and social effects - Data acquisition - Efficiency - Seismology - Surveys - Image quality;
D O I
10.1190/tle36080654.1
中图分类号
学科分类号
摘要
Seismic acquisition is a trade-off between image quality and cost. While there is an increasing need for higher quality images due to the more complex geologic settings of reservoirs, there is also a strong desire to reduce the cost and cycle time of seismic acquisition. Meeting these conflicting ambitions requires creative solutions. New hardware developments aim at improving survey efficiency and image quality. To optimally leverage new hardware and maximize survey efficiency, their development should go together with new insights gained from sparse sampling. Sparse sampling combines efficient data acquisition with the reconstruction of a signal by finding its coefficients as the solution of an underdetermined system. Greater survey efficiency results from compression during acquisition. For seismic wavefield sampling, the compression can take place in time, space, or both. Compression in time can be achieved by letting shot-records overlap, as in simultaneous-source acquisition for example. Compression in space can be achieved with spatial subsampling. Some recently introduced acquisition technologies already leverage the ideas from sparse sampling in practice. We believe sparse seismic wavefield sampling is not only a method to reduce costs; the flexibility to distribute sources and receivers in space and time in different ways than we are used to also will spark the acquisition technologies of the future.
引用
收藏
页码:654 / 660
页数:6
相关论文
共 50 条
  • [1] Supplement Seismic data sampling and wavefield representation - Introduction
    Fomel, Sergey
    Nemeth, Tamas
    Sacchi, Mauricio
    GEOPHYSICS, 2010, 75 (06) : WB1 - WB2
  • [2] Inverting Incomplete Fourier Transforms by a Sparse Regularization Model and Applications in Seismic Wavefield Modeling
    Tingting Wu
    Yuesheng Xu
    Journal of Scientific Computing, 2022, 92
  • [3] Inverting Incomplete Fourier Transforms by a Sparse Regularization Model and Applications in Seismic Wavefield Modeling
    Wu, Tingting
    Xu, Yuesheng
    JOURNAL OF SCIENTIFIC COMPUTING, 2022, 92 (02)
  • [4] Complex seismic wavefield interpolation based on the Bregman iteration method in the sparse transform domain
    Gou Fu-Yan
    Liu Cai
    Liu Yang
    Feng Xuan
    Cui Fang-Zi
    APPLIED GEOPHYSICS, 2014, 11 (03) : 277 - 288
  • [5] Complex seismic wavefield interpolation based on the Bregman iteration method in the sparse transform domain
    Fu-Yan Gou
    Cai Liu
    Yang Liu
    Xuan Feng
    Fang-Zi Cui
    Applied Geophysics, 2014, 11 : 277 - 288
  • [6] Trapezoid grid finite difference seismic wavefield simulation with uniform depth sampling interval
    Gao JingHuai
    Xu WenHao
    Wu BangYu
    Li Bo
    Zhao HaiXia
    CHINESE JOURNAL OF GEOPHYSICS-CHINESE EDITION, 2018, 61 (08): : 3285 - 3296
  • [7] Spatial wavefield gradient-based seismic wavefield separation
    Van Renterghem, C.
    Schmelzbach, C.
    Sollberger, D.
    Robertsson, J. O. A.
    GEOPHYSICAL JOURNAL INTERNATIONAL, 2018, 212 (03) : 1588 - 1599
  • [8] The seismic noise wavefield is not diffuse
    Mulargia, Francesco
    JOURNAL OF THE ACOUSTICAL SOCIETY OF AMERICA, 2012, 131 (04): : 2853 - 2858
  • [9] The expression of mantle seismic anisotropy in the global seismic wavefield
    Wolf, Jonathan
    Long, Maureen D.
    Frost, Daniel A.
    Nissen-Meyer, Tarje
    GEOPHYSICAL JOURNAL INTERNATIONAL, 2024, 238 (01) : 346 - 363
  • [10] Impact of Shale Anisotropy on Seismic Wavefield
    Li, Han
    Liu, Xiwu
    Chang, Xu
    Wu, Ruyue
    Liu, Jiong
    ENERGIES, 2019, 12 (23)