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APPLIED GEOPHYSICS  2015, Vol. 12 Issue (2): 235-243    DOI: 10.1007/s11770-015-0488-y
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Lateral wave-field stacking of seismic Fresnel zones for the generalized-offset case
Tian Nan1, Fan Ting-En1, Wang Zong-Jun1, and Cai Wen-Tao1
1. CNOOC Research Institute, Room 507, CNOOC Plaza B, Taiyanggongnanjie#6, Chaoyang District, Beijing 100028, China.
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Abstract To unify different seismic geometries, the concept of generalized offset is defined and the expressions for Fresnel zones of different order on a plane are presented. Based on wave theory, the equation of the lateral wave-field stacking for generalized-offset Fresnel zones is derived. For zero and nonzero offsets, the lateral stacking amplitude of diffraction bins of different sizes is analyzed by referring to the shape of the Fresnel zones of different order. The results suggest the following. First, the contribution of diffraction bins to wave-field stacking is related to the offset, surface relief, interface dip, the depth of the shot point to the reflection interface, the observational geometry, and the size of the interference stacking region. Second, the first-order Fresnel zone is the main constructive interference, and its contribution to the reflection amplitude is slightly smaller than half the contribution of all Fresnel zones. Finally, when the size of the diffraction bin is smaller than the first-order Fresnel zone, the larger the size of the diffraction bin, the larger is the amplitude of the receiver, even in the nonzero offset-case.
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Tian Nan
Fan Ting-恩
Wang Zong-Jun
Cai Wen-Tao
Key wordsOffset   Fresnel zone   wave theory   stacking   amplitude     
Received: 2014-09-18;
Fund:

This research was financially supported by the National "Five" major projects (Grant No. 2011ZX05024-001).

Cite this article:   
Tian Nan,Fan Ting-恩,Wang Zong-Jun et al. Lateral wave-field stacking of seismic Fresnel zones for the generalized-offset case[J]. APPLIED GEOPHYSICS, 2015, 12(2): 235-243.
 
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