EcoSeis: A novel acquisition method for optimizing seismic resolution while minimizing environmental footprint

Q2 Earth and Planetary Sciences
Leading Edge Pub Date : 2023-01-01 DOI:10.1190/tle42010061.1
M. Naghizadeh, P. Vermeulen, A. Crook, A. Birce, S. Ross, A. Stanton, Maximo Rodriguez, Warren Cookson
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引用次数: 0

Abstract

All exploration and production projects, whether for oil-and-gas, mining, or clean-technology applications, begin with an accurate image of the subsurface. Many technologies have been developed to enable the acquisition of cost-effective seismic data, with high-density land seismic programs becoming commonplace. However, as the industry progresses and the long-term surface footprint associated with these programs becomes better understood, new methods are needed to reduce the environmental impact of seismic data acquisition while maintaining sufficient subsurface resolution for accurate resource development. New acquisition geometries are typically easier to create than test in the field due to the high cost of field acquisition and processing. However, by using existing data acquired in a grid, one can decimate the original data set into multiple geometries and process them. This provides an opportunity to fully test new geometries without the expense of field acquisition. In this paper, we present processing, interpretation, and inversion tests from an existing ultra-high-density oil-sands seismic data set decimated based on ecologically improved program designs. We then measure and compare the results to understand the impact of these geometries on subsurface resolution.
EcoSeis:一种新的采集方法,可以优化地震分辨率,同时最大限度地减少环境足迹
所有的勘探和生产项目,无论是油气、采矿还是清洁技术应用,都是从精确的地下图像开始的。随着高密度陆地地震程序的普及,已经开发了许多技术来获取具有成本效益的地震数据。然而,随着行业的发展以及与这些项目相关的长期地面足迹得到更好的理解,需要新的方法来减少地震数据采集对环境的影响,同时保持足够的地下分辨率,以实现准确的资源开发。由于现场采集和处理的高成本,新的采集几何形状通常比在现场测试更容易创建。然而,通过使用在网格中获取的现有数据,可以将原始数据集分解成多个几何形状并对其进行处理。这为全面测试新几何形状提供了机会,而无需花费现场采集费用。在本文中,我们介绍了基于生态改进程序设计的现有超高密度油砂地震数据集的处理、解释和反演测试。然后,我们测量和比较结果,以了解这些几何形状对地下分辨率的影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Leading Edge
Leading Edge Earth and Planetary Sciences-Geology
CiteScore
3.10
自引率
0.00%
发文量
180
期刊介绍: THE LEADING EDGE complements GEOPHYSICS, SEG"s peer-reviewed publication long unrivalled as the world"s most respected vehicle for dissemination of developments in exploration and development geophysics. TLE is a gateway publication, introducing new geophysical theory, instrumentation, and established practices to scientists in a wide range of geoscience disciplines. Most material is presented in a semitechnical manner that minimizes mathematical theory and emphasizes practical applications. TLE also serves as SEG"s publication venue for official society business.
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