Seismic inversion is pivotal in the oil and gas industry, aiding geophysicists in understanding reservoir characteristics. Despite its widespread use, the limitations of seismic data, like low resolution, introduce uncertainties that impede direct application. This study introduces an innovative method to estimate 3D Gamma Ray data from seismic reflectivity, reshaping reservoir understanding and management.
The study's goal was to predict 3D Gamma Ray data and its uncertainty via seismic reflectivity. This was achieved by employing Functional Convolutional Neural Networks (FCNNs) and Continuous Wavelet Transform. By merging well data and seismic information using signal processing and deep learning, accurate forecasts of Gamma Ray values were accomplished. It's worth noting that this manuscript constitutes as a continuation of the scientific research project initiated by Shahsenov et al. in 2022. The authors describe the updated methodology, the improvements achieved in the results, as well as any alterations made to the methodological framework.
The quality of prediction was validated through several statistical techniques, ensuring robustness. Blind wells were thoughtfully integrated into various analyses to facilitate a comparison between actual and predicted log values. The outcomes of these evaluations, promising in nature and showcasing notable advancements over the earlier work, are represented visually and in detail through the report.
In summary, this research pioneers a seismic inversion shift and builds upon prior research (Shahsenov et al., 2022). The combination of seismic reflectivity and deep learning allows precise prediction of 3D Gamma Ray values. By combining well and seismic data, the challenge of sparse logs is addressed, empowering geophysicists for more effective reservoir management. This enhanced reservoir understanding promotes data-driven decisions in the oil and gas sector.