Image Impeccable Challenge: An Effective Machine Learning Denoising Method for 3D Seismic Volumes
Title | Image Impeccable Challenge: An Effective Machine Learning Denoising Method for 3D Seismic Volumes |
Publication Type | Presentation |
Year of Publication | 2024 |
Authors | Zeng, S, Rafael Orozco, Huseyin Tuna Erdinc, Felix J. Herrmann |
Keywords | CAM, CCS, classification, explainability, GCS, Imaging, Inverse problems, JRM, ML4SEISMIC, SLIM, Uncertainty quantification |
Abstract | Seismic denoising is essential for enhancing the clarity, accuracy, and reliability of seismic data. Traditional seismic denoising methods, while effective for specific types of noise, often rely on well-established mathematical techniques that can be time-consuming, require manual tuning, and struggle with more complex noise patterns. Leveraging the 500 paired synthetic seismic datasets provided by the Think Onward community, we incorporate a 3D U-Net deep learning model with residual blocks and spatial attention to capture both local and global features for the seismic denoising task. During training, we apply the Laplacian operator to preserve edge details, followed by the Structural Similarity Index Measure (SSIM) loss to fine-tune the model, effectively removing concurrent noise and recovering the original seismic information. The resulting individual model achieves an SSIM of 0.99 compared to the ground truth seismic data. Additionally, we implement Langevin dynamics and Equivariant Bootstrapping techniques to estimate uncertainty during the training and inference phases, further improving the robustness of the denoising process. |
URL | https://slim.gatech.edu/Publications/Public/Conferences/ML4SEISMIC/2024/zeng2024ML4SEISMICiic |
Citation Key | zeng2024ML4SEISMICiic |