FAD: Foundation-Model Aided Deep Learning for Marine Seismic Interference Attenuation
Foundation-model-aided deep learning for marine seismic interference attenuation, recorded as accepted by Geophysics on the official PKU faculty profile.
Publications
Foundation-model-aided deep learning for marine seismic interference attenuation, recorded as accepted by Geophysics on the official PKU faculty profile.
A domain-adaptation framework that freezes feature encoders and searches decision boundaries for efficiency and interpretability.
A geometry-aware transformer that injects acquisition geometry into prestack seismic representations for robust 5D first-arrival picking.
Gaussian generative modeling of client heterogeneity with dual-scale fusion for personalized federated learning.
A systematic framework for constructing analyzable multiclass robust losses from univariate base functions under label noise.
A spectral convolutional neural-network approach to coherent ground-roll attenuation, currently recorded as revised.
A parameter-efficient velocity-model-building workflow combining attention gates and enhanced LoRA to adapt multimodal initial velocity, RTM and sparse well information.
A review of the hierarchy, development workflow, applications and challenges of foundation models for exploration geophysics, including agents and copilots.
An interpolation-inspired self-supervised formulation for seismic deblending that learns interference-attenuation representations without complete labels.
MCP server suites expose SPECFEM 2D, 3D Cartesian and 3D Globe parameter, meshing, solver and visualization workflows to automated and human-in-the-loop agents.
A diffusion-probabilistic approach that learns seismic data distributions for generative missing-trace interpolation.
A hybrid-cascade multi-view stereo network that decouples feature resolution from depth intervals and uses probability sampling for accurate, complete 3D reconstruction.
A physics-informed adversarial formulation that updates velocity models through an acoustic-wave-equation generator.
Three strategies for embedding geological and geophysical prior constraints into data, neural layers and learning objectives.
A broad review of deep learning across exploration geophysics, seismology and remote sensing, with challenges and future directions.
A systematic study of supervised deep learning for seismic denoising and the role of data and label quality.
A fully convolutional mapping from multishot seismic records to velocity models for rapid next-generation model building.
Adaptive tight-frame filters learned from the current estimate for sparse restoration of missing seismic traces.
A low-rank matrix-completion formulation for reconstructing sparsely and incompletely sampled seismic traces.
A review of the multiscale, multidirectional curvelet transform and its applications in imaging and scientific computing.