Vision transformer with affinity similarity model for interactive seismic interpretation
Vision Transformer с моделью affinity similarity для интерактивной сейсмической интерпретации
2026-02-10
SCID: 54.1/scdaj2u4
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Vision Transformeraffinity similarity memorysalt body segmentationseismic inline propagationweakly supervised learning
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Abstract (AI)
Seismic interpretation, particularly tasks such as salt body segmentation, has significantly advanced through deep learning methods. While traditional convolutional neural network (CNN)-based approaches have shown effectiveness, recent developments in Transformer architectures, notably Vision Transformers (ViTs), provide compelling new alternatives. This study introduces a novel weakly supervised Vision Transformer-based approach integrated with a long-term affinity similarity memory mechanism specifically designed for seismic interpretation. Initial ViT pre-training on synthetic seismic data establishes robust baseline geological object recognition. Subsequently, the affinity-based memory model training significantly enhances spatial continuity, crucial for accurately interpreting continuous geological structures across seismic volumes. Distinct from prior approaches, our method uniquely applies an affinity-based memory propagation technique specifically adapted for seismic inline propagation, substantially improving prediction continuity and considerably reducing manual annotation efforts.
Key Findings
1
Applied an affinity-based memory propagation technique adapted for seismic inline propagation, substantially improving prediction continuity.
2
Integrated a long-term affinity similarity memory mechanism that significantly enhances spatial continuity across seismic volumes.
3
Introduced a weakly supervised Vision Transformer (ViT) approach tailored for seismic interpretation tasks like salt body segmentation.
4
Pre-training the ViT on synthetic seismic data establishes robust baseline geological object recognition.
5
The proposed method considerably reduces manual annotation efforts compared to prior approaches.
Research Object
Seismic volumes for geological interpretation (e.g., salt body segmentation) analyzed with a Vision Transformer and affinity similarity memory mechanism
Research Subject
Improving spatial continuity and prediction continuity for seismic interpretation (salt body segmentation) via a weakly supervised Vision Transformer integrated with a long-term affinity similarity memory and affinity-based memory propagation for inline seismic propagation, reducing manual annotation effort
Publication Details
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2026-02-10
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