DCMSA: Multi-Head Self-Attention Mechanism Based on Deformable Convolution For Seismic Data Denoising
Wang Mingwei, Li Yong, Liu Yingtian, Peng Junheng, Li Huating

TL;DR
This paper introduces DCMSA, a deformable convolution-based multi-head self-attention mechanism integrated into UNet, significantly improving seismic data denoising by better capturing local features and spatial relationships.
Contribution
The paper presents a novel attention mechanism, DCMSA, that enhances diffusion models for seismic data denoising by integrating deformable convolution with multi-head self-attention.
Findings
Outperforms traditional diffusion models in noise suppression
Enhances local feature recognition in seismic data
Preserves seismic data integrity better than standard methods
Abstract
When dealing with seismic data, diffusion models often face challenges in adequately capturing local features and expressing spatial relationships. This limitation makes it difficult for diffusion models to remove noise from complex structures effectively. To tackle this issue, we propose a novel convolutional attention mechanism Multi-head Self-attention mechanism based on Deformable convolution (DCMSA) achieving efficient fusion of diffusion models with convolutional attention. The implementation of DCMSA is as follows: First, we integrate DCMSA into the UNet architecture to enhance the network's capability in recognizing and processing complex seismic data. Next, the diffusion model utilizes the UNet enhanced with DCMSA to process noisy data. The results indicate that this method addresses the shortcomings of diffusion models in capturing local features and expressing spatial…
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Taxonomy
TopicsSeismic Imaging and Inversion Techniques · Seismology and Earthquake Studies · Image and Signal Denoising Methods
