一种结合记忆与深度展开的高光谱快照压缩成像重建方法

By combining memory and deep unfolding methods, introducing a degradation learning module and a memory-enhanced spatial-spectral attention mechanism, the robustness and stability issues of the inverse problem in hyperspectral snapshot compressed imaging reconstruction are solved, achieving high-quality image reconstruction results.

CN120976434BActive Publication Date: 2026-07-17CHONGQING UNIV

Patent Information

Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
CHONGQING UNIV
Filing Date
2025-08-08
Publication Date
2026-07-17

AI Technical Summary

Technical Problem

Existing hyperspectral snapshot compression imaging reconstruction methods are highly ill-posed to the inverse problem and sensitive to noise, making it difficult to achieve efficient and robust reconstruction. Furthermore, deep learning methods lack physical interpretability and stability, failing to fully exploit the spatial-spectral features of hyperspectral data.

Method used

A hyperspectral snapshot compression imaging reconstruction method combining memory and deep unfolding is proposed. By introducing a degradation learning module and a memory-enhanced spatial-spectral attention mechanism, the optimal solution is gradually approximated. The interpretability of the deep unfolding inference framework and physical model is utilized to dynamically correct the linear projection process, enhance the inter-stage feature transferability, and capture the spatial details and spectral features of the image.

Benefits of technology

It improves the accuracy and stability of hyperspectral image reconstruction, enhances reconstruction quality and system robustness, better recovers image details and global dependencies, and improves the model's feature utilization efficiency and generalization ability.

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Abstract

本发明涉及一种结合记忆与深度展开的高光谱快照压缩成像重建方法,属于深度学习技术领域。该方法包括以下步骤:S1:采集目标场景的二维压缩影像;S2:对高光谱图像训练集进行预处理,生成用于训练的样本数据;S3:将预处理后的训练样本输入记忆增强的空间‑光谱注意力鲁棒展开网络进行训练;S4:训练完成后,将测试样本输入所述网络,重建出高光谱图像并输出结果;本方法通过结合记忆机制和深度展开推理,不仅提升了高光谱图像的重建质量,还增强了光谱与空间信息的捕获能力,在稳定性和可解释性方面相比其他方法具有明显优势。
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