Single-exposure compressive imaging reconstruction method and system fusing pre-trained language model
By combining multimodal data alignment and sparse controlled diffusion Transformer, the island problem of single-exposure compressed imaging reconstruction algorithm is solved, realizing efficient unified mapping and high-precision reconstruction of cross-modal data, breaking the island barrier of traditional models, and possessing strong zero-shot adaptation capability.
Patent Information
- Application Number
- CN202610772811.6
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2026-06-01
- Publication Date
- 2026-06-30
AI Technical Summary
Existing single-exposure compressed imaging reconstruction algorithms suffer from problems such as high generation randomness, lack of physical realism, isolated models, loss of local details in feature extraction, lack of accurate semantic guidance, and insufficient generalization ability. This leads to difficulties in transferring prior knowledge between different imaging tasks and high system development costs.
The system employs a multimodal data alignment and physical observation module, a mask-gated feature extraction module, a multimodal large language model fusion module, and a dual-condition guided sparse controlled diffusion Transformer module. Combined with a lightweight spatiotemporal encoder and a pre-trained language model, it achieves unified mapping of cross-modal data and high-fidelity feature extraction. It utilizes the pre-trained large language model to generate high-dimensional semantic understanding and performs denoising and reconstruction through the sparse controlled diffusion Transformer.
It achieves a unified network architecture for various imaging tasks, is compatible with different compression ratios and modalities, preserves high-frequency physical features, has strong zero-sample generalization ability, outputs high-precision reconstruction results, and can adapt to new imaging systems without repeated training.
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