Twin-Space Decoupling and Interaction for Efficient Vision-Language Transfer

Pre-trained visual language models have become excellent basic models for many downstream tasks in transfer learning. However, due to the serious gap between the data scale of downstream tasks and the large-scale data used by pre-trained models, migration to downstream tasks will face the dilemma of discriminability and generalization. Therefore, it is necessary to learn task-specific knowledge while retaining general knowledge. How to accurately identify and distinguish these two types of representations remains a challenge. This paper proposes a dual-subspace driven cross-modal semantic interaction and dynamic feature fusion framework, which uses a decentralized covariance dual-subspace decomposition method to decouple visual and text features by constructing task subspaces and general knowledge subspaces, and performs refined modal interactions on the decoupled general features and task features through a cross-modal semantic interaction adapter module. Finally, a cross-level semantic fusion module based on a gating mechanism is used to achieve dynamic fusion of different semantics from shallow to deep. We verify the effectiveness of this method on three tasks: generalization to novel classes, novel target datasets, and domain generalization. Compared with a variety of advanced methods, the proposed method has achieved excellent performance in all evaluation tasks.

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Publication Details

Journal
Electronics
Published
2025-11-03
DOI
https://doi.org/10.3390/electronics14214314
Primary Topic
Multimodal Machine Learning Applications
Type
article
Field-Weighted Citation Impact
0.00
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article

Twin-Space Decoupling and Interaction for Efficient Vision-Language Transfer

Zhiwei Peng, Zhengkai Guo, Chuang Li, Junfeng Yang et al.
Electronics
Multimodal Machine Learning Applications
article

Twin-Space Decoupling and Interaction for Efficient Vision-Language Transfer

Zhiwei Peng, Zhengkai Guo, Chuang Li, Junfeng Yang, Wei Liang, Junqiang Li, Xiaocui Li, Wei Long
article en

Abstract

Pre-trained visual language models have become excellent basic models for many downstream tasks in transfer learning. However, due to the serious gap between the data scale of downstream tasks and the large-scale data used by pre-trained models, migration to downstream tasks will face the dilemma of discriminability and generalization. Therefore, it is necessary to learn task-specific knowledge while retaining general knowledge. How to accurately identify and distinguish these two types of representations remains a challenge. This paper proposes a dual-subspace driven cross-modal semantic interaction and dynamic feature fusion framework, which uses a decentralized covariance dual-subspace decomposition method to decouple visual and text features by constructing task subspaces and general knowledge subspaces, and performs refined modal interactions on the decoupled general features and task features through a cross-modal semantic interaction adapter module. Finally, a cross-level semantic fusion module based on a gating mechanism is used to achieve dynamic fusion of different semantics from shallow to deep. We verify the effectiveness of this method on three tasks: generalization to novel classes, novel target datasets, and domain generalization. Compared with a variety of advanced methods, the proposed method has achieved excellent performance in all evaluation tasks.

ElectronicsVol. 14(21)
Shanghai Zhangjiang Laboratory (CN), Sansure Biotech (China) (CN), Hunan University of Technology (CN)
Openalex Percentile: Top 67%
Multimodal Machine Learning Applications
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