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Decouple Before Align: Visual Disentanglement Enhances Prompt Tuning.
Summary
Prompt tuning (PT) for vision-language models faces information asymmetry. DAPT addresses this by decoupling visual data, improving model attention and performance in few-shot and data-efficient learning scenarios.
Area of Science:
- Computer Science
- Artificial Intelligence
- Machine Learning
Background:
- Prompt tuning (PT) is a resource-efficient method for fine-tuning vision-language models.
- A key challenge in PT is information asymmetry between visual and textual modalities.
- This asymmetry can lead to biased attention, hindering model performance.
Purpose of the Study:
- To address the information asymmetry in prompt tuning for vision-language models.
- To propose a novel framework, DAPT, that enhances modal alignment and visual attention.
- To improve the task-specific transferability and generalization capabilities of these models.
Main Methods:
- Proposed DAPT (Decouple-Before-Align Prompt tuning) framework.
- Explicitly decoupled visual modality into foreground and background representations using segmentation cues.
- Aligned decoupled visual patterns with foreground texts and background classes.
- Introduced visual pull-push regularization for enhanced focus on region-of-interest objects.
Main Results:
- DAPT demonstrated superior performance across few-shot learning, base-to-novel generalization, and data-efficient learning benchmarks.
- The framework effectively mitigated biased attention caused by information asymmetry.
- Achieved enhanced modal alignment and improved visual concentration on relevant objects.
Conclusions:
- DAPT offers an effective, architecture-free solution for prompt tuning in vision-language models.
- The decouple-before-align strategy successfully addresses information asymmetry.
- The proposed methods significantly improve model performance and generalization capabilities.
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