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Updated: May 24, 2025

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Published on: August 16, 2012
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Advancing Real-World Stereoscopic Image Super-Resolution via Vision-Language Model
Summary
This study introduces a novel vision-language model for stereoscopic image super-resolution (SR). The method leverages CLIP
Area of Science:
- Computer Vision
- Artificial Intelligence
- Image Processing
Background:
- Vision-language models have shown success in computer vision.
- Exploiting semantic language knowledge for stereoscopic image super-resolution (SR) is challenging.
Purpose of the Study:
- To propose a vision-language model-based stereoscopic image super-resolution (VLM-SSR) method.
- To leverage semantic knowledge from CLIP for training-free stereoscopic image SR.
Main Methods:
- Utilized CLIP's semantic knowledge via visual prompts for region similarity inference.
- Developed a prompt-guided information aggregation mechanism for inter-view information capture.
- Implemented a cognition prior-driven iterative enhancement for optimizing fuzzy regions.
Main Results:
- The VLM-SSR method effectively enhances stereoscopic images.
- Experimental results on four datasets validate the proposed approach.
- Achieved improved stereoscopic image super-resolution using semantic language knowledge.
Conclusions:
- The proposed VLM-SSR method successfully integrates vision-language models for stereoscopic image enhancement.
- The training-free approach offers a novel way to exploit semantic knowledge in SR tasks.
- Demonstrated the effectiveness of prompt-guided and cognition-driven mechanisms for stereoscopic SR.
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