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Physics Maths Engineering

Backward induction-based deep image search

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Donghwan Lee,

Donghwan Lee


Wooju Kim

Wooju Kim


  Peer Reviewed

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© attribution CC-BY

  • 0

rating
403 Views

Added on

2024-10-19

Doi: http://dx.doi.org/10.1371/journal.pone.0310098

Related Subjects
Physics
Math
Chemistry
Computer science
Engineering
Earth science
Biology

Abstract

Conditional image retrieval (CIR), which involves retrieving images by a query image along with user-specified conditions, is essential in computer vision research for efficient image search and automated image analysis. The existing approaches, such as composed image retrieval (CoIR) methods, have been actively studied. However, these methods face challenges as they require either a triplet dataset or richly annotated image-text pairs, which are expensive to obtain. In this work, we demonstrate that CIR at the image-level concept can be achieved using an inverse mapping approach that explores the model’s inductive knowledge. Our proposed CIR method, called Backward Search, updates the query embedding to conform to the condition. Specifically, the embedding of the query image is updated by predicting the probability of the label and minimizing the difference from the condition label. This enables CIR with image-level concepts while preserving the context of the query. In this paper, we introduce the Backward Search method that enables single and multi-conditional image retrieval. Moreover, we efficiently reduce the computation time by distilling the knowledge. We conduct experiments using the WikiArt, aPY, and CUB benchmark datasets. The proposed method achieves an average mAP@10 of 0.541 on the datasets, demonstrating a marked improvement compared to the CoIR methods in our comparative experiments. Furthermore, by employing knowledge distillation with the Backward Search model as the teacher, the student model achieves a significant reduction in computation time, up to 160 times faster with only a slight decrease in performance. The implementation of our method is available at the following URL: https://github.com/dhlee-work/BackwardSearch.

Key Questions

1. What is the Backward Search method?

The Backward Search method enables single and multi-conditional image retrieval by updating the query image's embedding to align with specified conditions, preserving the query's context.

2. How does the Backward Search method improve computational efficiency?

The method reduces computation time by distilling knowledge, enhancing retrieval efficiency.

3. What datasets were used to evaluate the Backward Search method?

Experiments were conducted using the WikiArt, aPY, and CUB benchmark datasets.

4. What performance metrics were used to assess the method?

The method achieved an average mean Average Precision at 10 (mAP@10) of 0.541 across the datasets.

Summary

Lee and Kim's study presents the Backward Search method for conditional image retrieval, which updates the query image's embedding to align with specified conditions while maintaining the query's context. This approach enhances computational efficiency through knowledge distillation. Evaluations on the WikiArt, aPY, and CUB datasets demonstrate the method's effectiveness, achieving an average mAP@10 of 0.541. These results indicate a significant improvement over existing Composed Image Retrieval (CoIR) methods.

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ARTICLE USAGE


Article usage: Oct-2024 to May-2025
Show by month Manuscript Video Summary
2025 May 52 52
2025 April 60 60
2025 March 65 65
2025 February 45 45
2025 January 50 50
2024 December 57 57
2024 November 52 52
2024 October 22 22
Total 403 403
Show by month Manuscript Video Summary
2025 May 52 52
2025 April 60 60
2025 March 65 65
2025 February 45 45
2025 January 50 50
2024 December 57 57
2024 November 52 52
2024 October 22 22
Total 403 403
Related Subjects
Physics
Math
Chemistry
Computer science
Engineering
Earth science
Biology
copyright icon

© attribution CC-BY

  • 0

rating
403 Views

Added on

2024-10-19

Doi: http://dx.doi.org/10.1371/journal.pone.0310098

Related Subjects
Physics
Math
Chemistry
Computer science
Engineering
Earth science
Biology

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