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Consensus-Aware Visual-Semantic Embedding for Image-Text Matching (2007.08883v2)

Published 17 Jul 2020 in cs.CV

Abstract: Image-text matching plays a central role in bridging vision and language. Most existing approaches only rely on the image-text instance pair to learn their representations, thereby exploiting their matching relationships and making the corresponding alignments. Such approaches only exploit the superficial associations contained in the instance pairwise data, with no consideration of any external commonsense knowledge, which may hinder their capabilities to reason the higher-level relationships between image and text. In this paper, we propose a Consensus-aware Visual-Semantic Embedding (CVSE) model to incorporate the consensus information, namely the commonsense knowledge shared between both modalities, into image-text matching. Specifically, the consensus information is exploited by computing the statistical co-occurrence correlations between the semantic concepts from the image captioning corpus and deploying the constructed concept correlation graph to yield the consensus-aware concept (CAC) representations. Afterwards, CVSE learns the associations and alignments between image and text based on the exploited consensus as well as the instance-level representations for both modalities. Extensive experiments conducted on two public datasets verify that the exploited consensus makes significant contributions to constructing more meaningful visual-semantic embeddings, with the superior performances over the state-of-the-art approaches on the bidirectional image and text retrieval task. Our code of this paper is available at: https://github.com/BruceW91/CVSE.

Citations (145)

Summary

  • The paper presents a novel CVSE model that fuses instance-level and consensus-level embeddings to bridge the semantic gap between images and text.
  • It leverages statistical co-occurrence correlations and graph convolutional networks to construct a shared consensus-aware concept representation.
  • Empirical evaluations on MSCOCO and Flickr30k show that the model significantly improves bidirectional image-text retrieval performance.

An Expert Overview of "Consensus-Aware Visual-Semantic Embedding for Image-Text Matching"

This paper presents a novel approach to address the image-text matching problem by proposing the Consensus-aware Visual-Semantic Embedding (CVSE) model. The central challenge it tackles is the semantic discrepancy between image and text modalities, a significant barrier in the field of vision-language integration. By proposing an innovative model that incorporates consensus information—drawn from external commonsense knowledge—into the visual-semantic embedding process, this work makes substantial progress in enhancing the accuracy of image-text matching tasks.

Core Contributions

  1. Consensus Information Exploitation: The authors introduce a mechanism for leveraging statistical co-occurrence correlations of semantic concepts derived from an image captioning corpus. This process constructs a consensus-aware concept (CAC) representation, which acts as a shared knowledge framework between the image and text modalities. This framework captures high-level semantic alignments beyond individual instance-level representations.
  2. Consensus-aware Visual-Semantic Embedding Architecture: The CVSE model integrates instance-level and consensus-level representations into a unified framework. The method blends these two levels of representation through a weighted combination, allowing the model to effectively perform cross-modal alignment.
  3. Superior Performance on Benchmark Datasets: Through extensive experiments on the MSCOCO and Flickr30k datasets, the CVSE model demonstrates improved performance over existing state-of-the-art methods in bidirectional image-text retrieval tasks. This is reflected in high recall rates across text and image retrieval benchmarks, indicating the effectiveness of the consensus-aware approach in real-world scenarios.
  4. Variables and Mechanisms of the Model: The model incorporates a graph convolutional network to exploit consensus from a semantic concept graph, which thoroughly captures relationships between concepts. Additionally, it employs a novel confidence scaling function to refine the concept correlation matrix, enhancing the expressiveness of the consensus-level embeddings.

Implications and Future Directions

The implications of integrating consensus-level representations are substantial. By effectively encoding higher-level semantics shared between images and texts, the CVSE model demonstrates that structured commonsense knowledge greatly enriches cross-modal understanding. The successful integration of external semantic information suggests potential applications across various vision-language tasks, such as visual question answering, visual grounding, and scene graph generation.

In terms of future developments, several areas arise naturally from this work. Firstly, exploring different sources and richer frameworks of consensus knowledge could further enhance model performance and adaptability. Secondly, integrating the CVSE approach with transfer learning paradigms could bolster performance across diverse datasets and tasks. Finally, adapting the consensus-aware strategy to fine-tune models for specific domain applications remains an exciting avenue.

Conclusion

The Consensus-aware Visual-Semantic Embedding model represents a significant stride in bridging the gap between visual and textual data through the incorporation of commonsense knowledge. Not only does it surpass existing techniques in bidirectional retrieval tasks, but it also paves the way for future research directions that leverage structured knowledge in cross-modal contexts. As AI continues to advance in mimicking human-like understanding, models like CVSE provide vital building blocks for developing more sophisticated vision-language intelligence systems.