CVNov 18, 2024

Visual-Semantic Graph Matching Net for Zero-Shot Learning

arXiv:2411.11351v17 citationsh-index: 25Has CodeIEEE Trans Neural Netw Learn Syst
Originality Incremental advance
AI Analysis

This work addresses zero-shot learning for computer vision tasks, offering an incremental improvement by incorporating class relationships into the alignment process.

The paper tackles the problem of zero-shot learning by addressing the isolated alignment of visual and semantic embeddings, proposing a Visual-Semantic Graph Matching Net (VSGMN) that leverages class relationships to improve embedding robustness, achieving superior performance on three benchmark datasets.

Zero-shot learning (ZSL) aims to leverage additional semantic information to recognize unseen classes. To transfer knowledge from seen to unseen classes, most ZSL methods often learn a shared embedding space by simply aligning visual embeddings with semantic prototypes. However, methods trained under this paradigm often struggle to learn robust embedding space because they align the two modalities in an isolated manner among classes, which ignore the crucial class relationship during the alignment process. To address the aforementioned challenges, this paper proposes a Visual-Semantic Graph Matching Net, termed as VSGMN, which leverages semantic relationships among classes to aid in visual-semantic embedding. VSGMN employs a Graph Build Network (GBN) and a Graph Matching Network (GMN) to achieve two-stage visual-semantic alignment. Specifically, GBN first utilizes an embedding-based approach to build visual and semantic graphs in the semantic space and align the embedding with its prototype for first-stage alignment. Additionally, to supplement unseen class relations in these graphs, GBN also build the unseen class nodes based on semantic relationships. In the second stage, GMN continuously integrates neighbor and cross-graph information into the constructed graph nodes, and aligns the node relationships between the two graphs under the class relationship constraint. Extensive experiments on three benchmark datasets demonstrate that VSGMN achieves superior performance in both conventional and generalized ZSL scenarios. The implementation of our VSGMN and experimental results are available at github: https://github.com/dbwfd/VSGMN

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