HMID-Net: An Exploration of Masked Image Modeling and Knowledge Distillation in Hyperbolic Space
Changli Wang, Fang Yin, Jiafeng Liu, Rui Wu

TL;DR
HMID-Net introduces a novel approach combining Masked Image Modeling and knowledge distillation in hyperbolic space, effectively capturing hierarchical visual-semantic structures and outperforming existing models in various tasks.
Contribution
This work is the first to integrate MIM and knowledge distillation within hyperbolic space for efficient hierarchical modeling.
Findings
Achieves comparable success to Euclidean methods in hyperbolic space
Significantly outperforms MERU and CLIP in classification and retrieval
Demonstrates the effectiveness of hyperbolic space techniques in visual-semantic tasks
Abstract
Visual and semantic concepts are often structured in a hierarchical manner. For instance, textual concept `cat' entails all images of cats. A recent study, MERU, successfully adapts multimodal learning techniques from Euclidean space to hyperbolic space, effectively capturing the visual-semantic hierarchy. However, a critical question remains: how can we more efficiently train a model to capture and leverage this hierarchy? In this paper, we propose the Hyperbolic Masked Image and Distillation Network (HMID-Net), a novel and efficient method that integrates Masked Image Modeling (MIM) and knowledge distillation techniques within hyperbolic space. To the best of our knowledge, this is the first approach to leverage MIM and knowledge distillation in hyperbolic space to train highly efficient models. In addition, we introduce a distillation loss function specifically designed to facilitate…
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Taxonomy
TopicsMultimodal Machine Learning Applications · Advanced Image and Video Retrieval Techniques · Generative Adversarial Networks and Image Synthesis
