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Updated: Jun 7, 2026

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Published on: October 11, 2018
Selecting and Distilling Cross-Label Models
This study introduces Selective Cross-Label Distillation to efficiently select and reuse pre-trained models for knowledge distillation. It addresses challenges in model selection and differing label spaces, improving student model performance.
Area of Science:
- Artificial Intelligence
- Machine Learning
- Deep Learning
Background:
- Knowledge distillation, using pre-trained 'teacher' models to improve 'student' models, is increasingly popular.
- A large number of pre-trained models necessitates efficient resource utilization strategies.
- Existing methods face challenges in selecting optimal models and handling diverse label spaces.
Purpose of the Study:
- To develop a universal model reuse approach for knowledge distillation.
- To address the impracticality of exhaustive pre-trained model testing.
- To overcome the semantic gap caused by differing label spaces in pre-trained models.
Main Methods:
- Introduced a dual-phase framework: Selective Cross-Label Distillation.
- Phase 1 (Model Assessment): Evaluated semantic similarity using optimal transport and transportation cost.
- Phase 2 (Knowledge Reuse): Minimized transportation cost between selected source and target models.
Main Results:
- The framework enables efficient selection of advantageous pre-trained models.
- Successfully bridges the semantic gap between diverse pre-trained models and target tasks.
- Experimental validation confirmed the framework's effectiveness in model selection and knowledge reuse.
Conclusions:
- Selective Cross-Label Distillation offers an effective solution for pre-trained model selection in knowledge distillation.
- The approach facilitates universal model reuse, regardless of label space differences.
- This framework enhances student model performance by optimizing the use of pre-trained resources.
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