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Updated: Jul 12, 2025

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Published on: September 5, 2018
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To understand double descent, we need to understand VC theory
Vladimir Cherkassky1, Eng Hock Lee1
1Department of Electrical and Computer Engineering, University of Minnesota, Twin Cities, Minneapolis, 55455, MN, USA.
Summary
This study explains the "double descent" phenomenon in machine learning using VC-theory. It shows how VC-dimension and Structural Risk Minimization account for deep learning generalization performance.
Area of Science:
- Machine Learning
- Theoretical Computer Science
- Statistical Learning Theory
Background:
- Deep learning models exhibit 'double descent,' fitting training data perfectly while generalizing well.
- Current understanding suggests VC-theory cannot explain this phenomenon.
- Over-parameterized models challenge traditional generalization bounds.
Purpose of the Study:
- To reconcile the 'double descent' phenomenon with VC-theoretical concepts.
- To demonstrate that VC-dimension and Structural Risk Minimization can explain deep learning generalization.
- To provide a theoretical framework for understanding generalization curves in various data scenarios.
Main Methods:
- Analysis of generalization performance within the VC-theoretical framework.
- Application of VC-dimension and Structural Risk Minimization principles.
- Empirical validation using classical VC-generalization bounds.
- Investigation of transfer learning generalization with pre-trained networks.
Main Results:
- Double descent is explainable by VC-theoretical concepts.
- VC-generalization bounds accurately model double descent generalization curves.
- The analysis provides insights into generalization across diverse datasets (e.g., high-dimensional, noisy).
Conclusions:
- VC-theory offers a robust framework for understanding deep learning generalization.
- The proposed analysis enhances comprehension of generalization curves for various data types.
- This work bridges the gap between theoretical guarantees and practical deep learning performance.
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