Improving Location-Based Thermal Emission Side-Channel Analysis Using Iterative Transfer Learning

This study applies machine learning to side-channel attacks and proposes an iterative transfer learning method for deep learning models. This study leverages the similarity in training patterns across bytes by first training on a single byte and then using the resulting model as a pretrained foundation for the remaining bytes. This approach enables effective model training with smaller amounts of data while reducing the measurement-to-disclosure (MTD, i.e., the minimum number of traces needed for successful key recovery) in the attack phase. With sufficient data, iterative transfer learning reduces MTD from 55 to 54 using MLP and from 125 to 83 using CNN. Even under limited data conditions, it successfully breaks AES-128 while reducing training samples from 13,600 to 2,000, achieving an average MTD of 635, whereas traditional methods fail. Experimental results demonstrate that the iterative transfer learning approach addresses the persistent data scarcity challenge in deep learning, significantly expanding the applicability of deep learning methods in side-channel attack scenarios.

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Publication Details

Journal
IEEE Access
Published
2025-01-01
DOI
https://doi.org/10.1109/access.2025.3570763
Primary Topic
Physical Unclonable Functions (PUFs) and Hardware Security
Type
article
Field-Weighted Citation Impact
0.00

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article

Improving Location-Based Thermal Emission Side-Channel Analysis Using Iterative Transfer Learning

Kai Zhang, Chung-Che Wang, Henian Li, Lang Lin et al.
IEEE Access
Physical Unclonable Functions (PUFs) and Hardware Security
article

Improving Location-Based Thermal Emission Side-Channel Analysis Using Iterative Transfer Learning

Kai Zhang, Chung-Che Wang, Henian Li, Lang Lin, Norman Chang, Jyh‐Shing Roger Jang, Tun-Chieh Lou
article en

Abstract

This study applies machine learning to side-channel attacks and proposes an iterative transfer learning method for deep learning models. This study leverages the similarity in training patterns across bytes by first training on a single byte and then using the resulting model as a pretrained foundation for the remaining bytes. This approach enables effective model training with smaller amounts of data while reducing the measurement-to-disclosure (MTD, i.e., the minimum number of traces needed for successful key recovery) in the attack phase. With sufficient data, iterative transfer learning reduces MTD from 55 to 54 using MLP and from 125 to 83 using CNN. Even under limited data conditions, it successfully breaks AES-128 while reducing training samples from 13,600 to 2,000, achieving an average MTD of 635, whereas traditional methods fail. Experimental results demonstrate that the iterative transfer learning approach addresses the persistent data scarcity challenge in deep learning, significantly expanding the applicability of deep learning methods in side-channel attack scenarios.

IEEE AccessVol. 13
National Taiwan University (TW), Ansys (United States) (US), University of Florida (US)
Quanzhou City Science and Technology Program
Affordable and clean energy
Openalex Percentile: Top 91%
Physical Unclonable Functions (PUFs) and Hardware Security
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Improving Location-Based Thermal Emission Side-Channel Analysis Using Iterative Transfer Learning — Kai Zhang, Chung-Che Wang, et al. · IEEE Access (2025) | TGRS Research Map | TGRS