Keep It Unbiased: A Comparison Between Estimation of Distribution Algorithms and Deep Learning for Human Interaction-Free Side-Channel Analysis
Unai Rioja, Lejla Batina, Igor Armendariz, Jose Luis Flores

TL;DR
This paper compares estimation of distribution algorithms and deep learning for human interaction-free side-channel analysis, highlighting their effectiveness and complexity in security evaluations through experimental results.
Contribution
It provides a comparative analysis of EDAs and deep learning methods for side-channel analysis, emphasizing their advantages and limitations.
Findings
EDAs can mitigate human dependency without added complexity
Deep learning simplifies attack procedures but requires complex neural networks
Experimental results show varying effectiveness depending on datasets
Abstract
Evaluating side-channel analysis (SCA) security is a complex process, involving applying several techniques whose success depends on human engineering. Therefore, it is crucial to avoid a false sense of confidence provided by non-optimal (failing) attacks. Different alternatives have emerged lately trying to mitigate human dependency, among which deep learning (DL) attacks are the most studied today. DL promise to simplify the procedure by e.g. evading the need for point of interest selection or the capability of bypassing noise and desynchronization, among other shortcuts. However, including DL in the equation comes at a price, since working with neural networks is not straightforward in this context. Recently, an alternative has appeared with the potential to mitigate this dependence without adding extra complexity: Estimation of Distribution Algorithm-based SCA. In this paper, we…
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Taxonomy
TopicsCryptographic Implementations and Security · Digital Media Forensic Detection · Electrostatic Discharge in Electronics
