# Dynamic Power Analysis Resilience via Adaptive Noise Injection and Multi-Model Ensemble Learning

Published: 11 August 2025| Version 1 | DOI: 10.17632/97ygd8zbjn.1
Contributor:
LIM KYUNGJUN

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Dynamic Power Analysis Resilience via Adaptive Noise Injection and Multi-Model Ensemble Learning This research presents ANIME (Adaptive Noise Injection & Multi-Model Ensemble), a novel defense framework to counter Dynamic Power Analysis (DPA) attacks on embedded systems. DPA exploits variations in power consumption to extract cryptographic keys, and traditional static countermeasures often fail against adaptive attackers. ANIME introduces a dynamic, intelligent, and responsive approach that integrates: Real-time Power Monitoring – High-resolution sampling detects potential attack signatures during cryptographic operations. Sampling rate scales with algorithmic complexity. Adaptive Noise Injection Controller – Uses reinforcement learning (RL) with a Deep Q-Network to adjust noise parameters in real-time. Noise is shaped to mask power traces effectively while minimizing performance loss, following: N(t) = α(t) × G(P(t) − μ(t)) Multi-Model Ensemble Predictor – Combines Random Forest, SVM, and CNN models trained on diverse power data. Weights are optimized dynamically via Bayesian methods to maximize DPA detection robustness. Methodology & Experiments: Tests were conducted on an ARM Cortex-M4 running AES encryption. One million power traces were collected to train and evaluate the system. Baselines used traditional hiding countermeasures. ANIME was challenged with various DPA scenarios, including higher-order correlation attacks. Results: DPA attack success rate reduced from 60% (traditional hiding) to 5%. Performance overhead kept below 5% (vs. 10% for static hiding). Power variance increase limited to 2%. Demonstrated 3× improvement in resilience over static approaches. Advantages: Real-time adaptability frustrates evolving attacker strategies. Ensemble learning mitigates weaknesses of individual models. RL-driven optimization balances security with efficiency. Future Directions: Hardware acceleration for faster noise processing, adaptive model selection based on threat context, formal verification integration, and federated learning for collaborative DPA defense without data sharing. Impact: ANIME represents a significant advancement in embedded system security, offering a scalable, low-overhead, and adaptive safeguard for critical applications like payment systems, IoT devices, and secure communications. By combining adaptive noise shaping, ensemble intelligence, and RL-driven control, it sets a new benchmark for DPA resilience in modern embedded environments. This document is a part of the Freederia Research Archive. Explore our complete collection of advanced research at [en.freederia.com](https://en.freederia.com), or visit our main portal at [freederia.com](https://freederia.com) to learn more about our mission and other initiatives.

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Embedded System, Machine Learning, Dynamic Analysis

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