4.8 Article

Microcontroller Unit Chip Temperature Fingerprint Informed Machine Learning for IIoT Intrusion Detection

Journal

IEEE TRANSACTIONS ON INDUSTRIAL INFORMATICS
Volume 19, Issue 2, Pages 2219-2227

Publisher

IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
DOI: 10.1109/TII.2022.3195287

Keywords

Industrial Internet of Things (IIoT) intrusion detection; microcontroller unit (MCU) temperature; scientific machine learning; self-encoder; transformer model

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This article proposes a microcontroller unit (MCU) chip temperature fingerprint informed machine learning method, called MTID, for Industrial Internet of Things (IIoT) intrusion detection. The method records the MCU temperature sequence of the node, analyzes the relationship between the temperature sequence and the computational complexity of the node, calculates temperature residuals, and constructs a temperature residuals dataset. A self-encoder-based intrusion detection model is then constructed to identify the security status of the nodes. Experimental analysis using Raspberry Pi 4B shows that the accuracy of MTID for intrusion detection reaches 89%.
Physics-informed learning for industrial Internet is essential especially to safety issues. Consequently, various methods have been developed to conduct Industrial Internet of Things (IIoT) intrusion detection. However, the conventional methods usually require the help of auxiliary equipment (e.g., spectrum analyzers, log-periodic antennas), which proves to be unsuitable for general IIoT systems due to their poor versatility. Facing the dilemma mentioned above, this article proposes a microcontroller unit (MCU) chip temperature fingerprint informed machine learning method, called MTID, for IIoT intrusion detection. Specifically, first, the node's MCU temperature sequence is recorded and the relationship between the temperature sequence and the computational complexity of the node is analyzed. Then, we calculate the temperature residuals and construct a temperature residuals dataset. Finally, to identify the security status of the nodes, a self-encoder-based intrusion detection model is constructed. Furthermore, to ensure the model's applicability under the diversified deployment environment of IIoT systems, an online incremental training method is developed and applied. In the end, we use the Raspberry Pi 4B for experimental analysis when testing the performance of MTID. The results show that the accuracy of MTID for intrusion detection reaches 89%, which also demonstrates the feasibility of the intrusion detection method based on MCU temperature.

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