Electromagnetic Analysis of an Ultra-Lightweight Cipher: PRESENT
Nilupulee A. Gunathilake, Ahmed Al-Dubai, William J. Buchanan, Owen Lo

TL;DR
This paper investigates electromagnetic side-channel leakage in the lightweight PRESENT cipher, demonstrating the feasibility of correlation electromagnetic analysis (CEMA) attacks on IoT-relevant cryptography to enhance security assessments.
Contribution
It is the first to analyze electromagnetic emissions of PRESENT and develop CEMA attack models, advancing side-channel attack techniques for lightweight cryptography in IoT devices.
Findings
Electromagnetic emissions can be correlated with cryptographic operations.
CEMA attack models successfully extracted key information from PRESENT.
Electromagnetic analysis is a viable side-channel attack vector for lightweight ciphers.
Abstract
Side-channel attacks are an unpredictable risk factor in cryptography. Therefore, continuous observations of physical leakages are essential to minimise vulnerabilities associated with cryptographic functions. Lightweight cryptography is a novel approach in progress towards internet-of-things (IoT) security. Thus, it would provide sufficient data and privacy protection in such a constrained ecosystem. IoT devices are resource-limited in terms of data rates (in kbps), power maintainability (battery) as well as hardware and software footprints (physical size, internal memory, RAM/ROM). Due to the difficulty in handling conventional cryptographic algorithms, lightweight ciphers consist of small key sizes, block sizes and few operational rounds. Unlike in the past, affordability to perform side-channel attacks using inexpensive electronic circuitries is becoming a reality. Hence,…
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Taxonomy
TopicsCryptographic Implementations and Security · Physical Unclonable Functions (PUFs) and Hardware Security · Chaos-based Image/Signal Encryption
