Systematic literature review: Trend analysis on the design of lightweight block cipher

Zakaria, Abdul Alif; Azni, A. H.; Ridzuan, Farida; Zakaria, Nur Hafiza; Daud, Maslina

doi:10.1016/j.jksuci.2023.04.003

Cited by 7 publications

(3 citation statements)

References 43 publications

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“…In the study [4] a differential cryptanalysis of the lightweight ciphers SIMON and SIMECK is presented, using nested tree search-based methods, to find high probability differential characteristics for the ciphers. The study [5] provides a comprehensive analysis of 101 existing lightweight algorithms, emphasizing the importance of incorporating secure design components such as substitution and permutation functions to ensure robust security in IoT devices. Selection of lightweight cryptographic algorithms for analysis might be done using the Analytical Hierarchy Process [6], [7], [8].…”

Section: Methodsmentioning

confidence: 99%

Security Analysis of Lightweight Cryptographic Algorithms

Dimitrova,

Dimitrov

2024

ETR

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The paper examines three lightweight cryptographic algorithms - SKINNY, ForkAE, and Romulus. The research focuses on evaluating their security against various cryptographic attacks. Methods used: theoretical analysis and summary. Results indicate that all three algorithms exhibit strong security properties against common cryptographic attacks. SKINNY stands out for its security even with few encryption rounds, while the presence of SKINNY as a building block in the other two ciphers - ForkAE and Romulus makes them at least as secure as SKINNY.

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Section: Methodsmentioning

confidence: 99%

Security Analysis of Lightweight Cryptographic Algorithms

Dimitrova,

Dimitrov

2024

ETR

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“…The second most popular is the AES, which is followed by PRINCE and Midori. Also, to develop a secure, lightweight block cipher, combining substation and permutation is the best solution, providing confusion and diffusion properties [65].…”

Section: Asymmetric Cipher/public-key Ciphermentioning

confidence: 99%

Discussion on Secure Standard Network of Sensors Powered by Microbial Fuel Cells

da Rocha,

Caruso,

Pereira

et al. 2023

Sensors

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Everyday tasks use sensors to monitor and provide information about processes in different scenarios, such as monitoring devices in manufacturing or homes. Sensors need to communicate, with or without wires, while providing secure information. Power can be derived from various energy sources, such as batteries, electrical power grids, and energy harvesting. Energy harvesting is a promising way to provide a sustainable and renewable source to power sensors by scavenging and converting energy from ambient energy sources. However, low energy is harvested through these methods. Therefore, it is becoming a challenge to design and deploy wireless sensor networks while ensuring the sensors have enough power to perform their tasks and communicate with each other through careful management and optimization, matching energy supply with demand. For this reason, data cryptography and authentication are needed to protect sensor communication. This paper studies how energy harvested with microbial fuel cells can be employed in algorithms used in data protection during sensor communication.

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“…Despite these conditions, and the insufficiency of the conventional cryptographic algorithms, it is important to guarantee security for these devices. Several surveys, as referenced in [11,[14][15][16][17][18], have been conducted to address the importance of information protection within lightweight devices. There are several works related to the single-architecture design related to LED block ciphers [19][20][21][22][23][24][25] and the PHOTON hash function [19,23,[26][27][28][29][30].…”

Section: Introductionmentioning

confidence: 99%

IoT Edge Device Security: An Efficient Lightweight Authenticated Encryption Scheme Based on LED and PHOTON

Al-Shatari,

Hussin,

Aziz

et al. 2023

Applied Sciences

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IoT devices and embedded systems are deployed in critical environments, emphasizing attributes like power efficiency and computational capabilities. However, these constraints stress the paramount importance of device security, stimulating the exploration of lightweight cryptographic mechanisms. This study introduces a lightweight architecture for authenticated encryption tailored to these requirements. The architecture combines the lightweight encryption of the LED block cipher with the authentication of the PHOTON hash function. Leveraging shared internal operations, the integration of these bases optimizes area–performance tradeoffs, resulting in reduced power consumption and a reduced logic footprint. The architecture is synthesized and simulated using Verilog HDL, Quartus II, and ModelSim, and implemented on Cyclone FPGA devices. The results demonstrate a substantial 14% reduction in the logic area and up to a 46.04% decrease in power consumption in contrast to the individual designs of LED and PHOTON. This work highlights the potential for using efficient cryptographic solutions in resource-constrained environments.

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Systematic literature review: Trend analysis on the design of lightweight block cipher

Cited by 7 publications

References 43 publications

Security Analysis of Lightweight Cryptographic Algorithms

Security Analysis of Lightweight Cryptographic Algorithms

Discussion on Secure Standard Network of Sensors Powered by Microbial Fuel Cells

IoT Edge Device Security: An Efficient Lightweight Authenticated Encryption Scheme Based on LED and PHOTON

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