Fast and Efficient Implementation of Lightweight Crypto Algorithm PRESENT on FPGA through Processor Instruction Set Extension

Varici, Abdullah; Saglam, Gurol; Ipek, Seckin; Yildiz, Abdullah; Gören, Sezer; Aysu, Aydın; Iskender, Deniz; Aktemur, T. Baris; Uğurdağ, H. Fatih

doi:10.1109/ewdts.2019.8884397

Cited by 6 publications

(8 citation statements)

References 7 publications

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“…In [6], Varici et al have implemented different design methodologies of PRESENT algorithm which include handcoded RTL, Vivado HLS, PicoBlaze, VerySimpleCPU (VSCPU) based microcontrollers, and a customized VSCPU.…”

Section: Related Workmentioning

confidence: 99%

An Efficient Lightweight Cryptographic Instructions Set Extension for IoT Device Security

Youssef

Abdelli

Dridi

et al. 2022

Security and Communication Networks

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The Internet of Things is changing all sectors such as manufacturing, agriculture, city infrastructure, and the automotive industry. All these applications ask for secure processors that can be embedded in the IoT devices. Furthermore, these devices are restricted in terms of computing capabilities, memory, and power consumption. A major challenge is how to meet the need for security in such resource-constrained devices. This paper presents a customized version of LEON3, the ReonV RISCV (Reduced Instruction Set Computer-five) processor, dedicated for IoT applications that has strong effective security mechanisms built in at the design stage. Firstly, efficient lightweight cipher designs are elaborated and validated. Then, the proposed cryptographic instructions (PRESENT and PRINCE) are integrated into the default instruction set architecture of the ReonV processor core. The instruction set extensions (ISE) of lightweight cipher modules can be instantiated in software routines exactly as the instructions of the base architecture. A single instruction is needed to implement a full lightweight cryptographic instruction. The customized ReonV RISCV processor is implemented on a Xilinx FPGA platform and is evaluated for Slice LUTs plus FF-pairs, frequency, and throughput. Obtained results show that our proposed concepts not only can achieve good encryption results with high performance and reduced cost but also are secure enough to resist against the most common attacks.

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Section: Related Workmentioning

confidence: 99%

An Efficient Lightweight Cryptographic Instructions Set Extension for IoT Device Security

Youssef

Abdelli

Dridi

et al. 2022

Security and Communication Networks

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“…Lightweight ciphers, which offer a balance between security and computational efficiency, are particularly desirable for resource-constrained devices such as embedded systems, Internet of Things (IoT) devices, and wireless sensor networks [1,2]. The PRESENT cipher, a well-known lightweight block cipher, has been widely adopted due to its simplicity, low memory requirements, and resistance against various attacks [3,4]. However, the deterministic nature of PRESENT poses a challenge in terms of security, as adversaries can exploit the lack of randomness to launch powerful cryptanalysis techniques.…”

Section: Introductionmentioning

confidence: 99%

A novel enhanced chaos based present lightweight cipher scheme

Abdelli,

El hadj Youssef,

Kharroubi

et al. 2024

Phys. Scr.

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Lightweight ciphers have been developed to meet the rising need for secure communication in environments with limited resources. These ciphers provide robust encryption while ensuring efficient computation. Our paper introduces a new enhanced PRESENT lightweight cipher that utilizes chaotic systems to enhance its robustness and randomness while retaining the simplicity and compactness of the original cipher. By integrating chaotic maps into the cipher's core components, we improve its resistance against advanced cryptanalysis, such as differential, Salt and Peppers Noise (SPN), and loss data attacks. We also optimize the design for computational efficiency, making it suitable for deployment in devices with limited resources. Through extensive simulations and comparative analyses, we demonstrate the superiority of our enhanced cipher in terms of security and efficiency compared to other state-of-the-art lightweight ciphers. Our research contributes to the advancement of lightweight cryptography and provides a promising solution for secure communication in resource-constrained environments.

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“…The performance parameters comparison of light-weight block cipher PRESENT-80/128 (only encryption) operation with existing similar PRESENT ciphers [23]- [26] is tabulated in Table 4. The data size is fixed to 64-bit with variable keys (80-bit and 128-bit) compared to FPGA (Virtex-5 and Artix-7) devices.…”

mentioning

confidence: 99%

“…The Throughput is estimated using data size, latency, and maximum frequency parameters. The existing PRESENT [26] is implemented on Artix-7, which consumes more chip area (Slices, LUTs, and FFs), less operating frequency, moderate throughput, and more efficiency than the proposed PRESENT-80 cipher. Table 4.…”

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confidence: 99%

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Secured authentication of radio-frequency identification system using PRESENT block cipher

Ramachandra

Peter

2023

IJECE

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<span lang="EN-US">The internet of things (IoT) is an emerging and robust technology to interconnect billions of objects or devices via the internet to communicate smartly. The radio frequency identification (RFID) system plays a significant role in IoT systems, providing most features like mutual establishment, key establishment, and data confidentiality. This manuscript designed secure authentication of IoT-based RFID systems using the light-weight PRESENT algorithm on the hardware platform. The PRESENT-256 block cipher is considered in this work, and it supports 64-bit data with a 256-key length. The PRESENT-80/128 cipher is also designed along with PRESENT-256 at electronic codebook (ECB) mode for Secured mutual authentication between RFID tag and reader for IoT applications. The secured authentication is established in two stages: Tag recognition from reader, mutual authentication between tag and reader using PRESENT-80/128/256 cipher modules. The complete secured authentication of IoT-based RFID system simulation results is verified using the chip-scope tool with field-programmable gate array (FPGA) results. The comparative results for PRESENT block cipher with existing PRESENT ciphers and other light-weight algorithms are analyzed with resource improvements. The proposed secured authentication work is compared with similar RFID-mutual authentication (MA) approaches with better chip area and frequency improvements.</span>

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Fast and Efficient Implementation of Lightweight Crypto Algorithm PRESENT on FPGA through Processor Instruction Set Extension

Cited by 6 publications

References 7 publications

An Efficient Lightweight Cryptographic Instructions Set Extension for IoT Device Security

An Efficient Lightweight Cryptographic Instructions Set Extension for IoT Device Security

A novel enhanced chaos based present lightweight cipher scheme

Secured authentication of radio-frequency identification system using PRESENT block cipher

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