Efficient hardware/software co-design for post-quantum crypto algorithm SIKE on ARM and RISC-V based microcontrollers

Roy, Debapriya Basu; Fritzmann, Tim; Sigl, Georg

doi:10.1145/3400302.3415728

Cited by 11 publications

(3 citation statements)

References 18 publications

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“…)û? § p 5 †(¹5," ‡3mu †?Èóä¥Ny^M ‡ Ó [71] ,òXÚ O˜m `z&¢N ¬þM ‡] þ,ÏL3‚?ÈM ‡] [72] ¢y^M ‡ Ó "( •AA^",Óž mu †?Èóä•òuÙ A^•r,Äu¬þXÚ A^ Ÿþ´+•;^XÚI¦ "3‚½Â † mu".I ‡ïÄDSL£Domain-Specific Language¤? §Eâ!^M ‡ ÓÅ›!…”

Section: 35mentioning

confidence: 99%

从SoC到SDSoW：微电子发展的新范式

Wu,

Liu,

Shen

et al. 2024

Sci. Sin.-Inf.

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Section: 35mentioning

confidence: 99%

从SoC到SDSoW：微电子发展的新范式

Wu,

Liu,

Shen

et al. 2024

Sci. Sin.-Inf.

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“…The combination of hardware devices and software components, such as device processors, storage units, LED displays, cameras, and batteries, manufactures Android devices. While software components may include Android architecture, SE-Linux, drivers, web browsers, games, and utility and productivity applications [70]. In Android, various types of processor architectures are used, the details of which are as follows [71]: (1) Applicationspecific integrated circuits (ASICs) are optimized for specific functions or applications that need high performance and low power consumption.…”

Section: Hardware/software Platform and Processor Architecturesmentioning

confidence: 99%

Smartphone Security and Privacy: A Survey on APTs, Sensor-Based Attacks, Side-Channel Attacks, Google Play Attacks, and Defenses

et al. 2023

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There is an exponential rise in the use of smartphones in government and private institutions due to business dependencies such as communication, virtual meetings, and access to global information. These smartphones are an attractive target for cybercriminals and are one of the leading causes of cyber espionage and sabotage. A large number of sophisticated malware attacks as well as advanced persistent threats (APTs) have been launched on smartphone users. These attacks are becoming significantly more complex, sophisticated, persistent, and undetected for extended periods. Traditionally, devices are targeted by exploiting a vulnerability in the operating system (OS) or device sensors. Nevertheless, there is a rise in APTs, side-channel attacks, sensor-based attacks, and attacks launched through the Google Play Store. Previous research contributions have lacked contemporary threats, and some have proven ineffective against the latest variants of the mobile operating system. In this paper, we conducted an extensive survey of papers over the last 15 years (2009–2023), covering vulnerabilities, contemporary threats, and corresponding defenses. The research highlights APTs, classifies malware variants, defines how sensors are exploited, visualizes multiple ways that side-channel attacks are launched, and provides a comprehensive list of malware families that spread through the Google Play Store. In addition, the research provides details on threat defense solutions, such as malware detection tools and techniques presented in the last decade. Finally, it highlights open issues and identifies the research gap that needs to be addressed to meet the challenges of next-generation smartphones.

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“…However, the design of hardware-efficient solutions is an open challenge for the electronics engineering community. Recent studies present the use of hybrid hardware/software (HW/SW) co-design methodologies to combine flexibility and efficiency when implementing PQC-based algorithms [4,5].…”

Section: Introductionmentioning

confidence: 99%

Timing-Attack-Resistant Acceleration of NTRU Round 3 Encryption on Resource-Constrained Embedded Systems

et al. 2023

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The advent of quantum computing with high processing capabilities will enable brute force attacks in short periods of time, threatening current secure communication channels. To mitigate this situation, post-quantum cryptography (PQC) algorithms have emerged. Among the algorithms evaluated by NIST in the third round of its PQC contest was the NTRU cryptosystem. The main drawback of this algorithm is the enormous amount of time required for the multiplication of polynomials in both the encryption and decryption processes. Therefore, the strategy of speeding up this algorithm using hardware/software co-design techniques where this operation is executed on specific hardware arises. Using these techniques, this work focuses on the acceleration of polynomial multiplication in the encryption process for resource-constrained devices. For this purpose, several hardware multiplications are analyzed following different strategies, taking into account the fact that there are no possible timing information leaks and that the available resources are optimized as much as possible. The designed multiplier is encapsulated as a fully reusable and parametrizable IP module with standard AXI4-Stream interconnection buses, which makes it easy to integrate into embedded systems implemented on programmable devices from different manufacturers. Depending on the resource constraints imposed, accelerations of up to 30–45 times with respect to the software-level multiplication runtime can be achieved using dedicated hardware, with a device occupancy of around 5%.

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Efficient hardware/software co-design for post-quantum crypto algorithm SIKE on ARM and RISC-V based microcontrollers

Cited by 11 publications

References 18 publications

从SoC到SDSoW：微电子发展的新范式

从SoC到SDSoW：微电子发展的新范式

Smartphone Security and Privacy: A Survey on APTs, Sensor-Based Attacks, Side-Channel Attacks, Google Play Attacks, and Defenses

Timing-Attack-Resistant Acceleration of NTRU Round 3 Encryption on Resource-Constrained Embedded Systems

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