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Metaverse Security: Performance Evaluation of Cryptography Techniques

Metaverse Security: Performance Evaluation of Cryptography Techniques
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Author(s): Indranil Saha (NIIT University, India), Anuva Aggarwal (NIIT University, India), Taher Aurangabadi (NIIT University, India)and Zeesha Mishra (NIIT University, India)
Copyright: 2027
Pages: 36
Source title: Next-Generation Security Frameworks for the Metaverse
Source Author(s)/Editor(s): Mishall Hammed Al-Zubaidie (University of Thi-Qar, Iraq & University of Southern Queensland, Australia)
DOI: 10.4018/979-8-2600-2313-6.ch002

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Abstract

Encryption standards have been necessitated by these things, which include border security, defense intelligence, and distributed systems of the IoT. This paper has compared the performance of AES-256 and ASCON-128 in terms of performance based on intensive experimental data on seven cryptographic measures at four standardized payload sizes. The findings reveal that AES-256 always achieves high throughput, low encryption latency, and a reduced number of CPU cycles per byte. These properties make AES-256 very well adapted to bandwidth-intensive and latency-critical applications. Conversely, ASCON-128 has slower performance in the tested implementations, but has more predictable execution characteristics. On the whole, the outcome is an indication of an obvious application-specific trade-off: AES-256 is more appropriate for the high-performance communication system. In comparison to the ASCON-128, which is better suited to the memory-limited and low-power IoT environment, where in-built authentication and deterministic behavior are more important than raw speed.

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