Pseudorandom Function from Learning Burnside Problem

We present three progressively refined pseudorandom function (PRF) constructions based on the learning Burnside homomorphisms with noise (Bn-LHN) assumption. A key challenge in this approach is error management, which we address by extracting errors from the secret key. Our first design, a direct pseudorandom generator (PRG), leverages the lower entropy of the error set (E) compared to the Burnside group (Br). The second, a parameterized PRG, derives its function description from public parameters and the secret key, aligning with the relaxed PRG requirements in the Goldreich–Goldwasser–Micali (GGM) PRF construction. The final indexed PRG introduces public parameters and an index to refine efficiency. To optimize computations in Burnside groups, we enhance concatenation operations and homomorphisms from Bn to Br for n≫r. Additionally, we explore algorithmic improvements and parallel computation strategies to improve efficiency.

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Publication Details

Journal
Mathematics
Published
2025-04-04
DOI
https://doi.org/10.3390/math13071193
Primary Topic
Smart Systems and Machine Learning
Type
article
Field-Weighted Citation Impact
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article

Pseudorandom Function from Learning Burnside Problem

Antonio Nicolosi, D. Pandey
Mathematics
Smart Systems and Machine Learning
article

Pseudorandom Function from Learning Burnside Problem

Antonio Nicolosi, D. Pandey
article en

Abstract

We present three progressively refined pseudorandom function (PRF) constructions based on the learning Burnside homomorphisms with noise (Bn-LHN) assumption. A key challenge in this approach is error management, which we address by extracting errors from the secret key. Our first design, a direct pseudorandom generator (PRG), leverages the lower entropy of the error set (E) compared to the Burnside group (Br). The second, a parameterized PRG, derives its function description from public parameters and the secret key, aligning with the relaxed PRG requirements in the Goldreich–Goldwasser–Micali (GGM) PRF construction. The final indexed PRG introduces public parameters and an index to refine efficiency. To optimize computations in Burnside groups, we enhance concatenation operations and homomorphisms from Bn to Br for n≫r. Additionally, we explore algorithmic improvements and parallel computation strategies to improve efficiency.

MathematicsVol. 13(7)
Stevens Institute of Technology (US), Tribhuvan University (NP)
Openalex Percentile: Top 94%
Smart Systems and Machine Learning
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