Reducing Wind Direction Data for the Unpredictable Random Number Generator based on Linear Feedback Shift Register

Chiba and Ichikawa (2023) proposed an unpredictable random number generator (URNG) that samples a linear feedback shift register (LFSR) at varying intervals fluctuated by weather data. Although their URNG meets the criteria of the Diehard and NIST tests, it requires a substantial amount of weather data. This study examines various design options to reduce wind direction data. Our results show that the resulting random sequence passes the Diehard and NIST tests under the following conditions: (1) use of a 64-bit or longer LFSR, (2) incorporation of a robust hash function (e.g., MD5) for data selection, and (3) adoption of 64 or greater number of observations with sufficient entropy.

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Publication Details

Journal
IEEJ Transactions on Industry Applications
Published
2025-03-31
DOI
https://doi.org/10.1541/ieejias.145.200
Primary Topic
Computational Physics and Python Applications
Type
article
Field-Weighted Citation Impact
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article

Reducing Wind Direction Data for the Unpredictable Random Number Generator based on Linear Feedback Shift Register

Shûichi Ichikawa, Takuya Betchaku
IEEJ Transactions on Industry Applications
Computational Physics and Python Applications
article

Reducing Wind Direction Data for the Unpredictable Random Number Generator based on Linear Feedback Shift Register

Shûichi Ichikawa, Takuya Betchaku
article en

Abstract

Chiba and Ichikawa (2023) proposed an unpredictable random number generator (URNG) that samples a linear feedback shift register (LFSR) at varying intervals fluctuated by weather data. Although their URNG meets the criteria of the Diehard and NIST tests, it requires a substantial amount of weather data. This study examines various design options to reduce wind direction data. Our results show that the resulting random sequence passes the Diehard and NIST tests under the following conditions: (1) use of a 64-bit or longer LFSR, (2) incorporation of a robust hash function (e.g., MD5) for data selection, and (3) adoption of 64 or greater number of observations with sufficient entropy.

IEEJ Transactions on Industry ApplicationsVol. 145(4)
Toyohashi University of Technology (JP)
Affordable and clean energy
Openalex Percentile: Top 97%
Computational Physics and Python Applications
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