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Python One go: Bootstrapped uncertainty quantification given observation matrix

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#python#randomness#uncertainty quantification#computational science#random matrix theory#Leymosun#PyPI#NumPy#GOE#Rosenzweig-Porter Ensemble#Wigner#NIST#GitHub
Python One go: Bootstrapped uncertainty quantification given observation matrix
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Leymosun is a Python package designed for randomness-based research, featuring high-entropy random number generation with non-deterministic seeds to enhance computational science experiments. It supports uncertainty quantification through bootstrapped methods and provides tools for spectral analysis and random matrix generation. The package emphasizes scientific correctness over speed and includes educational lecture notebooks as functional tests.

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Leymosun: High-Entropy Randomness Research Toolkit A package for randomness based research: Collection of reference implementations. Figure Empirical spectral density for mixed ensemble at $\mu=0.8$, so called Wigner's Cats with error bars. (See the lecture.) This is also known as Wigner Cat Phases, see video. suzen25. Approach and features The package provides tools and utilities for randomness based research with High-Entropy Random Number Generation (HE-RNG). It means generation is performed with non-deterministic seeds every time a random library function is called. Having non-reproducible and unpredictable RNGs could improve Monte Carlo and similar randomness based computational science experimentation. Non-reproducible RNGs can still generate reproducible research.

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