Spectral Analysis of π: Identifying Fractal Harmonic Structures in Digit Sequences

This study presents a Fourier spectral analysis of π’s digit sequence, confirming structured periodicity that challenges its assumed randomness. By employing Fast Fourier Transforms (FFT), wavelet analysis, and spectral decomposition, we identify persistent frequency peaks that suggest an underlying harmonic structure. The findings reinforce prior research in the Lawrence Prime Fractal Hypothesis (LPFH) and the Lawrence Cyclic Interdependency Principle (LCIP) by providing frequency-domain insights into π’s numerical sequence. The results demonstrate that π's digits exhibit fractal-like oscillations and structured wave properties, drawing potential connections to quantum mechanics, wave interference, and information theory. This may have implications for number theory, computational mathematics, and cryptographic applications. Key Findings 🔹 Fourier Transform Analysis: Reveals dominant frequency peaks in π's digits.🔹 Wavelet Transform Analysis: Identifies fractal-like periodicity across multiple scales.🔹 Quantum Implications: Suggests links between π’s structured oscillations and quantum wave behavior.🔹 Applications: Findings may have relevance in quantum computing, encryption algorithms, and chaotic system modeling.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-03-16
DOI
https://doi.org/10.5281/zenodo.15035056
Primary Topic
Vestibular and auditory disorders
Type
article
Field-Weighted Citation Impact
0.00
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article

Spectral Analysis of π: Identifying Fractal Harmonic Structures in Digit Sequences

Zenodo (CERN European Organization for Nuclear Research)
Vestibular and auditory disorders
article

Spectral Analysis of π: Identifying Fractal Harmonic Structures in Digit Sequences

article en

Abstract

This study presents a Fourier spectral analysis of π’s digit sequence, confirming structured periodicity that challenges its assumed randomness. By employing Fast Fourier Transforms (FFT), wavelet analysis, and spectral decomposition, we identify persistent frequency peaks that suggest an underlying harmonic structure. The findings reinforce prior research in the Lawrence Prime Fractal Hypothesis (LPFH) and the Lawrence Cyclic Interdependency Principle (LCIP) by providing frequency-domain insights into π’s numerical sequence. The results demonstrate that π's digits exhibit fractal-like oscillations and structured wave properties, drawing potential connections to quantum mechanics, wave interference, and information theory. This may have implications for number theory, computational mathematics, and cryptographic applications. Key Findings 🔹 Fourier Transform Analysis: Reveals dominant frequency peaks in π's digits.🔹 Wavelet Transform Analysis: Identifies fractal-like periodicity across multiple scales.🔹 Quantum Implications: Suggests links between π’s structured oscillations and quantum wave behavior.🔹 Applications: Findings may have relevance in quantum computing, encryption algorithms, and chaotic system modeling.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 49%
Vestibular and auditory disorders
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