Teaching a Tesla Coil to Sing: Plasma Coherence Under Structured-Time Harmonics

This work proposes and formalizes a novel laboratory experiment: using a solid-state Tesla coil, driven not only at its resonant RF frequency but also amplitude-modulated at sub-Hz “structured-time harmonics” observed in gravitational wave data (notably 0.244 Hz and multiples). We show how the plasma arc can be treated as a macroscopic analogue of a teleportation channel. By applying harmonic modulation and feedback from the arc’s own light, we derive and test a stability function Λarc(t)\Lambda_{\mathrm{arc}}(t)Λarc(t) that parallels earlier work on quantum teleportation resonance. The protocol provides both a baseline (FFT/Welch) and a primary analysis method (VP–QFT, Vesica Piscis-Enhanced Quantum Fourier Transform), with optional fractal/Bell corrections. This allows experimentalists to test coherence extension, spectral narrowing, and cross-channel correlations in a reproducible way. Even if the outcome is simply longer sparks and cleaner RF peaks, the work represents the first structured attempt to connect high-voltage plasma physics with gravitational harmonics and teleportation stability theory. If stronger results emerge, the Tesla coil becomes more than a spark generator: it becomes a tabletop probe into spacetime resonance — a way of teaching a Tesla coil to sing in tune with the universe.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-10-03
DOI
https://doi.org/10.5281/zenodo.17258751
Primary Topic
Neural Networks Stability and Synchronization
Type
article
Field-Weighted Citation Impact
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article

Teaching a Tesla Coil to Sing: Plasma Coherence Under Structured-Time Harmonics

Zenodo (CERN European Organization for Nuclear Research)
Neural Networks Stability and Synchronization
article

Teaching a Tesla Coil to Sing: Plasma Coherence Under Structured-Time Harmonics

article en

Abstract

This work proposes and formalizes a novel laboratory experiment: using a solid-state Tesla coil, driven not only at its resonant RF frequency but also amplitude-modulated at sub-Hz “structured-time harmonics” observed in gravitational wave data (notably 0.244 Hz and multiples). We show how the plasma arc can be treated as a macroscopic analogue of a teleportation channel. By applying harmonic modulation and feedback from the arc’s own light, we derive and test a stability function Λarc(t)\Lambda_{\mathrm{arc}}(t)Λarc(t) that parallels earlier work on quantum teleportation resonance. The protocol provides both a baseline (FFT/Welch) and a primary analysis method (VP–QFT, Vesica Piscis-Enhanced Quantum Fourier Transform), with optional fractal/Bell corrections. This allows experimentalists to test coherence extension, spectral narrowing, and cross-channel correlations in a reproducible way. Even if the outcome is simply longer sparks and cleaner RF peaks, the work represents the first structured attempt to connect high-voltage plasma physics with gravitational harmonics and teleportation stability theory. If stronger results emerge, the Tesla coil becomes more than a spark generator: it becomes a tabletop probe into spacetime resonance — a way of teaching a Tesla coil to sing in tune with the universe.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 43%
Neural Networks Stability and Synchronization
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