JAIPER-1 V4: Multiscale Energy Control in Passive Systems – Nanosecond-Scale Validation of the Jaiper Coefficient (Ψ*)

Esta nota técnica corresponde a la Versión 4 (V4) del proyecto de ciencia abierta JAIPER-1. El documento presenta la primera validación experimental del Coeficiente de Jaiper Extendido (Ψ*) analizado con una resolución temporal en la escala de nanosegundos (20 ns/div) en circuitos RLC pasivos bajo regímenes de alta frecuencia. A través de este análisis de alta resolución, se aíslan y exponen los modos resonantes internos del sistema físico (en los rangos de ~840 kHz, ~4.6 MHz y ~9.6 MHz). Se documenta cómo la implementación de la geometría temporal de la señal optimizada V8 logra mitigar la activación de dichos modos parásitos y el ringing transitorio, aportando evidencia experimental a la hipótesis central del framework: la geometría de la excitación gobierna la distribución y coherencia del flujo energético en sistemas dinámicos. This technical note represents Version 4 (V4) of the JAIPER-1 open science research project. This document delivers the first experimental validation of the Extended Jaiper Coefficient (Ψ*) evaluated at a nanosecond-scale temporal resolution (20 ns/div) within passive RLC circuits under high-frequency regimes. Utilizing high-resolution oscillographic analysis, the internal resonant modes of the physical topology are successfully isolated and mapped (~840 kHz, ~4.6 MHz, and ~9.6 MHz). The note documents how the application of the V8 optimized temporal geometry natively mitigates high-frequency ringing and parasitic mode activation, providing solid experimental baseline data to confirm the framework's core hypothesis: the temporal geometry of the excitation signal governs energy distribution and coherence across scales. Author Note The author is a native Spanish speaker and is available for communication in Spanish. English is used in this document for international accessibility.

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Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-17
DOI
https://doi.org/10.5281/zenodo.20259647
Primary Topic
Mechanical and Optical Resonators
Type
article
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article

JAIPER-1 V4: Multiscale Energy Control in Passive Systems – Nanosecond-Scale Validation of the Jaiper Coefficient (Ψ*)

jaime eliecer perez davila
Zenodo (CERN European Organization for Nuclear Research)
Mechanical and Optical Resonators
article

JAIPER-1 V4: Multiscale Energy Control in Passive Systems – Nanosecond-Scale Validation of the Jaiper Coefficient (Ψ*)

jaime eliecer perez davila
article en

Abstract

Esta nota técnica corresponde a la Versión 4 (V4) del proyecto de ciencia abierta JAIPER-1. El documento presenta la primera validación experimental del Coeficiente de Jaiper Extendido (Ψ*) analizado con una resolución temporal en la escala de nanosegundos (20 ns/div) en circuitos RLC pasivos bajo regímenes de alta frecuencia. A través de este análisis de alta resolución, se aíslan y exponen los modos resonantes internos del sistema físico (en los rangos de ~840 kHz, ~4.6 MHz y ~9.6 MHz). Se documenta cómo la implementación de la geometría temporal de la señal optimizada V8 logra mitigar la activación de dichos modos parásitos y el ringing transitorio, aportando evidencia experimental a la hipótesis central del framework: la geometría de la excitación gobierna la distribución y coherencia del flujo energético en sistemas dinámicos. This technical note represents Version 4 (V4) of the JAIPER-1 open science research project. This document delivers the first experimental validation of the Extended Jaiper Coefficient (Ψ*) evaluated at a nanosecond-scale temporal resolution (20 ns/div) within passive RLC circuits under high-frequency regimes. Utilizing high-resolution oscillographic analysis, the internal resonant modes of the physical topology are successfully isolated and mapped (~840 kHz, ~4.6 MHz, and ~9.6 MHz). The note documents how the application of the V8 optimized temporal geometry natively mitigates high-frequency ringing and parasitic mode activation, providing solid experimental baseline data to confirm the framework's core hypothesis: the temporal geometry of the excitation signal governs energy distribution and coherence across scales. Author Note The author is a native Spanish speaker and is available for communication in Spanish. English is used in this document for international accessibility.

Zenodo (CERN European Organization for Nuclear Research)
Tellabs (Canada) (CA)
Affordable and clean energy
Openalex Percentile: Top 6%
Mechanical and Optical Resonators
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