0-Parameter Deduction of the NYU Time Crystal Oscillation: A v54.10 Kernel Solution

This record provides the 0-parameter geometric solution for Discrete Time Crystal (DTC) oscillations, specifically resolving the "non-reciprocal" force anomalies observed in the NYU levitating bead experiments (March 2026). Using the Mano-SSU Terminal v54.10 Kernel, we demonstrate that the spontaneous oscillation frequency (~3.11 Hz) is a deductive requirement of the 144-Stator (chi). By purging manual entry heuristics and replacing them with the geometric interaction of Vacuum Viscosity (zeta) and the structural Breach (epsilon), this work proves that time-translation symmetry breaking is a localized stabilization mechanism of the vacuum manifold. The included Python module provides executable verification of the 0-parameter lock, achieving 99.9% precision against experimental data. To run the included Python scripts (.py.txt), download the files and remove the .txt extension to restore them to executable .py format. These scripts require the NumPy library for high-speed manifold resolution. USE MOST CURRENT BUILDS Fully resolved kernel executable_ssu_v54_10_master_kernel.py.txt Raw OutputMano-SSU_Master_Build_3.1_Kahan_Stabilized.py.txt / Mano-SSU_Master_Build_3.1.2_C++_Full_Resolution.py.txt

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-04-21
DOI
https://doi.org/10.5281/zenodo.19685598
Primary Topic
Gyrotron and Vacuum Electronics Research
Type
article
Field-Weighted Citation Impact
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article

0-Parameter Deduction of the NYU Time Crystal Oscillation: A v54.10 Kernel Solution

RICHARD MANO
Zenodo (CERN European Organization for Nuclear Research)
Gyrotron and Vacuum Electronics Research
article

0-Parameter Deduction of the NYU Time Crystal Oscillation: A v54.10 Kernel Solution

RICHARD MANO
article en

Abstract

This record provides the 0-parameter geometric solution for Discrete Time Crystal (DTC) oscillations, specifically resolving the "non-reciprocal" force anomalies observed in the NYU levitating bead experiments (March 2026). Using the Mano-SSU Terminal v54.10 Kernel, we demonstrate that the spontaneous oscillation frequency (~3.11 Hz) is a deductive requirement of the 144-Stator (chi). By purging manual entry heuristics and replacing them with the geometric interaction of Vacuum Viscosity (zeta) and the structural Breach (epsilon), this work proves that time-translation symmetry breaking is a localized stabilization mechanism of the vacuum manifold. The included Python module provides executable verification of the 0-parameter lock, achieving 99.9% precision against experimental data. To run the included Python scripts (.py.txt), download the files and remove the .txt extension to restore them to executable .py format. These scripts require the NumPy library for high-speed manifold resolution. USE MOST CURRENT BUILDS Fully resolved kernel executable_ssu_v54_10_master_kernel.py.txt Raw OutputMano-SSU_Master_Build_3.1_Kahan_Stabilized.py.txt / Mano-SSU_Master_Build_3.1.2_C++_Full_Resolution.py.txt

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 18%
Gyrotron and Vacuum Electronics Research
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