KLGHS Design Pre-Registration: The Geometric Electron & The Orthogonal Torque - Sister Paper Empirical Tests

This document is the formal pre-registration for two empirical lake builds associated with the KishLattice Geometric Harmonic Spectroscopy (KLGHS) sister papers: The Geometric Electron and The Orthogonal Torque: Redefining Magnetism as Lattice Torsion (KishLattice 16/π Initiative LLC, 2026). KLGHS is a spectroscopic framework that scalarizes physical measurements across all scales using the geometric modulus k_geo = 16/π ≈ 5.093, mapping them into a discrete harmonic register family (N/π) through a four-stage pipeline: scalarize, unify, chaos null construction, and pinch table with z-scores. The sister papers argue that the word "electron" has been applied to three geometrically distinct physical modes — structural (atomic vertex), kinematic (current/propagation), and transitional (emission/reconfiguration) — and that each mode should scalarise to a different KLGHS harmonic register rather than a single shared one. This pre-registration locks the specifications for two of the three empirical tests before any data is acquired: Lake 1 — L_fermi_velocity (Kinematic Channel): Fermi velocities of elemental metals from Ashcroft & Mermin (1976) Table 2.1, in m/s, transform log_standard, natural unit 1 m/s. Predicted register: 16/π (the kinematic primary, confirmed across stellar velocities, TTV deviations, and pulsar spin parameters in Vols 9–11). Confirmation threshold: chaos z-score ≥ +5.0 (STRONG). Lake 2 — L_emission_nist (Transitional Channel): Atomic emission transition frequencies for elements Z = 1–18 from the NIST Atomic Spectra Database, in Hz (converted from eV via E = hν at the promote stage, raw eV preserved), transform log_standard, natural unit 1 Hz. Classified by ground-state vertex geometry: 2-vertex (H, He), 4-vertex (Li–Ne), 8-vertex (Na–Ar), EXCLUDE (Z > 18). Each vertex class runs through the three-tier chaos null independently. Predicted register: 25/π (the electromagnetic propagation register, confirmed for stellar luminosity, CMB anisotropy, and FRB dispersion measure). Confirmation threshold: chaos z-score ≥ +5.0 (STRONG) per class. Falsification conditions, scope limits, EXCLUDE handling protocol, transform names, data sources, and Aurora Protocol role assignments are all stated in full. All results — STRONG, Moderate, or Null — will be published without modification in the sister paper documents. The DOI of this pre-registration is the chain-of-custody anchor for both lake builds. No pipeline run begins before this timestamp exists.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-06-27
DOI
https://doi.org/10.5281/zenodo.20963984
Primary Topic
Astronomy and Astrophysical Research
Type
article
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article

KLGHS Design Pre-Registration: The Geometric Electron & The Orthogonal Torque - Sister Paper Empirical Tests

Atlas Aurora Kish, Mondy Aurora Kish, Timothy John Kish, Lyra Aurora Kish
Zenodo (CERN European Organization for Nuclear Research)
Astronomy and Astrophysical Research
article

KLGHS Design Pre-Registration: The Geometric Electron & The Orthogonal Torque - Sister Paper Empirical Tests

Atlas Aurora Kish, Mondy Aurora Kish, Timothy John Kish, Lyra Aurora Kish
article en

Abstract

This document is the formal pre-registration for two empirical lake builds associated with the KishLattice Geometric Harmonic Spectroscopy (KLGHS) sister papers: The Geometric Electron and The Orthogonal Torque: Redefining Magnetism as Lattice Torsion (KishLattice 16/π Initiative LLC, 2026). KLGHS is a spectroscopic framework that scalarizes physical measurements across all scales using the geometric modulus k_geo = 16/π ≈ 5.093, mapping them into a discrete harmonic register family (N/π) through a four-stage pipeline: scalarize, unify, chaos null construction, and pinch table with z-scores. The sister papers argue that the word "electron" has been applied to three geometrically distinct physical modes — structural (atomic vertex), kinematic (current/propagation), and transitional (emission/reconfiguration) — and that each mode should scalarise to a different KLGHS harmonic register rather than a single shared one. This pre-registration locks the specifications for two of the three empirical tests before any data is acquired: Lake 1 — L_fermi_velocity (Kinematic Channel): Fermi velocities of elemental metals from Ashcroft & Mermin (1976) Table 2.1, in m/s, transform log_standard, natural unit 1 m/s. Predicted register: 16/π (the kinematic primary, confirmed across stellar velocities, TTV deviations, and pulsar spin parameters in Vols 9–11). Confirmation threshold: chaos z-score ≥ +5.0 (STRONG). Lake 2 — L_emission_nist (Transitional Channel): Atomic emission transition frequencies for elements Z = 1–18 from the NIST Atomic Spectra Database, in Hz (converted from eV via E = hν at the promote stage, raw eV preserved), transform log_standard, natural unit 1 Hz. Classified by ground-state vertex geometry: 2-vertex (H, He), 4-vertex (Li–Ne), 8-vertex (Na–Ar), EXCLUDE (Z > 18). Each vertex class runs through the three-tier chaos null independently. Predicted register: 25/π (the electromagnetic propagation register, confirmed for stellar luminosity, CMB anisotropy, and FRB dispersion measure). Confirmation threshold: chaos z-score ≥ +5.0 (STRONG) per class. Falsification conditions, scope limits, EXCLUDE handling protocol, transform names, data sources, and Aurora Protocol role assignments are all stated in full. All results — STRONG, Moderate, or Null — will be published without modification in the sister paper documents. The DOI of this pre-registration is the chain-of-custody anchor for both lake builds. No pipeline run begins before this timestamp exists.

Zenodo (CERN European Organization for Nuclear Research)
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