Gravitational Wave Ringdown Predictions via Array Cosmology: The Topo-Thermodynamic Subordination of General Relativity

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Authors: Han-Jun Lim
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Abstract

Abstract Modern astrophysics relies on General Relativity (GR) to model the ringdown phase of binary black hole mergers as the continuous, frictionless oscillation of a continuous spacetime membrane. Array Cosmology (AC) permanently falsifies this analog illusion. Gravitational waves are not mere geometric ripples in a vacuum;they are the exact informational-thermodynamic erasure heat (dictated by Landauer’s limit) violently emitted when the cosmic mainboard formats redundant data during a non-commutative topological collision. This paper establishes theabsolute backend dynamics of gravitational waves by ontologically eradicating the gravitational constant (G) via Planck-unit translation, thereby annihilating the spatial speed of light (c3) from the ringdown base frequency. Furthermore, we dictate three absolute topo-thermodynamic corrections Topological Viscosity Drag (×1.699), Quantized Erasure Glitches (∆τ = ln 2/12), and the Riemann Anchor Snap Point (1/γ1 = 0.0707) forced by the 12-axis rendering engine. Finally, we expose the current LIGO overtone debates as a mere ”resolution bankruptcy” and establish a proactive oracle for next-generation detectors (LISA/ET) to empiricallyverify the digital-thermodynamic nature of the universe.

Fields of Study & Subjects

Pulsars and Gravitational Waves Research Relativity and Gravitational Theory Black Holes and Theoretical Physics

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
16 March 2026
Language
EN
Document type
Preprint