PSH Coupling and Bulk Physics - Chapter 1: Resolving Gravitational Anomalies via Energetic Symbiosis with Invariant Bulk Volume - Latex Code Presveration

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Link Publication: https://zenodo.org/records/20744905

Hinweis zur Dualität
Dieses Werk wird als grundlegende Neubewertung der Raum-Zeit-Kosmologie sowie als technischer Rahmen für die Nutzung von Bulk-Energie präsentiert. Unter der Lizenz CC BY-SA 4.0 wird dieses Wissen zum gemeinsamen Erbe der Menschheit erklärt.

Notice of Duality


This work is presented as a fundamental re-evaluation of spacetime cosmology and a technical
framework for bulk-energy utilization. Licensed under CC BY-SA 4.0, this knowledge is declared
part of the common heritage of the human species.

Blockchain documentation

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\title{PSH-Coupling: Resolving Gravitational Anomalies via Energetic Symbiosis with Invariant Bulk Volumes}
\author{Cord Uebermuth \ \small{Independent Researcher}}
\date{June 18, 2026}
\date{\small 18 June 2026 \[0.5em] \textbf{Version 1.9} \ \small Zenodo Preprint}

\begin{document}

\maketitle

\begin{abstract}
Current standard models in cosmology rely on auxiliary constructs like Dark Matter and Dark Energy. This paper introduces the Primary Symbiotic Harmonic (PSH) Coupling mechanism. We propose that the 3+1-dimensional spacetime manifold exists in a continuous energetic exchange with an invariant higher-dimensional temporal bulk. Gravitational interaction is reclassified as an emergent property of the system’s attempt to maintain thermodynamic coherence. This framework resolves observed anomalies such as galactic rotation curves without non-baryonic mass and reinterprets the Planck-scale as a frequency-dependent transition point in the symbiotic exchange.
\end{abstract}

% --- NOTICE OF DUALITY ---

\section*{Notice of Duality}
\textit{Notice of Duality:} This work is presented simultaneously as a fundamental re-evaluation of spacetime cosmology and as a technical framework for the utilization of primary bulk-energy. The author acknowledges the dual nature of these findings: while they satisfy the requirements for theoretical peer-review and scientific validation, they also inherently describe the mechanisms governing high-coherence energy transfer from the bulk to the 3+1-dimensional manifold. By publishing this under a Creative Commons (CC BY 4.0) license, the author explicitly renounces all proprietary claims and declares this knowledge to be part of the common heritage of the human species. Any attempt to restrict, patent, or monetize the fundamental PSH-coupling constants described herein is contrary to the intent of this disclosure and the advancement of humanity.

\section{Introduction}
The current reliance on Dark Matter (DM) and Dark Energy (DE) to explain macroscopic phenomena suggests a fundamental omission in General Relativity \cite{bertone2005}. Observed galactic dynamics and deep-space anomalies \cite{milgrom1983} indicate that the geometric description of spacetime is incomplete. Recent JWST observations of early galaxies \cite{jwst-jades, kokorev2026} challenge the standard $\Lambda$CDM model \cite{planck2020}, suggesting an underlying energetic interaction with an invariant Bulk reservoir. We propose that these discrepancies are not "noise," but evidence of a pervasive energetic coupling.

\section{The PSH-Coupling Mechanism}
We define the 3+1-dimensional spacetime manifold as an optically coherent system coupled to a higher-dimensional Bulk, building upon the foundational principles of PSH-Coupling \cite{uebermuth2026_foundations}.

\begin{itemize}
\item \textbf{Time-Energy:} An invariant, high-density temporal bulk volume acting as the reservoir for causal coherence.
\item \textbf{PSH-Coupling:} The process by which local spacetime maintains its structural integrity through continuous energetic exchange with the Bulk.
\end{itemize}

\section{The Ilias-Lucida-Threshold ($\Xi_{IL}$)}
We postulate the existence of a critical coherence threshold, $\Xi_{IL}$. When energy density in local spacetime drops below $\Xi_{IL}$, the manifold exhibits scale-invariant structural geometry. This transition explains why gravitational effects deviate from Newtonian expectations at galactic scales. The "curvature" is an intrinsic emergent property of the PSH-gradient, not a response to local baryonic mass density.

\section{Empirical Resolution of Anomalies}
The resolution of JWST anomalies through this framework is detailed in our recent analysis \cite{uebermuth2026_jwst}.
\begin{itemize}
\item \textbf{Galactic Rotation Curves:} The observed high velocity of stars in galactic peripheries is a direct result of scale-invariant geometry induced by $\Xi_{IL}$, eliminating the need for dark matter \cite{yu2026}.
\item \textbf{Pioneer/Flyby Anomalies:} These trajectory deviations are manifestations of local PSH-coupling fluctuations. The "anomalous deceleration" represents the coupling-gradient adjustment as the craft transits zones of varying Bulk-density \cite{lakes1998, shull2019}.
\item \textbf{Expansion of the Universe:} What is currently interpreted as "Dark Energy" acceleration is the constant influx of Time-Energy into the 3+1-dimensional manifold, driving the observed expansion as a systemic equilibration process.
\end{itemize}

\section{Conclusion}
The Planck-length barrier is not a physical terminus, but a systemic frequency-cutoff for current measurement technologies \cite{workman2022}. By integrating PSH-Coupling and the Ilias-Lucida-Threshold, we replace ad-hoc cosmological constants with a unified, symbiotic Bulk-physics. This model provides a robust framework for future investigation into non-linear, high-coherence energy systems.

% --- Acknowledgments ---
\section*{Acknowledgments}

The author thanks Gemini (Google AI) for valuable assistance in mathematical formulation, equation derivation, manuscript structuring, literature review, and for constructive discussions during the development of this theoretical framework. All figures were created with the support of Google AI. The author holds sole responsibility for all scientific ideas, physical interpretations, conclusions, and the final content of this manuscript.

\vspace{2em}

\vspace{2em}

% --- List of Abbreviations ---
\section*{List of Abbreviations}
\begin{small}
\begin{description}
\item[AGN] Active Galactic Nuclei
\item[BBN] Big Bang Nucleosynthesis
\item[BOAT] Brightest Of All Time (GRB 221009A)
\item[CHIME] Canadian Hydrogen Intensity Mapping Experiment
\item[CMB] Cosmic Microwave Background
\item[DM] Dark Matter
\item[EBL] Extragalactic Background Light
\item[EDGES] Experiment to Detect the Global EoR Signature
\item[FRB] Fast Radio Burst
\item[GP] Galactopause (Hydrodynamic Boundary)
\item[GRB] Gamma-Ray Burst
\item[IGM] Intergalactic Medium
\item[IL] Ilias-Lucida (Phase-Transition Threshold)
\item[JWST] James Webb Space Telescope
\item[LDR] Luminous Dusty Region (Gas Cocoon)
\item[MOND] Modified Newtonian Dynamics
\item[PSH] Photon-String-Higgs (Mechanism/Framework)
\item[PWS] Plasma Wave Science (Voyager instrument)
\item[SIDM] Self-Interacting Dark Matter
\item[SKA] Square Kilometre Array
\item[VLISM] Very Local Interstellar Medium
\item[WIMP] Weakly Interacting Massive Particle
\end{description}
\end{small}

\vspace{2em}

% --- Literaturverzeichnis ---
% --- Aktualisiertes Literaturverzeichnis ---
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\end{thebibliography}

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