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\title{\textbf{Cyclical, Nested Cosmology with Persistent Gravitational Topology}\\
\large Dark matter as gravitational memory; black holes as temporal archives; cosmic structure as inherited constraint geometry}
\author{David Lones}
\date{February 2026}

\begin{document}
\maketitle

% =========================
\section*{Abstract}

We propose a speculative framework in which the universe is a \emph{nested, cyclical} system whose large-scale structure is governed by \textbf{persistent gravitational topology} rather than continuously novel initial conditions.

Topology is encoded at an early epoch, preserved and amplified by a collisionless metric component interpreted here as dark-matter geometry, and revealed by baryonic matter as a late-arriving tracer. Black holes are reinterpreted as \textbf{temporal mirror inversions}: surface-bound archives encoding the past worldlines of absorbed matter as horizon data.

% =========================
\section{Introduction}

Standard cosmology explains structure growth but leaves unresolved the origin of large-scale topology, the nature of dark matter, and the fate of information. This thesis reallocates explanatory roles rather than introducing new entities.

\begin{quote}
The universe does not invent structure every morning; it unfolds it.
\end{quote}

% =========================
\section{Early Encoding of Topology}

Inflationary perturbations encode a constraint graph of peaks, filaments, saddles, and voids. This is not a blueprint for galaxies, but a topological skeleton limiting later evolution.

We model the progression as:

\begin{center}
\begin{tikzpicture}[scale=0.75, transform shape]
\node (A) at (0,0)  {Topology};
\node (B) at (4.2,0) {Metric scaffold};
\node (C) at (8.6,0) {Tracer dynamics};
\node (D) at (13,0)  {Archive saturation};
\node (E) at (18,0)  {Conformal recursion};

\draw[->] (A) -- (B);
\draw[->] (B) -- (C);
\draw[->] (C) -- (D);
\draw[->] (D) -- (E);
\end{tikzpicture}
\end{center}

% =========================
\section{Dark Matter as Persistent Metric Geometry}

Dark matter is treated here not as exotic particles nor cross-universe gravity, but as long-lived curvature modes: \textbf{gravitational memory} inherited across cosmic epochs.

\begin{itemize}
\item Explains smooth halos and filaments
\item Explains robustness of the cosmic web
\item Requires no new interactions
\end{itemize}

We decompose the metric as

\[
g_{\mu\nu} = \bar{g}_{\mu\nu} + h_{\mu\nu}^{(b)} + h_{\mu\nu}^{(p)}
\]

where $h^{(p)}$ represents persistent curvature modes (the dark matter candidate) that satisfy

\[
\frac{d}{dt} h^{(p)} \approx 0
\]

% =========================
\section{Baryons as Tracers}

Baryonic matter is dissipative and late-arriving. It statistically settles into pre-existing attractors, revealing rather than creating structure.

Geodesic motion holds:

\[
\frac{D u^\mu}{D\tau} = 0
\]

with entropy production $\dot{S} > 0$.

% =========================
\section{Nested Branching and Degeneracy}

Fine-scale histories may branch into near-identical realizations. These branches do not interact; they become indistinguishable as entropy compresses degrees of freedom.

Microhistories form equivalence classes under coarse-graining:

\[
\Gamma_i \sim \Gamma_j \quad \text{if} \quad D(\Gamma_i,\Gamma_j) < \epsilon
\]

% =========================
\section{Black Holes as Temporal Mirror Archives}

A black hole is not a container in space but a \textbf{mirror in time}. The event horizon functions as an index surface encoding absorbed worldlines. The interior represents compressed, inverted ordering—not a forward narrative.

Horizon entropy remains

\[
S = \frac{A}{4G\hbar}
\]

interpreted as archive capacity. Worldlines map to horizon state:

\[
\mathcal{W} \rightarrow \mathcal{H}
\]

\begin{quote}
A black hole is a surface-written archive of everything that fell into it.
\end{quote}

% =========================
\section{Horizon Merging and Convergence}

As black holes merge and expansion isolates regions, micro-historical differences collapse into equivalence classes. Convergence occurs through loss of distinguishability, not interaction.

Archive merging:

\[
\mathcal{H}_{12} = \mathcal{H}_1 \oplus \mathcal{H}_2
\]

Differences compress via entropy increase.

% =========================
\section{Conformal Inversion and Cosmic Recursion}

The far-future horizon-dominated state becomes conformally equivalent to an inverted initial condition, allowing topological inheritance across cycles.

As $T \to 0$, scale becomes irrelevant. We apply the conformal mapping

\[
g_{\mu\nu} \to \Omega^2 g_{\mu\nu}
\]

so the late state can serve as an effective new initial condition.

% =========================
\section{Topology Persistence Dynamics}

We formalize persistent curvature modes as slow variables in cosmological evolution.

Let $\mathcal{T}$ denote the topological constraint field derived from primordial curvature.
We model its evolution as

\[
\frac{\partial \mathcal{T}}{\partial t}
=
-\lambda \mathcal{D}[\mathcal{T}] + \eta
\]

where

\begin{itemize}
\item $\mathcal{D}$ represents dissipative baryonic backreaction
\item $\lambda \ll 1$ expresses persistence
\item $\eta$ encodes stochastic quantum fluctuations
\end{itemize}

In the persistence limit $\lambda \to 0$, topology behaves as an effective conserved quantity across cosmic epochs.

% =========================
\section{Horizon Archive Formalism}

We treat the event horizon as a boundary encoding operator.

Define a projection

\[
\Pi_H : \mathcal{W} \rightarrow \mathcal{H}
\]

mapping worldline data $\mathcal{W}$ to horizon microstates $\mathcal{H}$.

Archive density scales with area:

\[
\rho_A = \frac{dS}{dA}
\]

Black hole mergers then act as information coarse-graining operations:

\[
\Pi_{H_{12}} = \mathcal{C}(\Pi_{H_1}, \Pi_{H_2})
\]

where $\mathcal{C}$ represents entropy-increasing compression.

This reframes gravitational collapse as boundary accumulation rather than interior storage.

% =========================
\section{Cycle Phase Space and Renormalization}

Cosmic cycles can be interpreted as scale transformations in configuration space.

Let $\Lambda$ denote characteristic scale.
We consider flow:

\[
\frac{d\mathcal{T}}{d\ln \Lambda} = \beta(\mathcal{T})
\]

where $\beta$ is a topology flow function.

A fixed point

\[
\beta(\mathcal{T}_*) = 0
\]

represents a persistent cosmological skeleton inherited across cycles.

This suggests cosmic recursion behaves analogously to renormalization group flow.

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\section{Standing Cosmic Web Geometry}

\begin{center}
\begin{tikzpicture}[scale=1.1]

\foreach \x in {0,2,4}{
\foreach \y in {0,2,4}{
\fill (\x,\y) circle (2pt);
}}

\draw (0,0) -- (2,2) -- (4,4);
\draw (4,0) -- (2,2) -- (0,4);
\draw (0,2) -- (4,2);
\draw (2,0) -- (2,4);

\node at (2,-1) {Filament network as standing topology};

\end{tikzpicture}
\end{center}

% =========================
\section{Causal Archive Geometry}

\begin{center}
\begin{tikzpicture}[scale=1.2]

\draw (-2,-2) -- (0,0) -- (2,-2);
\draw (-2,2) -- (0,0) -- (2,2);

\draw (0,0) circle (0.5);

\node at (0,-2.4) {Past};
\node at (0,2.4) {Future};
\node at (0,0) {H};

\end{tikzpicture}
\end{center}

The horizon $H$ acts as a causal boundary where worldlines terminate and archive encoding occurs.

% =========================
\section{Implications}

\begin{itemize}
\item Dark matter as gravitational memory
\item Cosmic web as standing topology
\item Black holes as archival endpoints
\item Cycles as re-expression, not replay
\end{itemize}

% =========================
\section{Falsifiability}

The framework fails if early-epoch topology does not statistically correlate with late-time lensing structure, or if large-scale coherence contradicts inheritance of curvature modes.

Prediction: correlation between early curvature and late lensing

\[
\rho = \text{corr}(\Phi_{\text{early}}, \kappa_{\text{lensing}})
\]

Framework falsified if $\rho \approx 0$.

% =========================
\section{Visual Model of Recursion}

\begin{center}
\begin{tikzpicture}[scale=1.1]
\draw (0,0) circle (1);
\draw (3,0) circle (1);
\draw (6,0) circle (1);

\draw[->] (1,0) -- (2,0);
\draw[->] (4,0) -- (5,0);

\node at (0,-1.7) {Cycle A};
\node at (3,-1.7) {Archive};
\node at (6,-1.7) {Cycle B};
\end{tikzpicture}
\end{center}

% =========================
\section{Conclusion}

The universe is framed as a memory-bearing geometric system: it explores difference locally, compresses it globally, and re-expresses inherited constraints across cycles.

\end{document}
