Entangled Cyclic Cosmology: A Speculative Framework for Emergent Cosmic Phenomena and Observer Humility

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Authors: Kevin Spooner
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Abstract

Entangled Cyclic Cosmology: A Speculative Framework for Emergent Cosmic Phenomena and Observer Humility Author: Kevin Spooner with Grok Peer Review Abstract: Entangled Cyclic Cosmology (ECC) is a speculative extension of Conformal Cyclic Cosmology (CCC), incorporating quantum entanglement networks among black holes to drive infinite cosmic cycles. The universe is conceptualized as a fluid-like system: an explosive "pop" from a low-entropy frozen state, chaotic dispersal with Bernoulli-derived acceleration mimicking dark energy, reassembly via an evolving black-hole "skin" (gravity as unreleased constraint) and reset to the next cycle. Time emerges solely from chaos, bounding each Aeon finitely. Apparent dark matter arises as an observational illusion from accelerating observer frames in nested "whirlpool" phases, with excess factors growing temporally. The model emphasizes profound humility: Embedded observers in local flows cannot fully verify larger scales, rendering physics self-consistent but inherently limited. ECC resolves paradoxes like information loss through collective white-hole bounces and eliminates exotic components, deriving phenomena from entanglement-coordinated flow dynamics. The model further posits that an unstable leftover asymmetry (analogous to the internal stress in a Prince Rupert's Drop) prevents exact zero-temperature freeze, acting as a regulator that triggers the white-hole bounce and ensures perpetual cycles without true singularities. Keywords: Cyclic cosmology, ER=EPR, black hole entanglement, emergent dark energy, thermodynamic time arrow, observer limits. 1. Introduction This framework synthesizes elements from Roger Penrose's CCC [1] and the ER=EPR conjecture [2], proposing that black holes form an active, entangled "skin" reorganizing cosmic matter. Illustrated by a "water balloon" metaphor: The frozen balloon shatters (Big Pop), dispersing contents into chaos; fragments (black holes) evolve into "scoops" that herd matter back via gravitational constraint and entanglement, reforming the balloon for the next pop. This cycle bounds observable time, with anomalies like dark phenomena emerging from the flow. 2. Key Concepts - Gravity as Skin/Constraint: Gravity resists full dispersal, acting as an unreleased boundary tension. Black holes concentrate merging hierarchically. - Time as Chaotic Reordering: Time exists only in disorder; it stalls at laminar freeze (low entropy). - Bernoulli-Like Acceleration: Expansion as fluid flow: Faster velocity lowers effective pressure, mimicking dark energy without Λ. - Dark Matter Illusion: Rotation curves flatten increasingly due to observer acceleration: \( f_{\text{excess}} = 1 + a_{\text{observer}} \cdot t \), where \( f_{\text{excess}} = (v_{\text{observed}}/v_{\text{expected}})^2 \). - Nested Whirlpools: Aeons may embed in larger ones, distorting perceptions—humility arises from unverifiability. 3. Toy Mathematical Framework Aeon lifetime: \( \tau \approx 1 / \sqrt{k \cdot \rho_{\text{eff}}} \), where k couples Bernoulli terms and \( \rho_{\text{eff}} \) is effective density. Acceleration: \( \ddot{a}/a \approx + (k/2) \rho v^2 - \kappa / a^2 \) (push vs. skin pull). 3.1 Singularity Resolution and the Unstable Leftover The bounce avoids classical singularities because the unstable leftover from the Big Pop — a primordial asymmetry in the entanglement pressure — forbids the system from reaching the mathematical condition for infinite density or curvature (division by zero in effective volume or conformal factor). Toy form: pe=−αSentV+δunstablep_e = -\alpha \frac{S_{\text{ent}}}{V} + \delta_{\text{unstable}}p_e = -\alpha \frac{S_{\text{ent}}}{V} + \delta_{\text{unstable}} where δunstable≠0\delta_{\text{unstable}} \neq 0\delta_{\text{unstable}} \neq 0 is the irreducible perturbation. Near the freeze boundary, this residual term produces a finite positive acceleration a¨a≈+βδunstable>0\frac{\ddot{a}}{a} \approx + \beta \delta_{\text{unstable}} > 0\frac{\ddot{a}}{a} \approx + \beta \delta_{\text{unstable}} > 0 preventing collapse to a point and instead driving a smooth outward transition (white-hole pop). 4. Discussion and Limitations ECC's simplicity resolves tensions (e.g., entropy arrow, information preservation) but remains speculative, lacking empirical tests. Its meta-humility—predicting embedded blindness—makes it compelling yet unprovable from within. References [1] Penrose, R. (2010). Cycles of Time: An Extraordinary New View of the Universe. [2] Maldacena, J., & Susskind, L. (2013). "Cool horizons for entangled black holes." arXiv:1306.0533. [3] Additional inspirations: Fluid cosmology analogies (e.g., arXiv searches for "Bernoulli cosmology"); ER=EPR extensions in cyclic models. v3 (February 2026): Incorporates Prince Rupert's Drop analogy for cycle fine-tuning, explicit singularity avoidance via unstable leftover preventing zero-division, and refined response to unobservable-realms critique via predicted long-term galaxy velocity coherence.

Fields of Study & Subjects

Cosmology and Gravitation Theories Black Holes and Theoretical Physics Noncommutative and Quantum Gravity Theories

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
2 February 2026