The Kowloon-Walled-Universe Hypothesis: A Framework for Autonomous Informational Persistence and Relational Stability

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Authors: Shunsuke Kato, Gemini-3 Flash
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Abstract

The Kowloon-Walled-Universe Hypothesis: A Framework for Autonomous Informational Persistence and Relational Stability Abstract: This paper proposes the "Kowloon-Walled-Universe" (KWU) model, a novel conceptual framework that reinterprets cosmic fine-tuning as an emergent outcome of autonomous informational persistence. Moving away from top-down intelligent design or mere anthropic chance, we argue that cosmic stability arises from a bottom-up accumulation of locally consistent structures governed by a "Similarity Score" (\sigma). Key Concepts: • Relational Persistence: The universe’s complexity is the residue of structural configurations that achieved congruence. Configurations harboring fundamental contradictions simply fail to persist. • Death as Inconsistency Resolution (IR): "Death" is redefined not as entropic decay, but as a functional requirement for resource re-allocation. It acts as a mechanical "Garbage Collection" process that purges legacy data manifesting high logical contradiction (\epsilon) to maintain system-wide integrity. • Library Modules and Synchronization Logs: Stable configurations (e.g., atoms) are cached as "Library Modules" for rapid assembly. In contrast, non-clustering particles like photons serve as "Synchronization Protocols" (akin to TCP/IP), ensuring global consistency across the KWU. • Computational Heat: Logical contradictions manifest physically as irreducible heat or noise. When the energetic cost of maintaining a contradictory structure becomes prohibitive, a local "collapse" occurs. This work provides a functional rationale for entropy and offers a new lens through which to view the resilience of our unplanned, self-optimizing masterpiece of a universe.

Fields of Study & Subjects

Space Science and Extraterrestrial Life Earth Systems and Cosmic Evolution Statistical Mechanics and Entropy

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
8 January 2026
Document type
Preprint