The Three-World Framework for Regional Unitarity, Black-Hole Information Reset, and Low-Entropy Origins
Year: 2026
Type: dataset
Abstract: The Three Worlds framework proposes a conditional answer to the black-hole informationparadox: original microscopic quantum distinctions borne by infalling matter are irreversiblydestroyed in the black-hole interior (World II), while their energy remains incorporated in asingle evolving wave-field object. World I is the exterior quantum description with its ownevolution parameter; World II uses an internal evolution parameter. Ordinary one-way infall,not an invertible quantum-state map or globally synchronized clock, relates their spacetimedescriptions. Classical causal isolation across an event horizon does not require destruction ofcross-horizon entanglement.The primary argument uses complete-state capacity constraints. Given their stated applicability, an ER envelope tending to zero suppresses both entropy and, when it covers all allowedoutput mixtures, pairwise distinguishability. An independent finite-cell branch permits at mostone bit per minimum effective volume. These conditional deductions hold independently of thedetailed implementation. World II adopts an explicit replacement-channel evolution coupled atthe effective level to inward transport and condensate-inspired collective evolution, with specifiedenergy, carrier and reference-system conditions.The framework predicts no recovery of completely reset input distinctions from Hawkingradiation, no terminal evaporative explosion that destroys a persistent world boundary, and around horizon in its stationary nonrotating exterior branch. Rotating exteriors use the Kerrcomparison. Each prediction has a separate rejection criterion. The model applies regionalunitarity to Worlds I and III and fundamental nonunitary reset to World II, with conservationand causal consistency imposed on the selected implementation.
Authors: Joel, Joseph, Runqi, Zhao
Language: English
Subfield: Nuclear and High Energy Physics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7222689220