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Autor principal: Peyru, Dario
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Publicado: Zenodo 2025
Acceso en línea:https://doi.org/10.5281/zenodo.18063616
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author Peyru, Dario
author_facet Peyru, Dario
contents <p>We propose a resolution of the black-hole information paradox within the 5D Bulk/Brane<br>topology and informational bookkeeping of the v13 Holographic Decompression program. The<br>key move is to treat black holes as re-compression engines: a horizon implements an effective<br>map rho_I -> rho_L, converting complex, highly structured brane degrees of freedom<br>(Execution, rho_I) into latent bulk storage (Latency, rho_L) without violating global unitarity.<br>Information is not destroyed; it is transferred to bulk-accessible microstates that are invisible to<br>a 3+1D observer. From the brane perspective this transfer appears as loss because the relevant<br>observables are traced over bulk degrees of freedom. We interpret Hawking radiation as the<br>Landauer cost of irreversible coarse-graining associated with compression: the entropic heat<br>required to eject (or re-encode) degrees of freedom while the net information is conserved in<br>5D. To increase scientific traction, we add a technical appendix: a fully unitary toy model<br>(Stinespring dilation) that reproduces (i) apparent non-unitarity on the brane, (ii) a<br>Page-curve-compatible entropy evolution once the bulk completion (islands) is included, and<br>(iii) a quantitative Landauer bound relating information flux to Hawking energy and entropy<br>flux. We also list conservative falsifiability handles and parameterizations for an effective<br>re-compression rate Gamma_BH.</p>
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spellingShingle Resolving the Information Paradox: Black Holes as Re-Compression Engines (rho_I -> rho_L) (Research Note v28.1)
Peyru, Dario
<p>We propose a resolution of the black-hole information paradox within the 5D Bulk/Brane<br>topology and informational bookkeeping of the v13 Holographic Decompression program. The<br>key move is to treat black holes as re-compression engines: a horizon implements an effective<br>map rho_I -> rho_L, converting complex, highly structured brane degrees of freedom<br>(Execution, rho_I) into latent bulk storage (Latency, rho_L) without violating global unitarity.<br>Information is not destroyed; it is transferred to bulk-accessible microstates that are invisible to<br>a 3+1D observer. From the brane perspective this transfer appears as loss because the relevant<br>observables are traced over bulk degrees of freedom. We interpret Hawking radiation as the<br>Landauer cost of irreversible coarse-graining associated with compression: the entropic heat<br>required to eject (or re-encode) degrees of freedom while the net information is conserved in<br>5D. To increase scientific traction, we add a technical appendix: a fully unitary toy model<br>(Stinespring dilation) that reproduces (i) apparent non-unitarity on the brane, (ii) a<br>Page-curve-compatible entropy evolution once the bulk completion (islands) is included, and<br>(iii) a quantitative Landauer bound relating information flux to Hawking energy and entropy<br>flux. We also list conservative falsifiability handles and parameterizations for an effective<br>re-compression rate Gamma_BH.</p>
title Resolving the Information Paradox: Black Holes as Re-Compression Engines (rho_I -> rho_L) (Research Note v28.1)
url https://doi.org/10.5281/zenodo.18063616