What question did this study set out to answer?

The research aims to unify concepts of black holes, silent cavities, and cosmic boundaries through a new theoretical model.

February 10, 2026Open Access

Energy Filament Theory (EFT) Z10: Extreme Objects and Boundary Materials Science — Black Holes (Four-Layer Structure), Pore Evaporation, Silent Cavities, and Cosmic Boundaries

Key Points

The research aims to unify concepts of black holes, silent cavities, and cosmic boundaries through a new theoretical model.
Defined a four-layer structure for black holes
Developed a shared wall–pore–corridor language
Outlined mechanisms for critical thresholds
Introduced the A4 4D reading framework
Identified critical material bands with dynamic properties
Described intermittent venting and evaporation processes
Proposed observable characteristics of cosmic boundaries

Abstract

This module provides EFT’s minimal, test-oriented account of boundaries as critical material bands with thickness, breathing, and reconfiguration. It unifies black holes, silent cavities, and cosmic boundaries into a shared wall–pore–corridor language (TWall / Pore / TCW). A black hole is described with a four-layer structure (Outer Critical Surface, Piston Layer, Inner Critical/Crushing Zone, Boiling Soup Core), with explicit mechanisms for the outer/inner critical thresholds. Pores and corridors support intermittent venting, long-term evaporation, and jet collimation. The module also outlines observational handles under the A4 4D reading framework (image / polarization / time / spectrum).

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