Introduction This annex develops the OCBH module, namely the concept of the black-hole “eye of the cyclone” as a hypothetical channel for the transport of coded information within the PJM–GTWSSF–USC–GTCW framework. The document constitutes a specialized extension of the horizon and black-hole sector, using the notation, equation statuses and formal concepts organized in the BKT-11a annex. The central idea of this annex is to describe a black hole not only as an object that absorbs matter, energy and information, but as a complex transformational system in which a coding layer, a transport channel, a decoding layer and output sectors can be distinguished. In this interpretation, the black hole is described as a Cyclonic Code Transformer, a structure including an input corona, the horizon, a hypothetical eye of the cyclone, an output corona and the jet sector. The annex does not reject the standard description of black holes in general relativity, horizon thermodynamics or high-energy astrophysics. On the contrary, elements such as Kerr geometry, Bekenstein-Hawking entropy, Landauer’s principle, quantum channels, quantum-error-correction conditions and the Blandford-Znajek mechanism serve as formal and physical anchors. The novelty of the annex lies in the introduction of an additional interpretive and model layer in which structural information may be considered as a quantity that is transported, encoded, protected and partially reconstructed. The central concept of the document is the eye of the black-hole cyclone, defined as a hypothetical region of minimal code destruction. This region is not treated as an established component of known black-hole geometry, but as a conditional element of the model. Its physical meaning depends on the possibility of formulating consistent balance equations, boundary conditions, causal, energetic and informational constraints, and comparative tests against a null model. Mathematically, transport through the eye of the cyclone is described using the language of quantum channels, transport operators, projectors onto protected code subspaces and quantum-error-correction conditions. Of particular importance is the interpretation of the channel as a process that need not be perfectly lossless, but may preserve structural information within an admissible error bound. This approach avoids imprecise declarations about “information preservation” and replaces them with measurable conditions, at least at the model level. The annex also develops the energetic and informational balance of the black hole by considering the relation between jet power, accretion processes, black-hole rotation, the electromagnetic field and a possible code-related contribution. The interpretation of jets as possible carriers of informational matter is not presented as an alternative to standard jet astrophysics, but as an extending hypothesis requiring connection with observables, spectral, polarization and temporal correlations. The significance of BKT-11b lies in transforming the intuition of a black hole as an information channel into an explicit mathematical and physical model. The document organizes the OCBH concepts, marks the boundary between established physics and the USC–GTCW hypothesis, introduces equation cards and consistency conditions, and formulates a direction for future falsification. The annex does not constitute proof of the existence of a horizon channel, but provides a formal foundation for its further analysis, simulation and testing.
Robert Kupski (Tue,) studied this question.