THE COLLAPSE WITHOUT A HOLE: FROM PENROSE'S THEOREM TO THE TRANSDUCTIVE CONVERGENCE CORE AND THE NEW ARCHITECTURE OF THE HORIZON
This research manuscript presents a transductive architectural framework for interpreting gravitational collapse, black holes, galactic centers, and the emergence of four-dimensional spacetime geometry from a deeper structural process of coherence, rotation, compression, convergence, and projection. The central proposal is that gravity may be represented, within the proposed architecture, as a projected consequence of a deeper transductive organization expressed by g ∼ ∇C + (Ω × J), where g denotes the projected gravitational field, C the transductive coherence, ∇C its coherence gradient, Ω the structural rotation of the funnel, and J the coherence flow. The framework introduces the Infinite Transductive Funnel as a hierarchical structure in which coherence flows through successive regimes of rotation, compression, convergence, and projection. Within this architecture, the observed four-dimensional spacetime domain is treated as a stabilized projection of a deeper transductive process. A central structural sequence is formulated as: UNIVERSE → INFINITE TRANSDUCTIVE FUNNEL → COHERENCE FLOW J → ROTATION Ω → GRADIENT ∇C → GRAVITY → HIERARCHICAL COMPRESSION → CONVERGENCE → TRANSDUCTIVE CONVERGENCE SURFACE → TRANSDUCTIVE HORIZON → SPIRAL HORIZON → TRANSDUCTIVE CONVERGENCE CORE → ZERO POINT → 4D PROJECTION LIMIT. The manuscript proposes the Transductive Convergence Core (NCT) as a structural category for the extreme regime produced by hierarchical convergence, compression, and rotation. In this formulation, the NCT is not defined as a material cavity, physical surface, or ordinary geometric object, but as an extreme transductive regime in which the four-dimensional projection reaches a critical representational limit. The proposed nomenclature establishes correspondences between conventional gravitational terminology and the transductive architecture: BLACK HOLE → TRANSDUCTIVE CONVERGENCE CORE EVENT HORIZON → TRANSDUCTIVE HORIZON TRAPPED SURFACE → TRANSDUCTIVE CONVERGENCE SURFACE SINGULARITY → TRANSDUCTIVE PROJECTION LIMIT GRAVITATIONAL COLLAPSE → TRANSDUCTIVE HIERARCHICAL COMPRESSION GEODESIC → STABILIZED TRAJECTORY OF THE PROJECTION BLACK-HOLE INTERIOR → DEEP TRANSDUCTIVE REGIME A principal equation proposed for the extreme regime is NCT = lim[T → Tcrit] {∇C + (Ω × J)}. The corresponding critical horizon condition is expressed as Ω(rH)rH = c, leading to rH = c / Ω(rH). When the structural rotation is expressed as a function of the relevant system parameters, Ω = Ω(M,C,J,H), the horizon relation becomes rH = c / Ω(M,C,J,H). The manuscript therefore formulates the horizon as a problem of transductive dynamics, connecting radial compression, rotational structure, coherence gradients, and hierarchical flow. The second part of the work applies this architecture to galactic centers, treating galaxies as natural systems in which concentration, rotation, flow, density gradients, and compact nuclear regions provide an observational setting for examining the proposed convergence structure. The Galactic Centre and Sagittarius A* are considered within this framework as a natural case of extreme central concentration and rotation. The proposed Principle of Galactic Convergence begins with an approximately axially symmetric coherence field C(r), with dC/dr < 0 for r > 0 when coherence increases toward the center. Consequently, |∇C| = −dC/dr. Under the proposed gravitational relation, g ∼ ∇C + (Ω × J), the radial component is, in first approximation, g_r ∼ −dC/dr. Thus, the framework formulates radial gravitational convergence as a consequence of a coherence gradient directed toward the galactic center. The manuscript also establishes a conceptual transition from conventional descriptions of gravitational collapse toward a transductive description: OBJECT → PROCESS GEOMETRY → TRANSDUCTION HOLE → CONVERGENCE SINGULARITY → PROJECTION LIMIT HORIZON → INTERFACE OF REGIMES. The work uses Roger Penrose’s mathematical treatment of gravitational collapse and spacetime singularities as an important reference point and extends the discussion toward a proposed structural architecture based on transduction, coherence, rotation, hierarchical compression, convergence, and projection. The manuscript does not treat the Transductive Convergence Core as an isolated object. Instead, it places the extreme regime within a continuous hierarchical architecture connecting cosmological scale, galactic structure, gravitational convergence, horizon formation, and the limiting behavior of four-dimensional projection. The proposed framework leads to an experimental program involving the recovery of known horizon scales where general relativity predicts them, investigation of spiral kinematics without directly imposing the Schwarzschild solution, examination of reduced symmetry, and determination of the behavior of Ω(r), J(r), C(r), and ∇C near the horizon. These tests are intended to determine whether the proposed transductive architecture produces distinguishable predictions from conventional relativistic descriptions. The work therefore presents a unified conceptual and mathematical architecture linking the Infinite Transductive Funnel, transductive coherence, rotation, gravitational convergence, hierarchical compression, horizons, galactic centers, the Transductive Convergence Core, and the limiting behavior of four-dimensional spacetime projection. Keywords: transductive architecture; transduction; transductive coherence; infinite transductive funnel; gravitational collapse; gravity; rotation; coherence gradient; galactic centers; black holes; event horizon; transductive horizon; Transductive Convergence Core; NCT; spacetime; 4D projection; spiral geometry; hierarchical compression; convergence; Sagittarius A*; cosmological architecture.
Authors
- Cláudio Vicente da Silva
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2026-09-11
- DOI
- https://doi.org/10.5281/zenodo.22711932
- Primary Topic
- Relativity and Gravitational Theory
- Type
- preprint