Dark Matter and Dark Energy as a Dual Projection of the Metafield: A Hypothesis of a Relational-Informational Layer of Physical OrganizationA Graph-Based Model of Gravity, Electromagnetism, Matter, and the Dark Sector within the LOM–GTSFC–USC–GTCW FrameworkBKT-46-EN Publication BKT-46 presents the metafield hypothesis as a relational-informational layer of physical organization, in which dark matter and dark energy are interpreted as two limiting projections of a deeper mechanism: a local clustering regime of the metafield and a global expansive regime of the metafield. The article develops a graph-based model of the projection of gravity, electromagnetism, matter, and the dark sector within the LOM–GTSFC–USC–GTCW framework. This work presents the metafield hypothesis as an eonic layer of relational closure and relational-informational physical organization. The metafield is not treated as a classical scalar field or as a substantial medium, but as a hypothetical layer of admissibility, couplings, and closure of configurations whose projections may appear in observable sectors. The article proposes a graph-based model of structural emergence, in which an eonic transition leads to a primordial wave-modal layer, on which the metafield is constituted as a layer of compatibility and closure. From this layer, the following sectors are projected: geometric-gravitational, phase-electromagnetic, material, chemical, biological, and dark-sectorial. These sectors are not treated as isolated branches, but as coupled projections of one relational mechanism. The main model claim concerns the dark sector. Dark matter is interpreted as a local clustering regime of the metafield projection, whereas dark energy is interpreted as a global expansive regime of the same layer. In this view, dark matter and dark energy are not two independent substances, but two limiting responses of one relational organizational structure. This hypothesis requires further mathematical formalization, construction of null models, and comparison with cosmological, gravitational, and astrophysical data. The article develops the LOM–GTSFC–USC–GTCW architecture, in which the Law of One Mechanism functions as the overarching structure-forming framework, GTSFC describes the shared coupling channels of fundamental structures, USC defines the conditions of compatibility and closure of configurations, and GTCW extends the mechanism to the cyclic dynamics of eons. The work also includes a heuristic visualization of the entire theory as a graph-based architecture of relational projections.
Robert Kupski (Sun,) studied this question.