Galactic Gravitational Field Measurements Part 2: Black Hole Energy Transfer into Q-Epsilon

This paper, Part 2 of the Galactic Gravitational Field Measurements series, focuses on one of the most critical mechanisms in the Q-Epsilon framework: the transfer of energy and information from black holes into the Q-Epsilon field, where it becomes the source of gravitational curvature and structural organization throughout the galaxy. Building directly on Part 1 – Galaxy Structuring & Dark Matter, which demonstrated that galactic rotation curves and spiral structure can be modeled as emergent outcomes of energy resonance and curvature (without the need for dark matter), this installment explores what happens at the center—inside the black hole. Instead of treating black holes as singularities or endpoints, this paper presents them as active field interfaces that receive, modulate, and transmit energy into Q-Epsilon, shaping the field geometry responsible for observed galactic behavior. It introduces a reformulated black hole structure, the Môr MetriK, which replaces singularity-based reasoning with smooth resonance-based transition zones, governed by non-iterative collapse equations derived from the UMEC framework. All modeling is consistent with quantum mechanics and general relativity but extends beyond both by treating wavefunction collapse, tunneling, and quantum behavior as resonance-based energy geometry, rather than probabilistic abstraction. Together with foundational works such as Gravitational Field Measurements, Introduction to Q-Epsilon through Quantum Mechanics, UMEC: Non-Iterative Mathematics, and Quantum Mechanics & General Relativity: The Emergence of Physics, this paper forms a key link in a broader framework: replacing speculative models with a computable, structured alternative to ΛCDM cosmology. The upcoming Part 3 – Galaxy Clusters will scale this system beyond individual galaxies, showing how entire cluster networks, voids, and filamentary structures emerge from interacting Q-Epsilon fields, completing the transition from local gravitational modeling to a full cosmological framework.