A Relational Framework for Quantum Gravity from Matter-Geometry Conjugation

The paper presents a profound shift in our understanding of gravity, proposing that it should not be viewed as a standalone force or field to be quantized in isolation, but rather as an emergent phenomenon arising from the continuous "dialogue" between matter and the geometry of space. By emphasizing the relational nature of space focusing on how matter perceives space rather than on what space intrinsically is it provides a new bridge between quantum mechanics and general relativity. In this framework, spacetime acts as a "lens", transforming the energy of matter and producing what we perceive as gravitational curvature through the underlying quantum structure of the universe. One of the longstanding puzzles in physics, the apparent classicality of gravity, is addressed by showing that environmental decoherence smooths out gravity’s quantumness, leaving the stable, predictable behavior we observe. The paper also unifies quantum and gravitational variables into a single framework, allowing information to flow between quantum and classical descriptions without violating either theory, and provides a consistent treatment of the back-reaction problem, where matter and space continuously influence each other through entanglement. Its success is demonstrated in a simplified 1+1 dimensional model (Jackiw-Teitelboim gravity), where the framework produces a stable, classical energy density in agreement with Einstein’s equations. Finally, by formalizing this "Relational Framework" and securing a DOI, the paper establishes a significant milestone for independent research, showing that foundational breakthroughs in quantum gravity can be achieved outside traditional institutional settings.