HγC V: From Relational State Transitions to the Relational Accumulation Field: A Microscopic Foundation for Emergent Gravity
Abstract
We develop a microscopic relational foundation for the accumulation field A(x) in the HγC framework. The underlying substrate is described as an event-based relational network whose fundamental processes are local relational state transitions ordered by a pre-temporal relational update parameter τ. Each admissible transition contributes a retained weighted trace, so that microscopic accumulated history is defined not by event count alone, but by the ordered accumulation of non-erased relational imprints embedded in the evolving substrate. We show that, after coarse-graining over suitable relational neighborhoods and update windows, these accumulated traces admit a smooth mesoscopic representation identified with the relational accumulation field A(x). In this way, A(x) is interpreted not as a primitive dynamical field or an additional material source, but as an emergent mesoscopic descriptor of retained relational organization. The construction thereby provides the missing micro-to-meso bridge within the HγC sequence and clarifies how effective large-scale gravitational bias may arise from gradients of coarse-grained relational accumulation. A minimal toy realization is also presented to illustrate, at proof-of-principle level, how smooth mesoscopic accumulation structure can emerge from discrete relational updates.
Fields of Study & Subjects
Quantum many-body systems
Theoretical and Computational Physics
Statistical Mechanics and Entropy
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 1 February 2026
- Language
- EN
- Document type
- Preprint