G Model scientific reading edition

Matter and Spacetime Interaction | G Model Perspective

By Gurbuz Dolu, Electrical Engineer & independent researcher, Princeton, New Jersey, USA.

· Published 2026-09-09

General relativity relates stress-energy and spacetime geometry rather than treating matter as a force source in a separate Newtonian background. The precise relation is expressed by the field equations and their solutions.

A microscopic interaction proposal must preserve conservation, causal propagation, and the tested continuum limit.

The G Model treats matter as a source or loading of causal structure rather than as the fabric itself. A real source occupies a region and must retain its energy, shape, boundary, stress, and full stress-energy content rather than being represented honestly by one microscopic cell.

The matter-facing aggregation branch distinguishes intrinsic fabric time T_c from D_0. Its source bridge and coefficient chain are conditional on adopted volume, response, averaging, and throughput prescriptions.

A complete microscopic action, physical link creation and deletion, unique source-to-target normalization, and independent scale determination remain open.

Matter and spacetime in ordinary physics

General relativity relates stress-energy and spacetime geometry rather than treating matter as a force source in a separate Newtonian background. The precise relation is expressed by the field equations and their solutions.

A microscopic interaction proposal must preserve conservation, causal propagation, and the tested continuum limit.

The G Model perspective

The G Model treats matter as a source or loading of causal structure rather than as the fabric itself. A real source occupies a region and must retain its energy, shape, boundary, stress, and full stress-energy content rather than being represented honestly by one microscopic cell.

The matter-facing aggregation branch distinguishes intrinsic fabric time T_c from D_0. Its source bridge and coefficient chain are conditional on adopted volume, response, averaging, and throughput prescriptions.

A complete microscopic action, physical link creation and deletion, unique source-to-target normalization, and independent scale determination remain open.