What question did this study set out to answer?

This research aims to address the perihelion shift of Mercury by using a new computational model instead of traditional relativity.

June 5, 2026Open Access

Dynamic Phase Resonances in Hexagonal Close-Packed Media: Non-Relativistic Orbit Precession and Lattice Time-Step Dilations (Part V)

Key Points

This research aims to address the perihelion shift of Mercury by using a new computational model instead of traditional relativity.
Extended the Universal Metric Mismatch (UMM v9.5) framework.
Modeled a macro-body as a wave-packet within a hexagonal close-packed matrix.
Calculated trajectories via finite-difference lattice stress divergence.
Achieved a derived orbital precession value based on discrete grid mechanics.
Showed that hydrostatic pressure alters the execution clock-tick (dt) in the spatial matrix.

Abstract

This paper extends the Universal Metric Mismatch (UMM v9.5) computational framework to resolve the historical problem of anomalous planetary orbit precession, specifically the perihelion shift of Mercury, without invoking the metric tensors of Einsteinian General Relativity. Within the rigid, discrete Hexagonal Close-Packed (3HCP) matrix, a moving macro-body is modeled as a cascading wave-packet of volume-charge displacement. The study demonstrates that intense hydrostatic pressure surrounding a central mass compresses coordination shells, altering the localized execution clock-tick (dt) of the spatial matrix. By calculating trajectories through finite-difference lattice stress divergence, the classic orbital precession value is derived entirely from hardware-level discrete grid mechanics. Creative Commons Attribution Non Commercial No Derivatives 4.0 International

Read Full Paperexternally

Mark Helpful

Bookmark

Relay

View Full Paper