Title Relational Phase Realignment: A Conceptual Framework for Non-Destructive Mass Translation in Geological Media

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Authors: Joel Lesperance
Cited by: 0

Abstract

Conventional strategies for moving, cutting, or displacing rock rely on force, fracture, drilling, or thermal disruption. These methods are effective, but they consume large amounts of energy and impose irreversible damage on surrounding environments. This paper introduces a conceptual alternative in which translation emerges not from applied force, but from controlled modification of local resistance conditions. This paradigm — termed Relational Phase Realignment (RPR) — proposes that if a low-resistance corridor is coherently formed in front of a target volume, material may transition into that corridor as an energy-minimizing solution. Motion arises from contextual re-balancing rather than impact, cutting, or propulsion. This manuscript is intentionally theoretical and provides no engineering designs, frequencies, control systems, nor implementation details. The purpose is to frame the idea, connect it to analogs in known physics, establish ethical limits, and propose a cautious research pathway. ancient megalith technology lost engineering methods relational phase stone removal non-force material realignment megalith quarry anomalies polygonal cyclopean masonry precision interlocking stone blocks ancient quarry cut marks non-linear stone displacement monolith relocation theory Giza quarry mysteries Sacsayhuamán engineering Andes stone technology Pumapunku precision carving ancient high-precision construction phase-shifted matter behavior field-mediated material softening non-invasive excavation concepts underground chamber creation geometric resonance engineering ancient infrastructure enigmas pre-cataclysm construction methods archaeo-technology speculation alternative ancient engineering models planetary defense crossover concepts

Fields of Study & Subjects

Tunneling and Rock Mechanics Rock Mechanics and Modeling Building materials and conservation

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
7 January 2026