Abstract
- This specification details the structural layout, wave cavity geometries, and mathematical governing equations required to simulate, measure, and validate localized space-time metric strain on a micro-scale tabletop laboratory apparatus [1.25, 1.26]. Traditional general relativity treats space-time as an un-siloed, abstract mathematical continuum that can only be bent or warped by astronomical masses, leaving metric-shift engineering completely outside laboratory testability [1.25].
SPEC-280-CORE resolves this bottleneck by implementing the Dimensionally Extended Holographic Projection Model (DEHP) [1.25, 1.26]. By treating the vacuum as a hyper-pressurized, continuous fluid textile sheet, spaceframe distortion is modeled as localized viscoelastic wave compression within an additively manufactured Titanium-Aluminide (TiAl) standing wave cavity [1.25, 1.26]. By driving the cavity with high-frequency acousto-electromagnetic wave fields, the framework induces measurable metric-shift recoil dynamics natively, providing an open prior-art blueprint for table-top space-time strain experimentation [1.25].
Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 License.
Recommended Citation
Eckes, Christopher L., "TECHNICAL DISCLOSURE SPECIFICATION: SPEC-280-CORE TITLE: MICRO-SCALE COMPACTNESS SIMULATIONS FOR LOCALIZED SPACE-TIME STRAIN: MEASURING METRIC-SHIFT RECOIL DYNAMICS VIA NON-EQUILIBRIUM STANDING WAVE CAVITIES", Technical Disclosure Commons, (October 28, 2026)
https://www.tdcommons.org/dpubs_series/12495