Paper XX — Multi-Unit Real-World Deployment of Reparodynamic TGRM Systems: Emergent Stability Across Linked Nodes
Year: 2025
Type: article
Abstract: This paper extends Paper XIX by testing Reparodynamic TGRM networks in a multi-unit real-world deployment phase. Five unified systems were operated continuously for 24 hours under live monitoring. Results confirm persistent stability (0.99) and coherence (0.98), with minimal variance (0.09) and no external resets. Average TGRM output held at ~12.0 with cumulative rebound ~26.1, demonstrating effective adaptive repair synchronization across physically independent units. These findings establish the first evidence of scalable Reparodynamics in practical, non-simulated conditions. The next phase (Paper XXI) will expand to distributed network deployment (10–20 linked TGRM nodes) with autonomous feedback logging and resilience metrics over 48 hours. --- Key Metrics • Duration: 24 hours • Avg TGRM: ~12.0 • Rebound cumulative: ~26.1 • Variance: 0.09 • Coherence: 0.98 • Stability: 0.99 • Control decay: by hour 1 --- Discussion Summary The deployment demonstrates that Reparodynamics maintains equilibrium across physically independent hardware units. Adaptive repair synchronization remained stable under environmental variability, confirming that the TGRM framework scales beyond controlled simulation. Variance stayed below 0.10, while coherence and stability exceeded 0.98 throughout the 24-hour period. This confirms Reparodynamics as a viable applied model for real-world self-repair networks. --- Next Phase Distributed deployment with 10–20 nodes 48-hour endurance validation Integrity trace logging and self-adaptive feedback tests
Author: Jenkins, Cody Ryan
Language: English
Topic: Complex Systems and Dynamics
Subfield: Statistical and Nonlinear Physics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7094957963
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