System Hamabo: A Capillary Feed-Back Matrix Based on Domain-Wide Surface-Forced Phase Transition and Microscopic Lattice Refraction (Version 2.4 Sub-JJ-β)

This paper presents System Hamabo, an urban-scale "digital skin" dynamic regulation and energy-flow feed-back topological system. Serving as the core hub within the "Trinity" collaborative ecosystem of Azusa, Goyo-Tsutsuji, and Hamabo, the system dynamically subsumes and feeds back multi-dimensional ubiquitous energy flows across urban spaces via a domain-wide surface flexible sensing and microscopic phase-transition conduction network, transforming environmental stray energy into public welfare benefits. The core architecture comprises four scene-linked sectors: 1) A spatial three-dimensional decoupling framework that breaks the physical limitations of multi-dimensional stress interference on municipal pavements; 2) An adaptive environmental perturbation capture mechanism and constant-load subsumption topology, enabling all-weather, high-efficiency purification and safe grid-connection of gravitational and mechanical energy flows within dynamic and static spaces while eliminating grid hazards from fluctuating currents; 3) A multi-scenario optical and thermal dynamic proportioning regulation, which utilizes specialized interpenetrating network structures to devour glare and high-energy radiation pollution, and achieves intelligent two-way surface temperature regulation via a deep thermal counter-balancing dam to eliminate safety vulnerabilities under extreme weather; 4) A digital twin passive sensing neuron system for high-precision targeted operations, pre-engineering an in-situ emergency self-destruction and volume feature-coded reconstruction mechanism under catastrophic extremes. The physical and logical closed-loop of this system provides an infinite metabolism master network for future municipal infrastructures.