The Autonomous Coherence Habitat - Meta invention Series - Invention 31

Self-Maintaining Environments, Regenerative Ecologies, and the Engineering of Persistent Living Systems The work distinguishes mathematical results proved under stated toy-model assumptions from engineering extrapolations and interpretations within the Unified Coherence Closure Framework (UCCF) and Infratier Closure Physics. The mathematical results presented here do not establish a new physical force, a universal law of coherence, or a validated autonomous life-support system. Model parameters and numeric demonstrations are illustrative rather than experimental observations. Technical design and any occupied-habitat application would require full safety engineering, independent validation, and appropriate regulation. The Autonomous Coherence Habitat (ACH) generalizes the Coherence Genesis Foundry from self-maintaining components to an environment whose biological, mechanical, informational, and resource-processing systems cooperate to preserve collective viability. The architecture combines environmental control, energy and water systems, ecological production and recycling, structural maintenance, protective compartmentalization, regenerative reserves, and accountable distributed control. Part I defines the habitat architecture and a viability-constrained lifecycle objective. Part II derives the finite-horizon viability kernel for competing essential loads sharing a limited power source and gives sufficient conditions for ecological reclosure. Part III develops a network cascade criterion using positive linear systems and derives robust containment and shock-margin bounds. Part IV analyzes a nutrient-cycle equilibrium, demonstrates stability and recycling-efficiency requirements, and distinguishes stable operation from adequate biological production. Part V derives a viable succession corridor and resource-constrained transformation window, and separates functional from historical continuity. Part VI integrates resource balances, energy and material conservation, maintenance integrity, and the conditional autonomy principle. Together the models form a quantitative research agenda for resilient, regenerative habitats without assuming thermodynamic isolation or biological self-sufficiency. Keywords: habitat viability; ecological reclosure; basin–shield; resource allocation; cascade stability; nutrient cycling; regenerative ecology; autonomous maintenance; ecological succession; organizational identity; UCCF. Explainer video (YouTube): https://youtu.be/s6NDe_G7jWo. Video, thumbnail and description added in this version.