DISSIPATIVE SPHERE

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Authors: Michael Ingr
Cited by: 0

Abstract

THE DISSIPATIVE SPHERE A Theoretical Concept of a Self-Organized Protective Membrane Inspired by Phase-Transition Dynamics in Water Author: Michael IngrStatus: Preprint for Zenodo v1.0 Ingr, Michael. Root-to-Skin Hierarchy in Quashi Modalics:Canonical Reference Architecture V1.0.Technical founding document, 2026.Core terms:Quashi Modalics, DOS-Q, Phase C-Manifold,Recovery-Phase Field, Outlet Quasi-Compositor,Root-to-Skin modal architecture. © Michael Ingr, 2026.Tento dokument definuje původní referenční architekturuRoot-to-Skin hierarchy v rámci Quashi Modalics.Citace autora je požadována při akademickém, technickémnebo publikačním navázání na tuto terminologii nebo architekturu.Konkrétní implementační parametry nejsou součástí veřejné vrstvy. ABSTRACT This work documents the formation of a self-organized spherical transition layer observed during the controlled freezing of water in the presence of an immersed object. A stable intermediate region emerges between the liquid core and the solid exterior, consisting of radially oriented crystalline structures forming a porous, energy-transporting boundary. This “dissipative ring” exhibits the characteristics of a dissipative structure: gradient-driven ordering, temporary stabilization, and directional heat transport. Based on these observations, we propose the conceptual framework of the Dissipative Sphere — a dynamic, gradient-stabilized protective membrane that could, in principle, be recreated in alternative media (aerosols, polymers, plasma) and actively maintained as a non-destructive defensive layer.The present article is purely theoretical, focused solely on peaceful civil protection and inspired by self-organization principles in non-equilibrium thermodynamics.

Fields of Study & Subjects

Complex Systems and Dynamics Nonlinear Dynamics and Pattern Formation Freezing and Crystallization Processes

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
16 January 2026
Document type
Preprint