Emergent Evolution Architecture (EEA): A Non-Coercive Framework for Continuous Structural Evolution in Complex Systems

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Authors: Lucas García Dominguez
Cited by: 0

Abstract

The Emergent Evolution Architecture (EEA) defines a non-coercive architectural framework that enables complex systems to evolve continuously without requiring forced intervention, centralized redesign, or externally imposed update directives. EEA addresses a fundamental limitation in traditional system architectures, where functional evolution, structural change, or long-term adaptability often depend on explicit control actions, manual upgrades, or disruptive reconfiguration processes. Such approaches introduce fragility, downtime, performance degradation, and dependency on external authority. Instead of managing evolution through control or governance mechanisms, EEA establishes architectural conditions under which evolution can emerge autonomously, progressively, and structurally, while preserving system integrity and operational continuity. EEA does not execute logic, impose priorities, or coordinate subsystems. It operates as a structural evolution layer, distinct from governance, cooperation, perception, or execution architectures. Evolution within EEA is neither commanded nor synchronized; it is the result of internal consistency, structural compatibility, and autonomous state transitions occurring within predefined architectural boundaries. The architecture supports: • Continuous evolution without full system shutdown • Coexistence of multiple functional or structural states • Gradual transformation without centralized control • Evolution without sacrificing system stability or coherence • Independence from human-driven update cycles EEA is applicable across heterogeneous domains, including software systems, hardware platforms, cyber-physical systems, distributed infrastructures, and long-lived technical ecosystems where uninterrupted operation and long-term adaptability are critical. This document presents EEA as an architectural positioning and conceptual framework. Specific implementations, enforcement mechanisms, and system-level realizations are intentionally abstracted and remain outside the scope of this disclosure.

Fields of Study & Subjects

Advanced Software Engineering Methodologies Systems Engineering Methodologies and Applications Complex Systems and Dynamics

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
7 February 2026
Language
EN