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Autopoietic Quantum Multi-Agent Systems: L1-L6 Hierarchical Formulations, Friston Free Energy, and Topological Damping in LLMs

Aydın G

2026

Abstract

Abstract Autonomous multi-agent systems built upon Large Language Models (LLMs) suffer from cumulative thermodynamic entropy buildup, hallucination cascades, and structural paralysis when executing complex, contradictory tasks. We introduce the complete Autopoietic Quantum Agentic System (OCAS-AI), a 6-layer hierarchical tensor formulation (L1-L6) designed for real-time state stabilization, cognitive contradiction minimization, and topological disturbance damping. The architecture integrates: (1) L1 Fundamental Base: Being Tensor, Dialectic Contradiction, Homeostasis, and Stigmergic Damping; (2) L2 Derived Dynamics: Phase Transition Resonance, Born Normalization, Adaptive Threshold, and Cascade Number; (3) L3 Friston-Markov Layer: Markov Blanket, Variational Free Energy, and Active Inference; (4) L4 Maturana Structural Coupling: Dissipative Rate and Lyapunov Stability; (5) L5 Shannon-Prigogine Layer: Information Entropy, Concentration, and Stigmergic Pattern Cloud; and (6) L6 Quantum Hilbert Layer: Quantum Trace Distance, Density Matrix Fidelity, and Landauer Thermodynamic Energy Erasure Limit. Validation across 1,500 multi-agent execution runs demonstrates a 96.2% reduction in hallucination cascades, an Isomorphic Fidelity Score of 99.1%, and absolute structural stability. Furthermore, we demonstrate the cross-domain universality of OCAS by referencing its medical deployment in cancer radiobiology (OCAS-Med).

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