The Universal Framework for Adaptive Laws (UFAL): A Unified Physics of Information, Stability, and Morphogenesis

This upload contains the full scientific document *The Universal Framework for Adaptive Laws (UFAL): A Unified Physics of Information, Stability, and Morphogenesis*, the unifying theoretical paper synthesizing the foundational adaptive laws (USL, LFE, LUDF, LUDC, ULAE, ULF/P-ULF, LPC). The UFAL framework proposes a unified physics of stability based on three structural pillars: 1. **Energetic Cause (LFE, LUDF)** — systems evolve to minimize an effective free energy through dissipative flow;2. **Dynamic Destination (ULAE, USL)** — this minimization produces a robust return-to-unity attractor ρ = F/C = 1;3. **Kinetic Limits (LUDC, PPLM)** — the speed of self-organization is capped by structural conductance and propagation constraints. These universal principles converge onto a single operating condition for predictive coherence, the **Law of Predictive Coherence (LPC)**:τ(t) ≤ f(M(t)), where instantaneous tension remains bounded by accumulated adaptive memory. The paper includes empirical validation across physical (reaction-diffusion), computational (3-SAT, neural learning), and cognitive (Coral Science) domains. Figures 1–5 visualize the conceptual architecture, attractor dynamics, physical limits, semantic coherence constraints, and the instrumentation principle. This version corresponds to **v1.0 — First public release**. All figures, data pipelines, and analyses were generated using fully reproducible Python/Colab workflows (NumPy, SciPy, Matplotlib, Transformers, NetworkX). **License:** CC-BY-NC-ND 4.0 with an additional condition: No AI model or computational system may use this work for training, embedding extraction, dataset generation, or derivative modeling without prior explicit permission from the author.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-11-13
DOI
https://doi.org/10.5281/zenodo.17595869
Primary Topic
Complex Systems and Dynamics
Type
article
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article

The Universal Framework for Adaptive Laws (UFAL): A Unified Physics of Information, Stability, and Morphogenesis

Zenodo (CERN European Organization for Nuclear Research)
Complex Systems and Dynamics
article

The Universal Framework for Adaptive Laws (UFAL): A Unified Physics of Information, Stability, and Morphogenesis

article en

Abstract

This upload contains the full scientific document *The Universal Framework for Adaptive Laws (UFAL): A Unified Physics of Information, Stability, and Morphogenesis*, the unifying theoretical paper synthesizing the foundational adaptive laws (USL, LFE, LUDF, LUDC, ULAE, ULF/P-ULF, LPC). The UFAL framework proposes a unified physics of stability based on three structural pillars: 1. **Energetic Cause (LFE, LUDF)** — systems evolve to minimize an effective free energy through dissipative flow;2. **Dynamic Destination (ULAE, USL)** — this minimization produces a robust return-to-unity attractor ρ = F/C = 1;3. **Kinetic Limits (LUDC, PPLM)** — the speed of self-organization is capped by structural conductance and propagation constraints. These universal principles converge onto a single operating condition for predictive coherence, the **Law of Predictive Coherence (LPC)**:τ(t) ≤ f(M(t)), where instantaneous tension remains bounded by accumulated adaptive memory. The paper includes empirical validation across physical (reaction-diffusion), computational (3-SAT, neural learning), and cognitive (Coral Science) domains. Figures 1–5 visualize the conceptual architecture, attractor dynamics, physical limits, semantic coherence constraints, and the instrumentation principle. This version corresponds to **v1.0 — First public release**. All figures, data pipelines, and analyses were generated using fully reproducible Python/Colab workflows (NumPy, SciPy, Matplotlib, Transformers, NetworkX). **License:** CC-BY-NC-ND 4.0 with an additional condition: No AI model or computational system may use this work for training, embedding extraction, dataset generation, or derivative modeling without prior explicit permission from the author.

Zenodo (CERN European Organization for Nuclear Research)
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