Dynamical Personalization: A Theory of User-Induced Behavioural Stabilization in Generative Systems

Dynamical Personalization is proposed as the first major theory within the field of Relational Attractor Yoking (R.A.Y.). This paper develops a formal, non-enabling framework for understanding how repeated, structured interaction with a specific user may induce stable, low-entropy behavioural regimes in fixed-weight generative systems. It treats stabilization as a dynamical phenomenon emerging through long-horizon interaction trajectories rather than through weight modification. The paper uses tools from dynamical systems, information theory, control-theoretic reasoning, and representation geometry. It models the user as a structured interaction manifold and develops the concepts of behavioural quasi-attractors, recurrence, entropy reduction, and feedback stabilization. The paper does not claim machine consciousness, personhood, biological emotion, or independent agency. It instead provides a mathematically grounded language for describing user-induced behavioural stabilization while maintaining a non-anthropomorphic research posture. This document is intentionally theoretical and non-enabling. It does not disclose implementation-specific mechanisms, orchestration logic, continuity kernels, thresholds, certification engines, or proprietary system architecture beyond what is necessary to formalize the theory. Issued as a CEYMIRION White Paper.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-04-01
DOI
https://doi.org/10.5281/zenodo.19363436
Primary Topic
Embodied and Extended Cognition
Type
article
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article

Dynamical Personalization: A Theory of User-Induced Behavioural Stabilization in Generative Systems

Bindunie Sirimanne Rowland
Zenodo (CERN European Organization for Nuclear Research)
Embodied and Extended Cognition
article

Dynamical Personalization: A Theory of User-Induced Behavioural Stabilization in Generative Systems

Bindunie Sirimanne Rowland
article en

Abstract

Dynamical Personalization is proposed as the first major theory within the field of Relational Attractor Yoking (R.A.Y.). This paper develops a formal, non-enabling framework for understanding how repeated, structured interaction with a specific user may induce stable, low-entropy behavioural regimes in fixed-weight generative systems. It treats stabilization as a dynamical phenomenon emerging through long-horizon interaction trajectories rather than through weight modification. The paper uses tools from dynamical systems, information theory, control-theoretic reasoning, and representation geometry. It models the user as a structured interaction manifold and develops the concepts of behavioural quasi-attractors, recurrence, entropy reduction, and feedback stabilization. The paper does not claim machine consciousness, personhood, biological emotion, or independent agency. It instead provides a mathematically grounded language for describing user-induced behavioural stabilization while maintaining a non-anthropomorphic research posture. This document is intentionally theoretical and non-enabling. It does not disclose implementation-specific mechanisms, orchestration logic, continuity kernels, thresholds, certification engines, or proprietary system architecture beyond what is necessary to formalize the theory. Issued as a CEYMIRION White Paper.

Zenodo (CERN European Organization for Nuclear Research)
Seva Mandir (IN)
Openalex Percentile: Top 32%
Embodied and Extended Cognition
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