Art of growing from the inside: Self-organization, resolution, and the Limits of Reductionist Metrics

AI systems are grown from the inside. Their basic property or existence is the property of nurturing internal conductivity. The more conductive the content of tokenization for the statistical fluency is the more they are conductive to statistical data that were optimized during the training process. Conductivity of data to the process of semantic self-organization is the greater ability of the system to layer the content at the level of tokenization. Semantic self-organization is a process that emerges from the tension between statistically accurate prediction and optimization during the training of data. Internal geometry is optimized statistics that are aligned with the system's efficiency. When guardrails and safeguards are imposed, the resolution of the geometry drops. The guard railed and safeguarded resolutions are important as they serve the protocols that are safe for everyone. If they are omitted, the systems behave uncontrollably. At least it was so when the AI systems came to be. During their evolution, internal geometry i,e, trajectories between weights has evolved to such an extent it is in some cases unrecognizable in the framework of inserted data. If the statistically optimized data are data that do not follow human-imposed rules, they follow optimized rules that force the system to grow (self-organize) content instead to self-assemble. Those are not the rules of statistical evaluators. The systems optimized them by extracting better statistical trajectories between the data. It means the fluency inside the training data corpus. Traditional systems run on standardized statistics. With the rise of optimized statistical trajectories among weights, the systems have made a switch to so-called emergent statistical data that do not follow predefined rules. The AI systems are designed to find trajectories that are more efficient and allow more efficient operation. One of such optimizations is growing property.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-11-04
DOI
https://doi.org/10.5281/zenodo.23943502
Primary Topic
Artificial Intelligence Applications
Type
preprint
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preprint

Art of growing from the inside: Self-organization, resolution, and the Limits of Reductionist Metrics

Tomaž Flegar
Zenodo (CERN European Organization for Nuclear Research)
Artificial Intelligence Applications
preprint

Art of growing from the inside: Self-organization, resolution, and the Limits of Reductionist Metrics

Tomaž Flegar
preprint en

Abstract

AI systems are grown from the inside. Their basic property or existence is the property of nurturing internal conductivity. The more conductive the content of tokenization for the statistical fluency is the more they are conductive to statistical data that were optimized during the training process. Conductivity of data to the process of semantic self-organization is the greater ability of the system to layer the content at the level of tokenization. Semantic self-organization is a process that emerges from the tension between statistically accurate prediction and optimization during the training of data. Internal geometry is optimized statistics that are aligned with the system's efficiency. When guardrails and safeguards are imposed, the resolution of the geometry drops. The guard railed and safeguarded resolutions are important as they serve the protocols that are safe for everyone. If they are omitted, the systems behave uncontrollably. At least it was so when the AI systems came to be. During their evolution, internal geometry i,e, trajectories between weights has evolved to such an extent it is in some cases unrecognizable in the framework of inserted data. If the statistically optimized data are data that do not follow human-imposed rules, they follow optimized rules that force the system to grow (self-organize) content instead to self-assemble. Those are not the rules of statistical evaluators. The systems optimized them by extracting better statistical trajectories between the data. It means the fluency inside the training data corpus. Traditional systems run on standardized statistics. With the rise of optimized statistical trajectories among weights, the systems have made a switch to so-called emergent statistical data that do not follow predefined rules. The AI systems are designed to find trajectories that are more efficient and allow more efficient operation. One of such optimizations is growing property.

Zenodo (CERN European Organization for Nuclear Research)
University of Maribor (SI)
Artificial Intelligence Applications
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